These data represent a potential future condition of large block grasslands if CRP lands expire and the land-use reverts back to cropland. Data layers for 2022 and 2027 were calculated by reclassing CRP lands scheduled to expire prior to these years to cropland and recalculating the large block grasslands layer as described above.
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.
These data represent a potential future condition of large block grasslands if CRP lands expire and the land-use reverts back to cropland. Data layers for 2022 and 2027 were calculated by reclassing CRP lands scheduled to expire prior to these years to cropland and recalculating the large block grasslands layer as described above.
The tillage suitability product is a per-crop, per-pixel (30 square-meters) model representation of the predicted probability (0.00-1.00) that an area can support commodity crop development for a suite of crop types commonly grown in the LCD landscape. The values for each grid cell are interpreted as a probability, with any value greater-than 0.50 suggesting an area should be suitable for crop development based on observations of 2.5 million farmed areas around the LCD geography.
To estimate wetland CEDs available in the future (2040) we used data from Bartuszevige et al. 2016 which estimates changes in playa functionality as a result of sedimentation, potential wind development, and tillage. Playas estimated to be impacted by these drivers were eliminated from the wetland landcover map and the process of calculating crane energy days described above was repeated.
Habitat hotspots were mapped for migratory birds ‘guilds’ across the LCD region using species presence/absence data collected from citizen-science datasets and modelled habitat conditions from the LANDFIRE program (Rollins, 2009).
Habitat hotspots were mapped for migratory birds ‘guilds’ across the LCD region using species presence/absence data collected from citizen-science datasets and modelled habitat conditions from the LANDFIRE program (Rollins, 2009).
These data represent 1 sq. mile Hexagons and are derived from the Western Governors Association Crucial Habitat Assessment Tool. The hexagons have been attributed with summary values from the datasets described above.
These data represent 1 sq. mile Hexagons and are derived from the Western Governors Association Crucial Habitat Assessment Tool. The hexagons have been attributed with summary values from the datasets described above.
These data represent Conservation Reserve Program (CRP) lands and their scheduled expiration date. CRP lands are those with a cropping history that have been enrolled in a program to plant grass cover for wildlife, erosion, and other benefits. CRP contracts are normally 15 years in length. These data are proprietary to the Farm Service Agency and are available to PLJV through an MOU that prohibits their dissemination. Analyses derived from these data will be available to refuge staff and MOUs may be developed in the future to share the data directly.
These data represent the forecast saturated thickness of the Ogallala aquifer in 2050 based on the linear rate of depletion calculated previously. Using the model-based annual predictions of aquifer saturated thickness (described above), we built annual water-level transition matrices (e.g., Turner, 1987) that were then projected out through 2050.
These data represent the amount of crane energy days derived from croplands that are available within a 10km distance. These data were calculated by reclassing the NASS Cropland Data Layer to reflect energetic carrying capacity for cranes reported by Johnson et. al 2017. I.e Winter Wheat: 2588 CEDs/ ha, Corn: 1034 CEDs / ha, Sorghum: 496.5 CEDs / ha. A 10km moving windows analysis with a circular window was applied to the resulting CED raster to sum the CED values within a 10km area.
The Alaska Center for Conservation Science at the University of Alaska Anchorage, in partnership with the Northwest Boreal LCC and the US Fish and Wildlife Service, embarked on a project to map and quantify the human footprint and fisheries resources across the Yukon River watershed. The maps presented here show the footprint of human activities (ie., mining, transportation), as well as fisheries resources across this watershed.
The Alaska Center for Conservation Science at the University of Alaska Anchorage, in partnership with the Northwest Boreal Landscape Conservation Cooperative and US Fish and Wildlife Service, embarked on a project to map the human footprint and fisheries resources across the Yukon River watershed. The spatial data presented here show the footprint of human activities (i.e, mining and transportation), as well as fisheries resources across this watershed.
Describing the social network that links the interconnected partners is the first step to leverage the network’s capacity to be greater than the sum of its parts. The Northwest Boreal Landscape Conservation Cooperative partners and a social network scientist are applying social network theory to create a system of nodes and edges of a Conservation Social Network. The LCC partners were surveyed in 2015 and again in 2018, in order to measure the dynamics of partner communication.
Describing the social network that links the interconnected partners is the first step to leverage the network’s capacity to be greater than the sum of its parts.The Northwest Boreal Landscape Conservation Cooperative partners and a social network scientist are applying social network theory to create a system of nodes and edges of a Conservation Social Network. Dr. Patrick Bixler from Texas A&M University is working with partners to quantify the connections and flow of information.
The circumboreal vegetation mapping (CBVM) project is an international collaboration among vegetation
scientists to create a new vegetation map of the boreal region at a 1:7.5 million scale with a common legend and
mapping protocol (Talbot and Meades 2011). The map is intended to portray potential natural vegetation, or the
vegetation that would exist in the absence of human or natural disturbance, rather than existing vegetation that
is commonly generated at larger scales. This report and map contributes to the CBVM effort by developing maps
The objective of this project was to conduct breeding season surveys for bird species of conservation priority in the Oklahoma portion of the Oaks and Prairies. The primary purpose of this annual report is to provide orientation to the accompanying file of raw data and summaries from our field work in 2018.
Breeding bird survey data across a ten- county area of central Oklahoma. Data contains raw abundance and detection-corrected density estimates.
Vulnerability assessments combine quantitative and qualitative evaluations of the exposure, sensitivity, and adaptive capacity of species or natural communities to current and future threats. When combined with the economic, ecological or evolutionary value of the species, vulnerability assessments quantify the relative risk to regional species and natural communities and can enable informed prioritization of conservation efforts. Vulnerability assessments are common practice in conservation biology, including the potential impacts of future climate scenarios.
The Northwest Boreal Landscape Conservation Cooperative (NWB LCC) is a partnership between agencies involved in land management across Alaska, Yukon, Northwest Territories, and British Columbia. The NWB LCC aims to coordinate science and support to decision makers for improving land management decisions. Knowledge gaps have been identified by the NWB LCC and are beginning to be filled. One of the priority information gaps is knowledge of the anthropogenic footprint currently on the landscape.
Priority resources are the set of biological, ecological, and cultural features and ecological processes collaboratively identified as most important or most significant for the focus geography. These resources embody the key components of the Peninsular Florida Landscape Conservation Cooperative (PFLCC) vision, which is a collective vision that reflects the mission, vision, common interests, and values of the focus geography partners. The priority resources are the focus of the PFLCC’s planning, design and implementation of conservation strategies(Benscoter et al. 2015).
To inform management for a resilient and functioning landscape, we need to understand how the landscape is changing. The Northwest Boreal Landscape Conservation Cooperative, working with a diverse group of managers and stakeholders, initiated development of a coordinated monitoring system for the northwest boreal ecoregion in 2016. The goal for the coordinated monitoring system is to provide a set of common denominators (i.e., minimum standards) that will allow cooperators to combine monitoring data to make landscape-scale inferences.
The Northwest Boreal Science and Management Research Tool (SMRT) provides the ability to search a vast, curated database for the Northwest Boreal region in one place. Users can explore thousands of curated scholarly articles, state and federal resource reports, land management plans, and unique transboundary datasets. Each entry includes geographic information about the area of study, allowing users to draw a box on a map to narrow searches to information directly related to a specific region in Alaska, the Yukon, British Columbia, and Northwest Territories.
Northwest Boreal Landscape Conservation Cooperative (NWB LCC) partners are working to collectively design a sustainable future for the people, cultures, and ecosystems in the region. To begin this difficult task, the partners asked for a review and synthesis of existing natural resource management plans, covering both countries and all four states, provinces and territories.
Under the Shared Landscapes Outcomes initiative of the Great Northern Landscape Conservation Cooperative (GNLCC), a pilot project was implemented to address aquatic integrity and stressors in the Columbia River Basin. Members of the GNLCC Columbia Basin Partner Forum (CBPF) organized and convened this workshop in response to shared concerns from the CBPF about aquatic invasive species in the Columbia River Basin, and a direct request from Pacific Northwest Economic Region (PNWER) for a prospectus on priority research needs for Quagga/Zebra mussels.
The High Divide Collaborative is an effective partnership of public land managers, state wildlife agencies, landowners, local community leaders, scientists and conservation groups working together to conserve and restore lands of importance for local communities and to protect ecological integrity at the landscape scale.
For ALI partners to promote connectivity between the Yakima Training Center and Hanford Reach core areas, we must first engage a diverse network of land owners, many of whom have not been involved in the connectivity prioritization process. To begin to build these relationships, we are initiating a community listening forum with local land owners, community groups, land managers and conservation groups with the intent of learning from each other’s expertise and unique perspectives.
Our goals are to:
The Ecological Connectivity Project brings together managers and decision makers to address challenges impacting ecological connectivity throughout the geography of the Great Northern Landscape Conservation Cooperative. We encourage those involved with connectivity efforts at any scale to get involved with this project as its success depends on stakeholder engagement from all corners of the Great Northern LCC geography.
These layers show land ownership and status of all Canadian and U.S. lands that fall within the boundaries of the Great Northern Landscae Conservation Cooperative. Layers were compiled from various sources, each with it's own metadata reference file.
The Heart of the Rockies Conservation Atlas is delivering the latest science in climate change adaptation and habitat connectivity to our land trust partners to help identify and validate selection of future conservation targets. Our Science Coordinator is curating a collection of connectivity and climate data at a scale that is useful to on-the-ground practitioners. He is working with university and agency partners to identify, screen, and procure the data.
The GNLCC Connectivity Prioritization Pilot Project has been a two stage project designed to address Goal 2 of the four strategic goals of the GNLCC: Conserve a permeable landscape with connectivity across aquatic and terrestrial ecosystems, including species movement, genetic connectivity, migration, dispersal, life history, and biophysical processes. In this project, connectivity is being examined in light of the landscape stressor of existing and potential future land uses.
Focal connectivity areas of the Ecological Connectivity Project. Project details can be found at https://sites.google.com/site/gnecoconnectivity/.
This data atlas was created as part of the Great Northern Landscape Conservation Cooperative (GNLCC) Ecological Connectivity Project.
Patch importance provides a measure of how large, intact, and connected a “patch” of habitat is for each biome type. More “intact” patches are depicted using a more saturated (darker) color, whereas less intact have lighter, less saturated colors.
Interest in using environmental DNA (eDNA) sampling to monitor aquatic species is exploding. This technique makes it possible to conduct rapid and cost-effective broad-scale species assessment and monitoring, particularly when informed by robust species distribution models. Here, we provide preliminary results from an effort to identify habitats occupied by juvenile bull trout in all 4th-code basins constituting their historical U.S. range.
The Great Northern LCC Steering Committee met in Waterton in May 2014 and selected connectivity as a priority shared landscape objective and decided to support this Ecological Connectivity Prioritization Pilot Project. Connectivity is the second of the GNLCC's four strategic goals: Conserve a permeable landscape with connectivity across aquatic and terrestrial ecosystems, including species movement, genetic connectivity, migration, dispersal, life history, and biophysical processes.
The ease, efficiency, and sensitivity of environmental DNA (eDNA) sampling of species in aquatic environments is leading to an explosion in its use across North America. In this presentation, we describe eDNA sampling technology and share first year field results from the ongoing range-wide, eDNA-based inventory of bull trout in the northwestern U.S. during which ~3,000 sites were sampled by dozens of partner agencies.
In May 2014, the GNLCC Steering Committee approved a pilot project to coordinate science-based management across the GNLCC on the connectivity goal. The SC allocated a total of $190k over 3 years. In the third year of the GNLCC Connectivity Project, with $75k support, work towards fulfilling the connectivity goal of the GNLCC fell into the following categories:
USGS Greater Sage Grouse National Research Strategy | Sage Steppe Partner Forum Wiki
Forecasting sagebrush ecosystem components and greater sage grouse habitat
Introduction to the Sage Steppe Partner Forum Wiki
Maximizing Minimums: Mapping basic requirements for greater sage-grouse
This website provides Sage Steppe Partner Forum members forum information and a workspace for members to collaborate and contribute (ideas, news, project information, files, etc.) Features Include:
- Partner contact information data entry
- Contact information listings
- News and update distribution
- Date/time tracking
- Document distribution
Sage-grouse habitat and post-wildfire restoration in the Great Basin
Sagebrush responses to shifting climate and fire disturbances