Ten Tornadoes from Wireless Convergence ————————————— Opportunities for Australia’s CIO Internet Innovators Four Seasons Hotel, The Rocks, Sydney February 23, 2004 Presented by Alex Lightman CEO, The University.

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Transcript Ten Tornadoes from Wireless Convergence ————————————— Opportunities for Australia’s CIO Internet Innovators Four Seasons Hotel, The Rocks, Sydney February 23, 2004 Presented by Alex Lightman CEO, The University.

Slide 1

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 2

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 3

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 4

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 5

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 6

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 7

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 8

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 9

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 10

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 11

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 12

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 13

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 14

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 15

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 16

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 17

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 18

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 19

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 20

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 21

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 22

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 23

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 24

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 25

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 26

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 27

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 28

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 29

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 30

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 31

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 32

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 33

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 34

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 35

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com


Slide 36

Ten Tornadoes from
Wireless Convergence
—————————————

Opportunities for Australia’s
CIO Internet Innovators
Four Seasons Hotel, The Rocks, Sydney
February 23, 2004
Presented by Alex Lightman

CEO, The University Network
Chairman, Charmed Technology
Conference Chairman, IPv6 Summits in North America
Founding Director, The 4G Society

Opening Thought

We need to engineer a global
industry consensus on wireless
convergence to improve the
quantity, quality, variety,
simplicity, profitability, and
security of customer
communication experiences
while also improving civilization
for all humanity.

Television

Electricity

(1926)

(1873)

Percentage of Ownership

100

Microwave
(1953)
80

Radio
(1905)

PC
(1982)

Telephone

(1876)

VCR
(1952)

Automobile
(1886)

60

40

20

0

Internet
(1983)

20

40

60

80

Years Since Introduction

100

120

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

ISDN

3G/Mobile Internet
MMM

WAP

Internet

PSTN

PC-WAN

PC-LAN
PC/Servers
desk top computing

WWW

New
Telecoms
Industry

Carrier class

The Converged
Industry

Computer Industry
main frames

Media Industry

electronic
publishing and
entertainment

mobility
2G/2.5G/EDGE
Wireline

Telecom
Industry

3G/mobile Internet
MMM

New
Telecoms
Industry
InternetCarrier
class
PC-WAN
WWW

ISDN

WAP

PSTN

PC-LAN
PC/Servers
desk top computing

The Integrated
Industry

Computer Industry
main frames
electronic
publishing and
entertainment

Media Industry
Consumer Electronics
White Goods Industry
Car - Airline Industry

Revised Technology Adoption Life
Cycle

34%
Early
majority
2.5 %
Innovators

13.5%
Early
adopters

34%
Late
majority
16%
Laggards

New Service Revenue from Tornadoes

Future Service Revenue
Available New Service
Revenue
Standard Best-effort
Old/Existing
ServicesIP Services
Operational Savings
Time
Now

20 Wireless Apps from 20 Countries

1. South Africa: SMS for every bank or
credit transaction; dropped credit card
fraud over 30%.
2. Finland: Just in time dentist (SMS goes
out when someone cancels to people
who are in the area and want
discount)
3. Hong Kong: Horse breeding/racing, a la
Tamagotchi egg, game w/ real world
counterpart.

20 Wireless Applications in 20 Countries

4. New Zealand: points awarded for
watching television (TV 2, SMS)
5. Korea: Waiting tones (heard by caller to
your telephone)
6. Austria: 3 Visuell, bundling of SMS,
MMS, and video w/o voice for hearing
impaired.
7. Philippines: Transfer minutes from one
customer to another.
8. United States: Automated calling from
politicians for donations (45+ states)

20 Wireless Applications in 20 Countries

9. Japan: Access traffic web cams and
average speeds for various drive
routes.
10. Estonia: pay for parking via mobile
(already over 1/3rd of all paid parking).
11. Australia: Mobile check in@Virgin
Blue
12. England: Shazam music identifying
service
13. Scotland: Find the pub showing your
team’s game on big screen

20 Wireless Applications in 20 Countries

14. Belgium: SMS to TV shows (global)
15. Denmark: Withdraw cash from ATM
via mobile at Spar Bank.
16. Canada: UPS will track package and
send SMS updates on delivery.
17. Netherlands: MMS to postcard, via the
post office (about $3 Australian)
18. Iceland: Pay for Wi-Fi w/ mobile.
19. Croatia: medical alerts via SMS
20. China: Imaginary girlfriend/boyfriend;
gets angry if you don’t give flowers!

Ten Tornadoes

1. IPv6 (Internet Protocol version 6)
2. IEEE 802.11x (Wi-Fi)
3. RFID (Radio Frequency IDentification)
4. VoIP (Voice over Internet Protocol)
5. HD over IP (High Definition over IP)
6. AR (Augmented Reality)
7. Sensornets
8. Home Networking
9. Wearable computing
10. 4G

IEEE 802.11b, 802.11a, 802.11g
 First true wireless broadband (11 Mbits/sec gives
effective rate of 2 Mb/sec for b, in ISM unlicensed
band around 2.4 GHz). 802.11a is 54 MB/sec gives
12-15 Mb/sec., but 5.7 MHz is not ISM in every
country, so 802.11g gives rate of a. in the b.
spectrum). 802.11e for QoS, 802.11i for security,
802.11f for IAPP. Internet Access Point Protocol.
MAC extensions early 2003, implementations by
mid 2003.

Conservative at 100 Billion/Year?
10 TU

Metcalfe’s Law: The value of a
network increases
exponentially with the number
of nodes on the network

1 TU

1/Consumer
Appliance

100 BU
10 BU

1/Object

Potential

1/Human
1/Computer

Current
Penetration

1 BU
100 MU

10 MU
Cell Phones

Wi-Fi

Bluetooth/
ZigBee

RFID

Source: Deloitte & Touche, .. Gilder / Forbes Telecosm Conference 2003

IPv6
features

3.4*1038 unique addresses available
Stateless autoconfiguration
Security: authentication and
encryption
Mobility management

Prediction: New world record for growth for
IPv6 2004-2009
Multiple ways to grow million-fold in 5 years!
* From 500 nodes to 500 million.
* From one consumer application (Microsoft’s
http://www.threedegrees.com) to one
million.
* Million-fold increase in packets.
* Million-fold increase in percentage of Internet
traffic vs. IPv4. (From 0.000001% today!)

Powers of IPv6













Power of Numbering
Power of Sequencing
Power of Ranking
Power of Naming
Power of Leading
Power of Granularity
Power of Bounding
Power of Finer Address (from “c/o General Delivery to street to 5
digit zip to 9 digit zip to 128 digit zip)
Power of Slapping on Labels and Instructions
Power of Containerized Cargo
Power of Tight Targeting
Power of Better Modeling and Simulation

DoD IPv6 TransitionConcept
At a first level:
IA

Addressing
Plan

Transition Req’ts
Strategy Engineering Assessment

Initialization

IPv6 Native

IA/
Firewall
Capabilities

Application
DoD
Dual Stack
Software
Implementation Capable
Begin
Weaning
IPv4

Full IPv6
Integration

Evaluate
Transition
Mechanism

COTS v6
Network SW

Network
Early Adopters

FY04-05

Network
Management
Tool Int.

Switch/Router
ASIC
Functionality

Pilot Core
Networks
Dual Stack

Pilots

Coexistence

Establish
DNS
Root

FY05-06

IPv6
Protocol Suite
Completion

IPv6
Functional
Matching

Dual Stack
End-To-End

Pilots

Application
Core
Conversion
Implementation
Guidelines

DNS
Mod

FY03-04

FY06-07

Edge
Networks
IPv6 Native

Core Network
IPv4
Tunneling

Core
Networks
IPv6 Native

All

Test & Analysis

DoD
Costing

DoD IPv6
Policy
Pilots

Acquire IPv6
Address Space

~ FY07-9
& Beyond

Need to define next level of details and integrate
in IA needs, low bandwidth environment, QOS,
mobility, convergence …..

We Are On The Verge of A Commercial Explosion

Personal computer

Access to any data
Ubiquitous

Internet

Portable processing power

Telecommunications

Personal electronics

Service economy

4G

Intuitive, augmented reality
interfaces
Context / location aware

Simplifying and enriching
people’s lives

Defining 4G
 4G networks are networks that

provide ubiquitous broadband, peer-topeer wireless access to the Internet via
IPv6.

The Planetary Grid 4GSociety.org

 4G services

are multi-rate,
informational and multimedia wireless
services that provide end-user
terminals/sensors with access to any
other authenticated peer-to-peer node
on the planetary grid.

 4G radios are transceivers that

provide data transmission at either 10100 Mbps/user short-range (100
meters) transmission or >1 Mbps longrange (1-10 Km) transmission.

 Many 4G basestations and end-user

terminals/devices will have the added
feature being programmable radios
through the use of wideband (400 MHZ
– 6 GHZ) software defined radios.

Source: Larry Smarr, UCSD

The 4G Technology Menu


IPv6 (128-bit address space vs. today’s 32-bit address space)




P2P, trillions of addresses, stateless autoconfiguration,
sensors, Jumbograms, mandatory IPSec
Short-Range Low-Power, Broadband Wireless Technologies




Medium-Range, Medium-Power Nomadic/Full Mobility
Broadband Wireless Technologies




Amateur radio, police/public radio, military, mobile
communications

Very Low Power, High-Performance CPU embedded processors




Base-stations, end user computer terminals, handsets

Software Defined Radios [chips, boards, subsystems]




OFDM, I-Burst [Arraycomm], OFDM+CDMA [FLARION]

Smart Antennas and spatial processing




UWB, CDMA, Dynamic Chaos, W-LAN 802.11a,g,b

Basis of software defined radios and intelligent sensors

Wearable computer peripherals



Software remembrance agents, head-up displays, various
input devices, wearable computer clothing

Microsoft’s advanced R & D discovery
Dan Rosen, former Dir of Adv R & D
for Microsoft: “The most valuable
thing we’ve learned is that in the
future everything that costs over $25
except food will be connected to the
Internet.”
4G is about the convergence of
everything, not just of wireless, and
therefore a grand consensus of ALL
industries must be sought.

MultiSphere Level Concept
Systems beyond 3G will cover different communication relations

 The PAN

 The Immediate
Environment

 Instant Partners

 Radio Accesses : Interconnectivity

Source: IST WSI Project

 CyberWorld

Multiservice Overlay Networks
Today

Future

Single-service networks

Multi-service networks

Services
Content

Servers

LAN (Data)

GSM

Fixed Telephony

Radio/TV

Communcation

Transport, Switching & Access Networks

Content

Control

IP Backbone Network

Access

Access
Access

What is a SensorNet?
 Sensors
Physical, Chemical, Biological, Imaging,…

 Sensor Platform
Computing, Power, Storage, Radios, …

 Telecommunications Infrastructure
Wired, Wireless, Internet, …

 Sensor Arrays
Homogeneous, Inhomogeneous, Ad Hoc, …

 Layered Software
 Backend Data Systems

The New Powers of Ten
Time

Platform(s)

Network Operations Model

1960-1980

Mainframe/
IBM era

10:1 people/machine ratio

1970-1990

Minicomputer/
DEC era

1:1 people/machine ratio

1980-

Workstation/
PC era

1:10 people/machine ratio

1990-

Enterprise networks/ 1:100? people/machine ratio
Cisco era

2000-

Broadband packet
networks ?

Source: Paul Johnson

1:1000? people/machine ratio

Old network
management
systems were
single vendor
solutions optimized
for cost in rigid fiveyear preplanned
networks.

New network
operations systems
must be designed
for adaptability and
change (new
equipment, multiple
vendors, new
service offerings/
provisioning).

1000’s of subscriptions/person

 Given Imaging’s camera/sensor pill that you
swallow, w/ data recorded onto a hiptop
Personal Black Box.
 Medical Microelectronic Machines (later
nanodocs) tied to NIH databases doing realtime assessment against millions of high
resolution medical records, each with IP
address.
 Localizers as described in Vernor Vinge’s A
Deepness in the Sky will link in and out of
body.
 The value of curing cancer, heart disease
approx. $50 trillion each. Milken Institute.

4G Wireless: >40-150 Mbps Transmitters

High-Mobility

$0.30 - $20/Mbytes

$0.01-$0.07/Mbytes

Vehicular

802.16e Mobility

2G
Pedestrian

GSM,
cdmaOne
PDC

2.5G

3G

GPRS,
EDGE,
CDMA2000 1X
144 kbps

W-CDMA

Multimedia Data, Location Services,
Augmented Reality, Music/Video,
Voice over IP, Remote Control

Software Defined Radio Opportunity
Early 4G Systems

R4 (2.3 Mbps), R5 (14.4 Mbps)

802.16a FBWA)

CDMA2000 1x
EV-DO (2.4 Mbps), EV-DV(3 Mbps)
802.11a 802.11g
HPSDA
802.11b
54 Mbps

4G

Low Mobility

(2004 –2010)

Portable

DECT/Cordless
Phones

Bluetooth

802.11b
2-11 Mbps
Smart Antennas

760 Kbps

56K Modems

Fixed

E1/T1 Lines

802.15a UWB PAN

xDSL/Cable

1.5 – 20 Broadband Fixed Wireless Access T3 Lines
Mbps

1.0
0.01
0.1
10
Source: Alex Lightman & William Rojas Brave New Unwired World, John Wiley & Sons: 2002

100

Potential of 4G begins to be realized as access networks migr
Equipment:
IPv4
(public or private)

Cisco, IBM, Nortel,
Juniper, Fluke, Lucent,
NEC, Fujitsu, Hitachi,
Nintendo, Telia,
Compaq, Sega, 3Com

WLAN

DSL

RAS

ISP
RAS

ER
ATM/FR

IPv6

RAS

between
access systems

IPv6
(public or private)

ER/FW

SDH/DWDM

Cable

RAS
IP over ATM

3G RAN

3G RAN

3GSGSN
3GSGSN

IPv6
all-IP
Packet Core

3GGGSN

3GSGSN

3G RAN

Source: Nokia, Native Inc., Juniper Networks

Network Connection IP over DWDM
GW
PSTN

Note: NTT, IIJ, & Singtel have already converted
their IP switching fabric to IPv6
IP organizations:
www.ipv6forum.net, www.usipv6.com, www.v6pc.jp,
www.ipv6.org

4G as a Seven Layer Integrator
Seven Layers of 4G
7. Wireless Broadcast Layer
6. Cellular Layer
5. BFWA,W-LAN, MBWA
4. Wireless Gateway Layer
3. Wireless Personal Pico-Net Layer
Telecom/Internet Service Providers
Cellular Operators
Ad-Hoc Campus/Wireless LAN Providers

4G Personal Communicator
Voice, fax, data
MP3 Player
PDA
Storage
Voice Recorder
Language Translator
Video Camera
Health Monitor
Augmented Reality(AR)
AR Game Player

2. Wireless/Wireline InfoSensor (Localizers)
Layer

1.

Wireline Transport Layer
(Optical Fiber, DWDM,
Ethernet – Fiber Hybrid Coaxial)

User 1
1 to 40 Mbps Radio Link

Home or Office

InfoSensors
Hitachi RFID 2.4 GHZ
Chip 0.30 mm2

Source: IBM Research

The European Commission on 4G

Fourth
Generation

Satellite
Broadband
S-UMTS
Satellite
DVB-S

High Altitude Platform

Body-LAN

DVB-T

IPv6

DAB

Personal
Area Networks

Broadband
Bluetooth
W-LAN

EDGE

Broadcasting

GPRS

GSM

Broadband W-LAN Local Area Networks
FWA
IR
UMTS ++ MBS 60
MWS

UMTS

Fixed Wireless Access
MBS 40

Cellular
Quasi-Cellular

xMDS

Wireless Local Loop
©JPER

ATLICATIONS the size of WWW
Atlas application, supports the world
Voice ($500 billion annually)
Radio (add personalization, location)
Television (Every show ever made)
Medical Monitoring
Simulations
High resolution Location Based
Services, including security

IPv4 Internet

IPv6 Internet
10 Killer Apps bigger than the Web!!!
ITS

WEB/Email
3G

VoIP

P2P
Ad Hoc

HN

GRID

Deployment
Rate
Slow but Steady

Closing Thought
 The future is here.
 It’s just not evenly distributed.
 William Gibson.

Alex Lightman
[email protected]

Closing Thought

Thank you!
Please stay in
touch.
Alex
Lightman

[email protected]

Tel. 310 717 7745.

You are invited to attend the next IPv6 Summit, June 14-18,
2004, Santa Monica, CA

www.usipv6.com