Locating and Projecting Hydrologically Induced Forest Road Vulnerabilities

Forest roads—unless receiving regularly spaced maintenance operations—deteriorate over time due to cumulative traffic-induced and weather-enhanced rutting, braiding, puddling, flow channeling, flooding, roadbed erosion, and washouts. The rate of this deterioration depends on a variety of factors, among which are: 1) traffic loads and timing by season and weather, 2) roadbed and construction practices including soil substrates and materials used, 3) frequency and intensity of storm and snowmelt events, and 4) terrain-determined amounts of water remaining and flowing towards, along and away from roads and associated trails. This article reports on a road-segment study focused on indexing, modelling, verifying and mapping image- and terrain-determined road vulnerabilities as revealed through surface imaging and digital elevation projections. Road damage indexing, applied to a 12 km forest road before and after repair, ranged from image-recognizing no damage (0) to rutting (1), braiding (2), puddling (3), and flooding (4). This index was subsequently related to DEM-generated 1-m resolution rasters referring to road-focused: 1) depression depth, 2) slope, 3) upslope flow accumulation, and 4) terrain and depth-to-water projected rut occurrence probabilities. Through regression analysis, it was found that these rasters accounted for up to 82% of the observed road-generated damage index variations. As shown, the resulting model appears to be useful in mapping likely traffic- and weather-affected forest road vulnerabilities and related damage occurrences region-wide.

Authors

Publication Details

Journal
Open Journal of Forestry
Published
2025-01-01
DOI
https://doi.org/10.4236/ojf.2025.152009
Primary Topic
Fire effects on ecosystems
Type
article
Field-Weighted Citation Impact
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article

Locating and Projecting Hydrologically Induced Forest Road Vulnerabilities

Mark Castonguay, Paul A. Arp, Nana Agyei Owusu Afriyie
Open Journal of Forestry
Fire effects on ecosystems
article

Locating and Projecting Hydrologically Induced Forest Road Vulnerabilities

Mark Castonguay, Paul A. Arp, Nana Agyei Owusu Afriyie
article en

Abstract

Forest roads—unless receiving regularly spaced maintenance operations—deteriorate over time due to cumulative traffic-induced and weather-enhanced rutting, braiding, puddling, flow channeling, flooding, roadbed erosion, and washouts. The rate of this deterioration depends on a variety of factors, among which are: 1) traffic loads and timing by season and weather, 2) roadbed and construction practices including soil substrates and materials used, 3) frequency and intensity of storm and snowmelt events, and 4) terrain-determined amounts of water remaining and flowing towards, along and away from roads and associated trails. This article reports on a road-segment study focused on indexing, modelling, verifying and mapping image- and terrain-determined road vulnerabilities as revealed through surface imaging and digital elevation projections. Road damage indexing, applied to a 12 km forest road before and after repair, ranged from image-recognizing no damage (0) to rutting (1), braiding (2), puddling (3), and flooding (4). This index was subsequently related to DEM-generated 1-m resolution rasters referring to road-focused: 1) depression depth, 2) slope, 3) upslope flow accumulation, and 4) terrain and depth-to-water projected rut occurrence probabilities. Through regression analysis, it was found that these rasters accounted for up to 82% of the observed road-generated damage index variations. As shown, the resulting model appears to be useful in mapping likely traffic- and weather-affected forest road vulnerabilities and related damage occurrences region-wide.

Open Journal of ForestryVol. 15(02)
Climate action
Openalex Percentile: Top 92%
Fire effects on ecosystems
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