Block-Unit-Based Method for Delineating Fire Station Response Zones Using Real-Time Traffic Data

The effective delineation of fire station response zones is critical for urban public safety planning, yet traditional methods often fail to account for dynamic traffic conditions, leading to suboptimal resource allocation. This study proposes a novel block-unit-based method that incorporates real-time traffic data to delineate fire station response zones, improving the scientificity of response time estimation. The method was validated using data from Daxiang District, China, a typical urban–rural mixed region, encompassing 2230 block units, 4 fire stations, and 13,097 demand points. Analysis of 1,225,047 data samples revealed an average travel time of 960.7 s, highlighting significant accessibility challenges. The re-delineated response zones cover areas ranging from 1.07 to 156.24 km2, with significant variations. It is attributed to the concentration of fire stations in urban areas, insufficient coverage of vast rural regions, and the proximity of one station to a river and regional boundary. These findings underscore the spatial inequities in fire service provision and the need for a more balanced resource allocation strategy. Recommendations include establishing rural fire stations, improving urban traffic conditions, and relocating certain fire stations. This approach can enhance regional accessibility and provides a scientific basis for fire service planning.

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Publication Details

Journal
Fire
Published
2026-02-27
DOI
https://doi.org/10.3390/fire9030106
Primary Topic
Injury Epidemiology and Prevention
Type
article
Field-Weighted Citation Impact
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article

Block-Unit-Based Method for Delineating Fire Station Response Zones Using Real-Time Traffic Data

Diping Yuan, DingLi Liu, Y.F. Wu, Weijun Liu et al.
Fire
Injury Epidemiology and Prevention
article

Block-Unit-Based Method for Delineating Fire Station Response Zones Using Real-Time Traffic Data

Diping Yuan, DingLi Liu, Y.F. Wu, Weijun Liu, Guohua Wu, Zhe Cheng, Lei Zou, Kang Liu
article en

Abstract

The effective delineation of fire station response zones is critical for urban public safety planning, yet traditional methods often fail to account for dynamic traffic conditions, leading to suboptimal resource allocation. This study proposes a novel block-unit-based method that incorporates real-time traffic data to delineate fire station response zones, improving the scientificity of response time estimation. The method was validated using data from Daxiang District, China, a typical urban–rural mixed region, encompassing 2230 block units, 4 fire stations, and 13,097 demand points. Analysis of 1,225,047 data samples revealed an average travel time of 960.7 s, highlighting significant accessibility challenges. The re-delineated response zones cover areas ranging from 1.07 to 156.24 km2, with significant variations. It is attributed to the concentration of fire stations in urban areas, insufficient coverage of vast rural regions, and the proximity of one station to a river and regional boundary. These findings underscore the spatial inequities in fire service provision and the need for a more balanced resource allocation strategy. Recommendations include establishing rural fire stations, improving urban traffic conditions, and relocating certain fire stations. This approach can enhance regional accessibility and provides a scientific basis for fire service planning.

FireVol. 9(3)
Chinese Academy of Sciences (CN), China University of Mining and Technology (CN), Shenzhen Institutes of Advanced Technology (CN), Changsha University of Science and Technology (CN)
Sustainable cities and communities
Openalex Percentile: Top 44%
Injury Epidemiology and Prevention
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