Can the result of the supernova explosion or neutron star be just nothing?

Is warp bubbles the reason for some of the GRBs:s (Gamma-Ray Bursts)? 

Above this text is an illustration of the kilonova. The colliding neutron stars can form a warp bubble around them. The shockwave that travels too fast will push electromagnetic fields and material away from those colliding neutron stars. 

And that bubble destroys those neutron stars. In that case, the warp bubble pulls the material to superstrings or wave movement. Particles are traveling in that bubble faster than usual. In warp bubbles, particles travel at the same speed as photons. 

When those particles reach the edge of the warp bubble or the warp bubble's existence ends those particles are sent a shockwave. Could the warp bubble that forms around the young stars when some energy impact affects them or kilonovas be the reason for some GRBs (Gamma-Ray Bursts.)? In that case, the fast-traveling shockwave can form a short-term warp bubble. That can destroy all material by turning it to wave movement. 

There is no evidence that some black holes can explode. But cosmic voids are giving a hint, that there is the possibility that black holes can explode. Or maybe some of the cosmic voids are the results of the cases. That supernovas or some other phenomenon caused the material is turned to wave movement. And that thing could be the supernova which shockwave caused the forming of a short-term warp bubble that turned all material to wave movement. 

If the supernova explosion's shockwave travels too fast or the neutron star collapses into a black hole too fast. There is the possibility that the reaction forms a warp bubble. In that case, the possibility is. That the warp bubble just turns material to the wave movement. 

Same way if the black hole pulls all material from around it. That thing forms a cosmic void. That void will rip the black hole to pieces. The minimum energy level around a black hole makes it burb. In that case, the black hole sends gravitational waves around it. And that allows us to see behind the event horizon. 

Researchers realize that exploding black holes and collapsing neutron stars can tell about a phenomenon. That was thought not to be possible. When black holes erupt. That means wave movement or some kind of material traveling out from the black hole. The thing that can travel out from black holes is the gravitational waves, and the reason for that is the black hole is at the point where gravitational radiation travels to the area. There is a lower gravitational energy level. 

The reason for that is that sometimes a black hole just eats everything from around it. And in that case, the black hole would get into the cosmic void. In the cosmic void, it will not get material. And energy flows away from the black hole. So the black hole blurps. 

The collapse of extremely heavy neutron stars is forming black holes. The thing that forms the black hole is the impacting energy or material. The magnetic field of heavy neutron stars is weaker than magnetars. The reason for that is that the speed of a heavy neutron star's shell in comparison to its core is lower than lightweight neutron stars. 

And the relation between electromagnetic field and gravitational fields turns when the neutron star's mass increases. In lightweight neutron stars, the electromagnetic force is dominating. But when the mass of the object increases gravitation turns more dominating. And sooner or later the material that impacts with a heavy neutron star turns it into a black hole. 

When a neutron star collapses there is a possibility. The collapsing neutrons are forming the warp bubble or quantum vacuum behind them. In that case, the material like neutrons is vaporizing backward to its course. That means all material can turn to wave motion and the warp bubble forms the void that rips neutron stars, or even black holes into the pieces. 

In the same way, there are models that if the supernova explosion is too rough the shockwave pulls the great vacuum behind it. In that case, the entire star can turn to wave movement. And that thing could cause a situation where the material structure turns to wave movement. That means there is nothing left from the neutron star or supernova. 

https://www.livescience.com/can-a-black-hole-explode

https://scitechdaily.com/something-we-had-never-seen-before-unusual-cosmic-explosion-blasts-hole-in-established-science/

https://scitechdaily.com/superheavy-neutron-stars-revealed-by-nasa-observations-of-powerful-cosmic-explosions/

https://en.wikipedia.org/wiki/Bo%C3%B6tes_Void

https://en.wikipedia.org/wiki/Gamma-ray_burst

https://astronomyandtechnology.blogspot.com/

Kilonovas are some of the most high-energy reactions in the universe.

"Artist’s impression of GRB 211211A. The kilonova and gamma-ray burst is on the right. The blue color represents material squeezed along the poles, while the red colors indicate material ejected by the two inspiralling neutron stars that is now swirling around the merged object. A disk of ejecta emitted after the merger, hidden behind the red and blue ejecta, is shown in purple". 

"A fast jet (shown in yellow) of material punches through the kilonova cloud. The event occurred approximately 8 kiloparsecs from its host galaxy (left). Credit: Aaron M. Geller/Northwestern/CIERA and IT Research Computing Services". (ScitechDaily.com/Surprise Kilonova Discovery Shakes Up Long Gamma-Ray Burst Theory)

Kilonovas are producing gold. And, they are also opening the path to creating new models for GRBs (Gamma-ray bursts) and energy. But can kilonovas also explain why some stars look elder than the universe? 

Maybe shockwaves from ancient explosions formed helium and other elements before stars formed. And, kilonovas can also produce lighter elements than gold. 

Kilonovas or colliding neutron stars form gold and platinum. When neutron stars collide. That collimation forms extremely strong radiation bursts with shockwaves around them. 

That shockwave causes nuclear fusion in gas clouds near neutron stars. The shockwave that travels out from the collimation press the atoms in that cloud together. Kilonova opens roads for new thinking about forming the heaviest elements in nature.

If kilonova happens near some star. Its shockwave can turn the entire star to cold or uranium.  Gold and other heavy elements are also forming in the heaviest stars. But kilonovas are helping to create a model where super-powerful eruptions can form heavy elements straight from the hydrogen clouds. 

There is a possibility that gold and other heavy elements are still forming in black holes and neutron star jets. Of course, conditions are suitable for the heaviest stars. So that they can form the universe's heaviest elements. 

The kilonovas and their ability to make the shockwave that forms heavy elements from hydrogen clouds are causing an interesting question: Are some gold and platinum atoms formed before the first planets formed?

The standard model of advancing the material cloud means that first is forming a blue supergiant. And then after supernovas and novas in the material cloud is forming the heavy elements. That thing requires multiple star generations. 

But if shockwaves of black hole collimations and colliding neutron stars can form new elements. Those shockwaves also form lighter elements than gold. So is part of helium in our universe formed before stars? And could that explain why some stars seem to be elder than the universe?

Kilonovas can explain why some stars seem to be elder than the universe. There is the possibility that in the young universe similar shockwaves that are leaving from those high-energy reactions formed helium. So if the Big Bang was a series of high-energy reactions that formed shock waves across the universe those shockwaves could also form helium before the first stars.

But if kilonovas are forming the heaviest elements. It is possible that also black holes can form gold, platinum, and even uranium. When a shockwave travels across hydrogen clouds it presses atoms together. And it forms new elements. So could some part of gold and platinum form before the first real planets formed in the universe? 

And heavy elements are also forming around the black holes where the material disk interacts with its environment. When those super-fast particles impact other particles. They form a fusion, where those ions and other particles melt into new particles. 

Theoretically is possible to form heavy elements in a fusion reactor. The particle accelerators created some superheavy synthetic elements, like element 115. Those acceleration laboratories made only a couple of atoms of those elements. But that proves that those elements can produce. And they are expensive to produce. 

That thing requires so much energy that it's not an economic solution. This kind of heavy element fusion requires so much energy that this thing is the most non-economical solution ever imagined. 

The kilonovas are launching a new GRB theory. 

Kilonovas are also shaking up the new long-term gamma-burst theory. Long-term gamma-ray bursts are long-term versions of the GRBs (Gamma Ray Bursts). When neutron stars collide there is forming debris there are lots of free neutrons. And when radiation from the impact hits those neutrons they store it in their quantum fields. When the energy level of the debris decreases. Those neutrons release extra energy into their environment. 

During the collimation of the neutron stars, the impact energy travels in the neutron star. It increases the level of free energy in the system. And that releases debris. Energy waves are traveling in most of the core of the neutron star. But energy is also traveling inside that object. So the collimation of neutron stars causes a similar effect to an implosion bomb. 

So there is happening "quantum fission" in those neutrons. The rising energy level pushes quarks away from each other. When the energy level rises the quarks start to "shine".  And push each other away. That thing breaks the neutron structure in kilonovas. 

The level of free energy rises to a high level. That energy rips some neutrons into pieces. Also, an energy wave that travels inside the neutron star pushes material and energy into the nucleus of the neutron structure. And, that thing forms an extremely high energy level in the middle of the neutron star. 

That thing forms a black hole. But the Schwrzchild radius or expanding event horizon cannot reach some of those neutrons. So the kilonovas are forming black holes. But they are also amazing examples of high-energy reactions. 

https://scitechdaily.com/surprise-kilonova-discovery-shakes-up-long-gamma-ray-burst-theory/

https://scitechdaily.com/kilonova-neutron-stars-create-gold-and-platinum-in-their-wake/