Distribution models and ranges of species of interest to the Multi-LCC Mississippi River Basin/Gulf Hypoxia Initiative.
Resources
LCCs have produced a wealth of informational documents, reports, fact sheets, webinars and more to help support resource managers in designing and delivering conservation at landscape scales.
Datasets that provide landscape context for evaluation of implementation opportunities.
Water quality data for gulf hypoxia blueprint
Watershed-based data layers related to targeting implementation opportunities for improving both local water quality, and that of the Gulf of Mexico.
Base data layers (e.g., land cover, imagery and boundaries.) intended to orient users of the Multi-LCC Mississippi River Basin/Gulf Hypoxia Initiative's Conservation Blueprint.
Data layers pertaining to the management, restoration, or acquisition designations of state, federal, and non-government organizations (e.g., Focus Areas, Opportunity Areas, Priority Areas, Outstanding Natural Areas) along with the conservation estate (i.e. protected lands) within the Mississippi River Basin and intended to support development of the Multi-LCC Mississippi River Basin/Gulf Hypoxia Initiative's Conservation Blueprint.
Data layers related to habitat systems as defined for use by the Multi-LCC Mississippi River Basin/Gulf Hypoxia Initiative (i.e., headwater row crop fields; upland prairies; mid-sized riparian streams; mainstem floodplains in the upper and lower Mississippi River Basin).
Data layers related to geophysical characteristics e.g., slope, soil characteristics, and topographic position intended to support development of the Multi-LCC Mississippi River Basin/Gulf Hypoxia Initiative's Conservation Blueprint.
The National Landcover Database (NLCD) from the United States (2001) and the Agriculture and Agri-Food Canada (AAFC) (2000), and a classified Landsat TM scene to fill the gap between the US and Canada were mosaicked together. Landsat images from June or July 2000-2002 were used to be consistent with timing of other data layers. Landcover across the layers were crosswalked and standardized into 5 classes: crop, grassland, other/non-habitat, woody vegetation and water/wetlands.
The National Landcover Database (NLCD) from the United States (2001) and the Agriculture and Agri-Food Canada (AAFC) (2000), and a classified Landsat TM scene to fill the gap between the US and Canada were mosaicked together. Landsat images from June or July 2000-2002 were used to be consistent with timing of other data layers. Landcover across the layers were crosswalked and standardized into 5 classes: crop, grassland, other/non-habitat, woody vegetation and water/wetlands.
In the United States, many resources devoted to conservation are routed through states, but animal and plant populations do not conform to state boundaries. Consequently, neighboring states can enhance their collective conservation impact by coordinating natural resources management. In order to support managers as they review and revise state Wildlife Action Plans in Illinois, Indiana, Michigan, and Wisconsin, this project identified regional conservation priorities for streams and grasslands of the Upper Midwest.
The data represent sandy beaches, from Maine to Virginia, before Hurricane Sandy which made landfall on October 29, 2012 from the "Beach and Tidal Inlet Habitat Inventories" project. The North Atlantic coast, Maine to Long Island Sound and the Mid-Atlantic coast, Montauk, NY to Virginia datasets used different methodology and are discribed below.
The data are from the Sediment Placement Projects on Sandy Beaches in the U.S. Atlantic Coast Breeding Range of the Piping Plover (Charadrius melodus) prior to Hurricane Sandy.
This dataset represents the approximate locations of sediment placement projects along the U.S. North Atlantic coast from Maine through Virginia prior to the time that Hurricane Sandy made landfall in October 2012.
A common need identified by conservation partners is a forum for sharing lessons learned from on-the-ground resource management. It is also critical to communicate “actionable science” in a way that allows resource managers to use this growing knowledge base.
About This Project
About This Project
About This Project
About This Project
Systematic conservation planning is well suited to address the many large-scale biodiversity conservation challenges facing the Appalachian region. However, broad, well-connected landscapes will be required to sustain many of the natural resources important to this area into the future. If these landscapes are to be resilient to impending change, it will likely require an orchestrated and collaborative effort reaching across jurisdictional and political boundaries.
These 26 climate envelope models and associated "read me" file are described in the final report for the LCC-funded project, "Climate Envelope Models in Support of Landscape Conservation." These climate envelope models describe the climate where each species currently lives and then map the geographic shift of that range under climate change. Multiple climage change scenarios inform these models.
The Western Gulf Coast provides important habitat for migratory and resident waterfowl. The mottled duck(*Anas fulvigula*) relies on this region for all of its life-cycle events. Its relatively small population, limited worldwide range, and generally declining population trajectory has earned it a “Red” status on the Audubon WatchList and is a species of concern among state and federal agencies.
Submerged aquatic vegetation (SAV) provides many critical ecosystem services, yet we lack basic information on SAV assemblages, biomass and diversity across expansive coasts such as the northern Gulf of Mexico (nGoM).
Identifying distributions of submerged aquatic vegetation (SAV) across the northern Gulf of Mexico (NGOM) coastal landscape necessitates describing ecological processes in estuarine gradients. SAV assemblages are ecological indicators of aquatic ecosystem health; spatial and temporal distributions are strongly correlated to environmental conditions. Many wildlife species, including waterfowl, are dependent on SAV and seeds in NGOM coastal marshes for food and habitat.
This is a practitioner’s guide to landscape conservation design (LCD) leverages the knowledge, years of collaborative-focused experiences on landscape-scale conservation issues, and the legacy of the LCCs to provide practical guidance to anyone looking to facilitate or participate in an LCD process.
The guide contains five sections covering major themes in LCD. Each section describes vetted practices that one or more LCCs used in their LCD work; provides resources for further information; and presents a case study where the practices have been implemented.
A workshop was held for the Eastern Mojave Conservation Collaborative at Clark County Wetlands Park in Las Vegas, NV, on April 10-11, 2018.
The impacts from climate change are increasing the possibility of vulnerable coastal species and habitats crossing critical thresholds that could spur rapid and possibly irreversible changes. For species of high conservation concern, improved knowledge of quantitative thresholds could greatly improve management. To meet this need, we synthesized information pertaining to biological responses as tipping points to sea level rise (SLR) and coastal storms for 45 fish, wildlife, and plant species along the U.S.
The Northeast United States and Atlantic Canada share many of the same types of forests, wetlands, and natural communities, and from a wildlife perspective the region is one contiguous forest. However, resources are classified and mapped differently on the two sides of the border, creating challenges for habitat evaluation, species modeling, and predicting the effects of climate change.
To create a wall-to-wall surface of landscape permeability we used the software CIRCUITSCAPE (McRae and Shah 2009), an innovative program that models species and population movements as if they were electric current flowing through a landscape of variable resistance. Circuit modeling is conceptually aligned with the concept of landscape permeability because it recognizes that movement through a landscape is affected by a variety of impediments, and it quantifies the degree and the directional outcomes of the compounding effects.
This report describes an effort of a team of 60 scientists led by The Nature Conservancy (TNC) to identify the places where nature’s own natural resilience is the highest. Thanks to the land’s diverse topography, bedrock, and soil, these climate-resilient sites are more likely to sustain native plants, animals, and natural processes into the future, becoming natural strongholds for diversity.
The Northeast Ecological System dataset was last updated: 7/2014
This dataset represents terrestrial and wetland ecological systems of the Northeast (based on NatureServe's Ecological Systems Classifications) combined with human-modified land types such as roads and agriculture. Download includes Ecosystem Type, Macrogroup, and Formation, you do not need to download each individually.This dataset was created by substantially modifying The Nature Conservancy's Northeast Terrestrial Wildlife Habitat Classification System (NETHCS) using these steps:
Hydrography represents stream centerlines and off centerlines with greater than 30 hectare flow accumulation for the Northeast region.
This dataset was developed as part of the Designing Sustainable Landscapes project led by Professor Kevin McGarigal of the University of Massachusetts and sponsored by the North Atlantic Landscape Conservation Cooperative; for more information about the entire project see: http://www.umass.edu/landeco/research/dsl/dsl.html
This dataset is a component of a complete package of products from the
Connect the Connecticut project. Connect the Connecticut is a collaborative effort to identify shared priorities for conserving the Connecticut River Watershed for future generations, considering the value of fish and wildlife species and the natural ecosystems they inhabit. Click
This dataset represents a shaded relief, or hillshade, for the Northern U.S. and Canada. This shaded relief raster was created from a 30 meter Digital Elevation Model (DEM) using the ArcMap geoprocessing tool "hillshade".
The DEM consists of two mosaiced datasets:
1. U.S. Geological Survey's (USGS) 30 meter National Elevation Dataset (NED) , ~1 arc-second data that is updated over large areas by integrating the 10 meter or better source data(where available), re-sampled to 1 arc-second.
1. Climate change vulnerability assessments are commonly used to identify species or populations at risk from global climate change, but few translate impact assessments to climate change adaptation actions. Furthermore, most climate change adaptation efforts emphasize where to implement management actions, whereas timing remains largely overlooked. The rate of modern climate change introduces urgency in evaluating whether delaying conservation actions compromises their efficacy for reaching important conservation targets.
Pollinator decline and conservation is a complex and challenging issue with the potential to tax the capacity of individual state agencies; a collaborative approach among states and federal agencies has a higher likelihood success in meeting this emerging conservation challenge. Bumble bees have been identified as a particularly imperiled group of important pollinators. To aid the collaborative pollinator conservation effort, this report compiles the most up-to-date information related to bumble bees: threats, best practices for land management, and monitoring protocols into one location.
Datasets intended to support development of the Multi-LCC Mississippi River Basin/Gulf Hypoxia Initiative's Conservation Blueprint 1.0.
The ETPBR LCC Steering Committee (SC) consisted of 20-30 representatives from state, federal, tribal, and NGO entities. In December 2012, the LCC Steering Committee began drafting a strategic plan to provide a foundation and structure to carry out the mission and vision of the LCC and its partners. The SC met twice a year from 2012 to 2016 in various locations around the Midwest. Staff worked with the committee and project investigators to compile information for a set of descriptive flyers, posters, presentations, and annual updates.
Various presentations given on SECAS in 2012.
Abstract
Context Conservation planning is increasingly using ‘‘coarse filters’’ based on the idea of conserving ‘‘nature’s stage’’. One such approach is based on ecosystems and the concept of ecological integrity, although myriad ways exist to measure ecological integrity.
Abstract
These datasets are part of a suite of products from the Nature’s Network project. Nature’s Network is a collaborative effort to identify shared priorities for conservation in the Northeast, considering the value of fish and wildlife species and the natural areas they inhabit.
Rivers and streams are highly vulnerable to fragmentation from roads due to their prevalence in the landscape. Road-stream crossings are far more numerous than other anthropogenic barriers such as dams; these crossing structures (culverts, bridges, fords, and tide gates) have been demonstrated to impede the passage of aquatic organisms. However, road-stream crossings vary widely in the extent to which they serve as a barrier. It is important to identify barrier severity to facilitate prioritization of restoration activities, since proactively addressing all structures is not feasible.
These datasets depict three zones of uncertainty in the predicted future distribution of 28 representative species based on climate suitability, given the projected climate in 2080 (averaged across RPC 4.5 and 8.5 climate scenarios). The “Zone of Persistence” represents those areas where the species is expected to continue to occur through 2080. The “Zone of Contraction” represents those areas that are currently suitable from a climate perspective but where the 2080 climate is projected to be no longer suitable.
ABSTRACT
Abstract
This project integrated a map-based interface into the Alaska Department of Fish and Game's Community Subsistence Information System to provide for simple navigation, and representation of the availability of information by type, time series, and location.
Existing stream temperature data will be compiled from numerous federal, state, tribal, and private sources to develop an integrated regional database. Spatial statistical models for river networks will be applied to these data to develop an accurate model that predicts stream temperature for all fish-bearing streams in the US portion of the NPLCC. Differences between model outputs for historic and future climate scenarios will be used to assess spatial variation in the vulnerability of sensitive fish species across the NPLCC.
The intent of this project was to create a directory of academic climate change scientists that focus on the North Pacific Coast of North America—including California, Oregon, Washington, Idaho, British Columbia, and Alaska. The University of Washington developed the California, Oregon, Washington, and Idaho portion of the directory and Alaska Coastal Rainforest Center developed the British Columbia and Alaska portion of the directory. Funding was provided by the North Pacific Landscape Conservation Cooperative (NPLCC) and the Northwest Climate Science Center (NWCSC).
The Alaska Coastal Rainforest Center (ACRC) held a symposium titled "Coastal Temperate Rainforests: Integrating Science, Resource Management, and Communities" on April 17‐19, 2012, in Juneau, Alaska. The three day event included an all‐day field trip to Berner's Bay (north of Juneau), an international plenary, three concurrent sessions, two lunch‐time keynote speakers, an evening open public reception, an evening science social, and an evening banquet.