Excitons and light form new quantum states.

“Physicists have long wondered what happens when a superfluid is cooled even further, and now, experiments in bilayer graphene hint at an unexpected answer. Credit: SciTechDaily.com” (ScitechDaily,Physicists Watch a Superfluid Freeze, Revealing a Strange New Quantum State of Matter)

The new form of quantum state of matter is found in bilayer graphene. The bilayer graphene is the thing. That can make a superfluid freeze or stop moving. This means that the graphene is covered by an icy superfluid. And that uncovered strange new quantum behavior in that thing. 

Researchers found an unexpected relationship. Between the density of the quasiparticles and the temperature. At high density, excitons behaved like a superfluid, but as their density decreased, they stopped moving and became insulators. When the temperature decreased, superfluidity returned. 

Those systems can revolutionize.  Quantum computing technology. The laser systems can be used to adjust that transition. 

This phenomenon can be used in superconducting miniature electronics. The ability to control insulation. And electric conductivity. It is an important thing for the gates and switches in the small superconducting microchips. 

The system can use a laser as a thermal pump. The laser can be used to adjust the energy flow in the graphene, so that it transports as much energy away from the fluid as possible. The superfluid is between those graphene layers. And that helps to control it. 

“Illustration of excitons arranging into a solid pattern in bilayer graphene. Credit: Cory Dean, Columbia University” (ScitechDaily, Physicists Watch a Superfluid Freeze, Revealing a Strange New Quantum State of Matter)

“For all the theory and debate, the most famous candidate, helium, has not provided a definitive, natural example of a superfluid turning into a supersolid. Researchers have built supersolid-like systems in the atomic, molecular, and optical (AMO) sub-branch of physics, but those demonstrations typically rely on lasers and optical components to impose a repeating structure. This creates what is known as a periodic trap that encourages the fluid into a crystal-like pattern, a bit like Jello confined in an ice cube tray.” (ScitechDaily, Physicists Watch a Superfluid Freeze, Revealing a Strange New Quantum State of Matter)

“Controlling a superfluid in a 2D material is an exciting prospect—compared to helium, for example, excitons are thousands of times lighter, so they could potentially form quantum states such as superfluids and supersolids at much higher temperatures. The future of supersolids remains to be realized, but there is now solid evidence that 2D materials will help researchers understand this enigmatic quantum phase.” (ScitechDaily, Physicists Watch a Superfluid Freeze, Revealing a Strange New Quantum State of Matter)

“The researchers used a laser pulse (blue) to change the polarity of a ferromagnetic state in a special material consisting of twisted atomic layers (red). Credit: Enrique Sahagún, Scixel / University of Basel, Department of Physics” (ScitechDaily, Laser Light Rewrites Magnetism in Breakthrough Quantum Material)

Another thing is that. The light can. Have quantum ability. Which allows it. To control things. Like the magnetic field. The ability to force atoms at a very low temperature into straight lines can make it possible to create a situation where the magnetic fields travel through matter. This thing makes it possible.  To create quantum levitation, or the so-called Meissner effect. But the Meissner effect can also make it possible. 

To create systems that allow light to travel through the system. If there are no fields that can cause reflection. The system turns invisible to those wavelengths.  The reason for that is this. Without reflection, the energy or wave movements cannot reach the observer. That turns matter into a ghost. 

But the ability to control magnetism makes it possible. To create new fundamental material layers. Those layers can form the grooves by pulling the layer that reacts to the magnet down. And when those grooves are not necessary, the magnets can be shut down. 

There is also a possibility that the layer is made using tiny magnets. Those nano-scale magnets can be in the nanotubes. And. The system can turn them by using light. The ability to adjust their polarity. Makes it possible. To switch the polarity in the layer. 

These types of systems could also turn. The polarity of the magnets. Oppositely. This means that light turns those poles upside down. And that makes it possible to change the polarity of the layer. 

https://scitechdaily.com/laser-light-rewrites-magnetism-in-breakthrough-quantum-material/

https://scitechdaily.com/physicists-watch-a-superfluid-freeze-revealing-a-strange-new-quantum-state-of-matter/

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

Entangled particles can amplify light more effectively.

"Visualization of atoms placed in an optical cavity, interacting with each other as well as with the light mode. Credit: Yao Wang @ Emory University" (ScitechDaily, New Research Shows How Entanglement Amplifies Light)

"Researchers discovered that when atoms interact and remain entangled with light, they emit stronger, more coordinated bursts of energy. This breakthrough could lead to faster, more efficient quantum devices and improved control over light-matter systems."(ScitechDaily, New Research Shows How Entanglement Amplifies Light)

A twisted form of atoms in a laser element can amplify light. Freezing those atoms in that formation requires that. The atoms are entangled with light. But if that is successful, that thing can make new and powerful quantum tools possible. 

That thing can explain the power of the black hole's relativistic jet. And maybe a twisted form of the hypothetical graviton cloud around a black hole spin axle can form a coherent gravitational wave that travels out from the black hole’s spin axle. If gravitons exist. 

They could form the twisted helix structure. around a black hole’s spin axis. Those particles form a standing wave inside that structure. And that standing gravitational wave can escape from a black hole, if it's edge. It is out of the event horizon. 

When atoms are entangled with light. That amplifies the light strongly. 

Above, you can see the new way to amplify light. If the amplification happens by using twisted atoms. That makes it possible. To make stronger light impulses in lasers. But the same physical rules. Also allows other particles to send stronger wave packages. The thing in that case is that those twisted particles form a standing wave between them. Then those particles send a wave movement to that standing wave. 

And those things also allow researchers to create systems that can send X- and gamma-ray impulses. In the X-ray version, the nano-sized iron powder hovers in the rope-shaped tubes. And then the cathode tubes can send electron beams into those iron particles horizontally or vertically. In that system, the solid anode is replaced by iron powder. And the electron beam hits those iron particles.

The new observations confirm that entangled particles amplify light. That observation explains why the black hole's relativistic jets are so powerful. When atoms are in the form. That looks like a rope. That makes it possible to create more effective lasers. The rope-shaped laser tubes. Those that are twisted around the laser can input energy to the laser element. Or atoms in a laser element can be. In a twisted shape. This thing could be. A very big advancement in lasers. 

This thing can explain some of the things. In a black hole. If the matter and energy that fall into a black hole form a braid-like spiral, that thing can explain some radiation models of the black hole. If the entanglement particles amplified the light. That thing can happen in all other particles.

So if hypothetical gravitons are entangled or in a twisted shape. They should send stronger gravitational waves in that structure. And that can cause an interesting idea. Is it possible that in the black hole, the axle is the rope-shaped structure? That sends coherent gravitational waves. That pulls the relativistic jet into its form. 

https://phys.org/news/2025-11-probing-quantum-nature-black-holes.html#google_vignette

https://scitechdaily.com/new-research-shows-how-entanglement-amplifies-light/

Quantum systems are the border between reality and imagination.

"Researchers have unveiled a method for passing fragile quantum states between separate photon sources, a key function for future quantum networks. The result suggests that scalable, tamper-proof communication may be closer than expected. Credit: Shutterstock," (ScitechDaily,  Scientists Teleport Information Between Distant Photons for the First Time)

Researchers made the first long-distance quantum teleportation between two photons. In that type of communication, the system transmits wave movement between two photons. The system creates a channel between those photons, and then the wave movement transports information between them. This type of system provides a secure data transmission method between photons that oscillate at the same frequency. When the wave movement travels through that channel, it puts another photon into resonance. This is called superposition. And quantum entanglement. 

Before data transmission is possible, the system must synchronize those photons. Or, they must be put into superposition. And then. The system starts to transmit data. The biggest problem with long-distance quantum entanglement. And a long-distance quantum  data transmission. It is to keep the quantum channel between those photons open. If that quantum channel is closing. That causes resistance. That destroys data. The system transmits through that channel. This is the thing. That makes quantum networks safer.

One of the reasons that makes quantum teleportation and quantum systems hard to create is the error correlation. For successful error correlation, the system must find the error. And. Check the quantum computers' calculation can take thousands of years. Another thing. That makes quantum networks and quantum computers hard to make. It is: how to calculate quantum states. The quantum computer requires a quantum simulation. So that the system can prepare itself for quantum data transmission and quantum computing. 

When we think about complicated quantum algorithms and calculations. We must realize one thing. The problem can be effective. Or it can be non-effective or virtual. Even if we think that all quantum fields have an effect on quantum computers and quantum networks. The reality is that the field must have an energy level that is high enough. Or, the field’s state must be strong enough that it has an effect. All fields. It does not have a strong enough force. that they can affect the quantum networks. So the system must select only fields that have an effect. Another thing is that the form of the field must be right, so that it can resonate with the system. 

The simulator must know all values. That has an effect on the system. So that it can create a simulation.  The system uses those simulations to adjust the quantum system’s particle energy levels and interactions. Data can travel in quantum entanglement. Only from a higher-energy particle. To a lower energy particle. When those particles reach the same energy level that forms the quantum soliton, that destroys the quantum entanglement. The quantum soliton or standing wave causes energy reflection in the quantum wire, which transports information. 

"Researchers at Swinburne have developed a fast new way to check whether certain quantum computers, specifically Gaussian Boson Samplers, are actually producing the results they claim, without waiting millennia for a supercomputer to verify them. Their method can flag errors in minutes on an ordinary laptop, revealing unexpected noise in a recent experiment that would otherwise take 9,000 years to validate. Credit: Shutterstock." (ScitechDaily, If Quantum Computing Is Solving “Impossible” Questions, How Do We Know They’re Right?)

Quantum versions of derivative and integral calculus will be the holy grail for quantum technology. 

The ability to calculate quantum field interactions with particles. And backward, particle interactions with the quantum field would make it possible to create those quantum systems. The reason why. That is very hard to make. Is the energy lost in that interaction? The particle is not absolutely smooth. There are small hills and valleys. So, the field will be separated from the particle. And that means the oscillation will not transmit perfectly between fields and particles. 

We could compare those calculations.  A little bit with the derivative. And integral calculus functions. The integral function is the mathematical model. That is used to check integrals. The integral function is the formula that is the opposite of the derivative function. Or the way to calculate derivatives is backward. The problem with quantum calculations is that they are not basically mathematical or physical formulas. The physics formula describes particles as stable or static objects, or it describes objects as fields. 

The quantum formula introduces objects as the oscillating entireties called “quantum”. Sometimes the quantum calculations are described as systems that must introduce some kind of foam, which changes its state and form indefinitely. The system must take into account. Things like. The energy level and energy type of the system. The position and direction of the particle in the quantum field make the effect. The system must handle multiple variables, like the internal and external interactions. 

And this makes those algorithms very complicated. The biggest difference between quantum and regular systems is this: in regular systems, Data travels in wave movement. Wave motion can be described as a traveling field. In quantum systems, data is connected to physical particles. 

So, the quantum versions of derivative and integral formulas would be the holy grail for quantum technology. The system must calculate the interface between particles and fields around them. The system must notice things. Like natural. Or artifact quantum field interaction with the data transporters and receivers. Things like changes in quantum fields that things. Like, maybe gravitational waves and cosmic rays can affect quantum systems. 

https://scitechdaily.com/if-quantum-computing-is-solving-impossible-questions-how-do-we-know-theyre-right/

https://scitechdaily.com/scientists-teleport-information-between-distant-photons-for-the-first-time/

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