The Forest Vegetation Simulator (FVS) is a family of forest growth simulation models that can simulate a wide range of silvicultural treatments for most major forest tree species, forest types, and stand conditions. "Suppose" is the name for the graphical user interface for FVS. FVS is useful from a stand to a landscape level.
The Forest Vegetation Simulator (FVS) is a family of forest growth simulation models that allow a user to explore how silvicultural treatments may affect growth and yield and, therefore, carbon stocks.
Scientists are working to better understand fire across the landscape to help land managers effectively restore fire-dependent ecosystems and address future risks. This research can support social and forest management actions to mitigate climate change impacts.
For more than 15 years we have worked together with collaborators from other institutions to develop and apply methods to forecast landscape-scale forest change in response to tree growth and species succession as well as disturbance from timber harvest and fire. Much of this work has utilized the LANDIS model to forecast changes in forest conditions for management and disturbance scenarios applied. We have demonstrated the capabilities of these tools to analyze the cumulative effects of management scenarios applied to real forest landscapes in Indiana and Missouri.
Michigan Technological University, University of Idaho, University of Wisconsin, University of Michigan
Mark E. Kubiske
The Northern Forest Ecosystem Experiment is a large-scale, long-term field experiment in which harvested forests regenerate in atmospheres with enhanced concentrations of carbon dioxide (CO2), ozone (O3) or both gasses combined. This Experiment takes place on the same site as the 11-year Aspen FACE Experiment, following the final data collection for the Aspen FACE project in 2009.
The Landscape Change Research Group, from the Delaware, OH lab of the Northern Research Station, has been modeling potential changes in suitable habitat for trees and birds of the eastern US. These maps are available online at www.nrs.fs.fed.us/atlas. We also look at dispersal potentials through another modeling toolset, and work with modification factors to understand more about the factors not readily modeled.
Watershed vulnerability assessment as being developed in the Forest Service, is a strategic assessment process that describes conditions, processes, and interactions at intermediate scales. It can be used to adapt broad guidance, analysis, and approaches to ecosystem management to particular places at management-relevant scales. The draft assessment process was piloted on 11 National Forests in 2010. The goal of the pilot watershed vulnerability assessment was to quantify the current and projected future condition of watersheds as affected by climate change to inform management decision making.
The Framework is a collaborative, cross-boundary approach among scientists, managers, and landowners to incorporate climate change considerations into natural resource management. It provides an integrated set of tools, partnerships, and actions to support climate-informed conservation and forest management.
Three regional projects encompass nine states, including 11 National Forests and millions of acres of forestland. Each regional project interweaves four components: science and management partnerships, vulnerability assessments, adaptation resources, and demonstration projects. Learn more about how the components interact to build a flexible, scalable, and effective Framework at CCRF Approach.
The Template for Assessing Climate Change Impacts and Management Options (TACCIMO) is a web-based tool that connects forest planning to current climate change science. The formation of TACCIMO was rooted in the need for a standardized, credible, and concise science delivery tool relevant to forest planning and management. For more, please see our TACCIMO tool page.
Studies on carbon dioxide concentration, CO2 and H2O flux, and the effects of multiple air pollutants on urban forests are being conducted in Baltimore. Urban conditions may represent possible future scenarios: elevated carbon dioxide, ozone, nitrogen deposition and elevated temperatures. A 40 m Forest Service lookout tower near Baltimore is used to conduct air quality and meteorological flux research. This is the first permanent tower to estimate carbon flux and carbon sequestration in an urban/suburban forest ecosystem. Metropolitan areas have an average tree cover of 33.4% (urban counties) and support 25% of the USA's total tree canopy cover, and their inclusion in climate models is essential for accuracy.
Acid rain and other anthropogenic factors can leach calcium (Ca) from forest ecosystems and mobilize potentially toxic aluminum (Al) in soils. Considering the unique role Ca plays in the physiological response of cells to environmental stress, we propose that depletion of biological Ca would impair basic stress recognition and response systems, and predispose trees to exaggerated injury following exposure to other environmental stresses.