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Conservation of angular momentum means that the matter in the accretion disk that gets consumed by the black hole will transfer its angular momentum to the black hole and thus contribute to its spin.
Quote from: Dave Lev on 18/09/2023 20:42:11Therefore, why it isn't clear to all of us that if those quasars won't get new spinning energy that is needed to compensate the loss of spinning energy due the ergosphere phenomenon at least some of them won't be able to sustain this speed of light jet stream.First of all, the jets don't travel at the speed of light. They travel near the speed of light. Secondly, have you done the math to demonstrate that the needed energy isn't there? Something merely seeming intuitive to you isn't sufficient to count as evidence.
Therefore, why it isn't clear to all of us that if those quasars won't get new spinning energy that is needed to compensate the loss of spinning energy due the ergosphere phenomenon at least some of them won't be able to sustain this speed of light jet stream.
So, what is the benefit (from SMBH spinning energy) to force a proton that already gain its maximal kinetic energy at the accretion disc (from the SMBH spinning energy) to fall back into the SMBH, in order to help the SMBH to regain its spinning energy?
Well, our scientists have done the calculation:https://www.sci.news/astronomy/article00353.html"It would take a tremendous influx of matter for the galactic core to fire up again. Finkbeiner estimates that a molecular cloud weighing about 10,000 times as much as the Sun would be required."If I remember it correctly, that molecular cloud had been created in 6 Million years.Therefore, based on this rate, in 6 billion years 10 million sun mass had been ejected in the jet stream.This is more than the total mass of the SMBH.Based on this data, how can we claim that as we don't know than we don't care.Please, do you still insist to ignore the request for new SMBH/Quasar spinning energy in order to recover the lost energy?
That is about the Milky Way galaxy, not the quasar that this thread is about. The calculations for one are not applicable to the other.
I never said that was how it worked. The proton that flies out in the jet doesn't come back. It's the matter that doesn't end up in the jet that increases the black hole's spin.
There would be many infalling protons for every proton that gets sent into the polar jets. It's not a 1-to-1 ratio. That's why the black hole can keep its spin up.
Dave, just to let you know; these things are not "over-unity" devices and do not break the laws of physics.But they let you use the power of falling water to pump water to a greater height than it fell from.https://en.wikipedia.org/wiki/Hydraulic_ram
Can it multiply the power of the falling water by 2.45 Million times?
How can you break the conservation law so dramatically when it comes to your theory?
Why do you refuse to give the possibility for other theories to break the law conservation energy?
Why can't we agree on one law for all theories?
these things are not "over-unity" devices and do not break the laws of physics.
Energy conservation law is one of the most important laws in science.
If we wish to protect this law, then it is our obligation to find the data/proves/observation that can show that out of 2.45 Million falling particles, only one gets enough SMBH' spinning energy that its needed to set it at almost the speed of light in the accretion disc.
How can we explain this real observation of less than 1% of the gas and dust drawn into its gravitational field ever get consumed by the SMBH, while we try to assume that the correct ratio should be 245 Million % in order to protect the Energy conservation law for the SMBH spinning energy?
QuoteQuote from: Dave Lev on Today at 08:00:35Energy conservation law is one of the most important laws in science.Yes.
Quote from: Dave Lev on Today at 08:00:35Energy conservation law is one of the most important laws in science.
Based on your calculation about a quasar, the initial potential energy of a falling proton is -8.37 x 10^-14 Joules.
Quote from: Dave Lev on 19/09/2023 18:02:51Based on your calculation about a quasar, the initial potential energy of a falling proton is -8.37 x 10^-14 Joules.There's an error here. That's the gravitational potential energy at a distance of 2 light-days from the black hole, not the gravitational potential energy of the proton right at the black hole's event horizon (which will be much higher).
The mass of the black hole is 886 million times that of the Sun. The Sun's mass is 1.9885 x 1026 kilograms. That makes the black hole's mass 1.722 x 1035 kilograms. This means that the gravitational potential energy of a proton at two light-days from the black hole would be:U = (-GMm)/rU = (-(-6.674 x 10-11)(1.722 x 1035)(1.673 x 10-27))/(5.18 x 1013)U = (-(1.149 x 1025)(1.673 x 10-27))/(5.18 x 1013)U = (-(1.9227 x 10-2)/(5.18 x 1013)U = -3.71 x 10-16 joules
As the SMBH clearly spins, why we refuse to understand that this must be the ONLY ultimate source for the magnetic fields that can easily generate energy of 3 trillion trillion trillion joules (and above) due to the spinning motion?
Rotating, electrically-conducting fluids generate magnetic fields. Therefore, the accretion disk generates a magnetic field (even if, perhaps, the black hole does as well).
A classical black hole can only generate a magnetic field if it is both rotating and has a net electric charge (due to the no-hair theorem). However, it's also possible that black holes are not quite as they are described in relativity. One alternative model is called MECO (Magnetospheric Eternally Collapsing Object). MECOs can have magnetic fields, so I won't discount that possibility.
However, I need to remind you, once again, of what I said earlier in this thread: magnetic fields do not speed up electrically-charged particles. They can only change their direction. That being said, a magnetic field generated by a black hole (or MECO) cannot be responsible for energizing the jets.
Please be aware that the mass of the SMBH could be millions or even billions sun mass, while in the accretion disc the total mass could be just few sun mass.Therefore, even if you insist that the accretion disc generates magnetic fields, then by far the SMBH should generate millions or billions of times stronger magnetic fields.
The observation of the 3 trillion trillion trillion joules of energy flow up jet each second fully confirms that it is mainly due to the SMBH's magnetic fields
Why are you so sure about it?
magnetic fields do not do work on charged particles. Go back and read my reference earlier in the thread.
The magnetic fields do create the jets in the sense that they direct them. They do not contribute the jets' energy, though.
The strength of a magnetic field is not contingent upon mass.
We can produce magnetic fields many, many times stronger than the Earth's magnetic field despite the Earth being many orders of magnitude more massive than our machines.
Can you please redirect me to the relevant article about it.
What do you think about the Pulsar Beam?https://en.wikipedia.org/wiki/PulsarA pulsar (from pulsating radio source)[1][2] is a highly magnetized rotating neutron star that emits beams of electromagnetic radiation out of its magnetic poles.Don't you agree that it is electromagnetic radiation beam that is emitted out of its magnetic poles?If so, why the quasar can't emit similar beam of electromagnetic radiation out of its magnetic Poles?
Do you really consider that the potential energy of the falling particles could create energy that is equivalent to 3 trillion trillion trillion joules each second?Lets assume that we could stop the spinning motion of the SMBH, but we would keep its total mass.You had already confirmed that the SMBH contributes significant energy to the falling particles by its spinning motion.Therefore, can we agree that without the SMBH' spinning motion, the total energy in the accretion disc + in the jet stream would be significantly low?So, its not just about the mass, but it is also about its features - which means its spinning motion.Do you agree that a SMBH that doesn't spin would not contribute the energy that is needed to speed up the particles at the accretion disc to their speed of light?At the maximum, their kinetic energy would be equivalent to their starting potential energy.In other words - the energy in the accretion disc would be so low that we might not see it at all.Therefore, do you agree that a SMBH without spinning motion is just useless.
Not only that, but I'd also suspend you for a month
Why only a month?He's made it clear that he doesn't want to change his ways.