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Using traffic flow theory to model traffic mortality in mammals
Traffic has a considerable effect on population and community dynamics through the disruption and fragmentation of habitat and traffic mortality. This paper deals with a systematic way to acquire knowledge about the probabilities of successful road crossing by mammals and what characteristics affect...
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Published in: | Landscape ecology 2004-01, Vol.19 (8), p.895-907 |
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creator | VAN LANGEVELDD, Frank JAARSMA, Catharinus F |
description | Traffic has a considerable effect on population and community dynamics through the disruption and fragmentation of habitat and traffic mortality. This paper deals with a systematic way to acquire knowledge about the probabilities of successful road crossing by mammals and what characteristics affect this traversability. We derive a model from traffic flow theory to estimate traffic mortality in mammals related to relevant road, traffic and species characteristics. The probability of successful road crossing is determined by the pavement width of the road, traffic volume, traversing speed of the mammals and their body length. We include the traversability model in a simple two-patch population model to explore the effects of these road, traffic and species characteristics on population dynamics. Analysis of the models show that, for our parameter ranges, traffic volume and traversing speed have the largest effect on traffic mortality. The population size is especially negatively affected when roads have to be crossed during the daily movements. These predictions could be useful to determine the expected effectiveness of mitigating measures relative to the current situation. Mitigating measures might alter the road and traffic characteristics. The effects of these changes on traffic mortality and population dynamics could be analysed by calculating the number of traffic victims before and after the mitigating measures.[PUBLICATION ABSTRACT] |
doi_str_mv | 10.1007/s10980-004-0464-z |
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subjects | Animal, plant and microbial ecology Applied ecology badger meles-meles Biological and medical sciences deer dispersal Fundamental and applied biological sciences. Psychology General aspects Habitat fragmentation Mammals management Mortality Population dynamics Population number populations road kills Roads vehicle collisions |
title | Using traffic flow theory to model traffic mortality in mammals |
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