What does an electron do in its tunnel? (Quantum tunnels and electrons)

"Scientists have finally glimpsed what electrons do inside a quantum tunnel, revealing a surprising hidden interaction that rewrites our understanding of a fundamental physical process. (Artist’s concept). Credit: SciTechDaily.com" (ScitechDaily, Century-Old Quantum Mystery Solved: Scientists Finally See Inside the Electron’s “Tunnel”)

One of the most interesting things in the quantum tunnels is that light travels faster in those tunnels than around them. The reason for that is that quantum fields that fall into those quantum tunnels move. And the speed of light is relative to its environment. So if a photon travels in a fast-moving quantum field. 

That photon travels faster than it does in a slower traveling field. Quantum fields are the environment. The speed of light is relative to the speed of the environment. Two photons in the same field travel at the same speed. But if another photon travels in a slower field, that photon in faster fields seems faster to a photon that travels in a slower field. 

The quantum tunnel is like a tube. All particles can make a quantum tunnel. And all quantum tunnels are wormholes. The Einstein-Rosen bridge is only the ultimate version of those things. Things like electrons and other particles can also make quantum tunnels.

Finally, researchers see what an electron does in its tunnel. And that opens new visions into quantum technology. When an electron travels in the medium, every single medium is a potential wall. And the electron tunnels itself through those walls. When an electron travels through the potential wall, it releases or receives energy.

So when an electron travels in the potential field, it pushes fields away and makes a tunnel through the potential wall. The tunnel that electrons make in the electromagnetic field is quite similar to the tunnel. Things like black holes are created in gravitational and quantum fields. In quantum tunneling, particles travel through the whirl-shaped potential wall. That potential wall is like a quantum tornado. 

And the thing that makes this quantum tunnel interesting is that the quantum tunnel can inject energy into that particle. The quantum tunnel sends radiation into itself. The quantum tunnel that spins like a whirl turns a higher energy level than the environment inside it. If that quantum whirl pumps enough energy into that particle, it can turn the particle into a black hole. Whether that happens depends on this: can a particle release its energy? 

If a particle is in a long quantum tunnel, energy that falls into the tunnel can push the particle to move deeper and deeper in the tunnel. If that particle cannot push energy out from the tunnel or break the tunnel around it, that means the particle's mass rises. That continues until the particle's energy level rises so high that it can break the whirl around it. Or it can push those fields behind it back. The third version is that the quantum tornado’s energy level decreases so low that particles can break it. That means the particle's energy level turns higher than the quantum tornado around it. 

"Spatiotemporal trajectory of an electron tunneling through Coulomb barrier under strong laser field. Credit: POSTECH" (ScitechDaily, Century-Old Quantum Mystery Solved: Scientists Finally See Inside the Electron’s “Tunnel”)

One of the things in the electron tunneling is that the electron's position must be stable. If an electron wobbles, it cannot make the quantum channel that is tight enough to it can pull an electron into it. 

"Diagram of the Meissner effect. Magnetic field lines, represented as arrows, are excluded from a superconductor when it is below its critical temperature." (Wikipedia, Meissner effect)

The idea is that the fast-spinning electron can form an effect. That looks like the Meissner effect. The spinning particle pulls a quantum field like a roll or a whirl. And if the particle can form a whirl that is long enough, that whirl can pull the particle through it. Quantum tunneling through walls happens when a particle makes a whirl through the wall. The whirl can form a quantum channel through an atom's quantum fields. And then the particle can push those fields away from its path. The particle will not interact with those quantum fields. And that makes it possible to teleport positrons through that channel. That thing can have at least military applications.

In a quantum internet, information can travel in electrons. Or the quantum tunnel around it can also transmit data. So, the system can send information impulses connecting them to electrons. Or it can send those energy waves in the quantum tunnel's or quantum whirl's walls. The third way is to transmit information in the form of wave movement through the quantum tunnel. The quantum tunnel can also offer the possibility of making quantum entanglement through that tunnel. That tunnel protects information that travels in the superposition. 

The idea in quantum mechanics is this. All particles make basically similar interactions with their environment. But the scale of the interactions between particles and the environment is different. That means beta radiation is basically a similar phenomenon to the wind, but the thing that moves in beta radiation is the electron. And in the wind, the thing that moves is the air molecule. But then we can think about the electron and its interaction with the environment. 

The big question is what makes the electron move. In beta radiation, the atom’s nucleus starts to send gamma radiation. That radiation makes an electromagnetic shadow in front of the particles. And that shadow pulls electrons into it. 

The answer can be in the thing that is similar to the Meissner effect. When the electron spin is high enough, that thing makes the electromagnetic whirl around it. Or the structures on the electron's shell touch the quantum field and start to roll it around the electron. When that channel starts to grow long enough and the energy level on the other side is higher than the other, that makes electrons travel in the channel or tunnel. 

That makes it possible to create a quantum internet that is more effective and secure than anything before. The electron can transport information between two points. But the problem is this: if researchers don’t know all parts of its interactions, and an electron touches its tunnel, that destroys information immediately. 

https://scitechdaily.com/century-old-quantum-mystery-solved-scientists-finally-see-inside-the-electrons-tunnel/

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

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

The universe, its particles, and quantum fields.

"New research suggests that collapsing stars may serve as natural laboratories to uncover hidden neutrino behavior, with potential implications for the birth of black holes and neutron stars. Credit: Shutterstock" (ScitechDaily, The Universe’s Most Elusive Particles Might Be Talking to Themselves)

Wave-particle duality (WPD) means that particles can turn into energy and vice versa: energy or energy fields can turn into particles. WPD means that particles are only the denser points in the quantum fields. The fact is that the particles require quantum fields for their existence. Without those quantum fields, there is no resistance that can push particles into their form. And that means if we take quantum fields out, energy flows away from particles, ripping them into pieces. And that turns particles into wave movement or quantum fields. Dark energy can form in some sub-particle structures that are too small to detect. 

But anyway, if a particle goes out from the universe, it turns into a wave immediately. And that makes it hard to detect anything outside the universe. The temperature outside the universe is unknown, but it's lower than 3K radiation or Planck radiation. It might be lower than the thermal minimum in the universe. And if that energy level is lower than the thermal minimum, 0K or -273.15C. That means energy can travel only out of the universe. That makes it impossible to observe things outside the universe. 

The most elusive particles in the universe can play an important role in neutron star and black hole formation. 

Neutrinos are almost massless particles. Their interaction with other particles is very weak. And that makes them travel through planets without touching anything. But today, researchers noticed a new interaction between neutrinos. That means a neutrino can interact with other neutrinos. And that makes those elusive particles more interesting than they were before. When a neutrino travels through objects, it takes some part of the quantum fields with it. That means those quantum fields transfer energy to the neutrino when it travels through them. 

Can the gravitational version of the Meissner effect be possible? In that gravitational Meissner effect, gravitational waves act like electromagnetic fields in the Meissner effect. And can this kind of effect also explain why neutrino interaction is so weak? The case where EM-fields travel past the particle that turns them denser than that thing allows the particle tunnel itself through walls? So is the spin of the neutrino so fast that a similar effect to the Meissner effect can make it almost weightless. If a neutrino hovers in an EM-pocket, it's hard to detect. 

"Diagram of the Meissner effect. Magnetic field lines, represented as arrows, are excluded from a superconductor when it is below its critical temperature." (Wikipedia, Meissner-effect) Tc=Temperature Critical. Could there be a similar critical level to gravity?

In the theoretical model, the gravitational waves in extremely dense, fast-spinning particles can act in the same way as electromagnetic fields act in the so-called Meissner effect.  That theoretical phenomenon can be called the gravitational Meissner effect. Or the antigravity. 

If the gravitational Meissner effect exists, that thing can make gravitational levitation possible. The idea is that the fast-spinning particle can turn into a quantum-sized black hole. And that thing makes it possible that gravitational waves travel past the particle. The gravitational Meisner effect can explain some details about black holes. Radiation that travels past those objects closes them inside the radiation bag. So the thing that makes black holes special is that regular and quantum gravity are connected in them. The fast-spinning, extremely dense objects can create a situation where they don't let gravitational waves travel through them. That thing can make the gravitational Meissner effect possible. 

When a neutrino beam travels through the star, that thing can act like airflow that travels through rooms. The neutrino beam takes energy with it. And that decreases the temperature in the star's core. That thing can cause a very dangerous situation when the energy level decreases in the star’s core and the route of the neutrinos. When the energy level decreases, that means the energy that can resist gravity turns lower. And that neutrino beam can cause situations that start to explode sooner than it should. When the energy level decreases, that means the star's outer layers start to fall to its core, and that can cause extreme peaks in the energy production. 

Can a neutrino be the thing that glues quantum and regular gravity together? The idea in quantum gravity is that some kind of radiation or small particles that travel through the particles turns them cold. When something takes energy away from an object, outgoing energy tries to replace that energy. That movement continues until energy levels inside and outside the object are at the same level. In some models, the spin of particles binds quantum fields to them. 

That means particles turned those fields into kinetic energy. The energy that the particle binds pulls other particles to that thing. So, theoretically, a quantum-sized black hole requires that the spin of the particle turns so high. 

When large and dense groups of particles spin, they bind lots of energy into them. Without that spin, that particle’s existence ends. The question is, where do particles put the energy that they store? The outside quantum field pushes structure into its form. If that quantum field turns too weak relative to the structure, the energy that comes out from the structure destroys it. The question is, could the extremely fast-spinning quantum black hole emit gravitational radiation past it? That causes an interesting question about the gravitational Meissner effect's existence. If that Meissner effect's gravitational version exists, that means the gravitational levitation can turn into reality.   

https://bigthink.com/starts-with-a-bang/quantum-fields-quantum-particles/

https://scitechdaily.com/the-universes-most-elusive-particles-might-be-talking-to-themselves/

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

https://en.wikipedia.org/wiki/Wave%E2%80%93particle_duality

 

Photons, particles, and dark energy.

"A new theory, that explains how light and matter interact at the quantum level has enabled researchers to define for the first time the precise shape of a single photon. Credit: Dr. Benjamin Yuen" (ScitechDaily, Quantum Leap: Scientists Reveal the Shape of a Single Photon for the First Time)

How can a photon be a wave and a particle? The answer can be found in the photon’s image. There is a possibility that when a photon travels in quantum fields, that particle will stretch and turn into the thing that looks like flat spaghetti. That thing explains the thing that Newton proved. The light and all other electromagnetic waves have particle and wave forms, if their transportation particle is a photon. A very strong energy could roll that stretched photon into a roll. And if that roll is tight enough, that is impossible to see from the outside. 

The thing is that the photon can also carry mysterious dark energy. In some models, the photon could simply press such a thin or narrow form that it interacts with a very small part of the particles. That thing can explain why we cannot see dark energy. 

Black holes and quantum gravity. 

When we think about gravity, that thing acts like some kind of thermal pump. In some models, gravity is like a very thin energy beam. When that energy beam travels through particles and other objects, that thing will pull energy from the object’s shell with it. When a particle's energy level turns lower, that causes a situation where there are quantum fields, that means strong and weak nuclear force fields. And electromagnetic fields travel to the particle. That thing explains why the particle can pull other particles into it. 

That thing happens because other fields travel to the particle. This is one version of this model. Every one of those particles is the gravitational quantum point. There is a possibility that the black holes can prove that hypothesis. There, the gravitational radiation is so strong and gravity quantum points are close to each other. 

So what if gravitation and dark energy can be the same? The idea of that model is this. When dark energy hits the particle, it interacts with it. The particle can send that radiation forward. In the case of dark energy, radiation interacts with particles in such a small area that it’s hard to see. Or maybe dark energy can travel through the particles like wind. That thing turns them cold. 

But we cannot see that thing, because radiation that comes from bigger structures can cover it. When dark energy travels through that particle, it takes energy from it. That Thing means that the dark energy transports energy out from the particle. And that causes a situation where the dark energy and particles interact like thermal pumps. If dark energy really acts like a thermal pump, that thing can cause quantum fields to fall to the particle, as I wrote before. 

When we think about the sombrero model, which is made for quantum gravity. We can use the same model to model the black hole. The energy level of the particle can rise so high that it can make a channel with another particle. 

If there is one very low-energy particle hanging over the energy hill, that particle can pull energy out from the energy hill. If that particle spins, it can form a very thin energy tornado that transports energy to other particles. 

That particle can have such a narrow energy channel that it's hard to see. Or there can be some string that travels through that energy hill and then pulls energy out from it from one point. That thing pulls energy out of its environment. And pulls energy levels around it. A very cold material around Sgr A* could prove this model. 

"Broken symmetry The energy stored in the Higgs field, as a function of its value. If we look at it from far away, we realise that the Higgs potential is symmetric. However, a local observer sitting in the rim of the potential, at the vacuum state, will not experience a symmetric world. Thus, the theory is symmetric, but the ground state is not. In the Higgs mechanism, the rotational degree of freedom along the rim becomes the longitudinal polarisation of the W and Z bosons, which thereby acquire mass. Credit: J Ellis/M Neubauer" (CernCourier, One Higgs, three discoveries)

 There must be some kind of focus in the energy hill where the lower energy particle can pull energy out. That keeps the energy hill up and energy moving to that hill. When energy moves, it makes an energy ditch around the hill. So we can think of a black hole as a sombrero model where the energy ditch is so deep that the main part of it remains under its edge. The top of that hill can be so narrow that we cannot see it. 

If a primordial black hole can be a so-called “Kugelblitz” that means the dark energy can also form the primordial black hole. “Kugelblitz” black hole forms straight from energy. But how did that happen? In models, the Kugelblitz black holes are not possible in the normal universe. But in a very young universe and in some special situations, like in a black hole’s relativistic jet and its material disk, the radiation can rise to such a high level that a primordial black hole can form. When some kind of energy beam travels through material and quantum fields, it increases those fields’ energy level. 

That thing can form a bubble that expands until outside energy and material make it collapse. The vacuum simply pulls material and energy into it. And that can form the energy level in the middle of that vacuum that the black hole can form and turn stable. The energy forms are in the impacting materials and energy. The existence of a black hole depends on one question. Can the outside energy and material push the black hole so strongly that it cannot push energy out from it through the material disk? If the answer is "yes," the black hole turns stable. 

https://cerncourier.com/a/one-higgs-three-discoveries/

https://scitechdaily.com/quantum-leap-scientists-reveal-the-shape-of-a-single-photon-for-the-first-time/

https://en.wikipedia.org/wiki/Kugelblitz_(astrophysics)

The dark matter can form energy for some stars.

 

"Some faint stars may not burn with fusion but with dark matter itself. These “dark dwarfs” could be the long-awaited clue to what makes up most of the universe. Credit: SciTechDaily.com"

"Deep in the center of our galaxy, scientists believe a strange type of star may be quietly glowing—not from fusion like our Sun, but from the invisible fuel of dark matter."

These “dark dwarfs” could act like cosmic detectors, collecting heavy, elusive particles that heat them from the inside. If we find them—and especially if we spot one missing its lithium—it could finally point us toward what dark matter really is."

(ScitechDaily, Stars That Shouldn’t Shine Are Pointing Straight to Dark Matter’s Identity)

*******************************

If dark or black dwarfs really exist those things can reshape the end of our universe. Those things can form the extra energy that we call dark energy. The white dwarf can also turn into a black dwarf when its energy storage is over. The black dwarf can cause dark matter annihilation which can form energy in the universe. 

Dark (or black) dwarfs mean brown dwarfs, stars that have failed and used up their nuclear fuel. Those stars are a  theoretical group of brown dwarfs. The origin of those things is brown dwarfs, the mysterious medium between planets and stars. Those brown dwarfs can burn their fuel very fast and turn into dark dwarfs. Dark dwarfs have no internal fusion material. They are quite massive but cold objects. That means. They are heavy. If we compare them with planets. And that thing can make them the gravitational traps for dark matter. The gravitational center also pulls dark matter around it. If dark matter has the particle form and the weakly interacting massive particles, WIMPs are real, which causes a situation where those particles impact the star's core. 

And that thing can form when dark matter travels into those stars. That gravitation will accelerate the hypothetical dark matter particles, WIMPs, that cause annihilation-type reactions in the dark dwarf. That dark matter interaction can form the “dark light” or dark energy. If that dark energy density is high enough that thing makes it possible that the dark matter annihilation forms so much dark energy that it makes those dark dwarfs shine. In this hypothesis, dark matter annihilation is the source of dark energy. 

The dark dwarfs, stars that should not shine might tell us about the dark matter. There are stars near the center of the galaxy that get energy not from fusion, but the energy that those stars shine forms from dark matter interaction. Near the center of the Milky Way material and energy are denser than at the outer edge of the Milky Way. The giant black hole Sgr A* pulls material and energy into it. In the gravity field, dark matter interacts in a similar way to the visible material. Except that gravity is the only known interaction between visible and dark matter. That means dark matter follows a similar spiral trajectory to Sgr A* as visible material. But that thing is not the entire truth about that strange phenomenon. 

Gravity centers like planets and stars also pull dark matter around them. And that thing can explain why those dark dwarfs can form energy from dark matter. There is a possibility that fast-moving dark matter forms some kind of gravity effect in the star. And that gravitational effect can form whirls that create energy for the star. The other, but more interesting model could be that the antimatter would be particles. And when those small stars trap dark matter in them that dark matter cloud inside them the outgoing dark matter particles impact with those local particles. Those impacts can release energy. 

Maybe, that is the first time when dark matter forms so much dark energy that it can interact with visible material. Dark matter interaction can open the path to new energy sources. But that interaction where hypothetical dark matter particles impact each other can explain the dark energy. These types of stars are the first time that some objects can get their energy from dark matter. And that observation tells about things like dark matter interactions with material. 

When a star or planet’s formation starts there must be a gravitational point that pulls material into it. The dark matter can be that gravitational point as well as some visible particles. Dark matter can also form black holes. But if some star gets its energy from dark matter, that thing will be a new and interesting observation. The new model about stars and their material is that every object in the universe involves both dark and visible material. Because dark matter interacts through gravity, planets and stars also pull dark matter inside them. The position of dark matter is unknown. It can be inside the quarks, between quarks, or electrons, or between other subatomic particles. 

https://scitechdaily.com/stars-that-shouldnt-shine-are-pointing-straight-to-dark-matters-identity/

https://www.space.com/astronomy/dark-matter-could-turn-failed-stars-to-the-dark-side-creating-dark-dwarfs

https://thedebrief.org/theoretical-dark-dwarfs-lurking-near-the-galactic-center-could-help-reveal-dark-matters-secrets/

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

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

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

The String theory and the 5-plet problem.

"Concept image of strange particles in an atom." (InterestingEngineering)

The 5-plet is a strange 5-particle group detected in the Large Hadron Collider that can challenge String theory and give answers for Dark Matter problems. The problem is that the 5-plet must not exist in the String model. But it still exists. When we think about String theory itself, that theory seems to give answers to every problem in the universe. String theory has the same problem with the Big Bang theory. That theory is commonly accepted, even if it's incomplete. String theory is made for filling the Big Bang theory giving answers to where the material that formed the Big Bang came from. The purpose of String Theory is to answer the question: What “exploded" in the Big Bang? 

String theory is not the same as the Grand Unified Theory, GUT. Some people think that the String theory gives answers to all problems in the universe. 

That is not even close to the truth. The String theory handles small parts of the entirety. And the thing that supports some kind of superstring’s existence is the cosmic web. The main idea of the String theory is that the internal superstrings or energy channels form a dimension. And the universe is like a bubble in one extremely large superstring. Those strings also form material and everything. And every single particle is a bubble in a superstring. We often forget that the Superstring theory is a repair tool for the Big Bang theory, which should explain where the material and energy came from. 

(InterestingEngineering)

The problem with the Big Bang theory is this: it doesn’t answer one of the most critical questions in physics. Where did that energy that formed the Big Bang come from? The Big Bang theory's basement is in the wave-particle duality, WPD. That means wave movement can turn into particles and particles can turn into wave movement. But without wave movement, there are no particles. So there are many updates in the Big Bang theory. The most modern model is that time itself formed the Big Bang. And the Big Bang was rather the Big Burst than the single Bang. That means in modern models the Big Bang was a series of events that formed the material in the form as we know it. 

That means the Big Bang was some kind of annihilation, but it doesn’t answer where those particles that formed the annihilation came from. One of the suggestions for that question is that there formed a giant black hole that exploded.  That black hole could have formed from wave movement that existed before the Big Bang. Or, another suggestion is that the hypothetical black hole was a remnant of the universe that existed before our universe. The multiverse model explains the space as a dimension where Big Bangs happen all the time. And universes form in the crossing points of other universes' radiation. That radiation pushes particles or wave movement into the points where their gravitational effect starts to form new universes. 

But proving that the model is not a very easy thing. If there is material outside the universe, that material is so cold that we cannot see it. But the multiverse is a logical conclusion that begins from the galaxies, galaxy clusters, and superclusters. The idea is that the universe itself is part of a larger entirety. But then we face another way to answer the problem of where everything came from. That answer is written in a very incomplete Brane theory. The idea is that the dimension or third dimension simply collapsed. That opened the channel from the fourth dimension straight to the second dimension. That energy channel formed the event called the Big Bang. If that model can be true the 3D material cannot close that channel because its energy level is too high. 

https://interestingengineering.com/science/ghost-particles-that-could-snap-string-theory

https://penntoday.upenn.edu/news/things-know-can-data-large-hadron-collider-snap-string-theory

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

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

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

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

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

https://en.wikipedia.org/wiki/Wave%E2%80%93particle_duality

The gluon and strong nuclear interaction.

 

 (Wikipedia, Color charge)

There is a possibility that dark matter is a particle that has no color charge. Maybe, those particles can form in cases where particles with the same quantum color like green and anti-green impact each other. That thing can also explain dark energy. The particles that have the same quantum color impact with their mirror particle, or particles that have the mirror color or anti-color annihilate. 

So in the case of gluons with green and anti-green impacts, that thing should neutralize their color. That turns those particles colorless. If a particle loses its color it turns invisible. The grey or colorless particle can push quantum fields around it. Same way if the gluon has the same quantum color as the quark that it impacts it causes a repel effect. The idea is that as an example green field surrounds a green quark. And if the green gluon impacts that field it pushes it away from around it. That forms the crater in that field. When the field returns to that crater the impact forms an energy point and pushes the quark forward. If the gluon with blue color charge closes the same field that pulls the field to that thing. 

The gluon has a quantum color like anti-blue and green. That means that the gluon’s color charge is a superposition of color and anti-color. Normally gluons cannot have the quantum colors green and anti-green because those mirror quantum colors neutralize each other. That thing forms the particle that has no color charge. And sometimes it is introduced that dark matter can be a particle with the same quantum charge as green and anti-green. When mirror colors are impacting that means those quantum colors neutralize each other. The neutralization process is quite similar to annihilation where a particle and its antiparticle pair turn into energy. 

***********************************************

"Fields due to color charges of quarks (G is the gluon field strength tensor) in "colorless" combinations.

Top: Color charge has "ternary neutral states" as well as binary neutrality (analogous to electric charge).

Bottom: Quark/antiquark combinatio". (Wikipedia, Color charge)

***********************************************

The gluon can be the particle that has two heads like green and anti-blue. That means there is a possibility that a gluon interacts with its environment in a similar way to surfactants there are hydrophilic and hydrophobic heads. That interaction is on a much smaller scale than the molecule. When gluons' green heads turn to green quarks that thing causes a similar repel effect as electromagnetism. So the quantum color determines whether the gluon can turn into it. 

When we think about the scale that the gluon acts on we can think about the situation where the gluon with an example green quantum color hits the quark with anti-green quantum charge. That can cause “lightning” but the particle can remain. But it loses a little bit of its quantum color charge. 

That causes the idea that maybe there are two more quantum colors. Black and white. So, maybe the mysterious or mythical graviton has the black quantum color. The white is the colorless particle. But if the “black” quantum color exists that means the new natural interaction. So maybe black will be chosen to be the color of the fifth force transporter color. There is one model that can explain the graviton and why we cannot see that thing. The graviton itself would have the colorless quantum color. 

The quantum field goes past the particle. And that forms the quantum shadow into its other side. That colorless particle is very hard to detect in the field. In some other models, the graviton is like the stick; there is two particles connected with each other. They might have very weak quantum colors. When those particles orbit each other that causes a situation where those yet unknown particles bind energy into each other. 

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

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

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

Hunting the fifth force.

"Physicists are pushing the boundaries of the Standard Model by investigating the possibility of a fifth fundamental force using ultra-precise measurements of calcium atoms. By comparing subtle energy shifts in isotopes, researchers hope to uncover signs of new physics that could help explain the universe’s hidden mass. Credit: SciTechDaily.com" (ScitechDaily, Physicists Close In on the Fifth Force That Could Unlock the Mystery of Dark Matter)

Researchers search for the fifth force. The fifth force can be the thing that we know as dark energy and dark matter. There are four known interactions or forces in the universe. Those forces are gravity, electromagnetism, and weak and strong nuclear interactions, or, forces. There is a possibility that the fifth force is the opposite of gravity. So that causes a question: can there be material without the fifth force? 

That fifth force can be the mirror-gravitation. Normal gravity has only pulling ability. And that means the fifth force can have only a pushing effect. There is a model that the color charge, or, using other words, we can say quantum colors can have similar interactions with the fifth force. 

The quantum color between gluons in the strong interaction can open the fifth force to us. That means there should be something that causes the repelling effect between quarks. The model goes like this. If we use the weak interaction as a model we can say that there are two gluons between quarks just like there are W and Z boson pairs between protons and neutrons. That gluon pair creates the quantum low pressure between those quarks. When those gluons orbit each other they simply harness energy fields into them. And then they transfer that energy into the quarks around them. That electromagnetic low-pressure can be the quantum gravity, or gravitational quantum dots. And the quantum gravity model goes like this: the gravity forms of the quantum dots and those quantum dots are entirely called gravity centers. The number and density of those quantum dots determine the strength of gravity. 

“Color charge is a property of quarks and gluons that is related to the particles' strong interactions in the theory of quantum chromodynamics (QCD). Like electric charge, it determines how quarks and gluons interact through the strong force; however, rather than there being only positive and negative charges, there are three "charges", commonly called red, green, and blue. Additionally, there are three "anti-colors", commonly called anti-red, anti-green, and anti-blue. Unlike electric charge, color charge is never observed in nature: in all cases, red, green, and blue (or anti-red, anti-green, and anti-blue) or any color and its anti-color combine to form a "color-neutral" system. For example, the three quarks making up any baryon universally have three different color charges, and the two quarks making up any meson universally have opposite color charges.” (Wikipedia, Color charge)

(Wikipedia, Color charge)

"An animation of the interaction inside a neutron. The gluons are represented as circles with the color charge in the center and the anti-color charge on the outside." (Wikipedia, Color charge)

“Quarks have a color charge of red, green, or blue and antiquarks have a color charge of antired, antigreen, or antiblue. Gluons have a combination of two color charges (one of red, green, or blue and one of antired, antigreen, or antiblue) in a superposition of states that are given by the Gell-Mann matrices. “ (Wikipedia, Color charge)

When a quark takes enough energy it releases that energy as wave movement. That means the fifth force is the force that destroys the atoms. There is a possibility that somewhere is a force that interacts directly between quarks without gluons. Or there is also the possibility that quarks can repel gluons. And what happens if quarks push gluons away from their position? 

Can quantum color hide the fifth force? In quantum chromodynamics, CQD quarks and gluons have a so-called quantum color. Gluons can have one of three quantum colors blue, red, and green. Anti-quarks have opposite quantum colors anti-blue, anti-green, and anti-red. The strong interaction is the interaction between quarks and gluons. The gluon is the boson that connects the quarks together. And transmits the strong nuclear force. The gluon’s color charge is a little bit different from the quark’s color charge. 

The gluon’s color charge is a superposition of the quantum color and anti-color. The green and anti-green for example cannot form gluons, or they cannot exist in the same gluon.. So gluon has two heads, for example, blue and anti-green. So the quark is blue-antigreen. As you see in the diagram below. When we see that the blue quark emits the blue-antigreen gluon we can ask if the fifth force release happens in that process. 

This is why the strong nuclear interaction is also known as the color force. That color is similar to the electromagnetism in electrons. That means the quantum color is one thing that keeps quarks in their entirety called hadrons. In traditional models, the atom’s core and electron shell interactions are described as a whole. There is a possibility that the neutron’s interaction with electrons is different from that of protons. That means a neutron sends some kind of energy impulse to the electron and pushes it away. That means some of those quantum colors can interact with electrons. 

https://scitechdaily.com/physicists-close-in-on-the-fifth-force-that-could-unlock-the-mystery-of-dark-matter/

https://www.open.edu/openlearn/science-maths-technology/particle-physics/content-section-6.2

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

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

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

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

https://en.wikipedia.org/wiki/Gell-Mann_matrices

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

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

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

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