列车协调控制与能源管理控制策略

S. P. Gordon, D. Lehrer
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引用次数: 67

摘要

美国湾区快速交通(BART)系统与休斯飞机公司和哈蒙工业公司合作,正在开发一种先进的自动列车控制(AATC)系统,以取代目前的固定块自动系统。从长远来看,AATC系统不仅可以实现安全的短时距操作,还可以促进列车控制和能源管理的协调。这种新系统将采用扩频无线电,安装在列车上、路旁位置和控制站,以确定列车位置并可靠地传递控制信息。桑迪亚国家实验室与BART合作开发了AATC系统的列车控制和功耗模拟器。他们目前正在开发增强型列车控制算法,以补充安全关键控制器,以便通过多列列车的协调控制来平滑列车轨迹,并降低能耗和电力基础设施要求。目前考虑的控制算法包括:(1)降低峰值功耗以避免电压下降,特别是在停电或清理备用时;(2)从备份中快速平稳地恢复;(3)避免列车干扰引起的振荡;(4)将变电站的电力需求尖峰限制在规定的水平;(5)滑行;(6)协调列车运动,例如启动/停止和爬坡。
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Coordinated train control and energy management control strategies
The Bay Area Rapid Transit (BART) system, USA, in collaboration with Hughes Aircraft Company and Harmon Industries, is in the process of developing an advanced automatic train control (AATC) system to replace the current fixed-block automatic system. In the long run, the AATC system is expected to not only allow for safe short headway operation, but also to facilitate coordinated train control and energy management. This new system will employ spread spectrum radios, installed on-board trains, at wayside locations and at control stations, to determine train locations and reliably transfer control information. Sandia National Laboratories has worked cooperatively with BART to develop a simulator of the train control and power consumption of the AATC system. They are now in the process of developing enhanced train control algorithms to supplement the safety critical controller in order to smooth out train trajectories through coordinated control of multiple trains, and to reduce energy consumption and power infrastructure requirements. The control algorithms so far considered include: (1) reducing peak power consumption to avoid voltage sags, especially during an outage or while clearing a backup; (2) rapid and smooth recovery from a backup; (3) avoiding oscillations due to train interference; (4) limiting needle peaks in power demand at substations to some specified level; (5) coasting; and (6) coordinating train movement, e.g. starts/stops and hills.
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