I mean, photons aren’t bound to just one e-p+ pair any more, they can bounce of the neighbors electrons (or protons) just as it would from its own proton (electron) pair, without any interference/loss.
Hard to put this in words...
I mean, photons aren’t bound to just one e-p+ pair any more, they can bounce of the neighbors electrons (or protons) just as it would from its own proton (electron) pair, without any interference/loss.
Hard to put this in words...
maxwell's equations have been treated as if they were uttermost foundational equations in areas of electricity
It becomes totally transparent to electromagnetic force
https://twetch.app/t/3a85fc21c808cbc05746d520069498abd9ec27ca3f8dda5310b6b37ba28061f1
Fields the transaction did not carry are omitted. Open the payload to see the bytes as stored.
1HZHJ7eMz61tgxnYx6mdoVJuM9n8VwRTs7 Verifiedthey're actually a very clumbsy set of equations to work with,and the reason is because they're expressing relationships that would apply if we had an aether
so if one thinks instead about one electron interacting w/ another electron — massive numbers of them interacting — then you would start where that started, and the simplist thing to start w/ is this thing called a superconductor
if there's no interference, superconductivity is the natural intrinsic condition of matter
https://twetch.app/t/577b88842e17613a394c4f6f2717d08dbac3656f424ccb8bb4587044d3bd14e4
the reason as why that's the simplist is that it doesn't have any of the complications of losses — there's no thermodynamics in it ONCE it's a superconductor
there's thermodynamics in it to GET there, but once you have the superconductor it's an extremely simple to understand object and the relationships that you get from it are extremely simple