Banri Khemkladmuk, Chanchai Techawatcharapaikul, Thanatchai Kulworawanichpong. Emergency Power Sharing by Using a Self-Traction System in a Mass Rapid Transit Railway[J]. IET Energy Systems Integration, 2026,8(1).
Banri Khemkladmuk, Chanchai Techawatcharapaikul, Thanatchai Kulworawanichpong. Emergency Power Sharing by Using a Self-Traction System in a Mass Rapid Transit Railway[J]. IET Energy Systems Integration, 2026, 8(1).
Banri Khemkladmuk, Chanchai Techawatcharapaikul, Thanatchai Kulworawanichpong. Emergency Power Sharing by Using a Self-Traction System in a Mass Rapid Transit Railway[J]. IET Energy Systems Integration, 2026,8(1).DOI: 10.1049/esi2.70040.
Banri Khemkladmuk, Chanchai Techawatcharapaikul, Thanatchai Kulworawanichpong. Emergency Power Sharing by Using a Self-Traction System in a Mass Rapid Transit Railway[J]. IET Energy Systems Integration, 2026, 8(1).DOI: 10.1049/esi2.70040.
Emergency Power Sharing by Using a Self-Traction System in a Mass Rapid Transit Railway
摘要
Abstract
Systemwide traction power outages in mass rapid transit systems (MRTSs) can cause trains to stop between stations
leading to service disruption and urgent passenger evacuation requirements. Onboard emergency self-traction systems (ESTSs) can mitigate this risk by enabling a stranded train to reach the nearest station at low speed. However
installing and maintaining ESTS on every train can increase implementation and lifecycle costs
motivating approaches that can ensure evacuation with partial ESTS deployment. This article introduces a power-sharing framework for ESTS in an MRTS. The primary aim is to reduce the number of ESTS units needed by facilitating power sharing between trains equipped with ESTS and those without it
while guaranteeing that all trains can safely and quickly evacuate passengers to the nearest station during a systemwide power outage. This study examines the Bangkok Mass Transit System (BTS) Skytrain Silom Line (dark green line) in Thailand
through computer simulation parameterised by real-world line and operational data
to evaluate the viability of this concept. It analyses variables such as the quantity of trains outfitted with ESTS
the distance from the train to the station where it halted
particular train specifications and additional pertinent aspects. The results reveal that ESTS can efficiently provide backup power to equipped trains and share surplus energy with other trains within the sharing radius with a success rate of 72.41%. This underscores the viability of ESTS operations and aids in the advancement of a more sustainable and efficient MRTS
Optimal Capacity Configuration of Park Integrated Energy Systems With Inter-Seasonal Flexible Load Participation Characteristics
A distributed robust state estimation method based on alternating direction method of multipliers for integrated electricity-heat system
Distributed robust operation strategy of multi-microgrid based on peer-to-peer multi-energy trading
Energy and power management system for microgrids of large-scale building prosumers
Mobile energy-to-home integration: An adaption of mobility as a service in urban energy systems
相关作者
Hao Sun
Jiayao Wang
Shoulian Yang
Zhi Zhu
Zuoxia Xing
Yanbo Chen
Feixiong Chen
Fotios D. Kanellos
相关机构
School of Electrical Engineering, Shenyang University of Technology
Key Laboratory of Intelligent Operation of New Energy Power System of Ministry of Education, School of Energy and Electrical Engineering, Qinghai University
School of Engineering, Qinghai University of Science and Technology
State Key Laboratory of Alternate Electrical Power System with Renewable Energy Sources, School of Electrical & Electronic Engineering, North China Electric Power University
Fujian Smart Electrical Engineering Technology Research Center, College of Electrical Engineering and Automation, Fuzhou University