Glide-Snow Avalanche Monitoring and Development of a Site-Specific Glide-Snow Avalanche Warning Model at Planneralm in Styria, Austria

Glide-snow avalanches pose a major challenge for operational forecasting and local avalanche authorities. Although their key prerequisite, a moist interface between the snowpack and smooth ground, is well known, predicting the timing of glide-snow avalanches remains difficult. We analyzed five seasons of avalanche monitoring data in the Planneralm area of Styria, Austria. Glide-snow avalanche activity in the study area follows typical temporal patterns, with the highest release probability in the early afternoon and peak activity from mid-March to mid-April. Using meteorological data and avalanche observations as input, we trained machine-learning models to predict hours with glide-snow avalanche release. The most significant predictors were the mean air temperature of the preceding 48h, the day of the winter season, the hour of the day, and the decrease in snow height. The combination of those variables suggests a longer-term predisposition toward glide-snow avalanche release, as well as short-term driving factors. Our decision tree model correctly identified the vast majority of avalanche hours (recall 90%) at the cost of a moderate false alarm rate (15%). Our model could support operational glide-snow avalanche forecasting by identifying hours with elevated glide-snow potential that warrant increased attention and may require warnings or temporary closures by local authorities.

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Publication Details

Journal
Applied Sciences
Published
2026-01-30
DOI
https://doi.org/10.3390/app16031426
Primary Topic
Landslides and related hazards
Type
article
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article

Glide-Snow Avalanche Monitoring and Development of a Site-Specific Glide-Snow Avalanche Warning Model at Planneralm in Styria, Austria

Ingrid Reiweger, Andreas Eberl, Elisabeth Kindermann, Andreas Gobiet
Applied Sciences
Landslides and related hazards
article

Glide-Snow Avalanche Monitoring and Development of a Site-Specific Glide-Snow Avalanche Warning Model at Planneralm in Styria, Austria

Ingrid Reiweger, Andreas Eberl, Elisabeth Kindermann, Andreas Gobiet
article en

Abstract

Glide-snow avalanches pose a major challenge for operational forecasting and local avalanche authorities. Although their key prerequisite, a moist interface between the snowpack and smooth ground, is well known, predicting the timing of glide-snow avalanches remains difficult. We analyzed five seasons of avalanche monitoring data in the Planneralm area of Styria, Austria. Glide-snow avalanche activity in the study area follows typical temporal patterns, with the highest release probability in the early afternoon and peak activity from mid-March to mid-April. Using meteorological data and avalanche observations as input, we trained machine-learning models to predict hours with glide-snow avalanche release. The most significant predictors were the mean air temperature of the preceding 48h, the day of the winter season, the hour of the day, and the decrease in snow height. The combination of those variables suggests a longer-term predisposition toward glide-snow avalanche release, as well as short-term driving factors. Our decision tree model correctly identified the vast majority of avalanche hours (recall 90%) at the cost of a moderate false alarm rate (15%). Our model could support operational glide-snow avalanche forecasting by identifying hours with elevated glide-snow potential that warrant increased attention and may require warnings or temporary closures by local authorities.

Applied SciencesVol. 16(3)
BOKU University (AT)
Openalex Percentile: Top 78%
Landslides and related hazards
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Glide-Snow Avalanche Monitoring and Development of a Site-Specific Glide-Snow Avalanche Warning Model at Planneralm in Styria, Austria — Ingrid Reiweger, Andreas Eberl, et al. · Applied Sciences (2026) | TGRS Research Map | TGRS