SAV Habitat Requirements and Restoration Targets: Technical Synthesis III Lee Karrh SAV workgroup chair MD-DNR.

Slides:



Advertisements
Similar presentations
Interior Columbia Basin TRT Draft Viability Criteria June, 2005 ESU & Population Levels.
Advertisements

Individual-based Models Three Examples
Chesapeake Bay Environmental Model Package A coupled system of watershed, hydrodynamic and eutrophication models The same package used for the 2002 load.
Differential Impacts of Climate Change on Spawning Populations of Atlantic cod in U.S. Waters Lisa Kerr, Steve Cadrin (UMass School for Marine Science.
Economics of Nitrogen and Water Quality Anthony Dvarskas Stony Brook University May 19,
The effect of UV-B radiation on coastal plant communities PIs: Evamaria Koch, University of Maryland Center for Environmental Science (UMCES), USA; Cesar.
Will The TMDL Result in Increased Benefits from Recreational Fishing? Doug Lipton Department of Agricultural & Resource Economics University of Maryland.
Carbon Cycle and Ecosystems Important Concerns: Potential greenhouse warming (CO 2, CH 4 ) and ecosystem interactions with climate Carbon management (e.g.,
Spatial and Temporal Variation of Epiphytic Growth on Zostera marina Tara Seely* and Mike Kennish** *Department of Earth and Planetary Science, Washington.
Chesapeake Bay Program Presented by: Elizabeth Mills, Heather Plumridge, Elizabeth Repko Possibilities, Problems, and Promise.
Moving to Horizontal Connections: Design Concept 2 Impacts: 1. What are the critical interactions among resources (and resource management) that will.
The Importance of Coastal Waters - Recent Reports National Coastal Condition Report National Coastal Condition Report Heinz Center’s State of the Nation’s.
Bay Barometer: A Health and Restoration Assessment of the Chesapeake Bay and Watershed in 2009 Factors Impacting Health Factors Impacting Bay.
U.S. Department of Interior U.S. Geological Survey Landscape-scale assessments of climate impacts to tidal wetlands along the northern Gulf of Mexico Michael.
Incorporating Ecosystem Objectives into Fisheries Management
Open Oceans: Pelagic Ecosystems II
Climate Change: SEAFWA Thoughts? Ken Haddad, Executive Director Florida Fish and Wildlife Conservation Commission September 2007.
Adam M. Davis Center for Geospatial Data Analysis Indiana University, Bloomington, IN Studying geological controls on succession in an old field: Progress.
OPTIMAL STRATEGIES FOR ECOLOGICAL RESTORATION UNDER CLIMATE CHANGE Koel Ghosh, James S. Shortle, and Carl Hershner * Agricultural Economics and Rural Sociology,
Tuesday 11:00 – 1:50 Thursday 11:00 – 1:50 Instructor: Nancy Wheat Ecology Bio 47 Spring 2015.
Gulf of Mexico Alliance SIMOR Briefing June 9, 2009.
Thinking in Terms of Social- Ecological Systems: Connecting climate change impacts to human communities Miranda H. Mockrin Rocky Mountain Research Station.
Watershed Assessment and Planning. Review Watershed Hydrology Watershed Hydrology Watershed Characteristics and Processes Watershed Characteristics and.
Update on Chesapeake Bay Model Upgrade Projects Blue Plains Regional Committee Briefing November 30, 2004 Presented by: Steve Bieber Metropolitan Washington.
U.S. Department of the Interior U.S. Geological Survey Leetown Science Center Research in the Shenandoah Valley Presented to the Shenandoah Valley Natural.
Maryland Climate Change Commission Scientific and Technical Working Group Regional Assessment of Climate Change Impacts Metropolitan Washington COG Climate.
CoastalZone.com The Use of Ecological Risk Assessments in a Watershed Level Context Thorne E. Abbott CoastalZone.com.
A REVIEW OF BIOLOGICAL REFERENCE POINTS AND MANAGEMENT OF THE CHILEAN JACK MACKEREL Aquiles Sepúlveda Instituto de Investigación Pesquera, Av. Colón 2780,
Translation to the New TCO Panel Beverly Law Prof. Global Change Forest Science Science Chair, AmeriFlux Network Oregon State University.
Submerged aquatic vegetation (SAV) abundance and diversity in the tidal Potomac River and estuary By Nancy Rybicki, Jurate Landwehr, Edward Schenk, and.
science.com.
Consultation meetings: Jan 2005, Brussels, consultation meeting on topics for FP7 2-3 Feb 06, Brussels, Symposium in memoriam Anver Ghazi 17 Feb 06, Text.
Assessing Linkages between Nearshore Habitat and Estuarine Fish Communities in the Chesapeake Bay Donna Marie Bilkovic*, Carl H. Hershner, Kirk J. Havens,
1 The U.S. Climate Change Science Program Peter Schultz, Ph.D. Director Climate Change Science Program Office Peter Schultz, Ph.D. Director Climate Change.
A GLOBAL PERSPECTIVE ON THE LINKAGE BETWEEN EUTROPHICATION AND HYPOXIA Robert Diaz College of William and Mary Virginia Institute of Marine Science
Forest Ecology. What is forest ecology? Study of –Relationships between organisms and their environments –Interactions of organisms with one another –Patterns.
Assessment of Ecosystem Services in Galveston Bay Area Using InVEST Models Greg Guannel, Jorge Brenner, Joe Faries, Anne Guerry, Jennifer Proft, Jess Silver,
Northwest Power and Conservation Council Sep 12-13, Science Policy Exchange Habitat Issues.
Key information from FDOS Global distribution of plant communities as described by quantitative traits [and their association with phylogenetic composition??]
January 27, 2011 Summary Background on Delta Flow and Habitat Relationships Delta Stewardship Council Presentation by the Independent Consultant.
Effects of Nutrient Nonpoint Source Pollution on Seagrasses in Redfish Bay Kelly Darnell GISWR Fall 2009.
Evaluation of the Effectiveness of SAV Restoration Approaches in the Chesapeake Bay Response to a program review requested of STAC by the SAV Workgroup.
SAV Management Strategy 1 Title of Presentation Date Image or Graphic.
Outcome: Submerged Aquatic Vegetation Goal: Sustain and increase the habitat benefits of SAV in the Chesapeake Bay 2017 Target: 90,000 acres Target:
A Shallow-water Coastal Habitat Model for Regional Scale Evaluation of Management Decisions in the Chesapeake Region C. L. Gallegos, D. E. Weller, T. E.
NOAA Chesapeake Bay Office Fisheries Ecosystem Modeling Efforts Howard Townsend, Hongguang Ma, and Maddy Sigrist NOAA Chesapeake Bay Office National Ecosystem.
A Collaborative Approach to Assessing Watershed Conditions in Coastal National Parks Kristen Keteles, Cliff McCreedy, Jim Tilmant and Mark Flora.
Water Quality Indicators and Monitoring Design to Support the Albemarle-Pamlico National Estuary Program: A Progress Report Dean E. Carpenter and William.
Ecology: Human Impacts David Mellor, PhD Citizen Science Coordinator Virginia Master Naturalists.
Smithsonian Environmental Research Center. Temporal Changes in SAV Coverage Total # of Species Total No. of All Species Eurasian Watermilfoil Dominant.
Metrics and MODIS Diane Wickland December, Biology/Biogeochemistry/Ecosystems/Carbon Science Questions: How are global ecosystems changing? (Question.
Ecology --- primary definition The scientific study of how organisms interact with the natural world.
Climate Change and the Three R’s LGA Climate Change Summit Anita Crisp June 2008.
Next Generation Climate Related Standards (2013) K Middle School High School K-PS3-1. Make observations to determine the effect of sunlight on Earth’s.
DELAWARE NATIONAL ESTUARINE RESEARCH RESERVE Promoting stewardship of the nation’s coastal areas through science and education …
Workshop Recommendations: Putting workshop reports to use:  Biological research needs Cross-taxa responses Synergistic effects ( Ω, T, light, nuts) Long-term.
Chesapeake Bay Program
GREAT BAY and NEW HAMPSHIRE WATER QUALITY STANDARDS
Light and Primary Production in Shallow, Turbid Tributaries
Assessment of Ecosystem Services in Galveston Bay Area Using InVEST Models Greg Guannel, Jorge Brenner, Joe Faries, Anne Guerry, Jennifer Proft, Jess Silver,
CBP Update: Climate Change and the Chesapeake Bay TMDL
US Environmental Protection Agency
2025 Chesapeake Bay Climate Change Load Projections
Michael, B. D. , Trice, T. M. , Heyer, C. J. , Stankelis, R. M
Engineer Research and Development Center
Ecosystem Services from SAV in the Chesapeake Bay
Chesapeake Bay Program Climate Change Modeling 2
Chesapeake Bay Program Climate Change Modeling 2.0
SAV Restoration Review
“King Tide” on Sept. 29, 2015 Nag Marsh, Prudence Island, RI
Presentation transcript:

SAV Habitat Requirements and Restoration Targets: Technical Synthesis III Lee Karrh SAV workgroup chair MD-DNR

A brief history TechSyn 1 was published in 1992, –Largely water column based –Simple pass/fail evaluation of each habitat requirement (HR) –Fixed restoration depths (1 and 2 meter) TechSyn 2 was published in 2000 –Created a model to combine HRs –Attempted to model attenuation at the leaf surface –Evaluated light availability at the leaf surface for multiple restoration depths, as opposed to 1 or 2 meters only From: Batuik et al., 1992

Summary of TS1 and TS2 Habitat Requirements

Why is TS3 necessary? For direct restoration projects, even places that met existing habitat requirements had poor success The Watershed Model (version 5.3) did not adequately estimate observed SAV abundances in calibration runs using existing HRs Cerco, 2010

Pertinent conclusions from STAC review of SAV restoration Evaluate extremes of temperature and clarity rather than just average conditions; Consider the interacting effects of multiple stressors (particularly temperature, clarity and salinity) and temporal dynamics and sequencing Develop SAV restoration strategies that are responsive to climate change

Pertinent From STAC Review of SAV module of the Model SAV potential: A. Improve model relationships between TSS (particle size, organic content, etc.) and epiphyte loads (biofouling, periphyton). B. Test the ability of the model to duplicate case study areas where there have been observed improvements in habitat conditions and SAV resurgence. C. Quantify the effects of other stressors (salinity, sediment biogeochemistry) on SAV biomass dynamics. D. Incorporate multiple species (including non-native) potential with species-specific physiology into each SAV cell rather than generic SAV. E. Further develop SAV to habitat feedbacks. SAV area: A. Refine how bottom sediment properties affect species-specific SAV recruitment and survival. B. Improve simulations of year-to-year variations in SAV species-specific recruitment potential including colonizer species. C. Include biological disturbance components of mortality. D. Refine relationships between SAV canopy height and SAV light requirements.

TS3 will allow us to: Review current habitat requirements and water clarity standard and determine if they are stringent enough to allow for the resurgence of SAV. –Are 13% and 22% of incident light at the plant sufficient? –Revisit ambient nitrogen, phosphorous and chlorophyll habitat requirements in relation to anticipated reductions in loadings via TMDL/WIP process, provide guidance to Water Quality Standard development Improve modeling results for SAV growth in linked Watershed/Hydrodynamic Model (the Chesapeake Bay Model) –Modeling results to date have been too poor to incorporate into model runs Will global change require different habitat requirements in the future?

Revised/re-considered habitat requirements will improve direct SAV restoration (i.e. planting/seeding) –As recommend by STAC review of 2011 Revised habitat requirements will provide greater explanatory power when preparing SAV information for managers and the public (i.e. Bay Barometer, report cards etc.) Use ecosystem services evaluation –Evaluate effectiveness of TMDL/WIP process relative to SAV –Quantifying water quality feedbacks due to SAV to allow Chesapeake Bay Model to account for water quality improvement as SAV is restored (currently not a component of the Model) –Determine economic value of SAV for management and public informational products

Topics to be addressed SAV Restoration –SAV habitat requirements (light, sediments, waves) –Habitat criteria for established versus restored SAV beds –Impact of pioneer species on SAV resurgence/restoration –Feedbacks and resilience of SAV populations (genetics) and communities –Large versus small scale restoration –Shoreline hardening effects on SAV Global change –Temperature –Sea level rise, coastal erosion and sustainable shorelines –CO2 levels –Precipitation (variable river flow) and global dimming (incident light) Ecosystem services provided by SAV in Chesapeake Bay –Ecological functions of SAV (interactions with fisheries, nutrient uptake, carbon sequestration, wave/resuspension reduction, habitat value, improving habitats for other species, water quality challenges (i.e. DO improvements) –Economic impact of SAV serving the above functions Identification of knowledge gaps in SAV research, restoration and management

PARTICIPANTS Analysis/Synthesis Partners Tom ArnoldDickinson College Katia EngelhartUniversity of Maryland Center for Environmental Science, AL Maile NeelUniversity of Maryland College Park Chuck GallegosSmithsonian Environmental Research Center Brooke LandryMaryland Department of Natural Resources Mike KempUniversity of Maryland Center for Environmental Science, HPL Chris KennedyGeorge Mason University Evamaria Koch University of Maryland Center for Environmental Science, HPL Ken MooreVirginia Institute of Marine Science Bob OrthVirginia Institute of Marine Science Chris PatrickSmithsonian Environmental Research Center Nancy RybickiUS Geological Survey, Reston, VA J. Court StevensonUniversity of Maryland Center for Environmental Science, HPL Chris TannerSt. Mary’s College Lisa WaingerUniversity of Maryland Center for Environmental Science, CBL Don WellerSmithsonian Environmental Research Center Richard ZimmermanOld Dominion University RESOURCE MANAGEMENT Partners ????NOAA Chesapeake Bay Program Rich BatiukUS EPA Chesapeake Bay Program Michelle GomezUS ACE Baltimore District Rick AyellaMDE Lee KarrhMD-DNR Rusty ButtDEQ Leslie OrsettiDC Fisheries Anne SwansonChesapeake Bay Commission