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File Troff document Appalachian LCC 2012 Annual Report
Landscape conservation is about bringing people, expertise, and resources together across a region to effectively respond to environmental challenges and attempt to create sustainable ecosystems. The Appalachian LCC has built a strong foundation to provide greater support toward landscape conservation that will achieve lasting benefit for the environment, wildlife, natural resources, and the people of the Appalachians. This report provides details of the organizational foundation of the AppLCC.
Located in Cooperative / / SC Meeting & Workshop, April 22-24, 2013 / Annual Reporting
File Troff document Appalachian LCC 2012 Annual Report
Landscape conservation is about bringing people, expertise, and resources together across a region to effectively respond to environmental challenges and attempt to create sustainable ecosystems. The Appalachian LCC has built a strong foundation to provide greater support toward landscape conservation that will achieve lasting benefit for the environment, wildlife, natural resources, and the people of the Appalachians.
Located in Cooperative / Publications & Outreach
Project Troff document Assessment and Restoration of Southern Appalachian Brook Trout
This project will complete an assessment of brook trout in-stream habitat, water quality, and fish distribution information in all Jocassee Gorges streams during the first two years of the project.
Located in Projects
File PDF document Beaver (Castor canadensis) mitigate the effects of climate on the area of open water in boreal wetlands in western Canada
Shallow open water wetlands provide critical habitat for numerous species, yet they have become increasingly vulnerable to drought and warming temperatures and are often reduced in size and depth or disappear during drought. We examined how temperature, precipitation and beaver (Castor canadensis) activity influenced the area of open water in wetlands over a 54- year period in the mixed-wood boreal region of east-central Alberta, Canada. This entire glacial landscape with intermittently connected drainage patterns and shallow wetland lakes with few streams lost all beaver in the 19th century, with beaver returning to the study area in 1954. We assessed the area of open water in wetlands using 12 aerial photo mosaics from 1948 to 2002, which covered wet and dry periods, when beaver were absent on the landscape to a time when they had become well established. The number of active beaver lodges explained over 80% of the variability in the area of open water during that period. Temperature, precipitation and climatic variables were much less important than beaver in maintaining open water areas. In addition, during wet and dry years, the presence of beaver was associated with a 9-fold increase in open water area when compared to a period when beaver were absent from those same sites. Thus, beaver have a dramatic influence on the creation and maintenance of wetlands even during extreme drought. Given the important role of bea- ver in wetland preservation and in light of a drying climate in this region, their removal should be considered a wetland disturbance that should be avoided. Beaver Castor canadensis Drought East-central Alberta Elk Island National Park Mixed-wood boreal Wetland conservation
Located in Resources / Climate Science Documents
File PDF document Biophysical controls on organic carbon fluxes in fluvial networks.pdf
Metabolism of terrestrial organic carbon in freshwater ecosystems is responsible for a large amount of carbon dioxide outgassing to the atmosphere, in contradiction to the conventional wisdom that terrestrial organic carbon is recalcitrant and contributes little to the support of aquatic metabolism. Here, we combine recent findings from geophysics, microbial ecology and organic geochemistry to show geophysical opportunity and microbial capacity to enhance the net heterotrophy in streams, rivers and estuaries. We identify hydrological storage and retention zones that extend the residence time of organic carbon during downstream transport as geophysical opportunities for microorganisms to develop as attached biofilms or suspended aggregates, and to metabolize organic carbon for energy and growth. We consider fluvial networks as meta-ecosystems to include the acclimation of microbial communities in downstream ecosystems that enable them to exploit energy that escapes from upstream ecosystems, thereby increasing the overall energy utilization at the network level.
Located in Resources / Climate Science Documents
Video Pascal source code Boone Watershed Partnership
Video by the Tennessee Valley Authority.
Located in Training / Videos and Webinars
Video Troff document Bringing Back the Brooks - A Revival of the South’s Trout
Freshwater Illustrated and the U.S. Forest Service serve a poetic look at a forgotten native of Appalachia, the Southern Appalachian Brook Trout, which is being brought back from the brink… by hand, bucket, and hoof.
Located in Training / Videos and Webinars
Project Brook Trout Restoration and Expansion
This project will restore and improve stream and riparian habitat within a 2,357 foot project area located in the headwaters of Garth Run which was severely impacted by catastrophic flooding that occurred in 1995.
Located in Projects
File PDF document Can forest management be used to sustain water-based ecosystem services in the face of climate change?
Forested watersheds, an important provider of ecosystems services related to water supply, can have their structure, function, and resulting streamflow substantially altered by land use and land cover. Using a retrospective analysis and synthesis of long-term climate and streamflow data (75 years) from six watersheds differing in management histories we explored whether streamflow responded differently to variation in annual temperature and extreme precipitation than unmanaged watersheds. We show significant increases in temperature and the frequency of extreme wet and dry years since the 1980s. Response models explained almost all streamflow variability (adjusted R2 . 0.99). In all cases, changing land use altered streamflow. Observed watershed responses differed significantly in wet and dry extreme years in all but a stand managed as a coppice forest. Converting deciduous stands to pine altered the streamflow response to extreme annual precipitation the most; the apparent frequency of observed extreme wet years decreased on average by sevenfold. This increased soil water storage may reduce flood risk in wet years, but create conditions that could exacerbate drought. Forest management can potentially mitigate extreme annual precipitation associated with climate change; however, offsetting effects suggest the need for spatially explicit analyses of risk and vulnerability.
Located in Resources / Climate Science Documents
File PDF document Carbon Sequestration in Two Created Riverine Wetlands in the Midwestern United States
Wetlands have the ability to accumulate significant amounts of carbon (C) and thus could provide an effective approach to mitigate greenhouse gas accumulation in the atmosphere. Wetland hydrology, age, and management can affect primary productivity, decomposition, and ultimately C sequestration in riverine wetlands, but these aspects of wetland biogeochemistry have not been adequately investigated, especially in created wetlands. In this study we investigate the ability of created freshwater wetlands to sequester C by determining the sediment accretion and soil C accumulation of two 15-yr-old created wetlands in central Ohio—one planted and one naturally colonized. We measured the amount of sediment and soil C accumulated over the parent material and found that these created wetlands accumulated an average of 242 g C m-2 yr-1, 70% more than a similar natural wetland in the region and 26% more than the rate estimated for these same wetlands 5 yr before this study. The C sequestration of the naturally colonized wetland was 22% higher than that of the planted wetland (267 ± 17 vs. 219 ± 15 g C m-2 yr-1, respectively). Soil C accrual accounted for 66% of the aboveground net primary productivity on average. Open water communities had the highest C accumulation rates in both wetlands. This study shows that created wetlands can be natural, cost-effective tools to sequester C to mitigate the effect of greenhouse gas emissions.
Located in Resources / Climate Science Documents