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Wildfire in the Taiga of Alaska

Published online by Cambridge University Press:  20 January 2017

Leslie A. Viereck
Leslie A. Viereck*
Affiliation:
Principal Plant Ecologist, Pacific Northwest Forest and Range Experiment Station, Institute of Northern Forestry, USDA Forest Service, Fairbanks, Alaska 99701 USA
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Abstract

The taiga of Alaska consists of a vegetation mosaic resulting primarily from past wildfires. Today, both lightning- and man-caused wildfires burn an average of 400,000 hectares annually, creating vast areas of successional ecosystems. However, although the number of reported fires is increasing, fire control is becoming more effective in limiting the average size of fires and the total area burned. One of the important influences of fire in the taiga ecosystem is its effect on permafrost and the soil nutrient cycle. Construction of firelines in permafrost areas has a greater effect on soil erosion and siltation than does the fire itself. Some wildlife species, such as moose and snowshoe hare, depend upon fire and its resultant successional plant communities, whereas fire may have deleterious effects on caribou winter range. Fire has both positive and negative effects on esthetic and recreational values. Fire has always been a part of the Alaskan taiga ecosystem; if it is totally excluded from the environment, some major ecological changes will result. Fire-suppression alternatives are discussed and additional research on fire effects suggested.

Type
Original Articles
Information
Quaternary Research , Volume 3 , Issue 3 , October 1973 , pp. 465 - 495
Copyright
University of Washington

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References

Ahlgren, I.F., Ahlgren, C.E., (1960). Ecological effects of forest fires. Botanical Review 26, 4 484–533.CrossRefGoogle Scholar
Banfield, A.W.F., (1952). The Canadian barrenground caribou investigation. Proceedings of the Third Alaskan Science Conference Alaska Division, American Association for the Advancement of Science133.Google Scholar
Barney, R.J., (1967). Buildup indexes for interior Alaska, 1956–1965. U.S. Forest Service, Pacific Northwest Forest and Range Experiment Station 8.Google Scholar
Barney, R.J., (1968). National fire danger rating system spread index and buildup index frequencies for interior Alaska. U.S. Forest Service, Pacific Northwest Forest and Range Experiment Station 8.Google Scholar
Barney, R.J., (1969). Interior Alaska wildfires, 1956–1965. U.S. Forest Service, Pacific Northwest Forest and Range Experiment Station 47.Google Scholar
Barney, R.J., (1971a). Selected 1966–1969 interior Alaska wildfire statistics with long-term comparisons. U.S. Forest Service Research Note PNW-154, 13.Google Scholar
Barney, R.J., (1971b). Wildfires in Alaska—some historical and projected effects and aspects. Fire in the Northern Environment, A Symposium Pacific Northwest Forest and Range Experiment Station Portland, Oregon 51–59.Google Scholar
Beckwith, R.C., (1968). The large aspen tortrix, Choristoneura conflictana (Wlkr.) in interior Alaska. U.S. Forest Service Research Note PNW-81, 10.Google Scholar
Bergerud, A.T., (1958). Distribution, movement and population dynamics of Newfoundland caribou. Canadian Wildlife Service Report 925 MS, .Google Scholar
Bjorkbom, J.C., (1971). Production and germination of paper birch seed and its dispersal into a forest opening. U.S. Forest Service Research Paper NE-209, 14.Google Scholar
Bliss, L.C., Wein, R.W., (1971). Changes in the active layer caused by surface disturbance. Brown, R.J.E., Proceedings of a seminar on the permafrost active layer May 4–5, 1971. National Research Council of Canada, Technical Memorandum 130, 37–47.Google Scholar
Bolstad, R., (1971). Catline rehabilitation and restoration. Proceedings, Fire in the Northern Environment, a Symposium Pacific Northwest Forest and Range Experiment Station Portland, Oregon 107–116.Google Scholar
Buckley, J.L., (1958a). Effects of fire on Alaskan wildlife. Proceedings, Ninth Alaskan Science Conference Alaska Division, American Association for the Advancement of Science15.Google Scholar
Buckley, J.L., (1958b). Effects of fire on Alaskan wildlife. Proceedings, Society of American Foresters Meeting November 10–13, 1957, Syracuse, New York 123–126.Google Scholar
Chatelain, E.F., (1951). Winter range problems of moose in Susitna Valley. Proceedings, Second Alaskan Science Conference Alaska Dvision American Association for the Advancement of Science343–347.Google Scholar
Chatelain, E.F., (1952). Distribution and abundance of moose in Alaska. Proceedings, Third Alaskan Science Conference Alaska Division, American Association for the Advancement of Science134–136.Google Scholar
Cody, W.J., (1964). Reindeer Range Survey, 1957 and 1963. Canadian Department of Agriculture Plant Research Institute 56.Google Scholar
Courtright, A.M., (1959). Range Management and the Genus Rangifer: A Review of Selected Literature. M.S. thesis University of Alaska.Google Scholar
Cowan, I.M., (1951). Plant succession and wildlife management. Proceedings, Second Alaskan Science Conference Alaska Division, American Association for the Advancement of Science322–327.Google Scholar
Cushwa, C.T., Martin, R.E., Miller, R.L., (1968). The effects of fire on seed germination. Journal of Range Management 21, 250–254.Google Scholar
DeLeonardis, S., (1971). Effects of fire and fire control methods in interior Alaska. Proceedings, Fire in the Northern Environment, a Symposium Pacific Northwest Forest and Range Experiment Station Portland, Oregon 101–105.Google Scholar
DeVos, A., (1951). Recent findings in fisher and marten ecology and management. Transactions, 16th North American Wildlife Conference 498–507.Google Scholar
Drury, W.H. Jr., (1956). Bog flats and physiographic processes in the upper Kuskokwim region, Alaska. Contribution to the Gray Herbarium 178, Harvard University Cambridge 130.Google Scholar
Edwards, R.Y., (1954). Fire and the decline of the mountain caribou herd. Journal of Wildlife Management 18, 4 521–526.Google Scholar
Evans, W.G., (1971). The attraction of insects to forest fires. Proceedings, Tall Timbers Conference on Ecological Animal Control by Habitat Management, No. 3 Tall Timbers Research Station Tallahassee 115–127.Google Scholar
Funsch, R.W., (1964). A summary of seasonal temperature and precipitation data for the interior forested area of Alaska. U.S. Forest Service Research Note NOR-9, 50.Google Scholar
Geist, V., (1971). Mountain Sheep, a Study in Behavior and Evolution. University of Chicago Press Chicago 383.Google Scholar
Grange, W., (1965). Fire and tree growth relationships to snowshoe rabbits. Proceedings, Fourth Annual Tall Timbers Fire Ecology Conference Tall Timbers Research Station Tallahassee 111–125.Google Scholar
Gregory, R.A., (1966). The effect of leaf litter upon establishment of white spruce beneath paper birch. Forest Chronicle 42, 251–255.Google Scholar
Gregory, R.A., Haack, P.M., (1965). Growth and yield of well-stocked aspen and birch stands in Alaska. U.S. Forest Service Research Paper NOR-2, 27.Google Scholar
Gross, F.E., (1963). Range and Use of Range by Dall Sheep Ovis dalli dalli in Victoria Mountain and Mount Schwatha, Alberta. M.S. thesis University of Alaska.Google Scholar
Guthrie, R.D., (1967). Fire melanism among mammals. American Midland Naturalist 77, 227–230.Google Scholar
Hakala, J.B., (1952). The Life History and General Ecology of the Beaver in Interior Alaska. M.S. thesis University of Alaska.Google Scholar
Hakala, J.B., Seemel, R.K., Richey, R.A., Kurtz, J.E., (1971). Fire effects and rehabilitation methods—Swanson-Russian Rivers fires. Proceedings, Fire in the Northern Environment, a Symposium Pacific Northwest Forest and Range Experiment Station Portland, Oregon 87–99.Google Scholar
Hardy, C.E., Franks, J.W., (1963). Forest fires in Alaska. U.S. Forest Service Research Paper INT-5, 163.Google Scholar
Hatler, D.F., (1972). Food habits of black bear in interior Alaska. Canadian Field Naturalist 86, 1 17–31.CrossRefGoogle Scholar
Hegginbottom, A., (1971). Some effects of a forest fire on the permafrost active layer at Inuvik, N.W.T. Brown, R.J.E., Proceedings of a seminar on the permafrost active layer May 4–5, 1971. National Research Council of Canada Technical Memorandum 13, 31–36.Google Scholar
Heilman, P.E., (1966). Change in distribution and availability of nitrogen with forest succession on north slopes in interior Alaska. Ecology 47, 826–831.Google Scholar
Heilman, P.E., (1968). Relationship of availability of phosphorus and cations to forest succession and bog formation in interior Alaska. Ecology 49, 2 331–336.CrossRefGoogle Scholar
Heinselman, M.L., (1971). The natural role of fire in northern conifer forests. Proceedings, Fire in the Northern Environment, A Symposium Pacific Northwest Forest and Range Experiment Station Portland, Oregon 61–72.Google Scholar
Hjeljord, O.G., (1971). Feeding Ecology and Habitat Preference of the Mountain Goat in Alaska. M.S. thesis University of Alaska.Google Scholar
Hoffman, J.E., (1971). Fire in park management. Proceedings, Fire in the Northern Environment, a Symposium Pacific Northwest Forest and Range Experiment Station Portland, Oregon 73–78.Google Scholar
Hooper, D.C., (1952). Waterfowl Investigations at Minto Lakes, Alaska. M.S. thesis University of Alaska.Google Scholar
Hultén, Eric, (én, 1968). Flora of Alaska and Neighboring Territories: A Manual of the Vascular Plants. Stanford University Press 1008.Google Scholar
Hutchison, O.K., (1967). Alaska's forest resource. U.S. Forest Service Resource Bulletin PNW-19, 74.Google Scholar
Kellogg, C.E., Nygard, I.J., (1951). Exploratory study of the principal soil groups of Alaska. U.S. Department of Agriculture Monograph 7, 138.Google Scholar
Kelsall, J.P., (1968). The migratory barrenground caribou of Canada. Department of Indian Affairs and Northern Development, Canadian Wildlife Service 340.Google Scholar
Kilgore, B.M., Briggs, G.S., (1972). Restoring fire to high elevation forests in California. Journal of Forestry 70, 5 266–271.Google Scholar
Komarek, E.V.Sr., (1971). A summation of “Fire in the Northern Environment” and a suggestion for a cooperative ecological experiment station. Proceedings, Fire in the Northern Environment, a Symposium Pacific Northwest Forest and Range Experiment Station Portland, Oregon 257–265.Google Scholar
Koontz, K.C., (1968). Small Game and Fur Bearers of the Rampart Dam Impoundment Area. M.S. thesis University of Alaska.Google Scholar
Krause, H.H., Rieger, S., Wilde, S.A., (1959). Soil and forest growth on different aspects in the Tanana watershed of interior Alaska. Ecology 40, 492–495.Google Scholar
Kryuchkov, V.V., (1968). Soils of the far north should be conserved. Museum of Soil Science, Moscow State University Piroda 12, 72–74Translated in “The effect of disturbance on permafrost terrain”, (J. Brown, W. Richard, D. Vietor) U.S. Army Cold Regions Research and Engineering Laboratory SR 138, 13 pp.Google Scholar
Larson, Signe M., (1969). Fire in far northern regions, a bibliography. U.S. Department of Interior Bibliography Series No. 14, 36.Google Scholar
Lensink, C.J., (1953). An Investigation of the Marten in Interior Alaska. M.S. thesis University of Alaska.Google Scholar
Lensink, C.J., (1954). Food requirements and range use, Nelchina caribou herd: Summer food habits. Federal Aid in Wildlife Restoration Project W-3R U.S. Department of Interior, Fish and Wildlife ServiceQuarterly Progress Report 9 (1).Google Scholar
Lensink, C.J., Skoog, R.O., Buckley, J.L., (1955). Food habits of the marten in interior Alaska and their significance. Journal of Wildlife Management 19, 364–368.Google Scholar
Leopold, A.S., Darling, F.F., (1953a). Effects of land use on moose and caribou in Alaska. Transactions, 18th North American Wildlife Conference 553–562.Google Scholar
Leopold, A.S., Darling, F.F., (1953b). Wildlife in Alaska: An Ecological Reconnaissance. Ronald Press, Co New York 129.Google Scholar
Lotspeich, F.B., (1972). Effects of Wickersham Dome fire on water quality of Washington Creek. Environmental Protection Agency, Alaska Water Laboratory, College, Alaska, Working Paper 14, 17.Google Scholar
Lotspeich, F.B., Mueller, E.W., Frey, P.J., (1970). Effects of large scale forest fires on water quality in interior Alaska. U.S. Department of the Interior, Federal Water Pollution Control Administration, Alaska Water Laboratory 155.Google Scholar
Lutz, H.J., (1953). The effects of forest fires on the vegetation of interior Alaska. U.S. Forest Service, Alaska Forest Research Center Station Paper 1, 36.Google Scholar
Lutz, H.J., (1956). Ecological effects of forest fires in the interior of Alaska. U.S. Forest Service Technical Bulletin 1133, 121.Google Scholar
Lutz, H.J., (1959). Aboriginal man and white man as historical causes of fires in the boreal forest, with particular reference to Alaska. Yale University, School of Forestry Bulletin 65, 49.Google Scholar
Lutz, H.J., Caporaso, A.P., (1958). Vegetation and topographic situations as indicators of forest land classes in air-photo interpretation of the Alaska interior. U.S. Forest Service, Alaska Forest Research Center Station Paper 10, 31.Google Scholar
Mackay, R., (1970). Disturbances to the tundra and forest tundra environment of the western Arctic. Canadian Geotechnical Journal 7, 420–432.CrossRefGoogle Scholar
Miller, I.D., (1971). Effects of forest fire smoke on tourism in Mount McKinley National Park, Alaska. Proceedings, Fire in the Northern Environment, a Symposium Pacific Northwest Forest and Range Experiment Station Portland, Oregon 83–85.Google Scholar
Murray, D.F., (1961). Some Factors Affecting the Production and Harvest of Beaver in the Upper Tanana River, Alaska. M.S. thesis University of Alaska.Google Scholar
Noste, N.V., (1969). Analysis and summary of forest fires in coastal Alaska. U.S. Forest Service, Pacific Northwest Forest and Range Experiment Station 12.Google Scholar
Patric, E.F., Webb, W.L., (1953). A preliminary report on intensive beaver management. Transactions, 18th North American Wildlife Conference 533–539.Google Scholar
Patric, J.H., Black, P.E., (1968). Potential evapotranspiration and climate in Alaska by Thornthwaite's classification. U.S. Forest Service Research Paper PNW-71, 28.Google Scholar
Pegau, R.E., (1968). Growth rates of important reindeer forage lichens on Seward Peninsula, Alaska. Arctic 21, 4 255–259.CrossRefGoogle Scholar
Pegau, R.E., (1970a). Effect of reindeer trampling and grazing on lichens. Journal Range Management 23, 95–97.Google Scholar
Pegau, R.E., (1970b). Succession in two exclosures near Unalakleet, Alaska. Canadian Field Naturalist 84, 175–177.Google Scholar
Pegau, R.E., (1972). Caribou investigations—analysis of range in Alaska. Department of Fish and Game, Federal Aid in Wildlife Restoration Caribou Report 13, 216.Google Scholar
Péwé, T., (1957). Permafrost and its effect on life in the north. Arctic Biology Colloquium Oregon State College Corvallis 12–25.Google Scholar
Péwé, T., (1968). Loess, deposits of Alaska. XXIII International Geological Congress 8, 297–309.Google Scholar
Prasil, R.G., (1971). National Park Service fire policy in national parks and monuments. Proceedings, Fire in the northern environment, a Symposium Pacific Northwest Forest and Range Experiment Station Portland, Oregon 79–81.Google Scholar
Quirk, W.A., Sykes, D.J., (1971). White spruce stringers in a fire-patterned landscape in interior Alaska. Proceedings, Fire in the northern Environment, a Symposium Pacific Northwest Forest and Range Experiment Station Portland, Oregon 179–197.Google Scholar
Raup, H.M., Denny, C.S., (1950). Photo interpretation of the terrain along the southern part of the Alaska Highway. U.S. Geological Survey Bulletin 963-D, 95–135.Google Scholar
Richardson, J.H., (1971). Values protected in interior Alaska. Proceedings, Fire in the northern environment, a Symposium Pacific Northwest Forest and Range Experiment Station Portland, Oregon 173–178.Google Scholar
Rieger, S., (1963). Report of reconnaissance soil survey, Kenai National Moose Range, May–September 1963. U.S. Department of the Interior, Fish and Wildlife Service 55.Google Scholar
Rieger, S., Dement, J.A., Sanders, D., (1963). Soil survey of Fairbanks, Alaska Soil Survey. U.S. Department of Agriculture Soil Conservation Service 41.Google Scholar
Robinson, R.R., (1952). Forest management and fire control problems in Alaska. Proceedings, Third Alaskan Science Conference, Alaska Division, American Association for the Advancement of Science 52–54.Google Scholar
Robinson, R.R., (1960). Forest and range fire control in Alaska. Journal of Forestry 58, 6 448–453.Google Scholar
Rowe, J.S., (1971). Spruce and fire in northwest Canada and Alaska. Proceedings, 10th Annual Tall Timbers Fire Ecology Conference Tall Timbers Research Station Tallahassee 245–254.Google Scholar
Rowinski, L.J., (1958). A Review of Waterfowl Investigation and a Comparison of Aerial and Ground Censusing of Waterfowl at Minto Flats, Alaska. M. S. thesis University of Alaska.Google Scholar
Scotter, G.W., (1963). Growth rates of Cladonia alpestris, C. mitis, and C. rangiferina in the Taltson River region, N.W.T. Canadian Journal of Botany 41, 1199–1202.CrossRefGoogle Scholar
Scotter, G.W., (1964). Effects of forest fires on the winter range of barren-ground caribou in northern Saskatchewan. Canadian Wildlife Service Wildlife Management Bulletin, Series 1, 18 1–111.Google Scholar
Scotter, G.W., (1967). The winter diet of barren-ground caribou in northern Canada. Canadian Field Naturalist 81, 33–39.Google Scholar
Scotter, G.W., (1971a). Fire, vegetation, soil, and barren-ground caribou relations in northern Canada. Proceedings, Fire in the Northern Environment, a Symposium Pacific Northwest Forest and Range Experiment Station Portland, Oregon 209–230.Google Scholar
Scotter, G.W., (1971b). Wildfires in relation to habitat of the barren-ground caribou in the taiga of northern Canada. Proceedings, 10th Annual Tall Timbers Fire Ecology Conference Tall Timbers Research Station Tallahassee 85–106.Google Scholar
Scotter, G.W., (1972). Chemical composition of forage plants from the reindeer preserve, Northwest territories. Arctic 25, 1 21–27.Google Scholar
Skoog, R.O., (1968). Ecology of the Caribou (Rangifer tarandus granti) in Alaska. Ph.D. thesis University of California Berkeley.Google Scholar
Slaughter, C.W., Barney, R.J., Hansen, G.M., (1971). Proceedings, Fire in the Northern Environment, a Symposium. Pacific Northwest Forest and Range Experiment Station Portland, Oregon 275.Google Scholar
Spencer, D.L., Chatelain, E.F., (1953). Progress in the management of the moose of south central Alaska. Transactions, 18th North American Wildlife Conference 539–552.Google Scholar
Spencer, D.L., Hakala, J.B., (1964). Moose and fire on the Kenai. Proceedings, Third Annual Tall Timbers Fire Ecology Conference Tall Timbers Research Station Tallahassee 11–33.Google Scholar
Stelfax, J.G., (1971). Bighorn sheep in the Canada Rockies—a history, 1800–1970. Canadian Field Naturalist 85, 2 101–122.Google Scholar
Sumner, L., (1951). Alaska's biological wealth—why let history repeat itself?. Proceedings, Second Alaskan Science Conference Alaska Division, American Association for the Advancement of Science337–339.Google Scholar
Thornthwaite, C.W., (1931). The climates of North America according to a new classification. Geographical Review 21, 633–655.CrossRefGoogle Scholar
Trigg, W.M., (1971). Fire season climatic zones of mainland Alaska. U.S. Forest Service Research-Paper PNW-126, 12.Google Scholar
Uggla, E., (1958). Ecological effects of fire on north Swedish forests. Institute of Plant Ecology, University of Uppsala. Almqvust and Wilsell Sweden 18.Google Scholar
Uggla, E., (1967). En studie över bränningseffekten på ett tunt råhumustäcke. Effects of fire on a thin layer of raw humus. Sveriges skogsvårdsförbunds tidskrift 2, 155–170.Google Scholar
USDA Forest Service(1948). Woody plant seed manual. U.S. Department of Agriculture Miscellaneous Publication 654, 416.Google Scholar
Van Cleve, K., (1971). Effects of some intensive forest management practices on white spruce ecosystems in interior Alaska. Proceedings, Fire in the Northern Environment, a Symposium Pacific Northwest Forest and range Experiment Station Portland, Oregon 199–207.Google Scholar
Viereck, L.A., (1970). Forest succession and soil development adjacent to the Chena River in interior Alaska. Arctic and Alpine Research 2, 1–26.Google Scholar
Viereck, L.A., Little, E.L. Jr., (1972). Alaska trees and shrubs. U.S. Department of Agriculture Handbook 410, 265.Google Scholar
Watson, C.E., (1959). Climates of the states—Alaska. U.S. Weather Bureau Climatology of the United States 60-49, 24.Google Scholar
Wein, R.W., (1971). Fire and resources in the subarctic—panel discussion. Proceedings, Fire in the Northern Environment, a Symposium Pacific Northwest Forest and Range Experiment Station Portland, Oregon 251–253.Google Scholar
Wilde, A., Krause, H.H., (1960). Soil-forest types of the Yukon and Tanana valleys in subarctic Alaska. Journal of Soil Science 11, 266–274.Google Scholar
Zasada, J.C., (1971). Natural regeneration of interior Alaska forests—seed, seeedbed, and vegetative reproduction considerations. Proceedings, Fire in the Northern Environment, a Symposium Pacific Northwest Forest and Range Experiment Station Portland, Oregon 231–246.Google Scholar
Zasada, J.C., Gregory, R.A., (1969). Regeneration of white spruce with reference to interior Alaska: A literature review. U.S. Forest Service Research Paper PNW-79, 37.Google Scholar
Zasada, J.C., Gregory, R.A., (1972). Paper birch seed production in the Tanana Valley, Alaska. U.S. Forest Service Research Note PNW-177, 7.Google Scholar
Zasada, J.C., Viereck, L.A., (1970). White spruce cone and seed production in interior Alaska, 1957–1968. U.S. Forest Service Research Note PNW-129, 11.Google Scholar