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Biomass, thermal inertia, and radiative freeze occurrence in leafless forestsAuthor(s): Brian E. Potter; John C. Zasada
Source: Canadian journal of forest research. Vol. 29, no. 2 (Feb. 1999).:p. 213-221.
Publication Series: Scientific Journal (JRNL)
Station: North Central Research Station
PDF: Download Publication (1.58 MB)
DescriptionUsing field measurements of air temperature, wind, and relative humidity from a clear-cut site and two wooded sites in northern Wisconsin, we used a radiative transfer model to simulate temperatures on seven calm, clear nights similar to those on which freezes typically occur. Each night was simulated twice for the wooded sites. One simulation ignored the presence of vegetation, the other approximated the vegetation's heat storage capacity and its influence on air temperatures. The simulations including biomass heat storage showed smaller mean absolute temperature errors and decreased magnitude of systematic model error when compared with the simulations ignoring vegetation. The results suggest that the thermal inertia of forest biomass may play a significant role in controlling forest temperatures on calm, clear nights and, hence, in controlling freeze occurrence.
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CitationPotter, Brian E.; Zasada, John C. 1999. Biomass, thermal inertia, and radiative freeze occurrence in leafless forests. Canadian journal of forest research. Vol. 29, no. 2 (Feb. 1999).:p. 213-221.
KeywordsForests, Biomass, Freezing, Radiation, Meteorology, Thermal properties, Simulation models, Wisconsin
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