磁悬浮技术的研究与发展及其在常规铁路上的应用

Kenichi Nagashima, T. Sasakawa
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引用次数: 1

摘要

本文介绍了RTRI关于磁悬浮基础技术的发展以及磁悬浮技术在传统铁路系统中的应用的最新研究成果。本文还介绍了未来使用磁悬浮的最新发展,WCRR2019报道的信息,以及日本国内外的相关新闻。(SC-MAGLEV),高温超导磁体的长期耐久性,车载供电无线供电系统,乘客舒适性研究,以及新车型[5]。在题为“高温超导体磁悬浮地面交通”的讲座中,德国ATZ的Werfel博士对两种类型的磁悬浮技术进行了技术讨论:一种是德国开发并在上海投入实际使用的普通导电磁悬浮“Transrapid”,另一种是日本开发的超导磁悬浮“SCMAGLEV”。Werfel博士还谈到了磁悬浮用高温超导磁体取代低温超导磁体的优势和发展挑战,高温超导磁体采用JR Central开发的Bi2223高温超导线,高温超导磁体采用RTRI正在开发的REBCO(稀土基)高温超导线。最后,Werfel博士在qr和介绍更高的速度。大约一半的车辆研发主要集中在法兰爬升脱轨和耐撞性评价等运行安全性评价方法的研究上。为了提高铁路为乘客提供的服务质量,其他研发旨在通过减少振动、开发倾斜技术和降低噪音来提高乘坐舒适性。本文概述了汽车结构技术部目前的研究和发展情况、耐撞性评估的现状以及改善乘坐舒适性的工作。
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Research and Development of Maglev and Application of Related Technologies to Conventional Railways
This paper presents recent findings from RTRI regarding the development of fundamental technologies for maglev (magnetic levitation) and the application of maglev technology to the conventional railway sys tem. This paper also introduces the latest developments regarding the future use of maglev, information re ported at WCRR2019, and related news from and outside Japan. (SC-MAGLEV), long-term durability of high-temperature superconducting magnets, wireless power supply systems for on-board power supply, research on passenger comfort, and new vehicle models [5]. In a lecture entitled “Maglev Ground Transportation with High-Temperature Super-conductors (HTS),” Dr. Werfel of ATZ in Germany began a technical discussion on two types of maglev technology: normal conducting maglev “Transrapid” which was developed in Germany and put to practical use in Shanghai, and the superconducting maglev “SCMAGLEV,” developed in Japan. Dr. Werfel also talked about the advantages and development challeng-es of replacing low-temperature superconducting magnets with high-temperature ones in maglev, high-temperature superconducting magnets using Bi2223 high-temperature superconducting wire developed by JR Central, and high-temperature superconducting magnets using REBCO (rare-earth-based) high-temperature superconducting wire, being developed by RTRI. Finally, Dr. Werfel in-QR of and introducing higher speeds. Approximately half all R & D for vehicles is concentrated on mainly focusing on research on running safety evaluation methods such as flange climb derailment and crashworthiness evaluation. To improve the quality of railway services for passengers, other research and development aims to improve ride comfort by reducing vibration, developing tilting technology and noise reduction. This paper gives an overview of current research and development being conducted in the Vehicle Structure Technology Division, the status of crashworthiness evaluation, and of work to improve ride comfort.
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36
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