Zero Energy Travel
Othman Ahmad, Aroland Kiring, Ali Chekima

TL;DR
This paper explores the theoretical and technological possibilities of achieving zero-energy travel by leveraging physics principles and advanced technologies, especially in space and controlled environments on land.
Contribution
It reviews existing and potential technologies enabling zero-energy travel, emphasizing magnetic levitation, vacuum environments, and energy recovery systems.
Findings
Zero-energy travel is theoretically possible based on Newton's laws.
Magnetic levitation and vacuum environments can reduce friction to near zero.
Energy recovery systems can make land-based travel more efficient.
Abstract
It is fundamentally possible to travel with zero energy based on Newton Laws of Motion. According to the first law of motion, a body will continue to travel for infinite distance unless it is acted upon by another force. For a body in motion, the force which stops perpetual motion is friction. However, there are many circumstances that friction is zero, for example in space, where there is vacuum. On earth, gravity makes objects to be in constant contact with each other generating friction but technology exists to separate them in the air using powerful magnetic forces. At low speeds, the friction caused by air is minimal but we can create vacuum even on land for high speed travel. Another condition for travelling is for it to stop at its destination. On land, we can recover the kinetic energy back into electrical energy using brushless permanent magnet generators. These generators can…
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Taxonomy
TopicsExperimental and Theoretical Physics Studies
