Recent content by Karmyogi01

Thanks for making my point! Yes, “hours” is not forever! However, the analysis says times required are likely to be much longer than that. I am calling it a “paradox” and NOT a contradiction. I believe there is an explanation, but the discussion here has not yet yielded the resolution! Following...

That's not what I said. Please read the whole post. Your first paragraph states the obvious!

Thanks Dale for the info. So, this resistance would be a factor in the ramp up of voltage to V. If the ramp up is done very slowly, then the impact of the radiation resistance can be made insignificant. The real story begins after reaching the desired very small voltage V. From here on, the...

As stated above, I mentioned "ideal source" for the sake of clarity only and mentioned already that we do not necessarily have to assume that. I stated this already. To answer your question regarding TC, please tell me your estimate of "radiation resistance."

The radiation resistance is supposed to be very small and does not change the logic in a fundamental way. The time constant (TC) does not match what we observe. In addition, the question is not constrained to only an ideal power source.

Good insight indeed! However, here we do not have the high frequency situation.

For a series circuit the power supply is connected in series.

I am assuming an ideal power source with zero impedance for clarity. However, the fundamental logic will not change even if it were not an ideal power source.

There is no resistor in series. All components are superconductive. R is vanishingly small

For a series R-L circuit that uses superconductive components, how long would it take for current to build up after the power is turned on?

I truly appreciate you trying to shed very helpful light on the subject. Let us consider a situation wherein a blackhole gobbles up a large amount of charged mass nearby when emission of radiation was in progress from a source outside its blackhole boundary but quite close to it. It results in...

Thanks. Interaction of a particle, including a photon, with an electrogravitational field depends on its charge to mass ratio. If we do not know the charge to mass ratio (q/m) of a photon, then we cannot predict or understand its interactions with an electrogravitational field. If q/m for a...

Photon is supposed to have a vanishingly small amount of charge and a vanishingly small amount of mass. However, I have been unable to find any information regarding photon’s charge to mass ratio (q/m). I will appreciate any insight on this issue.

Thanks for all the very helpful insights provided here! I truly appreciate it! So, if this expression for the redshift is not valid for this region under the blackhole boundary, which one is the right expression? Let us consider a scenario wherein the mass of the blackhole increases, when...