The Impact of Different Ventilation Conditions on Electric Bus Fires

Author:

Yao Haowei12,Xing Mengyang12,Song Huaitao12ORCID,Zhang Yang3,Luo Sheng1,Bai Zhenpeng12ORCID

Affiliation:

1. College of Building Environment Engineering, Zhengzhou University of Light Industry, Zhengzhou 450001, China

2. Zhengzhou Key Laboratory of Electric Power Fire Safety, Zhengzhou 450001, China

3. School of Electrical Information Engineering, Henan University of Engineering, Zhengzhou 451191, China

Abstract

Once a fire breaks out in an electric bus, it can easily lead to mass casualties and severe injuries, resulting in significant property damage and social impact. The high-temperature smoke and toxic gases in an electric bus fire are key factors that cause a large number of casualties, both of which are closely related to ventilation conditions. In view of this, this study utilized the Fire Dynamics Simulator (FDS 6) software to establish a three-dimensional experimental model of an electric bus. Numerical simulations of the fire combustion process in the electric bus under different ventilation conditions were conducted. Multiple fire scenes were established based on varying ventilation areas, different wind speeds, and diverse window opening positions. This study specifically analyzed the temperature and CO concentration variations under different fire scenes. By comparing the simulation results under different ventilation conditions, it can be concluded that when an electric bus catches fire, opening 100% of the windows, the wind speed is 8 m/s, and opening the rear window of the electric bus first can minimize the fire risk. Through the numerical simulation of electric bus fires under various conditions, this study analyzed the impact of different ventilation conditions on electric bus fires, providing a theoretical basis for firefighting and rescue efforts as well as personnel evacuation in electric bus fire incidents, with the ultimate goal of maximizing public safety.

Funder

Henan Province Key R&D Special Project

Zhengzhou University of Light Industry Science and Technology Innovation Team Support Program Project

Henan Province Science and Technology Research Plan Project

Zhengzhou City Collaborative Innovation Special Project

Publisher

MDPI AG

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