直线同步电机推进的小型运输车辆

R. Thornton, T. Clark, B. Perreault
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引用次数: 10

摘要

直线同步电机(LSM)已用于几种高速磁悬浮应用,但直到最近才有开发商将其应用于城市交通。MagneMotion与联邦运输管理局(FTA)合作,作为其城市磁悬浮项目的一部分,开发了一种LSM驱动的磁悬浮运输系统,称为M/sup 3/。最高速度仅为目前在中国运营的Transrapid磁悬浮列车的一半,但通过使用小车头、快速加速的车辆,有可能以低得多的成本实现出色的性能。LSM技术和小型车辆的结合是旋转电机和线性感应电机(LIM)动力列车的经济高效替代品,适用于所有交通应用,包括传统轨道和单轨。LSM是一种使能技术,使其在经济上和技术上都是可行的,可以用短车辆实现高容量。相反,小型车辆的使用使LSM推进在经济上具有吸引力。小型车辆行驶时距短,组队行驶,无需离线加载即可实现高运力。非常精确的位置传感和基于导轨的推进和控制使短的前进安全和负担得起。本文描述了MagneMotion LSM开发的目标,讨论了一些设计特点,并给出了3个示例。这些示例的运行速度最高可达60米/秒(134英里/小时),加速度最高可达0.16 g,车辆前进时间缩短至4秒,每个方向每小时可容纳12,000名乘客(pphpd)。例子包括一个1英里的高容量班车,一个4公里的单向环路,几个车站,和一个30公里的高速机场连接器。计算结果表明,LSM驱动的交通系统比传统的使用旋转电机或lim的车载电力推进的交通系统具有更低的资本成本。交通工具简化了,能源和维护成本降低了,最重要的是,交通系统用户的出行时间大大缩短了。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Linear synchronous motor propulsion of small transit vehicles
The linear synchronous motor (LSM) has been used for several high speed maglev applications but only recently have developers applied it to urban transit. MagneMotion has worked with the Federal Transit Administration (FTA), as part of their Urban Maglev Project, to develop an LSM propelled maglev transit system called M/sup 3/. The top speed is only half that of the Transrapid maglev trains now operational in China but by using small vehicles with short headway and rapid acceleration it is possible to achieve outstanding performance at much lower cost. The combination of LSM technology and small vehicles is a cost effective replacement for rotary motor and linear induction motor (LIM) powered trains for all transit applications, including conventional rail and monorail. LSM is the enabling technology that makes it economically and technically feasible to achieve high capacity with short vehicles and. conversely, the use of small vehicles makes LSM propulsion economically attractive. Small vehicles operating with short headway and organized in clusters can achieve high capacity without offline loading. Very precise position sensing and guideway based propulsion and control make short headways safe and affordable. This paper describes the objectives of the MagneMotion LSM development, discusses some of the design features, and presents 3 examples. The examples are based on operational speeds up to 60 m/s (134 mph), accelerations up to 0.16 g, vehicle headways down to 4 seconds, and capacities up to 12,000 passengers per hour per direction (pphpd). Examples include a 1 mile high capacity shuttle, a 4 km unidirectional loop with several stations, and a 30 km high-speed airport connector. Calculations show that an LSM propelled transit system has lower capital cost than conventional transit systems using vehicle-based electric propulsion with either rotary motors or LIMs. Vehicles are simplified, the cost of energy and maintenance is reduced and, most important, users of the transit system experience major reductions in trip times.
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