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Therefore, due to that Asymmetry/parity some particles would survive the annihilation process.
Therefore, if any virtual particle with mass at that early universe time can pop into existence and stay at existence due to asymmetry or parity idea then this idea can also work for theory D.
The mass conservation law is a consequence of a symmetry, and that symmetry does not exist at the moment of the BB.
QuoteQuote from: Dave Lev on Yesterday at 12:43:41Therefore, you can't just assume that the BBT energy had been created at some other 3D brane without breaking the conservation of massI never did.
Quote from: Dave Lev on Yesterday at 12:43:41Therefore, you can't just assume that the BBT energy had been created at some other 3D brane without breaking the conservation of mass
I do recall that you did.
If so, would you kindly explain where that BBT Energy had been created and how?
The particles generated shortly after the BB were real, though half of them were antimatter.The particles generated by the VE are virtual; half of them are antimatter.
But it can not apply to virtual particles so it does not rescue your wrong idea about virtual particles becoming real.
You really should try learning science.
under the right conditions
Do not bother to reply until you find out the difference between real and virtual particles.Until you do that, you are just wasting everybody's time.
You're talking about two completely different things. Virtual particle pairs appearing and then disappearing in the vacuum doesn't have anything to do with asymmetry in the decay paths of real particles.
Explain to us, for example, how to get an electron out of the vacuum without it disappearing back into the vacuum again.
"Nevertheless, a tiny portion of matter – about one particle per billion – managed to survive. This is what we see today. In the past few decades, particle-physics experiments have shown that the laws of nature do not apply equally to matter and antimatter. Physicists are keen to discover the reasons why. Researchers have observed spontaneous transformations between particles and their antiparticles, occurring millions of times per second before they decay. Some unknown entity intervening in this process in the early universe could have caused these "oscillating" particles to decay as matter more often than they decayed as antimatter."It is clearly stated: ". Some unknown entity intervening in this process in the early universe could have caused these "oscillating" particles to decay as matter more often than they decayed as antimatter"So, they don't know why there was asymmetry after the bang and it is clearly not due to the Bang itself as they call it: "Some unknown entity intervening in this process"Therefore, they claim that only one in a billion pair might be asymmetry as it was some statistical error.If the asymmetry was real in the BBT then it is expected that all the new pair would be converted to real particles.Hence, with the Big Bang or without it, it is expected that one of a billion new created pair would be asymmetry.If that asymmetry idea (as statistical error) due to that "Some unknown entity intervening in this process" can work for the BBT, then it should also work to theory D.You can't just use some hypothetical idea as "Some unknown entity intervening in this process" to justify your theory and then claim that no one else can use this idea.
So, they specifically claim that in the empty vacuum, virtual particles can pop up into real photon.
"Virtual particles" can become real photons--under the right conditions
Our scientists claim that it is all about "Some unknown entity intervening in this process":
QuoteQuote from: Dave Lev on Today at 09:59:26"Virtual particles" can become real photons--under the right conditionsThe experiment used superconducting quantum-interference devices. Those don't exist in an empty universe.
Quote from: Dave Lev on Today at 09:59:26"Virtual particles" can become real photons--under the right conditions
So in other words, you don't know what caused it. According to your own earlier quotes, "we don't know" isn't science, so we have to throw Theory D in the garbage.
Do you finally accept that "Virtual particles are indeed real particles" or do you wish to continue with BC approach to reject all the evidences that supports theory D even as they had been proved and tested?
Quote from: Dave Lev on 17/09/2021 19:30:44Do you finally accept that "Virtual particles are indeed real particles" or do you wish to continue with BC approach to reject all the evidences that supports theory D even as they had been proved and tested?I'm not contesting the existence of virtual particles here. What I'm saying is that you don't have a mechanism based on actual measurements and observation that can prevent them from disappearing back into the vacuum where they came from.
Now it is my mission to move to the next step.
Which should be to explain how your model keeps virtual particles from disappearing back into the vacuum.
https://www.scientificamerican.com/article/are-virtual-particles-rea/"Virtual particles are indeed real particles. Quantum theory predicts that every particle spends some time as a combination of other particles in all possible ways. These predictions are very well understood and tested.""Quantum mechanics allows, and indeed requires, temporary violations of conservation of energy, so one particle can become a pair of heavier particles (the so-called virtual particles), which quickly rejoin into the original particle as if they had never been there. "
https://home.cern/science/physics/matter-antimatter-asymmetry-problem"The Big Bang should have created equal amounts of matter and antimatter in the early universe"Therefore, at the big bang moment itself you can twist the law of physics, get your imagination energy from imagination source but once the energy is there in that new born space then the conservation law must work.Hence, at the time that the energy is transformed to particle pairs - they all must obey to the physics law.It is stated:"Antimatter particles share the same mass as their matter counterparts, but qualities such as electric charge are opposite. The positively charged positron, for example, is the antiparticle to the negatively charged electron. Matter and antimatter particles are always produced as a pair and, if they come in contact, annihilate one another, leaving behind pure energy. "So, it is expected that any particle pair that is created by the BBT energy would be symmetrical.However it is also stated:One of the greatest challenges in physics is to figure out what happened to the antimatter, or why we see an asymmetry between matter and antimatter.""Matter and antimatter particles are always produced as a pair and, if they come in contact, annihilate one another, leaving behind pure energy. During the first fractions of a second of the Big Bang, the hot and dense universe was buzzing with particle-antiparticle pairs popping in and out of existence. If matter and antimatter are created and destroyed together, it seems the universe should contain nothing but leftover energy."So, they don't have a clear answer for that Asymmetry phenomenon at the Big Bang event.As It is stated: "if matter and antimatter are created and destroyed together, it seems the universe should contain nothing but leftover energy" then it is also clear that they don't have an answer why there is asymmetry as they do understand that after the bang the universe must work symmetry.However, they came with the following solution:"Nevertheless, a tiny portion of matter – about one particle per billion – managed to survive. This is what we see today. In the past few decades, particle-physics experiments have shown that the laws of nature do not apply equally to matter and antimatter. Physicists are keen to discover the reasons why. Researchers have observed spontaneous transformations between particles and their antiparticles, occurring millions of times per second before they decay. Some unknown entity intervening in this process in the early universe could have caused these "oscillating" particles to decay as matter more often than they decayed as antimatter."It is clearly stated: ". Some unknown entity intervening in this process in the early universe could have caused these "oscillating" particles to decay as matter more often than they decayed as antimatter"So, they don't know why there was asymmetry after the bang and it is clearly not due to the Bang itself as they call it: "Some unknown entity intervening in this process"Therefore, they claim that only one in a billion pair might be asymmetry as it was some statistical error.If the asymmetry was real in the BBT then it is expected that all the new pair would be converted to real particles.Hence, with the Big Bang or without it, it is expected that one of a billion new created pair would be asymmetry.If that asymmetry idea (as statistical error) due to that "Some unknown entity intervening in this process" can work for the BBT, then it should also work to theory D.You can't just use some hypothetical idea as "Some unknown entity intervening in this process" to justify your theory and then claim that no one else can use this idea.
The particles generated shortly after the BB were real, though half of them were antimatter.The particles generated by the VE are virtual; half of them are antimatter.The parity violation (of the order of 1 particle in ten billion) which you discussed at length refers to real particles. It explains why there is matter in the universe.But it can not apply to virtual particles so it does not rescue your wrong idea about virtual particles becoming real.
Therefore, if you accept the idea that one of a billion particle pairs would survive the annihilation process in order to keep the BBT
Therefore, as the parity violation (of the order of 1 particle in ten billion) which refers to real particles, also refers to the virtual particles that had been created by VE.
QuoteQuote from: Dave Lev on Today at 06:18:15Therefore, if you accept the idea that one of a billion particle pairs would survive the annihilation process in order to keep the BBTAccording to your rules, I can't. We don't have any observation of virtual particles surviving annihilation from the vacuum. I also don't care about the Big Bang theory here. It's in the trash
Quote from: Dave Lev on Today at 06:18:15Therefore, if you accept the idea that one of a billion particle pairs would survive the annihilation process in order to keep the BBT
https://www.scientificamerican.com/article/are-virtual-particles-rea/"Virtual particles are indeed real particles. Quantum theory predicts that every particle spends some time as a combination of other particles in all possible ways. These predictions are very well understood and tested."
Parity violation doesn't have anything to do with particles surviving annihilations.
Unless you claim that quantum theory is wrong.
Can you please explain that statement (and offer article about it)?