From Shinkansen to Spacecraft Propulsion: The Role of Superconductivity and Electromagnetism In Modern Engineering

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Autor principal: Shenai, Tanush Nayan
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Publicado: Zenodo 2025
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author Shenai, Tanush Nayan
author_facet Shenai, Tanush Nayan
contents <p>Superconductivity and electromagnetism are two groundbreaking technologies that are reshaping the future of<br>engineering across key sectors. Superconductivity, which enables the conduction of electricity without resistance at very low<br>temperatures, is driving breakthroughs in energy efficiency and magnetic field manipulation. When combined with<br>electromagnetic and magnetic levitation (maglev) technologies, it allows for the creation of frictionless and powerful systems<br>that push the boundaries of speed, efficiency, and sustainability. In transportation, maglev trains are facilitating unprecedented<br>high-speed travel, offering faster, quieter, and more environmentally friendly transportation. In aerospace, these technologies<br>are transforming spacecraft launches, enhancing propulsion and control. Additionally, in the defense sector, electromagnetic<br>technology powers railguns, electromagnetic aircraft launch systems (EMALS), and other advanced weapons, improving<br>defense and attack capabilities. This paper explores the specific technologies of superconductivity and electromagnetism,<br>examining their applications in transportation, aerospace, and military sectors. By highlighting recent advancements and<br>addressing ongoing challenges, it reveals the potential and feasibility of these technologies in shaping the future</p>
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spellingShingle From Shinkansen to Spacecraft Propulsion: The Role of Superconductivity and Electromagnetism In Modern Engineering
Shenai, Tanush Nayan
uperconductivity, electromagnetism, maglev trains, aerospace propulsion, space exploration, ElectroMagnetic Aircraft Launch Systems (EMALS), electrodynamic tethers(EDT), high-speed transport, railguns.
<p>Superconductivity and electromagnetism are two groundbreaking technologies that are reshaping the future of<br>engineering across key sectors. Superconductivity, which enables the conduction of electricity without resistance at very low<br>temperatures, is driving breakthroughs in energy efficiency and magnetic field manipulation. When combined with<br>electromagnetic and magnetic levitation (maglev) technologies, it allows for the creation of frictionless and powerful systems<br>that push the boundaries of speed, efficiency, and sustainability. In transportation, maglev trains are facilitating unprecedented<br>high-speed travel, offering faster, quieter, and more environmentally friendly transportation. In aerospace, these technologies<br>are transforming spacecraft launches, enhancing propulsion and control. Additionally, in the defense sector, electromagnetic<br>technology powers railguns, electromagnetic aircraft launch systems (EMALS), and other advanced weapons, improving<br>defense and attack capabilities. This paper explores the specific technologies of superconductivity and electromagnetism,<br>examining their applications in transportation, aerospace, and military sectors. By highlighting recent advancements and<br>addressing ongoing challenges, it reveals the potential and feasibility of these technologies in shaping the future</p>
title From Shinkansen to Spacecraft Propulsion: The Role of Superconductivity and Electromagnetism In Modern Engineering
topic uperconductivity, electromagnetism, maglev trains, aerospace propulsion, space exploration, ElectroMagnetic Aircraft Launch Systems (EMALS), electrodynamic tethers(EDT), high-speed transport, railguns.
url https://doi.org/10.5281/zenodo.15709797