FIRE VEHICLE ROUTE, RESPONSE TIME, AND SERVICE COVERAGE OPTIMIZATIONS IN PEKOJAN URBAN VILLAGE,TAMBORA SUBDISTRICT FIRE HOTSPOT OF JAKARTA CITY INDONESIA

Isradi Zainal; Fatma Lestari; Satriadi Gunawan; Andrio Adiwibowo; Abdul Kadir; Noor Aulia Ramadhan

doi:10.31004/prepotif.v6i2.5026

Authors

Isradi Zainal Occupational Health and Safety Department, Faculty of Public Health Universitas Indonesia
Fatma Lestari Occupational Health and Safety Department, Faculty of Public Health Universitas Indonesia
Satriadi Gunawan Fire and Rescue Agency, DKI Jakarta, Kota Jakarta Pusat, Daerah Khusus Ibukota Jakarta
Andrio Adiwibowo Occupational Health and Safety Department, Faculty of Public Health Universitas Indonesia
Abdul Kadir Occupational Health and Safety Department, Faculty of Public Health Universitas Indonesia
Noor Aulia Ramadhan Disaster Risk Reduction Center, Universitas Indonesia

DOI:

https://doi.org/10.31004/prepotif.v6i2.5026

Keywords:

FIRE VEHICLE ROUTE, RESPONSE TIME, SERVICE COVERAGE

Abstract

One challenge in managing fire hazards in an urban setting is how to optimize the fire service route, increase the response time, and increase service coverage. Recently, this challenge is becoming imminent due to road traffic congestion and insufficient road widths that are common in populated cities in the Southeast Asia regions. One of the urban fire hotspots in populated Jakarta City is Pekojan Urban Village, Tambora Subdistrict. This subdistrict is served by Angke Fire Station located in Pekojan’s southwestern parts. Then this research aims to evaluate and compare optimized routes for fire vehicle dispatched from Angke Fire Station to serve 12 neighborhood units (in Bahasa is RW) in Pekojan. The method used the route optimization and network analysis tools in Geographic Information System (GIS) and its related geospatial data including neighborhood units, road networks, traffic congestion, and fire station locations. Geospatial network analysis of data by GIS has an advantage as a method to design and analyze the routing strategy and determine the most optimized route for fire vehicles. Based on the results and with the fire vehicle speed of 40 km/h, the average optimized route distances to travel from the fire station to RWs were 1.092 km (95%CI: 0.888-1.3 km) with an average response time of 1.638 minutes (95%CI: 0.869-2.41 min.). According to the GIS, model, response time of 1 minute only covers 22.77% of Pekojan areas. By increasing response time to 2 minutes, then fire vehicle can cover 98.9% of Pekojan area (AIC= 0.06). Despite the fact that the fire vehicle routes and response times can be optimized, those routes are challenged by the road traffic congestion. This congestion limits the speeds of fire vehicles to less than 20 km/h, as observed in 11.59% of the optimized routes. The service coverages of fire vehicles was also limited due to the narrow street.

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