A method for automated snow avalanche debris detection through use of synthetic aperture radar (SAR) imaging
Avalanches are a natural hazard that occur in mountainous regions of Troms County in northern Norway during winter and can cause loss of human life and damage to infrastructure. Knowledge of when and where they occur especially in remote, high mountain areas is often lacking due to difficult access....
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Published in: | Earth and space science (Hoboken, N.J.) Vol. 3; no. 11; pp. 446 - 462 |
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Abstract | Avalanches are a natural hazard that occur in mountainous regions of Troms County in northern Norway during winter and can cause loss of human life and damage to infrastructure. Knowledge of when and where they occur especially in remote, high mountain areas is often lacking due to difficult access. However, complete, spatiotemporal avalanche activity data sets are important for accurate avalanche forecasting, as well as for deeper understanding of the link between avalanche occurrences and the triggering snowpack and meteorological factors. It is therefore desirable to develop a technique that enables active mapping and monitoring of avalanches over an entire winter. Avalanche debris can be observed remotely over large spatial areas, under all weather and light conditions by synthetic aperture radar (SAR) satellites. The recently launched Sentinel‐1A satellite acquires SAR images covering the entire Troms County with frequent updates. By focusing on a case study from New Year 2015 we use Sentinel‐1A images to develop an automated avalanche debris detection algorithm that utilizes change detection and unsupervised object classification methods. We compare our results with manually identified avalanche debris and field‐based images to quantify the algorithm accuracy. Our results indicate that a correct detection rate of over 60% can be achieved, which is sensitive to several algorithm parameters that may need revising. With further development and refinement of the algorithm, we believe that this method could play an effective role in future operational monitoring of avalanches within Troms and has potential application in avalanche forecasting areas worldwide.
Plain Language Summary
Avalanches are a natural hazard occurring in mountainous regions during wintertime and are difficult to monitor by traditional field‐based methods. We utilize synthetic aperture radar images to develop a technique for automated detection of avalanche debris with an ultimate goal of use in operational monitoring of avalanche activity.
Key Points
Radar remote sensing of snow avalanche debris
Automatic detection algorithm
Operational monitoring of avalanches |
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AbstractList | Avalanches are a natural hazard that occur in mountainous regions of Troms County in northern Norway during winter and can cause loss of human life and damage to infrastructure. Knowledge of when and where they occur especially in remote, high mountain areas is often lacking due to difficult access. However, complete, spatiotemporal avalanche activity data sets are important for accurate avalanche forecasting, as well as for deeper understanding of the link between avalanche occurrences and the triggering snowpack and meteorological factors. It is therefore desirable to develop a technique that enables active mapping and monitoring of avalanches over an entire winter. Avalanche debris can be observed remotely over large spatial areas, under all weather and light conditions by synthetic aperture radar (SAR) satellites. The recently launched Sentinel‐1A satellite acquires SAR images covering the entire Troms County with frequent updates. By focusing on a case study from New Year 2015 we use Sentinel‐1A images to develop an automated avalanche debris detection algorithm that utilizes change detection and unsupervised object classification methods. We compare our results with manually identified avalanche debris and field‐based images to quantify the algorithm accuracy. Our results indicate that a correct detection rate of over 60% can be achieved, which is sensitive to several algorithm parameters that may need revising. With further development and refinement of the algorithm, we believe that this method could play an effective role in future operational monitoring of avalanches within Troms and has potential application in avalanche forecasting areas worldwide.
Avalanches are a natural hazard occurring in mountainous regions during wintertime and are difficult to monitor by traditional field‐based methods. We utilize synthetic aperture radar images to develop a technique for automated detection of avalanche debris with an ultimate goal of use in operational monitoring of avalanche activity.
Radar remote sensing of snow avalanche debris
Automatic detection algorithm
Operational monitoring of avalanches Avalanches are a natural hazard that occur in mountainous regions of Troms County in northern Norway during winter and can cause loss of human life and damage to infrastructure. Knowledge of when and where they occur especially in remote, high mountain areas is often lacking due to difficult access. However, complete, spatiotemporal avalanche activity data sets are important for accurate avalanche forecasting, as well as for deeper understanding of the link between avalanche occurrences and the triggering snowpack and meteorological factors. It is therefore desirable to develop a technique that enables active mapping and monitoring of avalanches over an entire winter. Avalanche debris can be observed remotely over large spatial areas, under all weather and light conditions by synthetic aperture radar (SAR) satellites. The recently launched Sentinel‐1A satellite acquires SAR images covering the entire Troms County with frequent updates. By focusing on a case study from New Year 2015 we use Sentinel‐1A images to develop an automated avalanche debris detection algorithm that utilizes change detection and unsupervised object classification methods. We compare our results with manually identified avalanche debris and field‐based images to quantify the algorithm accuracy. Our results indicate that a correct detection rate of over 60% can be achieved, which is sensitive to several algorithm parameters that may need revising. With further development and refinement of the algorithm, we believe that this method could play an effective role in future operational monitoring of avalanches within Troms and has potential application in avalanche forecasting areas worldwide. Avalanches are a natural hazard that occur in mountainous regions of Troms County in northern Norway during winter and can cause loss of human life and damage to infrastructure. Knowledge of when and where they occur especially in remote, high mountain areas is often lacking due to difficult access. However, complete, spatiotemporal avalanche activity data sets are important for accurate avalanche forecasting, as well as for deeper understanding of the link between avalanche occurrences and the triggering snowpack and meteorological factors. It is therefore desirable to develop a technique that enables active mapping and monitoring of avalanches over an entire winter. Avalanche debris can be observed remotely over large spatial areas, under all weather and light conditions by synthetic aperture radar (SAR) satellites. The recently launched Sentinel‐1A satellite acquires SAR images covering the entire Troms County with frequent updates. By focusing on a case study from New Year 2015 we use Sentinel‐1A images to develop an automated avalanche debris detection algorithm that utilizes change detection and unsupervised object classification methods. We compare our results with manually identified avalanche debris and field‐based images to quantify the algorithm accuracy. Our results indicate that a correct detection rate of over 60% can be achieved, which is sensitive to several algorithm parameters that may need revising. With further development and refinement of the algorithm, we believe that this method could play an effective role in future operational monitoring of avalanches within Troms and has potential application in avalanche forecasting areas worldwide. Plain Language Summary Avalanches are a natural hazard occurring in mountainous regions during wintertime and are difficult to monitor by traditional field‐based methods. We utilize synthetic aperture radar images to develop a technique for automated detection of avalanche debris with an ultimate goal of use in operational monitoring of avalanche activity. Key Points Radar remote sensing of snow avalanche debris Automatic detection algorithm Operational monitoring of avalanches |
Author | Larsen, Y. Vickers, H. Eckerstorfer, M. Malnes, E. Hindberg, H. |
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Cites_doi | 10.1016/S0169-8095(03)00056-5 10.1109/IGARSS.1999.774530 10.1016/j.coldregions.2015.08.016 10.1109/IGARSS.2014.6946959 10.1029/1999RS002270 10.5194/gmd-6-1061-2013 10.1029/2010JF001957 10.1080/01431161.2015.1057301 10.5194/nhess-13-1321-2013 10.5194/tc-7-1693/2013 10.1175/1520-0434(1990)005<0576:OSMOSI>2.0.CO;2 10.5194/nhess-12-2893-2012 10.1016/S0034-4257(99)00046-2 10.1016/j.coldregions.2009.02.007 10.5194/gmd-8-2611-2015 10.1109/TGRS.2008.2001387 10.5589/m13-016 10.1016/j.coldregions.2015.11.001 |
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SubjectTerms | Algorithms Automation avalanche detection Avalanches Detritus Fatalities Forecasting Methods Radar Remote sensing SAR imaging Snow Snowpack unsupervised classification Vegetation Winter |
Title | A method for automated snow avalanche debris detection through use of synthetic aperture radar (SAR) imaging |
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