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You can calculate how much more mass the plasma will gain from Einsteins's E=mc2, which is roughly 1.5E-8 grams.So I maintain that the mass of 1 mole of H2 gas at room temperature = 2 grams mass cannot be measurably distinguished from the same number of Hydrogen atoms as a plasma ≈ 2.000000015 grams mass.However, the rate of electromagnetic interactions (photon absorption/emission) is far higher in a plasma than in a neutral gas. The way I read the description of Space Flow theory, the plasma should weigh thousands (or millions?) of times more than the same amount of gas at room temperature.
Electrons if they try to recombine with protons would quite quickly be knocked out again by hi energy photons. Even then most of the time it would happen so quickly they wouldn't even emit a photon.
Quote from: Space FlowElectrons if they try to recombine with protons would quite quickly be knocked out again by hi energy photons. Even then most of the time it would happen so quickly they wouldn't even emit a photon.In a fully-ionized plasma, the electrons have far more energy than the ground-state energy of the atom (around 13 eV for Hydrogen). So the electrons don't try to fall into an orbital (and emit a photon), but remain in a hot soup of electrons and protons.Every time an electron passes a proton (which is very often, since they are moving at very high velocity), the path of the electron is bent towards the proton by its proximity to the positive charge. Every time an electron passes another electron, or a proton approaches another proton, their path is bent away from the similar charge; all these events are electromagnetic interactions which generate or absorb photons.This change in behavior is shown by the fact that the plasma is opaque (all frequencies are absorbed very quickly), while Hydrogen gas at room temperature is transparent to visible frequencies (ie effectively no frequencies are absorbed).
Those greedy Quarks are responsible for so much flow everything else pales to insignificance.
Quote from: Space FlowThose greedy Quarks are responsible for so much flow everything else pales to insignificance.The proton (containing 3 quarks) has the mass of 1836 electrons. This means the electron has about .0016% of the mass of a quark (on average; I know an isolated quark is not stable).This is a fairly sizable contribution to the mass of an atom (unlike effects like heating up an atom).
But this mass also accrues to an isolated electron traveling through a dark vacuum. As I understand it, an electron has no internal structure to vibrate, and it is not interacting with other atoms or photons. So here is a case where mass happens, but there is no vibration to chew up the hypothetical Space Flow.
Perhaps Space Flow is superfluous to mass?
Quote from: JeffreyHThe question is where would the graviton come from if it cannot escape the horizon?In a discussion about black holes, it was mentioned that the area of a black hole's event horizon increases proportionally to the mass of the black hole. There is a principle that information cannot be lost from the universe. It is as if a history of the three-dimensional matter entering the black hole is encoded in the two-dimensional surface of the event horizon, like a hologram. This would include the mass, charge & angular momentum of the matter inside. Perhaps this could be the source of the (hypothetical) gravitons?See: http://en.wikipedia.org/wiki/Holographic_principleDiscussion near the end of: http://omegataupodcast.net/2015/12/191-string-theory/
The question is where would the graviton come from if it cannot escape the horizon?
Since the geodesics inside an event horizon must be coherent since they all must point towards the singularity and follow the most direct route does this imply that the gravitational field of all objects is also coherent? Meaning that propagation follows a consistent radial direction away from the centre.