This project focuses on development of new interdisciplinary modeling capabilities of long-term time series that capture interactions among climate, land use, water use, and water availability. Research builds on expanding the USGS Forecasting Scenarios of Land Use (FORE-SCE) model and integrating with spatially explicit models from other disciplines. Interdisciplinary models will be co-developed and applied with our partners to assess land use impacts on water quality, conservation priorities and biodiversity, and greenhouse gases and climate.

Statement of Problem:
Feedbacks among land use and land-cover (LULC) and climate change impact a wide variety of ecological and societal processes at local to global scales. Data on LULC change are thus vital for many research applications and for land and resource management. For over 20 years, USGS has produced consistent, national-scale land-use and land-cover data from remote sensing imagery, data that are the most widely used LULC data in the Nation, and likely the world. However, these data are only available for time periods when source remote sensing data are available, with consistent land cover data for the United States only available from 1985 to present
Analyses and modeling of historical LULC (prior to availability of remote sensing based LULC) are required to understand past effects of LULC change on ecological and societal processes, which informs scenario-based modeling of future landscapes, including landscape response to climate change. This in turn informs long-term analyses of feedbacks of land use, climate, and a multitude of ecological and societal processes, and facilitates planning and mitigation for critical impacts on societal interests.
Why this Research is Important:
Climate-sensitive historical landscape reconstructions and future scenarios provide long-term time series of landscape change, allowing for the exploration and analyses of LULC impacts on biodiversity, carbon and greenhouse gas fluxes, exposure to natural hazards, water quality, and a variety of other environmental and human systems. Historical landscape reconstruction enables analyses of past relationships between landscape change and these processes, while future scenarios facilitate planning and mitigation efforts. A major priority here is climate-sensitive landscape modeling to support conservation priorities, including the administration’s 30x30 initiative. However, through connections noted below we also will address other Department of the Interior (DOI) and USGS priorities, particularly those related to hydrologic processes, and carbon and greenhouse gases.
Objective(s):
Long-term time series of past, present, and future landscapes inform interdisciplinary analyses of feedbacks between LULC change, climate, hydrologic processes, and an array of ecosystem services. The goal of this activity is to develop interdisciplinary modeling approaches of long-term land-change time series to support conservation priorities and other ecosystem services.
Our overarching research objectives include:
- Develop and evaluate spatially explicit models of interactions among climate, land use, water use, and water availability, including representation of socioeconomic and biophysical drivers of change at scales from global to local.
- Methodological development and application of historical landscape reconstruction methodologies, facilitating long-term time series analyses (past, present, future).
- Stakeholder-relevant co-development of climate-sensitive landscape scenarios designed to meet hypothesis driven application and management needs.
- Interdisciplinary and collaborative scenario development, modeling, and assessment to support application priorities.
Methods:
Video Transcript
This project focuses on three major tasks to address the hypotheses and research objectives above.
- Development of interdisciplinary modeling frameworks. This task focuses on augmentation and evolution of the USGS Forecasting Scenarios of land use (FORE-SCE) model, integration of FORE-SCE with other land-change modeling frameworks, and integration of land-change models with interdisciplinary models of water use, water availability, climate, and other ecosystem processes.
- Development of Multi-scale Scenarios. This task focuses on development of comprehensive, multi-scale scenarios that account for an array of biophysical and socioeconomic driving forces of landscape change. Scenarios are used to represent the high inherent uncertainties in modeling future land use change.
- Collaborative model application in support of USGS, DOI, and partner priorities. This task focuses on the application of scenario-based, integrated modeling frameworks to address specific science questions of interest to the USGS and our partners. Primary areas of focus are looking at feedbacks between land use, climate, water availability, water use, carbon, and biodiversity.
Land-Cover Modeling Methodology - The FORE-SCE Model
Simulated atmospheric response to four projected land-use land-cover change scenarios for 2050 in the north-central United States
Prototyping a methodology for long-term (1680-2100) historical-to-future landscape modeling for the conterminous United States
Remote sensing as the foundation for high-resolution United States landscape projections – The Land Change Monitoring, assessment, and projection (LCMAP) initiative
- Overview
This project focuses on development of new interdisciplinary modeling capabilities of long-term time series that capture interactions among climate, land use, water use, and water availability. Research builds on expanding the USGS Forecasting Scenarios of Land Use (FORE-SCE) model and integrating with spatially explicit models from other disciplines. Interdisciplinary models will be co-developed and applied with our partners to assess land use impacts on water quality, conservation priorities and biodiversity, and greenhouse gases and climate.
Sources/Usage: Public Domain. Visit Media to see details.Modeled land cover change in the Delaware River Basin from 1700 to 2100. The Forecasting Scenarios of land use (FORE-SCE) model was used to reconstruct historical landscapes back to 1700, and project future landscapes through 2100. The resultant long-term landscape database can be used to assess the impacts of land use on water quality, biodiversity, carbon and greenhouse gases, and other processes. Statement of Problem:
Feedbacks among land use and land-cover (LULC) and climate change impact a wide variety of ecological and societal processes at local to global scales. Data on LULC change are thus vital for many research applications and for land and resource management. For over 20 years, USGS has produced consistent, national-scale land-use and land-cover data from remote sensing imagery, data that are the most widely used LULC data in the Nation, and likely the world. However, these data are only available for time periods when source remote sensing data are available, with consistent land cover data for the United States only available from 1985 to present
Analyses and modeling of historical LULC (prior to availability of remote sensing based LULC) are required to understand past effects of LULC change on ecological and societal processes, which informs scenario-based modeling of future landscapes, including landscape response to climate change. This in turn informs long-term analyses of feedbacks of land use, climate, and a multitude of ecological and societal processes, and facilitates planning and mitigation for critical impacts on societal interests.
Why this Research is Important:
Climate-sensitive historical landscape reconstructions and future scenarios provide long-term time series of landscape change, allowing for the exploration and analyses of LULC impacts on biodiversity, carbon and greenhouse gas fluxes, exposure to natural hazards, water quality, and a variety of other environmental and human systems. Historical landscape reconstruction enables analyses of past relationships between landscape change and these processes, while future scenarios facilitate planning and mitigation efforts. A major priority here is climate-sensitive landscape modeling to support conservation priorities, including the administration’s 30x30 initiative. However, through connections noted below we also will address other Department of the Interior (DOI) and USGS priorities, particularly those related to hydrologic processes, and carbon and greenhouse gases.
Objective(s):
Long-term time series of past, present, and future landscapes inform interdisciplinary analyses of feedbacks between LULC change, climate, hydrologic processes, and an array of ecosystem services. The goal of this activity is to develop interdisciplinary modeling approaches of long-term land-change time series to support conservation priorities and other ecosystem services.
Our overarching research objectives include:
- Develop and evaluate spatially explicit models of interactions among climate, land use, water use, and water availability, including representation of socioeconomic and biophysical drivers of change at scales from global to local.
- Methodological development and application of historical landscape reconstruction methodologies, facilitating long-term time series analyses (past, present, future).
- Stakeholder-relevant co-development of climate-sensitive landscape scenarios designed to meet hypothesis driven application and management needs.
- Interdisciplinary and collaborative scenario development, modeling, and assessment to support application priorities.
Methods:
Video Transcript
Sources/Usage: Public Domain.Terry Sohl talks about the FORE-SCE Land Use model that is being used to assist a variety of groups. the model uses land cover products from the USGS and extrapolates that data to predict what areas will look like in the future, based on a variety of scenarios.
This project focuses on three major tasks to address the hypotheses and research objectives above.
- Development of interdisciplinary modeling frameworks. This task focuses on augmentation and evolution of the USGS Forecasting Scenarios of land use (FORE-SCE) model, integration of FORE-SCE with other land-change modeling frameworks, and integration of land-change models with interdisciplinary models of water use, water availability, climate, and other ecosystem processes.
- Development of Multi-scale Scenarios. This task focuses on development of comprehensive, multi-scale scenarios that account for an array of biophysical and socioeconomic driving forces of landscape change. Scenarios are used to represent the high inherent uncertainties in modeling future land use change.
- Collaborative model application in support of USGS, DOI, and partner priorities. This task focuses on the application of scenario-based, integrated modeling frameworks to address specific science questions of interest to the USGS and our partners. Primary areas of focus are looking at feedbacks between land use, climate, water availability, water use, carbon, and biodiversity.
Modeled land cover change near Lakin, Kansas from 2014-2100. The Forecasting Scenarios of land use (FORE-SCE) model was used to project landscape change under multiple scenarios, using real land ownership and land management parcels to represent change processes. The scenario here represents a biofuel scenario from the Department of Energy. Declining aquifer levels and a hotter and drier climate result in loss of irrigated cropland (corn, alfalfa) and conversion to dryland crops (wheat, sorghum) or rangeland. - Science
Land-Cover Modeling Methodology - The FORE-SCE Model
Many factors determine how human beings modify the earth's landscape. Land-cover change is inherently a local event, yet broader scale socioeconomic and biophysical factors also affect how humans make decisions to use the landscape. Projecting future land cover requires modelers to account for driving forces of land-cover change operating at scales from local ("bottom-up") to global ("top-down")... - Multimedia
- Publications
Simulated atmospheric response to four projected land-use land-cover change scenarios for 2050 in the north-central United States
Land-use land-cover change (LULCC) has become an important topic of research for the central United States because of the extensive conversion of the natural prairie into agricultural land, especially in the northern Great Plains. As a result, shifts in the natural climate (minimum/maximum temperature, precipitation, etc.) across the north-central United States have been observed, as noted withinAuthorsPaul Xavier Flanagan, Rezaul Mahmood, Terry L. Sohl, Mark Svoboda, Brian D. Wardlow, Michael Hayes, Eric RappinPrototyping a methodology for long-term (1680-2100) historical-to-future landscape modeling for the conterminous United States
Land system change has been identified as one of four major Earth system processes where change has passed a destabilizing threshold. A historical record of landscape change is required to understand the impacts change has had on human and natural systems, while scenarios of future landscape change are required to facilitate planning and mitigation efforts. A methodology for modeling long-term hisAuthorsJordan Dornbierer, Steve Wika, Charles Robison, Gregory Rouze, Terry L. SohlRemote sensing as the foundation for high-resolution United States landscape projections – The Land Change Monitoring, assessment, and projection (LCMAP) initiative
The Land Change Monitoring, Assessment, and Projection (LCMAP) initiative uses temporally dense Landsat data and time series analyses to characterize landscape change in the United States from 1985 to present. LCMAP will be used to explain how past, present, and future landscape change affects society and natural systems. Here, we describe a modeling framework for producing high-resolution (spatiaAuthorsTerry L. Sohl, Jordan Dornbierer, Steve Wika, Charles Robison