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Watershed Planning within a Quantitative Scenario Analysis Framework
Published on: July 24, 2016
Multi-hazard risk characterization and collaborative control oriented to space in non-coal underground mines
Menglong Wu1, Nanyan Hu2, Yicheng Ye1
1School of Resource and Environmental Engineering, Wuhan University of Science and Technology, 430081, Wuhan, Hubei, People's Republic of China.
This study introduces a novel model for assessing and controlling multi-hazard risks in non-coal underground mines. It enhances safety by identifying risks, assessing vulnerabilities, and implementing a collaborative control system for better mine management.
Area of Science:
- Mining Engineering
- Risk Management
- Geotechnical Engineering
Background:
- Non-coal underground mines face complex multi-hazard risks, necessitating improved assessment and control strategies.
- Accident data from 2000-2022 highlights five key risk types: cage falls, powered haulage, fires, water inrush, and roof/rib failures.
- Existing models lack comprehensive spatial risk characterization and collaborative control mechanisms.
Purpose of the Study:
- To propose a space-oriented risk characterization and collaborative control model for multi-hazard risks in non-coal underground mines.
- To develop a framework for analyzing and assessing multi-hazard risks based on system inherent risk, disaster-bearing body vulnerability, and disaster-bearing area adaptability.
- To establish a multi-hazard safety risk collaborative control system for enhanced mine safety management.
Main Methods:
- Statistical analysis of historical accident data (2000-2022) to identify risk characteristics and types.
- Development of a multi-hazard risk analysis and assessment framework incorporating inherent risk, vulnerability, and adaptability indices.
- Application of the Nemerow pollution index for regional risk aggregation and spatial risk characterization.
- Construction of a collaborative control system encompassing source identification, classification, process control, continuous improvement, and full participation.
Main Results:
- Identification of five primary risk categories in non-coal underground mines.
- A comprehensive framework for evaluating inherent risks across equipment, materials, processes, operations, and places.
- Successful characterization and unified measurement of multi-hazard risks using vulnerability and adaptability indices.
- Validation of the proposed risk characterization model and collaborative control system's effectiveness and rationality.
Conclusions:
- The developed space-oriented model provides accurate risk assessment and facilitates collaborative control of multi-hazard risks in non-coal underground mines.
- The research supports the formulation of macro-level safety policies and offers practical guidance for spatial layout and risk management.
- The validated collaborative control system enhances overall mine safety through systematic risk management and stakeholder engagement.
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