Could heat in motors be minimized when driven with quasiparticles?

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I am wondering if high strength electric discharges can in effect produce magnetic fields that can alter the magnetic ordering of particles in copper, which is otherwise a diamagnetic material. All atoms do possesses subatomic particles with magnetic moments, do they not? Could these not be aligned using quasiparticles? This would alter their energy and magnetic entropy states. Could the magnetic ordering be changed such that lower energy state is attained (i.e. a new "local" minimum)? I am not sure if there is an appropriate name for this, but I am think that some kind of quasiparticle is involved. Normally quasiparticles are discussed in fixed lattice structures, but I wonder if they may exist in a system possessing some temporary magnetic ordering. After a little bit of searching, I figured that a polariton might do the trick. As far as changing back to the original magnetic ordering, I think that may occur through spin waves. Polaritonics is intermediate between electronics and photonics. Could industrial-sized "polaritonic" motors be engineered into reality? Wouldn't they operate much cooler than today's "electric" motors?
 
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Personally, I have no idea what you are talking about - most of what you said sounds like gibberish to me. However, if you think you can build a more efficient electric motor, please go for it. Electric motors are a major user of electricity, so if you can gain a few points of efficiency you can probably become a rich man. Bear in mind that modern industrial motors are typically already between 90% and 95% efficient so you have a tough act to follow.
 
Insights auto threads is broken atm, so I'm manually creating these for new Insight articles. Towards the end of the first lecture for the Qiskit Global Summer School 2025, Foundations of Quantum Mechanics, Olivia Lanes (Global Lead, Content and Education IBM) stated... Source: https://www.physicsforums.com/insights/quantum-entanglement-is-a-kinematic-fact-not-a-dynamical-effect/ by @RUTA
If we release an electron around a positively charged sphere, the initial state of electron is a linear combination of Hydrogen-like states. According to quantum mechanics, evolution of time would not change this initial state because the potential is time independent. However, classically we expect the electron to collide with the sphere. So, it seems that the quantum and classics predict different behaviours!
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