The Higgs boson collapse and how it ends the universe?

“This abstract illustration depicts a bubble-like multiverse. (Image credit: MARK GARLICK/SCIENCE PHOTO LIBRARY via Getty Images).” (Space.com, The Higgs boson could have kept our universe from collapsing)

There is a theoretical model that the cosmic microvoid can pull a single high-energy photon out from particles like electrons. The Higgs boson collapse means a situation where. The Higgs boson suddenly turns flat like a pancake. That could happen. If the Higgs boson starts to spin so fast that it turns into a flat.  If that happens, energy travels to the edge of that fast-spinning object. The difference between Higgs boson evaporation and Higgs boson collapse is that. The Higgs boson collapse doesn’t release any energy to the environment. 

The Higgs boson still exists. But its shape is turned. If the flat Higgs boson continues its spin, there is a possibility that the particle starts to collect lots of energy into one point. The fast-spinning particle collects energy. Into it. And then energy travels to the edge of that particle. In evaporation. Particle turns into energy. That was stored in it. When the Higgs boson collapses, the quantum fields around it try to fill that point. The fast-spinning boson acts like a thermal pump that transports energy out from that point.

Could that destroy the entire universe? Nobody knows. There is a possibility that the Higgs boson can cause the vacuum decay. There, the universe is filled with cosmic micro- or quantum voids. If a particle gets into a cosmic microvoid, that thing rips the particle into pieces. The reason for that is that the cosmic microvoid increases the speed of energy flow out from the particle. The cosmic microvoid forms. A zero-energy area around the particle. It means it acts a little bit like annihilation. This effect releases free energy into the system. And that can cause. Fatal and global effect on the universe. 

In the cosmological models, the universe began its existence in the Big Bang. There is a limit in the size of the universe. The universe is surrounded by the shockwave. That shockwave. Means. That there must be some kind of quantum field outside the universe. This kind of shockwave causes reflection into the universe. There is a possibility that this shockwave, if it exists, can explain why we cannot see other universes. 

But what happens if that shockwave doesn’t exist? The expansion of the universe would be faster. The reflection from that hypothetical shockwave increases the level of free energy in the system. That free energy causes. The expansion of the universe. This shockwave acts like a vacuum bomb. The reflection travels in the middle of the universe. And then returns to the shockwave. If one of those energy impulses is strong enough, it can push that shockwave out. That releases free energy from particles. This can cause a chain reaction. There, the universe ends its existence. In cosmological models, the geometrical shape of the universe is like a plate or a wheel. 

The fact is that. The single photon can cause a local effect that expands into global form. The energy starts to travel between some of the most common particles. The photon can split in two, and that means the high-energy photon that hits some of the most common particles in the universe can cause resonance between those particles. That harmonic resonation can release so much energy that it rips all particles. Into pieces. The possibility of that is almost zero. But it's possible. That. The so-called cosmic void can pull a photon away from a particle. 

There is a possibility that the Higgs boson collapse turns its environment into a cosmic nanovoid. That nanovoid causes a situation where photons or electrons start to lose energy. I chose those two particles for this text, for example, because they are the most common free particles in the universe. Two things make those particles dangerous. The first one is that they are the most common particles in the universe. The second one is that those particles are so small. That. They send a wave movement, which can hit. 

Straight to the bonds that connect quarks together. If an energy impulse hits those bonds, it travels to the quarks. And then. If that energy kick is strong enough. That releases the energy. That is stored in bonds to space. This process increases energy in the energy wave. 

The chain reaction goes like this. The Higgs boson collapse happens near an electron or photon. That cosmic nanovoid pulls the photon to that point. Then that photon sends an energy wave that hits other photons. This thing causes an effect. In which photons or electrons start to send other photons asymmetrically. When those most common particles start to send photons. Only from another side. 

That thing can cause a chain reaction, where more and more particles start to send energy through the universe. That thing forms a harmonic wave that travels across the universe. That wave can destroy material in two ways. The shockwave can transport so much energy into the atoms that the strong nuclear force cannot keep quarks in the hadrons. The reaction where strong nuclear interaction releases its energy. This releases energy to that shockwave. This thing is theoretically possible if the energy wave can begin its journey through the universe. 

Another way is that an increase in free energy can make a hole. Into that shockwave. Or fast reflection pushes that wave out, which surrounds the universe. This forms the situation. That we can call the quantum pressure decrease. When quantum pressure decreases. That pulls the quantum field around atoms and subatomic components out. That releases energy. That is stored in those particles and the bonds between them. This can cause a chain reaction that can destroy all material. Or it will not destroy the entire material. It rips the hadrons, protons, and neutrons into pieces. 

https://www.livescience.com/higgs-particle-universe-collapse-in-multiverse

https://www.science.org/content/article/tiny-black-holes-could-trigger-collapse-universe-except-they-dont

https://en.wikipedia.org/wiki/Higgs_boson

The star's collapse can also create the universe's heaviest elements.

"A star’s collapse into a black hole might create a neutron-rich jet powerful enough to forge the universe’s heaviest elements—no neutron star collision required. Credit: SciTechDaily.com" (ScitechDaily, Forged in Fire: How Gamma-Ray Bursts Could Create the Universe’s Heaviest Elements)

"Physicists propose that high-energy photon jets from collapsing stars may be secret factories of heavy elements like plutonium, challenging traditional theories and possibly explaining strange cosmic glows and metal traces in Earth’s crust." (ScitechDaily, Forged in Fire: How Gamma-Ray Bursts Could Create the Universe’s Heaviest Elements)

There is the possibility that when the gamma-ray burst hits a planet or star that thing forms the shockwave that creates the heaviest elements in the universe. That kind of event can happen if the GRB or some very high-energy radiation burst hits even small asteroids. 

Those shockwaves can push atoms together in molecular clouds. And maybe those shockwaves can form the gold straight from hydrogen. The neutron stars' collimation forms shockwaves that can turn hydrogen straight to gold. But the question is this: can the black hole's relativistic jet push those hydrogen atoms into gold? 

The star's collapse into a black hole can create a neutron-rich jet that forms the heaviest elements in the universe. The idea of that model is the collapsing star leaves neutrons behind it while that even happens. A star collapses into a black hole, which happens in stages. There are white dwarf- and neutron star stages but they exist maybe less than one billionth of a second. 

There can be the stage that we call a quark star. The existence of quark stars is hypothetical. And maybe those stars that form only free quarks can exist only the billionth of parts of seconds. That means quark stars are not stable things. Maybe those things exist only in a very short moment. When a star collapses into a black hole. The quarks can collapse into one entirety. 

Neutrons can resist for a short moment the final collapse black holes form when a neutron star turns denser, which means the event horizon forms in the neutron star. The most out layer of the neutron star leaves outside the event horizon. If the star is near the border that its collapse forms a heavy neutron star or lightweight black hole it's possible. 

The relativistic jets of black holes push those neutrons away, that jet that forms when material falls into the black hole pushes those neutrons that remain free near the spin axle. In some other models, the collapsing neutron star pulls an energy field in it. It's possible that when a star collapses just forming singularity will be separated from quantum fields and material that falls in the black hole. In that moment the star sends its final energy burst. 

When we think about models of stages that happen during the star collapse there is the possibility that the magnetic field falls into the black hole. During that process, the magnetic field turns denser and it travels through the particle cloud that the falling star leaves behind it. Supernova explosions are the most violent events in the universe. 

"A high-energy photonic jet (white and blue) blasts through a collapsar with a black hole at its center. The red space around the jet represents the cocoon where free neutrons may be captured causing the r process, the nucleosynthesis that results in the formation of heavy elements. Credit: Los Alamos National Laboratory" (ScitechDaily, Forged in Fire: How Gamma-Ray Bursts Could Create the Universe’s Heaviest Elements)

Those events form shockwaves and false vacuums. When the last energy eruption happens the star turns into the molecular cloud and white dwarf, neutron star, or black hole. The result of the explosion depends on the star's mass. When the supernova explosion happens the star remnant is in the absolute vacuum for a short time. Then outside material and energy start to fill that bubble. Those upcoming fields press particles into one point. There are always stages when things like neutrons can resist gravity. 

When we think of things like magnetars are lightweight neutron stars and neutron star's magnetic fields interact when their mass grows. Neutron star's magnetic fields turn weaker when their mass grows. For formation, the magnetic field requires that the neutron star's nucleus rotates different speed than its shell. When a neutron star's mass turns so heavy that it loses its magnetic field and its core rotates with the same speed as its shell. 

It's possible that the neutron star simply collapses. Does the neutron star really collapse into a black hole? That depends on the rotation speed where centripetal force keeps the shell out from neutron star's core. The outgoing energy should resist the gravity field. When a neutron star's structure's spin slows they send energy out from them. That energy keeps the neutron star's shell and core out from each other. 

If the neutron star's internal structure rotates at a different speed than an outer shell it forms an impacting or standing wave in the "neutron liquid", or "fermi liquid" which is "liquid" but very dense and heavy material. That wave can resist the gravity field.  Maybe there are many layers in neutron stars. That rotates at different speeds. The neutrons at its shell rotate in opposite directions than the entirety. There are also protons in neutron stars' outer crust. 

"Cross-section of neutron star. Densities are in terms of ρ0 the saturation nuclear matter density, where nucleons begin to touch." (Wikipedia, Neutron star)

Those things act like little rolls or balls. And they harness energy from inside their structure. The shape depends on gravity's ability to pull those three quarks of neutron into a straight line. Another thing is that sometimes neutrons decay also in neutron stars. That forms a hole in the neutron structure. 

When a neutron star's nucleus rotates with the same speed as the neutron star's core the neutron star's nature changes. There are no standing waves between the neutron star's core and its shell. Energy travels out from the neutron stars. But the particle that sends that energy- or wave movement is so small that lots of that energy travels straight through even neutrons. Neutron stars will not collapse into a black hole. 

That energy interaction. Has complicated component interactions with radiation that neutron star sends. The fusion reaction happens on the neutron star's shell. And that The neutron star's electromagnetic field keeps it in its form. The outcoming particles cause nuclear reactions in the neutron star's core. In nuclear reactions, a neutron star's shell pushes energy into the neutron star. 

That energy pushes neutron stars into denser form. With the gravity. That energy pushes neutron stars into black holes. The energy that comes from a neutron star's shell impacts its core and jumps back. Things that resist the neutron star's turn into black holes are centripetal force and the energy that comes from the neutron star's nucleus. Those forces are the internal magnetic field and energy reflection from the neutron star's shell. 

When a neutron star's core's speed is the same as its nucleus the EM radiation that we see as magnetic or electric fields turns weaker. Then gravitation. And outcoming energy will press the neutron star into the black hole. That reaction can happen if the neutron starts going into too dense material cloud. If fusion on its shell turns into too high power that presses the neutron star into a black hole. 

https://scitechdaily.com/forged-in-fire-how-gamma-ray-bursts-could-create-the-universes-heaviest-elements/

https://en.wikipedia.org/wiki/Neutron_star

https://en.wikipedia.org/wiki/Quark_star