Modelling for landslide area prediction in consideration of heavy rainfall event and soil water content in upstream catchment of dam reservoir

With increasing frequency of heavy rainfall events as a result of climate change, the long term assessment of sediment dynamics becomes a critical issue in maintenance and management of dam reservoirs. This paper discusses how heavy rainfall events in the upper basin affects sedimentation in a dam r...

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Veröffentlicht in:Doboku Gakkai Ronbunshu. B1, Suikogaku = Journal of Japan Society of Civil Engineers. Ser. B1, Hydraulic Engineering Ser. B1 (Hydraulic Engineering), 2019, Vol.75(2), pp.I_823-I_828
Hauptverfasser: AKIYAMA, Koichi, TAKAHASHI, Daichi, ISHIKAWA, Tadaharu, MICHIOKU, Kohji
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container_title Doboku Gakkai Ronbunshu. B1, Suikogaku = Journal of Japan Society of Civil Engineers. Ser. B1, Hydraulic Engineering
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creator AKIYAMA, Koichi
TAKAHASHI, Daichi
ISHIKAWA, Tadaharu
MICHIOKU, Kohji
description With increasing frequency of heavy rainfall events as a result of climate change, the long term assessment of sediment dynamics becomes a critical issue in maintenance and management of dam reservoirs. This paper discusses how heavy rainfall events in the upper basin affects sedimentation in a dam reservoir. A mathematical model was proposed in order to reproduce long-term changes of shallow landslide area in the test basin. The dataset of landslide area was obtained by aerial image analysis. It was assumed in the model that governing parameters of shallow landslide were intensities of the short- and long-duration precipitation, where the latter is deeply concerned with ground water content in the catchment. A threshold of shallow landslide occurrence was determined in consideration both of the short- and long-duration rainfall events. Applying the model to the Sagae Reservoir basin area in Yamagata Prefecture, the historical change of shallow landslide area was successfully reproduced by the model with higher accuracy than by the previous model7) in which the long-duration rainfall event was not considered. In addition, it was shown that the landslide area predicted by the present model was better correlated with the bottom sediment volume in the dam reservoir than the previous model.
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This paper discusses how heavy rainfall events in the upper basin affects sedimentation in a dam reservoir. A mathematical model was proposed in order to reproduce long-term changes of shallow landslide area in the test basin. The dataset of landslide area was obtained by aerial image analysis. It was assumed in the model that governing parameters of shallow landslide were intensities of the short- and long-duration precipitation, where the latter is deeply concerned with ground water content in the catchment. A threshold of shallow landslide occurrence was determined in consideration both of the short- and long-duration rainfall events. Applying the model to the Sagae Reservoir basin area in Yamagata Prefecture, the historical change of shallow landslide area was successfully reproduced by the model with higher accuracy than by the previous model7) in which the long-duration rainfall event was not considered. 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subjects aerial photograph analysis
Basins
Bottom sediments
Catchment area
Climate change
Dams
Duration
Estimation of landslide area
Groundwater
Image analysis
Image processing
Landslides
Long-term changes
Mathematical models
Model accuracy
Moisture content
Rain
Rain intensity
Rainfall
Reservoir management
Reservoir sedimentation
Reservoirs
Sediment
Sediment dynamics
Sediment volume
Sedimentation
Soil
Soil water
Water content
title Modelling for landslide area prediction in consideration of heavy rainfall event and soil water content in upstream catchment of dam reservoir
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