Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Monitoring and Early Warning Method of Debris Flow Expansion Behavior Based on Improved Genetic Algorithm and Bayesian Network

View through CrossRef
Based on an improved genetic algorithm and debris flow disaster monitoring network, this study examines the monitoring and early warning method of debris flow expansion behavior, divides the risk of debris flow disaster, and provides a scientific basis for emergency rescue and post-disaster recovery. The function of the debris flow disaster monitoring network of the spreading behavior disaster chain is constructed. According to the causal reasoning of debris flow disaster monitoring information, the influence factors of debris flow, such as rainfall intensity and duration, are selected as the inputs of the Bayesian network, and the probability of a debris flow disaster is obtained. The probability is compared with the historical data threshold to complete the monitoring and early warning of debris flow spreading behavior. Innovatively, by introducing niche technology to improve traditional genetic algorithms by learning Bayesian networks, the optimization efficiency and convergence speed of genetic algorithms are improved, and the robustness of debris flow monitoring and warning is enhanced. The experimental results show that this method divides debris flow disasters into the following five categories based on their danger: low-risk area, medium-risk area, high-risk area, higher-risk area, and Very high-risk area. It accurately monitors the expansion of debris flows and completes early warning. The disaster management department can develop emergency rescue and post-disaster recovery strategies based on early warning results, thus providing a scientific basis for debris flow disasters. The improved genetic algorithm has a higher learning efficiency, a higher accuracy, a faster convergence speed, and higher advantages in learning time and accuracy of the Bayesian network structure.
Title: Monitoring and Early Warning Method of Debris Flow Expansion Behavior Based on Improved Genetic Algorithm and Bayesian Network
Description:
Based on an improved genetic algorithm and debris flow disaster monitoring network, this study examines the monitoring and early warning method of debris flow expansion behavior, divides the risk of debris flow disaster, and provides a scientific basis for emergency rescue and post-disaster recovery.
The function of the debris flow disaster monitoring network of the spreading behavior disaster chain is constructed.
According to the causal reasoning of debris flow disaster monitoring information, the influence factors of debris flow, such as rainfall intensity and duration, are selected as the inputs of the Bayesian network, and the probability of a debris flow disaster is obtained.
The probability is compared with the historical data threshold to complete the monitoring and early warning of debris flow spreading behavior.
Innovatively, by introducing niche technology to improve traditional genetic algorithms by learning Bayesian networks, the optimization efficiency and convergence speed of genetic algorithms are improved, and the robustness of debris flow monitoring and warning is enhanced.
The experimental results show that this method divides debris flow disasters into the following five categories based on their danger: low-risk area, medium-risk area, high-risk area, higher-risk area, and Very high-risk area.
It accurately monitors the expansion of debris flows and completes early warning.
The disaster management department can develop emergency rescue and post-disaster recovery strategies based on early warning results, thus providing a scientific basis for debris flow disasters.
The improved genetic algorithm has a higher learning efficiency, a higher accuracy, a faster convergence speed, and higher advantages in learning time and accuracy of the Bayesian network structure.

Related Results

Accurate and Intelligent Early Warning Method of Debris Flow Formation Based on IGWO-LSTM Algorithm
Accurate and Intelligent Early Warning Method of Debris Flow Formation Based on IGWO-LSTM Algorithm
To improve the accuracy of debris flow forecasts and serve as disaster prevention and mitigation, an accurate and intelligent early warning method of debris flow initiation based o...
Anthropogenic materials in the nests of Passerine birds: does the environment matter?
Anthropogenic materials in the nests of Passerine birds: does the environment matter?
Background. For several past decades, a notable pollution of the environment by different kinds of solid waste has been noted. The number of studies addressing the issue of utilisi...
Debris cover effect on the evolution of glaciation in the Northern Caucasus
Debris cover effect on the evolution of glaciation in the Northern Caucasus
<p>A common disadvantage of almost all global glacier models is that they ignore the explicit description of the debris cover on the heat exchange of the glacier surf...
Outlining a stepwise, multi-parameter debris flow monitoring and warning system: an example of application in Aizi Valley, China
Outlining a stepwise, multi-parameter debris flow monitoring and warning system: an example of application in Aizi Valley, China
<p>Abstract: In recent years, the increasing frequency of debris flow demands enhanced effectiveness and efficiency are essential not only from an economic point of v...
Studi terhadap Penumpukan Debris Kayu dengan Backwater Rise Kenaikan Muka Air pada Hulu Jembatan
Studi terhadap Penumpukan Debris Kayu dengan Backwater Rise Kenaikan Muka Air pada Hulu Jembatan
Debris flow is a phenomenon that occurs in both upstream and downstream watersheds. Heavy rains cause debris flow, which transports some of the material in the watershed, including...
How debris flows shape mountain catchments? Insights from high-resolution topography.
How debris flows shape mountain catchments? Insights from high-resolution topography.
Landscapes are shaped by the interaction of diverse erosion processes, such as hillslope processes, fluvial erosion, debris-flow erosion. The efficiency of each of these processes ...
In-channel landslide deposits and future debris flows
In-channel landslide deposits and future debris flows
<p>Debris flows/floods are natural hazards occurring in steep mountain catchments. Debris material mainly derives from processes of channel/channel head, bed erosion,...
Modeling debris-covered glaciers: extension due to steady debris input
Modeling debris-covered glaciers: extension due to steady debris input
Abstract. Debris-covered glaciers are common in rapidly-eroding alpine landscapes. When thicker than a few centimeters, surface debris suppresses melt rates. If continuous debris c...

Back to Top