Decision Support Tool for Open Pine Systems East Gulf Coastal Plain Joint Venture.

Slides:



Advertisements
Similar presentations
Salt Marsh Restoration Site Selection Tool An Example Application: Ranking Potential Salt Marsh Restoration Sites Using Social and Environmental Factors.
Advertisements

Process – Resource Evaluation Design and perform a set of geographically based resource assessments Develop a methodology for prioritizing land according.
U.S. Fish & Wildlife Service Conserving the Nature of America Step 7 Identify Population Objectives Population Objective is set here.
Incorporating Climate Change Adaptation into INRMPs: Case Study Detachment Fallbrook Dawn M. Lawson SPAWAR SSC Pacific Carolyn Enquist NPN Rob Wolf TDI.
Systematic Conservation Planning, Land Use Planning and SEA in South Africa Sustainable development embodied in Constitution Secure ecologically sustainable.
Source: UNEP-WCMC Mapping of European Biologically Important Forests: concept and philosophy © Forest Task Force 2007.
Intact Forest Landscapes and Conservation Planning in Canada Prepared by: Ryan Cheng Global Forest Watch Canada.
The Florida Longleaf Pine Ecosystem Geodatabase A Cooperative Project between the Florida Forest Service and Florida Natural Areas Inventory.
Longleaf Maintenance Condition Class 1 Revised Draft for Longleaf Partnership Council Discussion Clay Ware April 7, 2014.
Project WILD. What the Public Should Know  Fish and wildlife resources are a public trust  Conservation and management of terrestrial and water resources.
U.S. Fish & Wildlife Service Conserving the Nature of America How does the surrogate species effort relate to other ongoing efforts? Birds of Management.
The Fundamentals of Conservation Design Image by Rex Johnson.
New England Cottontail Conservation Efforts Anthony Tur US Fish and Wildlife Service New England Field Office Concord, New Hampshire.
1 OLD GROWTH RETENTION. 2 Planning for Old Growth Retention Goals –Spatially locate and map OGMAs based on – maximizing biological effectiveness within.
Stepping Forward Population Objectives Partners in Flight Conservation Design Workshop April 2006 and Delivering Conservation.
Purposes of protected areas protect focal sp. / spp. –umbrella species protect biodiversity (spp. richness, endemism) protect large, functioning ecosystems.
JOINT VENTURES Celebrating 25 Years of Bird Conservation.
Bird Conservation on Private Lands Why Birds Matter.
Incorporating Ecosystem Objectives into Fisheries Management
Problem Definition Exercise. U.S. Fish & Wildlife Service General Summary Responses from ½ of those surveyed (n=14/31) Broad and narrow in scope Narrow.
Integrated Wetland Bird Management and Monitoring Initiative A Structured Decision Making Case Study.
LCC National Workshop Denver, CO March 28-29, 2012 Defining a Future Conservation Landscape in the Southeastern United States.
Burl Carraway. Purpose of Redesign Shape and influence use of forest land on a scale and in a way that optimizes public benefits from trees and forests.
1 America’s Longleaf Restoration Initiative Longleaf Maintenance Condition Class Definitions Update Clay Ware US Fish and Wildlife Service April 25, 2013.
Skunk Works Evaluation Tools: How do we know if we are having an impact?
Measuring Habitat and Biodiversity Outcomes Sara Vickerman and Frank Casey September 26, 2013 Defenders of Wildlife.
UPPER MONUMENT CREEK LANDSCAPE RESTORATION Allan Hahn – District Ranger Mike Picard – ID Team Leader.
Land Management Framework Project Objective 2 Overview November 22, 2006.
The Federal Resource Management and Ecosystem Services Guidebook Federal Resource Management and Ecosystem Services Guidebook nespguidebook.com ASSESSMENT.
Lower Mississippi Valley Joint Venture Management Board Meeting the Expectations and Challenges of Joint Venture Implementation Buras, Louisiana June.
Bird Conservation on Private Lands Proactive Conservation.
Wells National Estuarine Research Reserve Regional Conservation Partnership Gathering Raising and Spending Private Dollars November 15, 2010 Tin Smith.
Desktop Analysis Used To: Identify areas that meet certain criteria (e.g. contig forest 50 acres+, id gaps as well, or set lower value in urban area) Identify.
Designing Landscapes for Sustainable Bird Populations Structured Decision Making Workshop Atlantic Coast Joint Venture.
Characterization, Inventory and Monitoring of trends in indigenous livestock Dr. E. D. Ilatsia D. N. Kamiti 23-Oct-15Animal Breeding and Genomics Group1.
Managing Tree Species Diversity for Forest Resilience and Adaptability Andy MacKinnon - Research Ecologist -Coast Area Provincial Ecologists Nanaimo BC.
Ecological Landscape Analysis Project Background and Status.
Treatments and methods to manipulate stand structure suitable for fuel reduction.
Bear Creek OR 1976 Bear Creek OR Burro Creek AZ 1981 Burro Creek AZ 2000.
Conservation Targets To split or to lump? That is the question.
RIPARIAN PROPER FUNCTIONING CONDITION A Tool for Integrating the Fundamental Sciences into Collaborative Decision-Making.
CREEKS & COMMUNITIES Laura Van Riper – Social Scientist National Riparian Service Team.
A Pivotal Moment for Leaders Across the Gulf Coast States and Connected Communities Throughout the Country.
 Tier 1: Monitoring that will be done regardless of funding received:  Forest Service Preference is to focus on vegetation, e.g. Stand Structure including.
1 NOAA Priorities for an Ecosystem Approach to Management A Presentation to the NOAA Science Advisory Board John H. Dunnigan NOAA Ecosystem Goal Team Lead.
Biological Planning Process for Partners in Flight How to Translate Population Targets into Habitat Objectives at Eco-Regional Scales West Gulf Coastal.
The current state-of-play – protected areas Existing protected areas are not sufficiently comprehensive or adequate to achieve conservation targets. The.
Draft. NAWMP Progress Assessment You did what with our $3 billion?
and Landuse Change! Existing Landuse Possible Futures Scenario 1 Scenario 2 Scenario 3 Possible Futures Scenario 1 Scenario 2 Scenario 3 Projected Landuse.
Identifying Species Targets at the Landscape/ Seascape Scale.
Green Infrastructure Network Design & Optimization The Conservation Fund Will Allen, Director of Strategic Conservation
CAP Quick Tour Whooping Crane CAP – Kearney, NE.
George Peacock, Team Leader Grazing Lands Technology Development Team Central National Technology Support Center 2010 Southern Regional Cooperative Soil.
FOR MANAGING BIODIVERSITY AND SPECIAL PLACES
Designing Landscapes for Sustainable Bird Populations Structured Decision Making Workshop Atlantic Coast Joint Venture.
4FRI Biophysical Monitoring Indicators: Assigning Metrics of Success (or Failure) 4FRI Landscape Strategy & Science and Monitoring Working Groups –
Collaborative in Conservation An Initial Framework and Example Nick Salafsky Foundations of Success & Conservation Measures Partnership *** Note: This.
MAKING SMART CHOICES How to think about your whole decision problem Arif Altaf Southwest High School, 2016.
Implementing a Dry Forest Strategy in Late-Successional Reserves: the Wenatchee Experience Bill Gaines, USFS And Jeff Krupka, USFWS.
Michaela Foster 1, Dr. Fred Cubbage 1, Dr. Nils Peterson 1, and Dr. Jerry McMahon 2 North Carolina State University 1, DOI Southeast Climate Science Center.
Prioritizing Species for Biological Planning in the North Atlantic Landscape Conservation Cooperative (NALCC) USFWS Region 5 Strategic Habitat Conservation.
Landscape Conservation Strategy
2A. Develop a Formal Action Plan: Objectives
Large-scale Ecology Interacting ecosystems
WORKSHOP 17th Sept 2008 EUROPEAN COMMISSION
Analysis to Inform Management
Conservation Targets the building blocks
Delivering Conservation
Establishing a Conservation Area by
Conservation Targets the building blocks
Presentation transcript:

Decision Support Tool for Open Pine Systems East Gulf Coastal Plain Joint Venture

2 What is the problem? Context – Who are the decision makers? – Under what authority do they act? – Who else has influence on the decision? Nature of the decision Timing and frequency Biological planning - Ecological context

3 Open Pine Decision Support Tool Problem: Prioritize areas within the East Gulf Coastal Plain Joint Venture boundary for strategic conservation of open pine ecosystems by partner agencies and stakeholders. – Conservation implementation on the selected areas is expected to result in target populations of birds associated with these ecosystems. – Selection of areas based on fundamental concepts of landscape ecology and conservation biology. – Encourage that longleaf pine be reforested wherever practical and appropriate. – Updated periodically as new data become available. Biological planning - Ecological context

4 Dividing the problem Problem 1 : Identify a group of birds (focal species) associated with open pine systems that represent co-occurring species, are a reliable tool for biodiversity assessment, and are sensitive to resources, area, connectivity, and natural processes. Problem 2 : Identify priority areas for conserving and restoring open pines systems that satisfy criteria for quantity, configuration, and location to achieve target populations of the umbrella species. Biological planning - Ecological context

5 What are the objectives? Write it down (avoid “group think”) Convert concerns to succinct objectives – Example: Rank bird species Separate means from ends – Means: Rank priority of birds using open pine systems – Ends: Identify focal bird species for open pine systems Clarify each objective – Identify the most sensitive species in terms of resources, area requirements, connectivity, and natural processes.

6 Objectives Started with an initial list of priority species Identified critical resources they represent – Habitat structure – BA, density, stand age, etc. – Large area requirements – Connectivity requirements – Natural processes – fire frequency and season Resources ≈ habitat “objectives” – Describe the outcome of using focal species Biological planning – Species Selection/Habitat Relationships

7 Creating alternatives Ask how you can best achieve the objectives Challenge constraints Avoid “psychological traps” – Anchoring on initial values – Salient examples – Sunk costs Think on your own Learn from experience – Adaptive management – Requires monitoring & evaluation Biological planning – Species Selection/Habitat Relationships

8 Alternatives Developed a list of focal species … most sensitive species in terms of resources, area requirements, connectivity, and natural processes… Each species ≈ alternative for conservation planning – Looking for the suite of species that best represents the important habitat attributes Biological planning – Species Selection/Habitat Relationships

9 What are the consequences? Species Habitat Characteristics Tree densityBare GroundWater depth Canopy Closure Hetero- geneity A B 8847 C 8577 Assess the alternatives with respect to the objectives Can be qualitative or quantitative Requires an underlying model Biological planning – Species Selection/Habitat Relationships

10 Assessing consequences Focus on distinguishing objectives – For tree density and heterogeneity - A ≈ B ≈ C – Focus on others Biological planning – Species Selection Species Habitat Characteristics Tree densityBare GroundWater depth Canopy Closure Hetero- geneity A B 8847 C 8577 Biological planning – Species Selection/Habitat Relationships

11 Assessing consequences Dominated alternatives – Eliminate alternatives (species) that are clearly inferior – A > B on objectives 2, 3, & 4 Eliminate B from consideration Biological planning – Species Selection Species Habitat Characteristics Tree densityBare GroundWater depth Canopy Closure Hetero- geneity A B 8847 C 8577 Biological planning – Species Selection/Habitat Relationships

12 Assessing consequences Make even swaps Objective 2 – – Amount of bare ground twice as important as canopy closure Comparison: – A.2 > C.2 (|A.2 – C.2| = 9-8 = 1) – A.4 < C.4 (|A.4 – C.4| = 7-6 = 1) – 2*|A.2 – C.2| > |C.4 >A.4| A is clearly the better alternative Biological planning – Species Selection Species Habitat Characteristics Tree densityBare GroundWater depth Canopy Closure Hetero- geneity A B 8847 C 8577 Biological planning – Species Selection/Habitat Relationships

13 Assessing consequences Habitat Characteristics Species Low % Canopy Cover Diverse, Herb- aceous Under- story Low Basal Area/ Tree DensityOld treesSnags Large Patch Size High Fire Frequency Growing Season Fire Bare Ground BASP XXXXX BRNU XXX HESP XXXXX NOBO XXXXXX RCWO XXXXX AMKE XXXXX Priority species (alternatives) – rows Habitat attributes (objectives) – columns Biological planning – Species SelectionBiological planning – Species Selection/Habitat Relationships

14 Assessing consequences Habitat Characteristics Species Low % Canopy Cover Diverse, Herb- aceous Under- story Low Basal Area/ Tree DensityOld treesSnags Large Patch Size High Fire Frequency Growing Season Fire Bare Ground BASP XXXXX BRNU XXX HESP XXXXX NOBO XXXXXX RCWO XXXXX AMKE XXXXX Priority species (alternatives) – rows Habitat attributes (objectives) – columns Distinguishing objectives differ among the alternatives Biological planning – Species SelectionBiological planning – Species Selection/Habitat Relationships

15 Assessing consequences Dominated alternatives – Same outcome for each attribute – Mapping same habitats Habitat Characteristics Species Low % Canopy Cover Diverse, Herb- aceous Under- story Low Basal Area/ Tree DensityOld treesSnags Large Patch Size High Fire Frequency Growing Season Fire Bare Ground BASP XXXXX BRNU XXX HESP XXXXX NOBO XXXXXX RCWO XXXXX AMKE XXXX Biological planning – Species SelectionBiological planning – Species Selection/Habitat Relationships

16 Assessing consequences – Basis Preference to high priority species Unidentified attributes? Revisit the objective – to identify important characteristics Unlike the other species HESP use wet sites in “lower” coastal plain and bogs in “upper” coastal plain. Habitat Characteristics Species Low % Canopy Cover Diverse, Herb- aceous Under- story Low Basal Area/ Tree DensityOld treesSnags Large Patch Size High Fire Frequency Growing Season Fire Bare Ground BASP XXXXX BRNU XXX HESP XXXXX NOBO XXXXXX RCWO XXXXX AMKE XXXX Biological planning – Species SelectionBiological planning – Species Selection/Habitat Relationships

17 Assessing consequences – Basis Preference to high priority species Unidentified attributes? Revisit the objective – to identify distinguishing characteristics Unlike the other species HESP use wet sites in “lower” coastal plain and bogs in “upper” coastal plain. Habitat Characteristics Species Low % Canopy Cover Diverse, Herb- aceous Under- story Low Basal Area/ Tree Density Old treesSnags Large Patch Size High Fire Frequency Growing Season Fire Bare Ground Wet Savannah / Bogs BASP XXXXX BRNU XXX HESP XXXXXX NOBO XXXXXX RCWO XXXXX AMKE XXXX Biological planning – Species Selection/Habitat Relationships

18 Open Pine Decision Support Tool Problem 1 : Identify a group of birds (umbrella species) associated with open pine systems that represent co-occurring species, are a reliable tool for biodiversity assessment, and are sensitive to resources, area, connectivity, and natural processes. Problem 2 : Identify priority areas for conserving and restoring open pines systems that satisfy criteria for quantity, configuration, and location to achieve target populations of the umbrella species. Conservation Design – Desired Landscape Configuration

Conservation design guidelines 1. Large reserves are better than smaller ones; 2. One larger reserve is better than several small ones; 3. Reserves that are close together are better; 4. Individual reserves should be equidistant 5. Reserves connected by corridors are better; 6. Circular reserves are better than elongated ones. Diamond, J.A The island dilemma: lessons of modern biogeographic studies for the design of natural reserves. Biological Conservation 7:

Conservation Design – Desired Landscape Configuration 20 Prioritization Objectives 1. Capitalize on recent restoration and management efforts 2. Restore on appropriate sites. 3. Encourage long-term conservation stewardship and connectivity 4. Existing and potential habitat for priority species – Connectivity to existing open pine (longleaf) systems 5. Areas where frequent fire can be used as a management tool 6. Areas connective to existing source populations 7. Sufficient habitat to meet population objectives

Conservation Design – Desired Landscape Configuration 21 Prioritization Objectives 1. Capitalize on recent restoration and management efforts 2. Restore on appropriate sites. 3. Encourage long-term conservation stewardship and connectivity 4. Existing and potential habitat for priority species – Connectivity to existing open pine (longleaf) systems 5. Areas where frequent fire can be used as a management tool 6. Areas connective to existing source populations 7. Sufficient habitat to meet population objectives

22 Priority model Combine densities to map priority for each species Limiting factors (*) – Suitable longleaf sites (S) – Potential to use fire (F) Compensatory factors (+) – Putative source populations (P) 1 – Public lands (L) – Distance to potential habitat (H) 1 1 Species specific data Conservation Design – Desired Landscape Configuration

23 Prioritizing areas Objectives Limiting or Compensatory Capitalize on recent restoration and management efforts A C Restore on appropriate sites.S L Long-term conservation stewardshipL C Existing and potential habitat for priority speciesH C Frequent use of fireF L Near source populationsP C Priority = S*F*(A+P+L+H) Conservation Design – Decision Support Tool

24 Species priorities Conservation Design – Decision Support Tool

25 Overall Priorities Conservation Design – Decision Support Tool

26 Alternatives |Sufficient area Efficacy of Alternative Models (total density) ObjectivesABC Build from existing open pine (longleaf) systems Existing open pine Capitalize on recent restoration and management efforts Recent projects Restore on appropriate sites. Suitable sites Long-term conservation stewardship Public lands Existing and potential habitat for priority species Potential habitat Frequent use of fire Burnable area Near source populations Large tracts of potential habitat Meet population goals Given Conservation Design – Decision Support Tool