Wave-particle duality: when light turns into matter.

“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)

When a photon gets mass. 

The Schwinger effect is the phenomenon. That turns wave motion into matter. This even forms a particle-antiparticle pair. And that is sometimes even introduced as the event. We know it as the Big Bang. We can call the Schwinger effect an event that gives mass to a photon. And turns it into an elementary particle. Like an electron or quark. This thing is one of the most interesting things in physics. In some models, the photon that is the wheel- or ring-shaped structure can simply turn to spin around its axle. Or the photon is the wheel-shaped superstring. 

In models, every particle is actually a ball that the shell delimits. In some theories, the particle’s shell is the whisk-shaped structure of the superstrings. But it's possible that one photon, or a superstring that spins very fast around the axle. Can form that kind of sphere. The idea is that the sphere in the particle has a lower energy level. Than the space around it. In that model, the graviton is the structure that acts like a thermal pump. 

So, why the existence of matter end outside the universe? The reason for that is simple. The thermal pump structure. It cannot maintain a lower energy level in the particle. And when the energy level in the particle. And outside it is the same. That stops the superstring spin. Energy that flows through the particle’s shell keeps that superstring spinning. And when that energy flow ends, the spin of the superstring ends. This means that the particle’s existence as a particle ends. 

And that forms the lower-energy sphere inside it. The idea is that the photon will collect energy from its environment. Into the middle of it. That energy forms the quantum point and starts to reflect. To that photon. This reflection from the quantum point will tense the photon into the wheel-shaped structure. And then that quantum point. Or, quantum dot. That we could call a graviton, puts the energy travel into it. This thing is a graviton if it gives mass to the particle. 

That quantum dot forms a structure. That looks like a quantum-size neutron star. The photon starts to spin around that axle. And then it collects energy from around it. And then aims that energy out to that structure. So, that quantum dot acts like a thermal pump. And the string that forms a photon starts to spin around it. This means that this kind of interaction. It can be behind the Schwinger effect. 

During the Big Bang, energy that hit the photons tensed them into the wheel-shaped form. And then that structure sent energy impulses. Into the middle of it. That formed the structure that could be maintained. The lower energy sphere in the particle.

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

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

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

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

https://medium.com/@TVvman/wave-particle-duality-when-light-turns-into-matter-4543af4734dd

The universe might be a superposition of multiple realities.

"At the deepest level of quantum physics, particles may not be as independent as they appear. New theoretical work shows that nonlocal behavior can emerge simply because identical particles are fundamentally indistinguishable. Credit: Stock" (ScitechDaily, A Fundamental Quantum Rule May Entangle the Entire Universe"

We should stop thinking that some phenomena are local. In quantum mechanics, everything has global interaction. When two particles impact each other, they send waves through the quantum fields. And if we think that impacting photons. Or some other boson's impact. They might not send very high-energy waves. But there are a lot of bosons in the universe. There is a possibility that the photon tunnels through the quantum fields. The idea is that. 

The system puts.  The photon. To spin around its horizontal axle. The photon itself is the donut-shaped particle. And if the hole in the middle of that particle is always in the same direction, that spin movement condenses the quantum field in the middle of that particle. This condensed field turns into a string, and then the photon gets a nose. That. Turns the particle’s shape. Into. A little bit like the Ostankino TV tower. 

The reason for that is that the quantum channel pulls. And stretches particle. The quantum field behind the particle pushes it into that channel. During that process, the nose sends photons. Those photons form the quantum shadow behind it. And that pulls the particle forward. So, how fast does the particle move? Or what’s its top speed? That depends on how long or how fast a particle can move until the energy flow turns away from the particle. 

And that causes an interesting idea. Why. Can a photon travel faster than another photon? The answer is this. When a photon travels in the quantum shadow between two superpositioned and entangled particles. That means a photon travels in a tunnel through those quantum fields. And that tunnel forms a different, separated quantum system. 

That means the photon is in a lower-density quantum system. But can that string form a similar situation? The answer is: if the outside quantum field can press energy into the photon, the photon can accelerate. Until its energy level turns higher. Than its environment. If the quantum field loses its contact with the photon. That particle starts to deliver its energy. So, it's possible that the string that a horizontally spinning photon can form a situation. That energy string travels through the photon and binds energy into it. And that energy travels through the energy ring that surrounds this energy string. We know. That energy donut. As a photon. This string can act like a thermal pump. When it pulls energy through that donut, it keeps quantum fields in contact with a photon. At a higher speed. Than a normal photon. 

“Cherenkov radiation glowing in the core of the Advanced Test Reactor at Idaho National Laboratory” (Wikipedia, Cherenkov radiation)

“Cherenkov radiation is an electromagnetic radiation emitted when a charged particle (such as an electron) passes through a dielectric medium (such as distilled water) at a speed greater than the phase velocity (speed of propagation of a wavefront in a medium) of light in that medium. A classic example of Cherenkov radiation is the characteristic blue glow of an underwater nuclear reactor. Its cause is similar to the cause of a sonic boom, the sharp sound heard when faster-than-sound movement occurs. The phenomenon is named after Soviet physicist Pavel Cherenkov. (Wikipedia, Cherenkov radiation) Things like neutrino detectors use that radiation. When a neutrino arrives in the water, it sends a blue light flash. Which is the same as the sonic boom. 

“The inside of the Compact Muon Solenoid (CMS) experiment at the Large Hadron Collider. Rochester physicists working at the detector have observed spin entanglement between top quarks and top antiquarks persisting at long distances and high speeds. Credit: CERN” (ScitechDaily, Faster Than the Speed of Light: Information Transfer Through “Spooky Action at a Distance” at the Large Hadron Collider)

"A groundbreaking new technique has revealed the first detailed image of an individual photon. (Image credit: Ben Yuen and Angela Demetriadou)". (LiveScience, The shape of light: Scientists reveal image of an individual photon for 1st time ever)

Ostankino tower. 

The density of a quantum system determines the speed of light. 

In a regular way, we think that nothing can travel faster than light. But the fact is something more exciting. The speed of light depends on the environment. The maximum speed of light is 299,792,458 m/s. That is the speed of light in a vacuum. The speed of light is lower in denser spaces. Then we must realize that the speed of light is lower around stars than outside the heliosphere. This means that when a particle enters the solar system, it encounters the impact wave. The speed of light is lower in that impact wave than the speed of the outside impact wave. When a particle impacts at that point, it travels faster than the speed of light. In that moment. The particle must deliver its extra energy to slow its speed. 

To the cosmic speed limit. In the same way. When. A particle impacts Earth's atmosphere. It sends its extra energy as Cherenkov radiation. That means: the reason for. Why.  Earth's sky is blue. It is the same. As the blue shines around nuclear reactors. The blue shine forms when particles that travel faster than the speed of light travel in water and release their extra energy. The particle cannot slow down if it cannot deliver energy into the environment. So, the density of the quantum system determines the speed of light. So. How can we cross that speed limit? The answer is simple. We must just develop a quantum system inside another quantum system. This means that if we create a tunnel. 

There is a vacuum across the water. We can easily transport information faster than the speed of light in water. And if we develop that mode, we can transport information faster than the speed of light. It is in the air. Between superpositioned and entangled particles, information travels through the quantum shadow. That quantum shadow or quantum tornado makes it possible that a particle can travel faster than it travels outside that shadow. In this case, that shadow. Or. Quantum tunneling forms a different quantum system between particles. There is a possibility. To create that kind of tunnel between electrons. And when a photon travels through that tunnel, the quantum maser emission transmits energy into it. The system just puts two electrons into superposition, and then it starts to spin the transmitting electron. When that photon impacts the receiving electron, it delivers its energy to that electron. 

This means that there are no local effects. The Pauli exclusion principle says. That there must not be two identical fermions in the quantum system. The universe is an extremely complicated entirety of systems and subsystems. The Pauli exclusion principle. Determines only the fermion behavior in the quantum system. Things like bosons can go. Into superposition. And the most well-known boson is the photon. Also, there can be identical quantum fields in the system. When we think of that model. The universe is. The network of the superpositioned and entangled particles. The universe is full of identical objects that can turn into a superposition. Black holes are objects that are so dense that they are identical. Except that their size is different. 

https://www.livescience.com/physics-mathematics/quantum-physics/the-shape-of-light-scientists-reveal-image-of-an-individual-photon-for-1st-time-ever

https://scitechdaily.com/a-fundamental-quantum-rule-may-entangle-the-entire-universe/

https://scitechdaily.com/faster-than-the-speed-of-light-information-transfer-through-spooky-action-at-a-distance-at-the-large-hadron-collider/

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

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

Hidden order in quantum entropy makes it possible to break the quantum network. And its security.

"Physicists have uncovered hidden magnetic patterns lurking inside a puzzling state of matter called the pseudogap, which appears just before certain materials become superconductors. Credit: Shutterstock. (ScitechDaily, Superconductivity Breakthrough: Hidden Order Found Inside Quantum Chaos)

We know the thing. Superconductivity makes objects levitate. That levitation is known as the Meissner effect. The effect is formed when all atoms in the system are in the same way. In a very low temperature. Those atoms are in the same quantum field. Because atoms are inside one collective quantum field, that thing makes it possible to push that quantum field up. And because that field is forming a collective bubble that moves the entire object up. In a superconducting wire, the atoms are. Under one collective quantum field. Because electricity travels in that field. There doesn’t form standing waves, and that denies the resistance. 

In the Meissner effect, the electromagnetic fields travel past the object. And. That puts the object to levitate. 

This effect is not possible in the non-superconducting systems. The reason for that is that entropy doesn’t allow the magnetic fields to push objects above the layer. If it is possible to put the atoms in the system into a similar order. As. They are in the superconducting material. It's possible to form the room-temperature Meissner effect. Electromagnetic radiation can form that levitation. So, the system could use. Coherent X-rays to put those atoms in the right order. In some scenarios, the antimatter annihilation can put those atoms into order. The system uses radiation to force those quantum fields into one entirety. And that forms the virtual superconductivity and Meissner effect in that system. 

"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. At that point. The object turns into a superconductor. The Meissner effect is possible.  Below that temperature. If the temperature is higher, the EM field travels through the object. And it cannot raise it up from the ground. This thing makes. The Meissner effect can also occur in stealth systems. The system. That can have the superconducting ability. Can push radio waves to travel past the object, making it invisible to radars. 

Hidden order in quantum entropy makes it possible to break the quantum network. And its security. 

The hidden order found in quantum chaos is one of the most important concepts in quantum technology. The point is that chaos in a limited system cannot be unlimited. The limited chaos means entropy. And the entropy is the thing that makes it impossible to create room-temperature superconductors. But another thing is more important. Chaos protects data that travels in the quantum entanglement. In quantum entanglement. Data travels through an entropic system in a thin fiber. 

And the thing that protects data is the system, which travels as a wave in the quantum channel, where the string goes. The quantum channel is like a shadow. That is formed between those superpositioned and entangled particles. If something finds the order in the entropy that surrounds the quantum entanglement. The attacker can theoretically steal information from the quantum system. 

The idea is that the string that transports information through entropy acts like a guitar spring. Information travels as waves on those strings. And that puts them in resonance with quantum fields around that string. There is a possibility. That. The attacker can thread superpositioned and entangled particle pairs’ transmitting side to that quantum field which surrounds the quantum string.  This could allow the attacker to observe data from the quantum channel. 

This requires that the system find the static route through the entropic system. And that is one way to break the quantum networks. 

https://scitechdaily.com/superconductivity-breakthrough-hidden-order-found-inside-quantum-chaos/

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

Happy 100-year birthday, quantum mechanics.

   Happy 100-year birthday, quantum mechanics. 

The GIF above this text introduces field interaction. When the outside field pushes the inner field, the inner field’s or structures' size will turn smaller. Until the pressure or energy level in it can break that process. Or the pressure or energy level turns so high that it can resist the outside field. 

It’s 100 years of quantum mechanics. In 1925, young scientists named Werner Heisenberg went to Helgoland Island and developed the concept of quantum mechanics. In Helgoland, he realized that all things in the universe are in interaction. There, that person realized that the sky is blue because some kind of particles hit it.

And then that thing caused shockwaves that we see as blue light. The blue light is so-called Cherenkov radiation. That radiation forms when a particle that travels speed of light hits the atmosphere. Those particles must slow their speed because the speed of light is lower in the atmosphere than outside the atmosphere. 

When a particle slows its speed, it must transfer its kinetic energy into its environment. When a particle hits the atmosphere. It sends a shockwave. The shockwave that we see as a photon is the thing that slows the particle's speed. When we think that the universe and all other systems are growing entropy, that means. We see that chaos is increasing in the system. But then we must wake up and make one decision. 

If the system is limited, any phenomena in it cannot be unlimited. And then we can see that entropy is not literally “chaos”. It's the thing that might look like chaos. But there can be repeating structures. Like in fractals. If researchers can someday find the order in the system’s entropy, they can calculate changes in its shape backward. And if those calculations are made right, they can uncover the shape of the original system. 

That makes this type of thing interesting. When a particle travels through the universe, it collects information from its environment. That information is on the particle like plague. And the problem is that. We cannot touch the particle. But if we could see the shape of the information that forms hills and potholes on the particle’s shell. If researchers know the route and entire systems. If the particle passes, it makes it possible to reorder that information. The problem is that near all stars, molecular nebulae, X- and gamma-ray bursts, and all other things involve quantum systems. 

The quantum fields in those systems are unique. And that makes this model theoretical. But if researchers know everything about the  particle’s route. They could restore information and see what things look like in that particle’s route. If that kind of thing is possible. That makes the quantum network possible. Data travels in a quantum network connected to particles. And if researchers can protect the data and calculate it back in the form. Where information was at the beginning of the particle’s journey. It allows sending bottle-post where information is stored in electrons. 

The ability to remove entropy. Makes it possible to see distant objects. And it can also allow researchers to transport information from the past to the future. Or from the future to the past. The black hole is the thing that can transport information from the future to the past. But the problem is that the entropy at the edge of the event horizon turns information into a mess that nobody understands. 

That entropy is like a series of whirls that mix information into a form. That makes no sense. But if researchers know how that border behaves and what kind of whirls there are. That allows them to re-order that information. That requires complete knowledge of the systems. And how those things behave in interaction. 

Gravitons, photons, and string theory.

Above: A spiral galaxy is actually a material disk around a supermassive black hole. 

If a graviton is the black hole in the middle of a photon that thing is a small but very powerful particle. When we look at the black holes in the universe we can see that those phenomena pull material into them from extremely large areas. The Sagittarius A’s size is about the same as the solar system. But it forms a spiral galaxy around it. 

That means that if the photon is a structure that is formed around the quantum-size black hole, that means the quantum black hole could be the graviton, the missing gravitation transmitting particle. But that particle is extremely small if we compare it with a photon. In this model, the photon is an energy ring that locks that quantum black hole into its form. That means photons are the energy field that denies the quantum black hole explosion. 

Or if the superstring or string theory is true we can say that if a photon is lost. That pushes a black hole into that superstring. An energy field that falls behind it impacts the superstring. In string theory, superstrings form all particles and energy fields. Those strings can be like rings, or they can be very long lines. And that means those 2D strings form everything. 

The idea is that the hypothetical superstring that the photon surrounds acts like a thermal pump that puts energy flow away from that point. 

"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)

The question is how can that thing form? The answer could be in the Kugelblitz black hole. The black hole can form from energy or from superstrings. The idea is that the photon that we see is an energy ring around the superstring. When the energy that comes out starts to push that string in that point, that makes energy move in and on that string. Superstring can be thinner than quark. But it can be as long as the diameter of the universe. So, when the energy level in that point starts to rise it puts energy to move out from that point. The rising energy level at that point puts energy moving faster at that superstring. 

That thing starts to pull energy out from that point so fast that all wave movement goes with that thing. In this model, the photon is the impact field around the superstring that cannot take all energy away from that point. The photon is the energy field that outcomes energy locks around the energy hill that makes energy move in the superstring. This means the black holes are like extremely powerful thermal pumps that make energy flow away from the point where they are so fast that quantum fields around them start to travel to that point with such high speed that light or any other wave movement cannot escape from that point. 

When we think that a photon is the ring-shaped energy field around some kind of superstring, the next question is how that superstring turns into a supermassive black hole. That happens when those superstrings are starting to tie around each other like a rope. That kind of thing can form extremely large black holes. But the requirement is that those structures must not let energy away from them. So maybe at least large-size Kugelblitz black holes cannot form in the modern universe. There is so much free space or surrounding quantum fields are so weak that the rope-shaped structure of superstrings will be broken. 

The black hole is in the interaction between it and its environment. Outcoming energy or quantum fields press that structure together. And in the young universe, those quantum fields were much stronger than in our universe. They pressed those superstrings together. And that means it's possible that in the very young universe the Kugelblitz black holes formed before material. That is one way to think about the most interesting phenomenon in the universe. Proving that thing requires proving string theory. And that is not an easy thing. 

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

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

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

How hard is it to prove quantum gravity?

"In a dramatic twist on classical physics, scientists have cooled a mirror to near absolute zero with lasers to see if gravity might be quantum. This breakthrough could reshape how we understand the universe. Credit: SciTechDaily.com" (ScitechDaily, MIT’s Chilling Experiment That Could Prove Gravity Is Quantum)

Quantum gravity: mass, density, and weight form gravity. And every single particle has a quantum field. The gravity is the interaction with quantum dots and the gravity center is the collection of those quantum dots. The quantum dot forms when a spinning particle binds quantum fields from around it into the particle's structure. The outcoming field denies the destruction of the particle by pressing it together. 

The spin of the particle is normally 1/2. Which means. When the particle turns its direction, it stops and releases energy. When the spin direction turns, the particle simply pushes quantum fields away from it. In that case, a particle binds energy, but that time is so short that energy cannot turn a particle into a black hole. 

If we want to turn particles into black holes. We must impact energy in it. When a particle binds energy from around it, it forms a gravity pothole. When that pothole turns deeper that pothole-particle combination pulls energy from larger and larger areas. 

The quantum gravity theory can be proven or disproven. But the idea in the quantum gravitational model is that. Every single particle in the universe has a gravity field. Quantum gravity means that all nuclear fundamental interactions have the "domination limit". There is a certain mass, size, or density of the objects. The object's size determines which of the fundamental interactions turn dominating. 

Dominating interaction between quarks and gluons is strong interaction or strong force. Dominating interaction between hadrons is a weak nuclear interaction. The dominating interaction between an atom's nucleus and electrons is the electromagnetic interaction. That makes the quantum gravity model hard to prove. The gravity wave is so weak at the quantum level that it's almost impossible to detect. Other interactions cover that effect below them. 

Dominating interaction makes atoms stay in the form. And it determines the position where subatomic particles are. Gravitational interaction affects long distances and only between large objects. Or, if we follow the recent text, we can say that gravitation forms in the entirety there are multiple gravitational centers. Or, every gravitational center involves multiple gravitational centers. 

Dark matter and quantum gravity model. 

And then we can introduce an interesting model of dark matter. Dark matter can be material that spins too fast. That spin makes them bind quantum fields inside their structures faster than they should. So, when quantum fields travel in those particles those fields pull them closer together. 

That explains why compact dwarf galaxies' stars are too close to each other. When some outside effect pulls dark matter halo out from the dwarf galaxies that causes the effect that the outside energy tries to fill those points. And that pulls stars closer to each other. When some outside gravity field pulls dark matter halo from away from the dwarf galaxy. That can turn those quantum shadows stretch. That thing makes quantum fields move to those positions that that movement releases. 

Another interesting model is that the WIMP (Weakly interacting massive particle) can be the situation that the other particle will go in some particle. That means we cannot see that other particle because the other particle covers it. So, if we think that the hypothetical graviton is that particle that gives mass to all other particles the graviton curves the quantum field or superstrings that form the whisk-shaped structure or bubble around that graviton. In some models, the graviton is the small, quantum-size black hole. 

The standard model is very functional until we face gravitation. Gravitation has no repelling effect and that makes it interesting. There are theoretical models about things like antigravity but they are not proven. 

There are models that gravity can be a mixture of other three fundamental forces, strong. And weak nuclear forces and electromagnetism. There is also a model that the spinning movement of the particles binds quantum fields to them. So when particles turn wave movement into kinetic energy. They just harness energy from around them and bind that energy to their structure. 

And then to the quantum gravity model. The idea is that all particles are quantum spots (or balls) that bind quantum fields around them. That means all gravity centers are collections of quantum dots. So, those quantum dots form all gravitational centers in the universe. The thing that forms the black holes are the internal quantum dots. 

The quantum field is like a canvas that travels through and between those quantum dots. The size of the holes, or the distance of those quantum dots determines how strong those quantum fields can be. The thing is that quantum gravity means that mass, weight, and density are things that determine the particle's gravity field. 

https://scitechdaily.com/mits-chilling-experiment-that-could-prove-gravity-is-quantum/

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

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

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

https://en.wikipedia.org/wiki/Spin_(physics)

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

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

String theory and mysterious structures in the universe.

  

There is no confirmation of the superstrings. In Superstring theory. Those superstrings are channels through space and time. So they are also wormholes if they exist. They are hollow energy tunnels where the wave movement can travel. And the thing that supports this theory is the cosmic web. Or, cosmic neural web. The largest megastructure in the universe. There is the possibility that the material is packed on those hypothetical superstrings that are "cold". 

In that (super)string theory. Dark matter and dark energy have the same origin. The dark matter is an extremely low-energy particle. Dark energy is like a flash that forms when something pumps energy into the hypothetical dark matter particle, called a weakly interacting massive particle, WIMP. There is the possibility that the WIMP is like a donut. And if the superstring travels through that particle very fast it acts like a thermal pump. That superstring takes energy out from the particle focusing it into the middle of it.

Because. The energy travels out from the particle from the middle of it. That makes it impossible to see those particles from its sides. Theoretically it is possible that a spinning particle makes an energy channel that pulls a superstring through that particle. 

Or if the particle is like a pearl necklace around the superstring, fast energy flow through that string makes the particle invisible, because it pulls energy away from its structure. The energy that travels through the particle acts like a thermal pump. 

The reason for that is the energy that flows in those structures. That energy acts like a thermal pump. The thing that makes energy move in those tubes is the universe's expansion. If the energy that travels through that tube flows fast enough, that energy can keep the superstring open and in its form. 

The string theory goes like this. All energy fields and materials in the universe are formed of tiny parts called superstrings. The superstring is the serpentine-shaped structure in the energy field. So, superstring is the energy field that the quantum- or electromagnetic low pressure keeps in its form. The thin energy field will stay like a paper roll around the energy vacuum or lower energy level field. 

That means the superstring, the tiniest part of the material, looks a little bit like a cardboard roll. The outside energy stabilizes that structure around the energy vacuum or lower-energy level field. Superstring size can be very large, and there is a theory that the superstring can be larger than the universe. And the smallest of them are far smaller than photons. So superstrings are a medium between material and wave movement. 

So, how do superstrings turn into a photon? 

When a superstring hits an energy field or conducts energy into that field. That forms similar waves as stone makes when it drops into the water. That wave is the photon. When the superstring travels through that donut-shaped standing wave it transfers energy in it. And also the superstring acts like a thermal pump. The photon, or ring-shaped energy field forms around that string. The photon itself cannot break the superstring's shell. When a superstring travels in the electromagnetic field it pushes that field away. That forms the pothole around that superstring. If that pothole is large enough it can pull particles in it. Or outside energy can push particles into that hole. 

When that superstring drills itself into the energy field. That continues as long as the energy level in the superstring is higher than the field around it. The energy in that string keeps the energy hole open. The universe is at least a 4-dimensional entirety. The time is one of the dimensions. The past is closer to the beginning of the universe, or the Big Bang. That means it is at a higher energy level than the future. So if there is a tunnel that doesn't allow energy interaction between inside energy or wave movement that travels in it. 

And the outside energy means the inside wave movement cannot release its energy. That means that this kind of string or tube can make a shortcut through time called a wormhole. But the wormhole requires that the energy flow inside it is strong enough that it cannot press that tube together. That means the long wormhole can stay open more easily than the short wormhole. 

The superstring travels in the hole and makes it deeper because the energy level in its nose is higher than the field around it. But it's lower than the energy level at the back of that string. The higher energy level at the back of the superstring pushes that string into the pothole. 

The thing that makes the particle fall into the pothole is the superstring's structure. Particles are like pearls in the neckless around the superstrings. When the superstring travels in that pothole the waves in that string or thin energy field move particles with it. 

When a particle and superstring start to travel in the deep energy pothole, energy travels from the slopes of that energy or gravitational pothole to the superstring. 

The energy also starts to flow in that gravitational pothole slope to the bottom of it. The energy level in the particle can rise only if the superstring that travels through it does not travel too fast. If that superstring moves energy out from a particle too fast, it cannot reach a high enough energy level that it can reach the gravitational pothole's edge. 

Superstrings can be very long. They can transport wave movement through them. That energy flow makes superstrings cold. And that makes it hard to see them. When energy strings travel through those superstrings they move energy away from the superstring's shell. The master-emission also acts with energy that travels in the superstring. The outcoming energy pushes those strings almost straight. The thing that makes the superstring leak is the expansion of the universe. The superstring is the wormhole that transports information from the past to the future. 

Superstrings and dark matter and dark energy. 

The theoretical graviton particle is the elementary particle that transmits gravitational waves. We know that gravitation has a wave shape. But why that hypothetical graviton will not be visible in sensors? There is a model that. Graviton is a donut-shaped structure. The energy field or superstring travels through that donut-shaped structure and that string transports energy out from that ring. 

Because that superstring transports energy out from that structure from the middle of it, that makes energy travel in the middle of those structures. And if no energy can reflect from that structure it makes it invisible. If the superstring touches the shell it sends an energy wave through that structure. Similar way wire that moves through the frame sends sound if it touches its frame. 

So the dark energy could form when the dark matter "flashes". If that hypothetical WIMP is a donut-shaped structure. That dark energy can form when the superstring hits it. 

We can say that the origin of the unknown wave movement is always in unknown structures. When the superstring touches the ring-shaped wave that we call a photon it sends wave movement. And then we can start to think about the hypothetical weakly interacting massive particle, WIMP that particle can have a very low energy level. The question is if WIMP is so low low-energy particle that it cannot send reflection. Where that particle puts its energy. 

So if the superstring forms photons around it, it's possible. It can also turn other particles invisible. When a superstring travels through some particle it can move energy out from it. If that happens fast enough, the particle cannot send reflection from its shell, because the superstring transports energy out from the particle very fast. So there particle's shell has no time to send reflection. If particles can pull superstrings over them. Those particles turn also invisible. 

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

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

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

https://en.wikipedia.org/wiki/String_(physics)

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

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

The quantum effect allows us to research our minds and memories.

"A stunning discovery shows that quantum computation might be embedded in the very structure of life, enabling organisms to process information at mind-boggling speeds – even in warm, wet environments. Credit: SciTechDaily.com" (ScitechDaily, Scientists Just Discovered Quantum Signals Inside Life Itself)

The quantum effect in living organisms is something that we might not even understand. The living systems are complicated. They are full of interference, and their entropy is very high. But otherwise in cells. It can be "deep" micro whirls that allow quantum information to travel through the cell itself. The proteins in the cells can also form so-called quantum channels. There quantum information can travel without interacting with the cell's structures. 

That thing opens new visions about the research cell's internal actions and reactions. But that thing opens new visions to trying to understand things like consciousness and its mechanisms. That quantum phenomenon can open the road to research how things like magnetic fields transform or affect our thoughts and minds. That thing can also be the key to reading our memories and dreams. 

"The computational capacities of aneural organisms and neurons have been drastically underestimated by considering only classical information channels such as ionic flows and action potentials, which achieve maximum computing speeds of ∼103 ops/s. However, it has been recently confirmed by fluorescence quantum yield experiments that large networks of quantum emitters in cytoskeletal polymers support superradiant states at room temperature, with maximum speeds of ∼1012 to 1013 ops/s, more than a billion times faster and within two orders of magnitude of the Margolus-Levitin limit for ultraviolet-photoexcited states. "(ScitechDaily, Scientists Just Discovered Quantum Signals Inside Life Itself)

These protein networks of quantum emitters are found in both aneural eukaryotic organisms as well as in stable, organized bundles in neuronal axons. In this single-author research article in Science Advances, quantitative comparisons are made between the computations that can have been performed by all superradiant life in the history of our planet, and the computations that can have been performed by the entire matter-dominated universe with which such life is causally connected. Estimates made for human-made classical computers and future quantum computers with effective error correction motivate a reevaluation of the role of life, computing with quantum degrees of freedom, and artificial intelligences in the cosmos. Credit: Quantum Biology Laboratory, Philip Kurian" (ScitechDaily, Scientists Just Discovered Quantum Signals Inside Life Itself)

"Yale researchers have uncovered evidence that babies can store memories far earlier than we once thought. Credit: SciTechDaily.com" (ScitechDaily, Your Earliest Memories Might Still Exist – Science Just Found the Clues)

In some models, our first memories are behind things like nightmares. 

Researchers think that the very first memories in our brains still exist. But brains cannot collect them into new entirety. Those first memories are stored in brains where were only a very few neurons if we compare them with adult brains. That means memories scatter around the brain. And maybe. Quantum technology can read those memory allocation units that the first neurons stored. Theoretically, those systems must only recognize those cells, read the data units from those very first memory cells, and then reorder them into the original order. 

Memory cells act like a puzzle. Every piece in the puzzle is an independent memory allocation unit.  Every memory cell holds one part of memory. And cell group handles all of those memories. Every neuron handles only a small part of the image. And if those neurons are far away from each other that makes it hard to restore images.  Thinking means that. Brains reconnect those memory allocation units. When a person gets flashbacks in some stressful situations that means that the non-used neural track is activated. 

There is a model where nightmares are forming in the first memory cells. First memories are behind strange dreams our brains have access to those memories. But they cannot collect them back into their original entirety. 

When we think about information stored in our brains we must realize that the first memories from childhood might not gone or lost. The problem is that our brains advance from childhood. In that process, the number of neurons grows and their connections are multiplying. So our first memories form in brains where there are not very many neurons. When the number of those neurons grows those memories or memory allocation units will go to longer distances than they were in our childhood. Our brains just cannot convert those memories into new entities. 

https://scitechdaily.com/scientists-just-discovered-quantum-signals-inside-life-itself/

https://scitechdaily.com/your-earliest-memories-might-still-exist-science-just-found-the-clues/

New supermaterials are game-changers.

"A section of the atomic structure of a cadmium selenide nanoparticle (left) with an incorporated foreign mercury atom; and an artistic representation of a highly magnified nanoplatelet with mercury defects at its active corners (right). Credit: B. Schröder/HZDR" (ScitechDaily, What Happens When You Swap Atoms? A Nanotech Revolution Begins)

Nanotechnology is the game changer. An ability to swap atoms precisely in the structure opens new tools for material technology and medical systems. Intelligent proteins that store their movement series and then make those movements backward make it possible to create nano-size robots that can go into individual cells. The knowledge of the weak force makes it possible to create things like materials that can repair themselves. The ability to connect memristors in the structure allows create of intelligent structures. 

The atom swapping and ability to affect the atom's ionization is useful in the layers like blades. 

That should remove things with very high accuracy. The idea is that the edge of the blade is made of ions. When the blade hits something electrons fall to fill those holes. 

And that makes the energy impulse to that edge. Nanotechnology requires the ability to create impressive things. 

Like nano-structures that conduct energy only in one direction. The idea is that the energy can move only one way if there are so-called energy stairs away from the energy hilltop. If the energy that travels from the hilltop is very powerful it transports those stading waves away.  But then energy must slide over those particles. If that does not happen that energy pulls those particles with it. 

"A new kind of memristor mimics how the brain learns by combining analog and digital behavior, offering a promising solution to the problem of AI “catastrophic forgetting.” (ScitechDaily, A new kind of memristor mimics how the brain learns by combining analog and digital behavior, offering a promising solution to the problem of AI “catastrophic forgetting".)

This makes it possible to connect computers and material structures to intelligent materials. And install data handling capacity into other materials.  

Supermaterials are things that can conduct impact energy out from structure very fast. If we think about saucer-shaped structures that edge is at a very low energy level and something hits the middle of that structure. That thing allows structure to conduct the energy out of it.

When we think about things like energy-absorbing materials there is the possibility to make materials that tie all energy in it's structures. But the next problem is that. If the energy level rises too high in the structure forms standing waves that push its particles away. And breaks the structure. If the system can remove or suck those standing waves away it will stand against almost all possible temperatures. 

The thing that destroys material is the standing wave that forms between its particles. The standing wave forms when material releases its energy. So the thing that destroys structure is not the heat or energy. The thing that destroys material is the end of the energy pump. When the energy pump ends particles in the structure release their extra energy. And that energy forms those fatal standing waves. But if the system can suck those standing waves out. That makes the structure stand. 

In some possible way to handle temperature is the thermal pump that transfers energy binder through the materials. The system can use things like airflow, electron flow, or laser beams that travel in the material. Those things will transport energy out from the material. 

It is also possible to create a structure that creates a standing wave or infrared wall that denies heat or IR radiation travel through that wall of coherent IR radiation. The long wires can move in and out of the material like a conveyor belt. It takes energy with it. And transports it to medium. 

"Artistic visualization of a crystalline rod made of the semimetal ZrTe5. There is a heat gradient from one end to the other. In its center, giant oscillations in its heat conduction are toggled by the magnetic field, which is generated by the electromagnet below. Credit: B. Schröder/HZDR" (ScitechDaily, A Quantum Metal Just Changed What We Know About Heat)

Schrodinger's cat state in the material makes it possible to create the nano-size diodes. In that state where the material is hot and cold at the same time energy travels in one direction. Those diodes can revolutionize the superconducting technology. 

The Schrödinger's state in material research. 

We can say that Schrödinger's state in material is that. That material is hot and cold at the same time. The heat travels to the cold part. That allows the material to stand against ultimate temperatures. We can describe Scrödinger's state in material by using a space probe as an example. If the space probe goes near the sun it melts because of the heat. But if the probe has a place where it can put that thermal energy. 

Theoretically, it can travel inside the Sun. The answer to the heat problem could be the extremely long wire that can transfer heat energy out from the probe. But there is another way to make the energy dump. That dump requires nano- or quantum balls that store energy inside them. So the system transforms thermal energy into kinetic energy. 

The new quantum materials are revolutionizing our way of understanding things like heat. The new types of quantum materials can create an energy flow that transports heat out of the system. That phenomenon is possible in the ultra-cold systems. But maybe that research brings us new products. 

https://scitechdaily.com/this-brain-inspired-memristor-could-finally-solve-ais-catastrophic-forgetting/

https://scitechdaily.com/a-quantum-metal-just-changed-what-we-know-about-heat/

 https://scitechdaily.com/weak-forces-super-materials-the-breakthrough-changing-material-science/

https://scitechdaily.com/what-happens-when-you-swap-atoms-a-nanotech-revolution-begins/

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

Can black holes be portals to other universes?

"A wormhole visualized as a two-dimensional surface. Route (a) is the shortest path through normal space between points 1 and 2; route (b) is a shorter path through a wormhole." (Wikipedia, Wormhole)

This is an interesting idea. That requires the existence of other universes. And proving that. Will prove multiverse existence. But before that, we can only make theories of black holes, white holes, and wormholes. 

The black hole is full of mysteries. The structure is pure gravity. And because escaping velocity is higher than the speed of light. That means time should travel back in that structure. A black hole pulls material inside it. 

Then our knowledge of that thing ends, and we must start to make theories and mathematical models for that phenomenon that is more complicated than nobody knew. 

The extreme density. And extremely powerful gravity field makes the situation that even small differences between those distances affect that structure with enormous power. 

The information will never vanish. And the black hole pulls information inside it. The information exists but is it broken into pieces that will not turn back in one piece? The thing is that if the wormhole exists that structure can be the key to interstellar travel and maybe to dark matter and even dark energy. 

The wormhole or Einstein-Rose bridge forms when the black hole's ultimate dense material touches the fields or superstrings that travel through that structure at the point in spacetime when the black hole forms. The supernova pushes those particles and superstrings into a very dense form. And that very dense form called singularity takes the touch with those fields and then turns them into the rope- or tornado-shape structure. 

There is a theory that this wormhole takes energy and material out of the black hole. The idea is that the black hole's relativistic jet forms around the wormhole. The wormhole is the whirl, or internal whirl in the quantum fields. There is the possibility that the wormhole is an internal quantum whirl that explains its hypothetical abilities. 

So we can think that the wormhole and some of the black hole's abilities form in the whirl-shape structure that surrounds the channel. That energy, or quantum whirl interacts with its environment like a Tipler cylinder. That means the thing that goes in the wormhole goes to the time trip. 

The black hole is like a Tipler cylinder itself. That structure transports energy and information to the point, where black holes form. When we think about the hypothetical wormhole and its rope-shaped form where all energy tornadoes are separated that means this. When energy travels through the wormhole it is like a light cable and a series of optic fibers. 

When energy travels through those quantum tornadoes it raises energy levels in fields around it. That energy pushes those strings away from each other because when the energy level in the fields rises it pushes those fields in the middle of those strings. 

And that forms entropy. The other thing is that. Entropy is also formed when a black hole travels in time. When the universe expands that means black holes always turn smaller. And pulls smaller masses of information into it. That causes them to turn into energy. Or they send energy waves. 

The black hole loses all the time its mass. And that makes it look like a cone if we see that route in time. The mass of information that the structure gets decreases. That causes the point that pulls information into it to always turn smaller. So it's like a funnel that is upside down. That makes space and entropy in a black hole. And the black hole itself is the wormhole that transports information back in time. 

The question is this: does the wormhole have a coherent, or non-coherent structure? 

There is the possibility that the wormhole is like a rope. The structure that is is formed of millions or even billions of small strings. Those strings are the quantum tornadoes that close energy and time inside them. 

If the wormhole is multiple internal energy tornadoes. So can this kind of structure transmit information through them? That thing depends on harmony. The requirement that information can travel through those wormholes is that there is not too much entropy. If the distance between those energy tornadoes is too long, information is destroyed. 

If the speed of information is the same and information travels through those quantum tornadoes in the same direction. That allows this structure to transport information. And keep it in the same form.  But if the information travels in two directions that thing breaks the form of the information. 

The thing is that the wormhole is an interesting phenomenon. And our knowledge of black holes grows all the time. We know electromagnetic and acoustic wormholes. So why the ultimate gravitational wormhole cannot be possible?

 https://scitechdaily.com/could-black-holes-be-portals-to-a-new-universe-scientists-weigh-in/

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

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

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

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

What if we can create Maxwell's demon?

"No quantum exorcism for Maxwell’s demon (but it doesn’t need one). Credit: Reiko Matsushita" (ScitechDaily, Maxwell’s Demon Strikes Back as Quantum Physics Unveils a Thermodynamic Loophole)

"For over a century, the Maxwell’s demon paradox has haunted physics. This thought experiment suggests that a tiny, energy-free “demon” could defy the second law of thermodynamics. Researchers put this to the test in a quantum setting, revealing that quantum mechanics allows surprising loopholes—though ultimately, thermodynamic balance always wins." (ScitechDaily, Maxwell’s Demon Strikes Back as Quantum Physics Unveils a Thermodynamic Loophole)

Maxwell's demon is a thought experiment about a situation where the demon separates particles using speed as a value. The demon opens the gate for the fast particles. 

The demon closes the gate for slow particles. In some versions, the demon sends slow particles to the right and fast particles to the left. That makes it possible to sort particles using their speed. That means fast particles will travel to another tank and the slow particles will go to another. 

"Schematic figure of Maxwell's demon thought experiment" (Wikipedia, Maxwell's demon) 

This makes Maxwell's demon an excellent model for quantum cryptography. The idea is that the system sorts 1 and 0 to individual routes. And the receiving system collects that data back in order. The receiving system must know where it puts the zeros. The system handles fast particles as 1, and slow particles as 0. 

The real-life Maxwell's demon can make the new types of quantum information systems possible. If the demon sorts particles to different routes and there is a sensor in that route that allows to create next generation quantum information system. In the cases that the particles have serial numbers like "slow 1" and "fast 1" that makes it possible to transmit information in new ways.

The slow particles can be 0 and the fast particles can be 1 in a binary-quantum system. The serial number can be the energy level of the particle. In some models, the Maxwell's demon sends fast particles to the receiver. That means the demon sends the particles with value 1 to the receiver. The calculator can calculate how many particles travel through the gate. Then another system can transport the slow particles to the receiver. 

If fast particles have the values "fast 1", "fast 2", etc.. The slow particles can have values like 1,(1),2. Or 1(2)2 (or 2(1)3). The number in parenthesis is the position of slow particles between fast particles. If we mark that point like this 1,(1),(2),2 or simpler 1,2,2. That can mean that there are two slow particles between fast particles 1 and 2. And we can mark that situation in a binary system like this: 1001. We can, of course, mark slow particles as 1 and fast particles as 0. 

The idea in this thing is that we would sort the balls using Maxwell's demon. We can send fastballs from the basket to the receiver, or other basket. And then the slow balls remain in the first basket. The carrier can transfer the basket where slow balls are to the receiver. Then the receiver can sort the particles to the binary code. The requirement is that the receiver must know where it puts the slow balls. The basket can be the USB stick that the message carrier transports to the workplace. 

https://scitechdaily.com/maxwells-demon-strikes-back-as-quantum-physics-unveils-a-thermodynamic-loophole/

https://en.wikipedia.org/wiki/Maxwell%27s_demon

Researchers manipulated Kelvin waves in superfluids.

 

"Scientists catch spirals of Kelvin waves in superfluid helium for the first timeAn illustration depicting helical waves in a vortex." (InterstingEngineering, Scientists catch spirals of Kelvin waves in superfluid helium for the first time)

"A team of Japanese researchers has discovered a method to control Kelvin wave excitation in superfluid helium-4. This breakthrough can refine our understanding of how energy moves in quantum fluids, improving quantum sensors and making quantum devices more efficient. "(InterstingEngineering, Scientists catch spirals of Kelvin waves in superfluid helium for the first time)

Researchers manipulated Kelvin waves in superfluids.  That might seem something meaningless but the ability to manipulate structures in liquid helium is one of the most interesting things in the history of information technology. The superfluid manipulation makes it possible to create special communication systems that benefit the whirls or string structures in ultra-cold liquids. Those communication systems bring the quantum computers closer to our desks.

As you see from the image above this text the system creates the whirl there are wheel-shaped structures. Those structures are like towers. The information can travel between two wheels between two whirl towers. That can be the new tool for quantum sensors and other kinds of systems. When the outside energy hits the ultra-cold helium. It pushes those atoms. That changes the shape of those whirls. That ability to manipulate these structures makes it possible to create the quantum acoustic and electromagnetic systems that were not possible before.

The liquid helium is not only possible superfluid. The ultra-cold atoms can be used in scanning atomic microscopes. But ultra-cold atoms, or so-called quantum fog can also be used in the system called atomic resonance detector. The atomic resonance detector is the system where ultra-cold atoms are in a chamber. The idea is simple. When radiation stresses some chemical compounds and there are similar atoms in the chamber the atom that is in the sample sends reflection radiation to that chamber.

The atomic resonance microscope is not as sharp as the scanning tunneling microscope. However, it can uncover if there are certain atoms in a sample. The chamber includes ultra-cold low-pressure gas. The system can also make resonance into certain points of the samples if the chamber sends radiation. In that case, radiation energy is sent to the resonance chamber. That thing cuts the compounds to a precise certain point.

If there are similar atoms in the chamber. That reflection causes resonation. That means if there are oxygen atoms in the chamber and if the sample includes oxygen those oxygen atoms cause resonance in the oxygen atoms in that chamber.

Ultra-cold liquid manipulation makes also it possible to create sonar systems that can research the bottoms of the hydrocarbon and nitrogen oceans at ultra-cold objects like Triton and Pluto. The ability to manipulate ultra-cold liquids makes one of the most interesting communication systems possible.

In SciFi movies characters talk about "sub-space communication". In the world of communication theories that means the use of weak wave fields with unique frequencies to communicate with long-distance probes. The idea is that if the wave field is very weak, but its wavelength is unique it will not resonate with other fields. 

https://interestingengineering.com/science/scientists-catch-control-kelvin-waves-first-time

The new quantum observations can mean a breakthrough in quantum computing.

Photonic computers are a medium between quantum computers and regular computers. In the stages the quantum computing the binary computer inputs data to a photonic computer. Then the system takes photons to frame and starts to make the quantum entanglement. The photonic computer uploads data to photons and then controls the quantum computers. 

An ability to make material magnetic using light is important for photonic computers. The photonic system requires some kind of bridge between the photonic system. And regular computers. The data that can be transferred from the photonic chips to regular mass memories must transformed into electric or electromagnetic form. The photonic computer can send data from photonic layers to regular computers using light. 

The quantum computers require extremely high accuracy. The system requires exact knowledge of the behavior of the photons that transmit information in the quantum entanglement. This is a problematic thing because the Heisenberg uncertainty principle means that we cannot quantify the precise place and speed of the particle same time. The particle has movement in the visible world. 

But when it releases energy, that is stored in it it causes the unseen but existent movement. That means the particle also moves between energy layers. For determining the precise place and speed of particles the system requires an independent measurement system. Each quantity has its own measurement system, and then the support system connects that data. 

"Schematic of entangled photons generated in a periodically poled stack of 3R-MoS2 crystals. Credit: Ella Maru Studios" (ScitechDaily, From Spooky Action to Real-World Tech: Columbia’s Quantum Entanglement Breakthrough)

Quantum computers require the ability to react to those changes.  That gives very high accuracy but it requires the ability to handle large datasets and react to them immediately. The support systems must have high-power calculating capacity. That they can react the right way. 

The fluxonium qubits are things that can make it possible to transmit data in the series. If the system can create multiple qubits very fast, that thing makes it possible to create the error detection for the quantum computers. The difference between answers means that there is an error. Error detection is a key element for error correction. 

Long-distance quantum communication requires the ability to transmit qubits through long distances. The problem is how to make the qubit keep its information. MIT's tests with highly accurate qubits can be the answer to that problem. In long-distance quantum communication, the system can pack information into particles like photons or some other piece. Then it shoots that particle through the quantum channel. 

The receiving system stops the particle and then transmits information to the receiving particle using superposition and quantum entanglement. That kind of system requires new types of data cables that are more like small nano-technical particle accelerators. The system can shoot the qubit particle through the nanotube. Or make superposition and quantum entanglement through those nanotubes. 

Long-distance superposition and quantum entanglement are the things. That is ideal but very hard to make. 

Nanotubes inside altermagnetic structures can make it possible to protect qubits over distances. Those systems can protect long and short-distance quantum networks. Short-distance quantum networks can operate using superpositions and quantum entanglements. In longer distances, the system can pack information into qubits that it shoots through the quantum channels. 

That means inside houses the data can move through the quantum entanglements and in longer distances the system can transport data in the form of a single particle. 

And maybe in the future data travels in nano-size particle accelerators in the form of long-distance quantum entanglement and superposition or in individual particles turned to qubits. Similar systems can transport qubits over long distances. The system can load data to the particle that is in the frame using quantum entanglement. Then that system can shoot the qubit forward. 

https://scitechdaily.com/100x-faster-light-powered-memory-thats-revolutionizing-computing/

https://scitechdaily.com/breaking-quantum-limits-mits-fluxonium-qubits-achieve-unprecedented-precision/

https://scitechdaily.com/from-spooky-action-to-real-world-tech-columbias-quantum-entanglement-breakthrough/

https://scitechdaily.com/how-beach-waves-illustrate-heisenbergs-uncertainty-principle/

https://scitechdaily.com/mit-scientists-just-made-a-material-magnetic-using-light/

A new quantum phenomenon in ordinary light.

"Quantum dynamics emerge from classical light! Researchers unveil hidden coherence, unlocking breakthroughs for scalable quantum tech and advanced imaging systems. Credit: SciTechDaily.com" (ScitechDaily, Scientists Found a Quantum Surprise in Ordinary Light)

"Through advanced techniques, they isolated subsystems exhibiting quantum interference, paving the way for scalable quantum technologies and new insights into many-body systems."(ScitechDaily, Scientists Found a Quantum Surprise in Ordinary Light)

The quantum phenomenon in the photonic whirl can also make things like protective fields possible. Those entangled photons will not let material or energy travel through them. 

The new quantum phenomenon challenges ordinary physics. That thing can tell something about black holes and other complicated systems. There is a possibility that photons can entangle in the photonic whirls.  It's possible photons can close some space inside those photon whirs.  And that can cause a situation in which information or some part of information cannot come through that photonic whirl.

"Using advanced techniques such as photon-number-resolving detection and orbital angular momentum (OAM) measurements, the team transformed a classical pseudothermal light field into isolated multiphoton subsystems. Within these subsystems, they observed two contrasting behaviors:" (ScitechDaily, Scientists Found a Quantum Surprise in Ordinary Light)

 

"This diagram illustrates the process of multiparticle scattering mediated by twisted paths endowed with orbital angular momentum (OAM). The number of photons in each twisted path is measured and correlated using photon-number-resolving (PNR) detectors. Credit: Mingyuan Hong" (ScitechDaily, Scientists Found a Quantum Surprise in Ordinary Light)

XXXXX

1) Classical Coherence: The majority of subsystems behaved predictably, consistent with the principles of classical optics.

2) Quantum Coherence: A smaller subset exhibited interference patterns reminiscent of quantum phenomena observed in entangled photon systems.

(ScitechDaily, Scientists Found a Quantum Surprise in Ordinary Light)

XXXXX

The quantum phenomenon in the photonic groups makes it possible to share information between multiple systems. That makes those quantum systems scalable. 

Making the new quantum solutions possible. If the photon looks like the donut. That we can see in image 3. That thing means that the entropy is also in the photon. The entropy is the thing that destroys all systems. When the size of the system in comparison to its material grows that thing leaves space in the system. And that increases entropy. 

The scalable quantum technology makes it possible to form quantum computer networks and quantum sensors. 

It improves quantum technology. It's possible that many (or all) other physical systems hide the quantum phenomenon. Classical physics handles the entireties. In quantum versions of the physical models, the quantum phenomenon can involve sub-phenomena. 

Quantum physics handles parts of entireties.  Things like quantum whirls can exist on the surface of quarks. Those quantum phenomena and sub-quantum phenomenons can explain entropy in all systems. The quantum whirl can form entropy even in the smallest systems. And those whirls cause the rise of entropy. 

Image 3. Can a photon look like this donut? Or can some superstring tie around it? Like in image 4. (Images by Gemini) 

Image 4.

One of the things that can cause problems in the event handling in quantum systems is time dilation. There is no time in photons. That means photon moves all the time. 

When we look at the image of the photon we see the donut-shaped structure. The interesting thing is the photon doesn't turn older in the frame. That can mean that the photon is moving all the time. The photon can move like a wheel around its axle. 

Or it can roll itself crossing the structure. 

Maybe the photon has some kind of substructure. If that movement crosses the shape of photons is like a wheel that forms crossing wheels. Maybe the photon looks like the thing that we see in image 3. That means that every sub-particle can rotate independently. 

And it can drive wave movement through it. So if the string of wave movement travels through that structure it can glue two photons together. When we look at things like quantum entanglements and energy bridges that transport data in that thing. 

There should be entropy in the structure that transports data in the superposition and entanglement. In all structures is the entropy that destroys the quantum system. 

That means quantum whirls can destroy the smallest possible systems. Those whirls can form in the superstrings and they are the beginning of entropy that rises all the time. 

https://scitechdaily.com/scientists-found-a-quantum-surprise-in-ordinary-light/

Black holes. And gravitational quantum effect.

Can the Aether and Higgs field be the same thing? 

When researchers talk about things like the Higgs field. That is the base energy level in the universe. We can say that they talk about Aetherium. The energy field that carries the wave movement. 

In the past. Physicists believe. That there is some kind of energy field in the universe. 

That field carries information. The thing that supports this model is that wave movement cannot move in a total vacuum. There must be some field where the wave can travel. 

Without a field. There are no changes in energy levels. And we cannot see the field if we are in it. We can only see the changes in the power of the field. Electromagnetic and other waves are only the changes in the power of the field. 

The idea is that there is some kind of energy field where information travels. Famous physicist Albert Abraham Michelson named that field "Aether". When we think about Albert Abraham Michelson. And his "Aether". That is "proven wrong". 

We must realize. Some people talking about the same thing. Even if. They use different names for the substance. 

Could the Higgs field? Or the base energy field in the universe. Same as this mythic aether? So did Higgs and Michelson talk about the same thing? The Higgs field is the medium where information travels.

 And that explains many things about black holes and gravitation. 

Black holes are such extreme objects that we cannot find similar things from anywhere else. There is no top limit for those monster's mass, but there is no minimum mass for black holes. That means there can be miniature black holes even in your room.  The String Theory goes like this. The quantum-size black holes make the gravitational tornadoes or tunnels through the Higgs field. And then those energy tornadoes turn around extremely small black holes. Forming the elementary particles. 

Sometimes. things like ghosts are explained the tiny black hole brings information from the past or some other place. The idea is that the quantum-size black hole is in every single elementary particle. When black holes spin they bound energy into them. 

But when we think about the gravitational effect there is a possibility that there are two types of gravitation. When black holes spin very fast that thing causes the macro-scale tornado in the Higgs field. And that macro-scale tornado would be a so-called wormhole. 

When we think about things like gravitational engines they must make some kind of hole in the gravitational field. And if gravitation is an effect in the Higgs field that makes them possible. Those engines must make a tunnel through the energy fields. 

And one of those energy fields is the gravitational field. Theoretically, fast-spinning particles can make energy tornado. That is needed for that thing. But it's possible. The only thing that can turn the gravitation into the roll is the black hole. 

That quantum low-pressure pulls the craft into it. The gravitational engines just make the hole into some energy field and then that makes those things move.