Working together to restore North Carolina’s natural communities March 3, 2010 We shall:  Explain our vision,  Summarize our accomplishments,  Describe feedback we have received,  Present opportunities we.

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Transcript Working together to restore North Carolina’s natural communities March 3, 2010 We shall:  Explain our vision,  Summarize our accomplishments,  Describe feedback we have received,  Present opportunities we.

Working together to
restore North Carolina’s
natural communities
March 3, 2010
We shall:

Explain our vision,

Summarize our accomplishments,

Describe feedback we have received,

Present opportunities we have built,

Solicit guidance on future directions.
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Multi-institutional collaborative program.
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Established in 1988 to document the
composition and status of natural
vegetation of the Carolinas.
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Provides data,
data services, software development
and analysis to EEP
and monitoring firms.
* Document natural conditions with
high-quality reference plots.
2. * Derive site-specific restoration targets.
3. * Design site-specific restoration plan.
4. Implement the plan.
5. * Monitor change and trajectory toward success.
6. * Employ adaptive management as needed.
7. * Document the results.
1.
(* = Major CVS role)
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Detailed, justifiable, &
efficient generation of
restoration targets.
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State-of-the-art
predictions that satisfy
the most stringent
current and future
restoration guidelines.
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Tracking of individual trees
demonstrates compliance with
US-ACE requirements.
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Greater plant success through
selection based on past species
performance and site characteristics.
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Early detection of likely failure so that
corrective action can be taken.
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Robust and documented planning
that should be resistant to future
litigation by diverse interest groups.
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Optimized data collection procedures.
Consistency between years & monitoring firms.
Automated analysis, QA/QC, report generation,
& evaluation of plans.
Improved ease & efficacy of plant selection.
Early detection of project problems or success.
A methodology that is scalable
to more robust and challenging
regulation.
Optimized for field efficiency and
repeatability.
 Resources include manuals, datasheets
and a data entry and reporting tool.
 Scalable to meet future requirements.
 Complies with US-FGDC National
Vegetation Classification Standard.

Then print datasheets…
Quickly find stems
with the printed map.
Baseline data preprinted
Efficient format, pre-populated fields,
flagged errors, picklists of valid options, etc.
Table 7 Report: A plot-by-plot summary of the
most recent data with a summary for each year
Highlights plot or
year failing to meet
requirements!
Stem Disturbance
LS=Live Stake
P =Planted
T =Total Vegetation
This page shows 2 of
13 available reports
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Field and database training for practitioners.
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Feedback leads to improvement in sampling
protocol efficiency as well as database usability
and functionality.
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> 6000 High-quality reference sites
280 Natural community types with >= 4 plots
495 Natural community types with >= 1 plot
Available data include
- Species frequency
- Species importance
- Woody stem diameters
- Site data
- Soil data
- Maps of occurrences
- Descriptions
You asked -- What is gained from measurements
collected using the CVS-EEP Protocol?

Variables measured are mandated by EEP, not CVS.
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EEP initially required multiple types of
measurements because it was unclear
which ones would be most useful in
assessing stem success.

Available data from EEP Monitoring
Firms will now allow CVS to assess
the utility of each field measurement
(e.g., ddh, height, DBH).
Opp 1: Better, cheaper, more
defendable restoration targets
Phase 1 – Web tool for
documenting reference
conditions by NVC types
(partially implemented).
Phase 2 – Constrain NVC types
and plots by geographic region
(in development).
Phase 3 – Web tool for predicting a target from site
conditions (prototype complete -- future development).
http://cvs.bio.unc.edu
Physiognomic
Group
http://cvs.bio.unc.edu/vegetation.htm
Vegetation types classified
Critical environmental fields
defined
Restoration sites chosen and
environmental data collected
Restoration sites matched to
vegetation type
Planting list generated from
vegetation type species list
Data flow for identifying target
community and planting list
Internal decision tree showing
how site data predict community
Prototype tool
predicts target
vegetation type
based on site
data.
Planting lists
could be
automatically
generated from
community
data.
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Alternative to searching out reference areas
– just look them up in minutes in your office.
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Greater likelihood of selecting species that
will grow well at your site.
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More effective restoration – which is better
for our state and better for you.
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Better assessment & prediction of change,
success, and failure over time.
Automatic generation of reports for US-ACE.
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How is my project doing?
What is my risk of failure?
How did my project work out?
What am I getting into?
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CVS will develop a tool that draws on
multiple datasets to aid in selection
and evaluation of species for planting
designs. This will help:
 Design firms in selecting planting
materials,
 EEP in evaluating proposed
planting materials,
 Growers to better predict demand.
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Dataset 1: Community composition, as
documented in the Vegetation of the
Carolinas database,
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Dataset 2: Geographic distribution, as
documented in the SE Floristic Atlas,
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Database 3: Species
environmental tolerance,
as documented in the CVS
reference plot database.
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Examine the success of material (species,
source, size) used in earlier EEP projects
on similar sites.
Past success can be deduced from CVSmanaged data from monitoring studies.
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How many monitoring plots are needed?
Which plant attributes should continue to be
measured in the field?
How often should plots be monitored?
Should there be a
mixed monitoring
strategy for tracking
stems and observing
site-wide variation?
Larger ddh and taller height both
resulted in higher survival of stems.
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We built a model to predict survival based on
ddh and height. The model did little better
than a model based on height or ddh alone.
DBH does not
predict stem
survival until
stems reach
5 cm.
Height or Type
Current Requirements
DDH
Height
(mm units)
(cm units)
DBH
(cm units)
mm precision
cm precision
no
≥ 137 cm and < 250 cm tall mm precision
cm precision
cm precision
≥ 250 cm and < 400 cm tall no
10 cm precision
cm precision
≥ 400 cm tall
no
50 cm precision
cm precision
Live stake
no
cm precision
if ≥ 137 cm tall, cm precision
< 137 cm tall
Possible Revised Requirements
Height
DBH
Height or Type
(cm units)
(cm units)
< 137 cm tall
cm precision
no
≥ 137 cm and < 250 cm tall
cm precision
cm precision
≥ 250 cm
maybe??
cm precision
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Data being processed by CVS could be used
in various ways to make restoration and
monitoring more efficient and effective.
We could facilitate and enhance this process
with regular meetings of CVS with EEP,
US-ACE and ACEC firms.
CVS could reserve a portion of analysis time
for responding to issues raised at those
meetings.
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Potential return on investment:
Cost savings > $200K/yr … if continued.
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CVS is now prepared to develop state-of-theart tools that address key components
of the CVS-EEP vision.
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Tools currently available and those under
development would take advantage of the
results of our past CVS-EEP collaboration and
allow EEP and its monitoring firms to do a
significantly better job more quickly with less
risk and at substantially less cost.
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If EEP does not pursue these opportunities at
this time, key CVS staff will not be retained and
the described opportunities will likely vanish.
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Loss of the CVS-EEP partnership would result in
loss of data management & report generation.
Moreover, it would significantly increase costs
for both EEP and ACEC firms.
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Continuation of the CVS-EEP collaboration
would ensure ongoing maintenance of the
EEP-CVS databases for monitoring and
reference data and tools for their effective use.