Some Problems of Ultra-High-Speed Transportation Technologies

V. Skosar, S. Burylov, V. O. Dzenzerskyi
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Abstract

Purpose. The main purpose of the work is to identify some technical problems of high-speed transport that limit the effectiveness of relevant transport technologies in order to solve problems in the future and achieve progress in this area. Methodology. The theoretical analysis of scientific and technical publications, system analysis, numerical calculations, and exploratory forecasting were used. The features of the operation of high-speed transport of the 5th and 6th generation, based on the electrodynamic (electromagnetic) principle of movement and capable of reaching speeds from 200 to 60,000 km/s, are considered. Findings. The authors have established: 1) Maglev trains can become widespread in developed countries for passenger transportation and reach speeds of 600–700 km/h. They will be even cheaper, more comfortable and attractive due to new advances in high-temperature superconductivity, the use of nanoelectronics-based devices, and the solution of the issue of magnetic protection of passengers; 2) several Hyperloop lines are expected to be built for freight transportation. As operational experience is gained and safety issues of traveling in a vacuum pipeline are resolved, passenger lines may be launched. The Hyperloop will be able to reach speeds of up to 1,200 km/h; 3) Railgun transportation efficiency is expected to increase if new materials are developed and applied that would reduce ablation in extreme operating conditions. The Railgun will continue to be used in the scientific and technical sphere and in space technology; 4) it is possible to create an experimental Space Tram or its improved version if it is possible to develop the latest materials that can withstand ablation at high currents and speeds, and if there is a breakthrough in the field of high-temperature superconductivity. This development promises to significantly speed up the launch of payloads into orbit; 5) Breakthrough Starshot is unlikely to be created due to a number of technical difficulties that are far from being resolved. Originality. For the first time, the authors conducted a comprehensive analysis of technical problems in the field of ultra-high-speed transport technologies based on the electrodynamic (electromagnetic) principle of movement and proposed a forecast for the development of this transport in the next 20–30 years. Practical value. Based on the results obtained, it is possible to successfully solve the identified technical problems, which will increase the efficiency of ultra-high-speed transport technologies based on the electrodynamic (electromagnetic) principle of acceleration, movement and braking. In the near future, this will serve to speed up the introduction of freight transportation by Hyperloop-type transport and improve the acceleration devices for macrobodies such as Railgun.
超高速运输技术的若干问题
目的。这项工作的主要目的是找出限制相关运输技术有效性的一些高速运输技术问题,以便在未来解决问题,并在这一领域取得进展。研究方法。采用科技出版物理论分析、系统分析、数值计算、探索性预测等方法。考虑了以电动(电磁)运动原理为基础、速度可达 200 至 60 000 公里/秒的第五代和第六代高速交通工具的运行特点。研究结果。作者已经确定:1)磁悬浮列车可以在发达国家广泛应用于客运,时速可达 600-700 公里。由于高温超导技术的新进展、基于纳米电子器件的使用以及乘客磁防护问题的解决,磁悬浮列车将更加便宜、舒适和具有吸引力;2)预计将建造几条用于货运的 Hyperloop 线路。随着运行经验的积累和真空管道内行驶安全问题的解决,客运线路可能会启动。Hyperloop 的速度最高可达每小时 1 200 公里;3) 如果能开发和应用新材料,减少极端运行条件下的烧蚀,轨道炮的运输效率有望提高。轨道炮将继续用于科技领域和空间技术领域;4)如果能够开发出能够承受大电流和高速度烧蚀的最新材料,如果在高温超导领域取得突破,就有可能制造出实验性的太空电车或其改进型。这一发展有望大大加快向轨道发射有效载荷的速度;5)由于一些技术难题远未解决,突破性的 "Starshot "不可能问世。独创性。作者首次对基于电动(电磁)运动原理的超高速运输技术领域的技术难题进行了全面分析,并对这种运输方式在未来 20-30 年的发展提出了预测。实用价值。根据所取得的成果,有可能成功解决已确定的技术问题,这将提高基于电动(电磁)加速、运动和制动原理的超高速运输技术的效率。在不久的将来,这将有助于加快采用 Hyperloop 型运输工具进行货运,并改进轨道炮等大型物体的加速装置。
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