Modeling habitat suitability for the European green crab using the ShoreZone mapping system

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Modeling habitat suitability for the European green crab using the ShoreZone mapping system Jodi N. Harney, Ph.D. and John R. Harper, Ph.D. Coastal and Ocean Resources Inc. Mary Morris, R.P. Bio. Archipelago Marine Research Ltd., Victoria, British Columbia Linda Shaw and Steve Lewis NOAA National Marine Fisheries Service, Juneau, Alaska South Prince of Wales Island, Misty Fjords National Monument

Outline Introduction to ShoreZone Coastal Habitat Mapping Habitat Capability Modeling: Green Crab in SE Alaska Potential applications in BC and WA South Prince of Wales Island, Misty Fjords National Monument

What is ShoreZone Coastal Habitat Mapping? Mapping approach that uses georeferenced aerial videography and photography collected at lowest tides of the year with visible light (usually spring and summer) to characterize physical and biological attributes of disscrete intertidal units both along-shore and across-shore, including: wave exposure intertidal flora and fauna geomorphology subtidal algae sediment texture some subtidal fauna Provides a spatial framework for coastal and nearshore habitat assessment on local and regional scales. Enables reasonable interpretations of organism occurrence in coastal and nearshore ecosystems.

ShoreZone Coastal Habitat Mapping Aerial survey flight path near Prince of Wales Island, SE Alaska Navigation trackline and imagery used to segment the digital shoreline into along-shore units

ShoreZone Coastal Habitat Mapping Mapping across-shore physical (geomorphic) attributes and BioBands

ShoreZone Coastal Habitat Mapping

Habitat Capability Modeling http://www.coastalandoceans.com/downloads/harney_greencrabreport_v2_ Aug07.pdf http://mapping.fakr.noaa.gov/website/shorezone/viewer.htm Photo courtesy http://wdfw.wa.gov/fish/ams/greencrab.htm Lynn Canal, SE Alaska

Habitat Capability Modeling Objective: Appraise the ability of shorelines to support green crab Rationale: Habitat attributes can be distinguished for green crab, rated in terms of importance, and enumerated by the ShoreZone coastal mapping data Assumption: Environmental variables not included in ShoreZone database are within the tolerable range of green crab. These include water temperature, salinity, currents, and biotic factors. Critical habitat attributes for green crab were determined by: Literature review and expert interviews using Delphi methodology Delphi approach to rank most critical factors Attribute queries identify distribution of shorelines capable of supporting colonization Application: Identify priority sites for monitoring and sites with vulnerable resources at risk

Are biotic factors in southeast Alaska the same as the west coast of Canada and the U.S.? Red Rock Crab Photo R. Shuman Photo courtesy http://wdfw.wa.gov/fish/ams/greencrab.htm Lynn Canal, SE Alaska

Habitat Capability Modeling European Green Crab, Carcinus maenas Critical habitat attributes mapped in ShoreZone Along-shore [Unit]: Protected wave exposure Wetlands and estuaries Mudflats and tidal flats Across-shore [XShr]: Fine sediment in lower intertidal Presence of eelgrass (ZOS) Presence of salt marsh vegetation (SAL)

Habitat Capability Modeling European Green Crab, Carcinus maenas Attribute queries identify distribution of potential habitat on regional scales SEYA SE Alaska Yakutat SEIC SE Alaska Icy Strait SEFJ SE Alaska Fjords W N S E Gulf of Alaska mudflats Mudflats Tidal flats and deltas Mapped shoreline (6,427 km) SE Alaska Shoreline tidal flats BioAreas and deltas = 315 km 70 0 70 140 Kilometers SESI SE Alaska Sitka and Outer Coast

Habitat Capability Modeling European Green Crab, Carcinus maenas Lynn LYNN Canal CANAL N W E S St. James St. James Bay Bay State State Marine Park SEFJ SE mudflats Alaska Fjords Bioarea supratidal grasses Mudflats Supratidal grasses Mapped shoreline SE Alaska Shoreline 2 0 2 4 6 Kilometers Protected wave exposures Mudflats in the lower intertidal Marsh grasses in the supratidal

Habitat Capability Modeling European Green Crab, Carcinus maenas St. James Bay Marine Park, Lynn Canal

QUERY WITH HABITAT CLASS Sand and gravel flat (BC_class 24) + {Eelgrass and Supratidal Marsh Vegetation*} Very protected estuary/wetland (Hab_class 63) + Protected estuary/wetland (Hab_class 53) + Semi-protected estuary/wetland (Hab_class 43) + Semi-exposed estuary/wetland (Hab_class 33) + ((*BC_CLASS=24) AND (*PUC Is Not Null) AND (*ZOS Is Not Null) AND (*HAB_CLASS='43' Or *HAB_CLASS='53' Or *HAB_CLASS='63' Or *HAB_CLASS='33')) OR ((*BC_CLASS=24) AND (*GRA Is Not Null) AND (*ZOS Is Not Null) AND (*HAB_CLASS='43' Or *HAB_CLASS='53' Or *HAB_CLASS='63' Or *HAB_CLASS='33')) OR ((*BC_CLASS=24) AND (*SED Is Not Null) AND (*ZOS Is Not Null) AND (*HAB_CLASS='43' Or *HAB_CLASS='53' Or *HAB_CLASS='63' Or *HAB_CLASS='33')) It can be Hab_Class 33, 43, 53 or 63 or BC_Class 24. Zostera must exist. And at least one of the following has to exists; Sedge, Puccinella or Grass * (Puccinella, Grasses, Sedges)

Query Without Habitat Class Eelgrass and Puccinella OR Eelgrass and Grass OR Eelgrass and Sedge ((*PUC Is Not Null) AND (*ZOS Is Not Null)) OR ((*GRA Is Not Null) AND (*ZOS Is Not Null)) OR ((*SED Is Not Null) AND (*ZOS Is Not Null)) Zostera must exist. And at least one of the following has to exists; Sedge, Puccinella or Grass This query gives broader areas.

Habitat Capability Modeling Regional Applications Alaska British Columbia ShoreZone Pacific Ocean British Columbia 37,000 km of mapped shoreline 5,183 km (16%) contains eelgrass (Zostera) 100 0 100 Kilometers Washington Testing models with species occurrence data

21 sites (Gillespie et al. 2007) 15 with complete ShoreZone data 5 with physical data (no biological)

Summary of locations with known green crab occurrence on western Vancouver Island from tables in Gillespie et al. (2007). Of 21 potential sites with ShoreZone data, 15 possessed complete physical and biological ShoreZone attributes and were compared to model predictions with respect to wave exposure, mud and sand flats, eelgrass in the subtidal, and saltmarsh vegetation in the supratidal (indicated by an * in the final column). Five sites ( old data ) possessed mapped physical attributes only (lacking eelgrass and Salicornia information). One site (Esquimalt Harbour) lacked ShoreZone data and was excluded from the analysis.

Four Critical Habitat Attributes Protected or Semi-Protected Wave Exposure Sand and mud flat (fine sediment in lower intertidal) Eelgrass in lower intertidal or shallow subtidal Salt marsh vegetation (Salicornia) in supratidal

Zeballos (Esperanza Inlet) all protected or semi-protected wave exposure 4 critical habitat attributes co-occur

Espinosa Inlet 2 critical habitat attributes co-occur: - protected/semi-protected - Salicornia flats in Espinosa Inlet are 1-1.5 km away (not considered attributes at the sampling site) Little Espinosa 3 critical habitat attributes co-occur: - protected/semi-protected - mud or sand flats - Salicornia eelgrass 500 m away (not considered an attribute at the sampling site)

Analysis of BC Data 21 potential sites, 15 of which had complete physical and biological ShoreZone attributes, 5 sites old data, only physical attributes, and were compared to wave exposure and sand and mud flats only. 1 site (Esquimalt Harbor) had no data, excluded.

Of the 15 sites with complete data Protected and Semi-Protected wave exposure were mapped at all 15 sites (100%). Sand or mud flats were mapped in 7 of the 15 sites (47%) Eelgrass was mapped in 7 of the 15 sites (47%) The salt marsh grass Salicornia was mapped in the supratidal zone of 10 of the 15 sites (67%) Of the 15 sites, all but one possessed at least two of the four critical habitat attributes (wave exposure and one other attribute) The only site with only one attribute (protected wave exposure; Queen Cove Upper) was within a unit mapped as a gravel flat coastal class. Because gravel flats were not included in the model, this analysis suggests that gravel flats could be included with sand and mud flats in the habitat capability model. Four sites (Cypress Bay, Whitepine Cove, Mooyah Bay and Zeballos) possessed all four attributes in the same location.

The exact location of green crab occurrence was difficult to discern in many cases, owing to the resolution of the GPS locations provided (to the minute or to the minute with one decimal place). The along-shore unit in which the site location was plotted was the only one for which habitat attributes were considered at the site. That is, in some cases eelgrass and Salicornia may have been present in a unit ( average 250m) within 500m of the plotted location, but were not considered present at the sampling site. Shorezone can miss features less than 10 meters ( such as intertidal eelgrass pools). Shorezone finds subtidal features better, intertidal features better seen by field verification on the ground. Some habitat features could have been missed in this analysis.

Habitat Capability Modeling Regional Applications Washington State ShoreZone 4,936 km of mapped shoreline 1,536 km (31%) contains salt marsh vegetation (sedges, Salicornia, Triglochlin) Testing models with species occurrence data

Thank You! Partners: Alaska State DNR, DF&G Archipelago Marine Research Ltd Coastal and Ocean Resources Inc Cook Inlet Regional Citizens Advisory Council Exxon Valdez Oil Spill Trustee Council Kenai Peninsula Borough National Park Service NOAA National Marine Fisheries Service North Pacific Research Board Prince William Sound Regional Citizens Advisory Council Prince William Sound Science Center Province of British Columbia The Nature Conservancy U.S. Fish & Wildlife Service Washington State DNR South Prince of Wales Island, Misty Fjords National Monument