Advances in Electromagnetic Launch Science and Technology and its Applications

H. Fair
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Abstract

The US continues a broad spectrum of research to provide the scientific underpinnings for electromagnetic launch. These efforts include fundamental research on materials, properties of materials subjected to electromagnetic and thermal stress, railguns (particularly the rail-armature sliding interface), coilguns and energy storage and power conditioning. There is also broad and growing interest in novel applications of electromagnetic launch. For example, a supersonic beam of neon atoms have been slowed and stopped opening the door to investigating the atomic and molecular properties of most of the periodic table of atoms and certain molecules. Research is continuing on magnetic brakes, and the more traditional research on the launch of materials to hypervelocities. More recently, the launching of materials into earth's orbit or even deeper in space is obtaining renewed interest. Consequently, some attention is being given to the types of materials of projectiles for hypersonic flight. The US Navy has initiated new multidisciplinary University Research teams including physics, chemistry, and materials science to develop new diagnostic tools and to provide a more detailed examination of the rail-armature interface. Most significantly, the US Army has elevated its emphasis from electromagnetic launch science and technology development to the operational consequences of long-range precision fires. In concert with the recent US Navy efforts on long-range fires, it is anticipated that the pull of these applications will enable even greater advances in the science and technology of electromagnetic launch.
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电磁发射科学技术及其应用进展
美国继续进行广泛的研究,为电磁发射提供科学基础。这些努力包括材料的基础研究,电磁和热应力下材料的特性,轨道炮(特别是轨道-电枢滑动界面),线圈炮以及能量存储和功率调节。对电磁发射的新应用也有广泛和日益增长的兴趣。例如,一束氖原子的超音速光束被减慢并停止打开了研究大多数原子周期表和某些分子的原子和分子性质的大门。对磁性制动器的研究仍在继续,对超高速发射材料的更传统的研究也在继续。最近,将物质发射到地球轨道甚至更深的空间正在重新引起人们的兴趣。因此,高超声速飞行用弹丸材料的种类正受到一些关注。美国海军已经启动了新的多学科大学研究团队,包括物理、化学和材料科学,以开发新的诊断工具,并提供更详细的铁路-电枢界面检查。最重要的是,美国陆军已经将其重点从电磁发射科学和技术发展提升到远程精确火力的作战后果。与最近美国海军在远程火力方面的努力相一致,预计这些应用的拉动将使电磁发射科学和技术取得更大的进步。
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