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The Alaska Reference Database originated as the standalone Alaska Fire Effects Reference Database, a ProCite reference database maintained by former BLM-Alaska Fire Service Fire Ecologist Randi Jandt. It was expanded under a Joint Fire Science Program grant for the FIREHouse project (The Northwest and Alaska Fire Research Clearinghouse). It is now maintained by the Alaska Fire Science Consortium and FRAMES, and is hosted through the FRAMES Resource Catalog. The database provides a listing of fire research publications relevant to Alaska and a venue for sharing unpublished agency reports and works in progress that are not normally found in the published literature.

Displaying 1 - 25 of 92

de Groot, Goldammer, Keenan, Brady, Lynham, Justice, Csiszar, O'Loughlin
Wildland fires burn several hundred million hectares of vegetation every year, and increased fire activity has been reported in many global regions. Many of these fires have had serious negative impacts on human safety, health, regional economies, global climate change, and…
Year: 2006
Type: Document
Source: TTRS

Goulden, Winston, McMillan, Litvak, Read, Rocha, Elliot
We deployed a mesonet of year-round eddy covariance towers in boreal forest stands that last burned in ~1850, ~1930, 1964, 1981, 1989, 1998, and 2003 to understand how CO2 exchange and evapotranspiration change during secondary succession. We used MODIS imagery to establish that…
Year: 2006
Type: Document
Source: TTRS

Ali, Taylor, Inubushi
CO2 efflux from tropical peat swamp substrates was measured under three different land uses (selectively logged forest, recently burned and cleared forest, and agriculture) in Jambi Province, eastern Sumatra over a six-month period that incorporated parts of both the major wet…
Year: 2006
Type: Document
Source: TTRS

Lentile, Holden, Smith, Falkowski, Hudak, Morgan, Lewis, Gessler, Benson
Space and airborne sensors have been used to map area burned, assess characteristics of active fires, and characterize post-fire ecological effects. Confusion about fire intensity, fire severity, burn severity, and related terms can result in the potential misuse of the inferred…
Year: 2006
Type: Document
Source: TTRS

Manzello, Cleary, Shields, Yang
Firebrands or embers are produced as trees and structures burn in wildland-urban interface (WUI) fires. It is believed that firebrand showers created in WUI fires may ignite vegetation and mulch located near homes and structures. This, in turn, may lead to ignition of homes and…
Year: 2006
Type: Document
Source: TTRS

Parisien, Peters, Wang, Little, Bosch, Stocks
The present study characterized the spatial patterns of forest fires in 10 fire-dominated ecozones of Canada by using a database of mapped fires ³= 200 ha from 1980 to 1999 (n = 5533 fires). Spatial metrics were used individually to compare measures of fire size, shape (…
Year: 2006
Type: Document
Source: TTRS

Boucher, Arseneault, Sirois
[no description entered]
Year: 2006
Type: Document
Source: TTRS

Taylor, Alexander
[no description entered]
Year: 2006
Type: Document
Source: TTRS

Doolin, Sitar
From the text ... 'Low-power wireless sensor technology can be successfully deployed in wildland fires to collect local environmental conditions such as temperature, relative humidity, and barometric pressure.... Testing the system required collaboration with numerous…
Year: 2006
Type: Document
Source: TTRS

McKenzie, O'Neill, Larkin, Norheim
Visibility impairment from regional haze is a significant problem throughout the continental United States. A substantial portion of regional haze is produced by smoke from prescribed and wildland fires. Here we describe the integration of four simulation models, an array of GIS…
Year: 2006
Type: Document
Source: TTRS

Ohlson, Berry, Gray, Blackwell, Hawkes
This paper provides an example of the practical application of multi-attribute trade-off analysis (MATA) to wildfire management. The MATA approach supports more informed decision-making because it exposes important trade-offs among competing management objectives (requiring…
Year: 2006
Type: Document
Source: TTRS

Meyn, Feller
Forest fires in British Columbia often leave patches of unburned vegetation (forest remnants) within their perimeters. These remnants help to maintain biological diversity and structural complexity in stands. To be able to maintain patterns similar to those created by fire, we…
Year: 2006
Type: Document
Source: TTRS

Nadeau, Englefield
The Canadian Forest Fire Danger Rating System (CFFDRS) is used daily across Canada for evaluating forest fire danger. Fuel-type information is one of the inputs required by the models used in the CFFDRS. In this project, three fuel-type maps with a 25 m resolution were produced…
Year: 2006
Type: Document
Source: TTRS

Wang, Hamann, Cumming
Studying changes to the shape, size, and arrangement of patches of forest habitat remains a challenge in the field of landscape ecology. A major issue is that most landscape pattern metrics measure both the amount of habitat as well as habitat configuration. To obtain…
Year: 2012
Type: Document
Source: TTRS

Document with links to FSPro analysis documents related to Alaska from the 2012 Fire Modeling Workshop
Year: 2012
Type: Document
Source: FRAMES

Thompson, Simard, Titman
[no description entered]
Year: 2006
Type: Document
Source: TTRS

Tirmenstein, Long, Heward
The Wildland Fire Assessment Tool (WFAT) is a custom ArcMap toolbar that provides an interface between ArcGIS desktop software, FlamMap3 algorithms (Finney 2006) and First Order Fire Effects Model (FOFEM) algorithms (Reinhardt 2003) to produce predicted fire behavior and fire…
Year: 2012
Type: Document
Source: FRAMES

Potter
Wildland fire represents an important ecological mechanism in many forest ecosystems. It shapes the distributions of species, maintains the structure and function of fire-prone communities, and is a significant evolutionary force (Bond and Keeley 2005). At the same time, fire…
Year: 2012
Type: Document
Source: FRAMES

Potter
Wildland fire represents an important ecological mechanism in many forest ecosystems. It shapes the distributions of species, maintains the structure and function of fire-prone communities, and is a significant evolutionary force (Bond and Keeley 2005). At the same time, fire…
Year: 2012
Type: Document
Source: FRAMES

Finco, Quayle, Zhang, Lecker, Megown, Brewer
The Monitoring Trends in Burn Severity (MTBS) project is mapping the extent, size, and severity of all large fires greater than 1,000 acres in the west and 500 acres in the east over the conterminous United States (CONUS), Alaska, and Hawaii. In 2012 the project reached a…
Year: 2012
Type: Document
Source: FRAMES

Toney, Peterson, Long, Parsons, Cohn
The LANDFIRE program is developing 2010 maps of vegetation and wildland fuel attributes for the United States at 30-meter resolution. Currently available vegetation layers include ca. 2001 and 2008 forest canopy cover and canopy height derived from Landsat and Forest Inventory…
Year: 2012
Type: Document
Source: FRAMES

The Alaska Fire and Fuels Research Map was created in 2006 under FIREHOUSE (The Northwest and Alaska Fire Research Clearinghouse), a Joint Fire Science Program funded project (06-3-1-26). This database was initially populated from National Park Service fire effects study plots…
Year: 2012
Type: Document
Source: FRAMES

Chen, Wulder, White, Hilker, Coops
There is a paucity of detailed and timely forest inventory information available for Canada's large, remote northern boreal forests. The Canadian National Forest Inventory program has derived a limited set of attributes from a Landsat-based land cover product representing circa…
Year: 2012
Type: Document
Source: FRAMES

Frederick
The National Infrared Operations (NIROPS) program, headquartered at the National Interagency Fire Center in Boise, ID, is the primary provider of operational infrared (IR) imaging services for wildland fire management across the country. The national IR program combines advanced…
Year: 2012
Type: Document
Source: FRAMES

Barrett, Rocha, van de Weg, Shaver
With anticipated climate change, tundra fires are expected to occur more frequently in the future, but data on the long-term effects of fire on tundra vegetation composition are scarce. This study addresses changes in vegetation structure that have persisted for 17 years after a…
Year: 2012
Type: Document
Source: FRAMES