Could the quantum-scale version of the altermagnetism, or gamma rays, form dark matter?

Alternamagnetism is a phenomenon. The magnetism is inside the object. There is no magnetism or electromagnetic interaction outside the object. Altermagnetism is one of the things that can cause another question. Could there be a similar effect in the other three fundamental interactions? Could there be a matter that is not visible and for which only known interaction is gravitation? Could this alter material explain dark matter? The quantum field that spins very fast could make it possible. 

That the matter itself turns invisible. A fast-spinning quantum field that moves away from electrons and protons can just push those waves back to the particles or the atom’s core. In the model of the De Sitter universe, the universe itself is surrounded by a divergent horizon. The information can never. Travel through that horizon. The effect is similar to a car that travels 100km/h. Then another car. Impacts that car from the back. With a speed. 101km/h. 

The impact speed is 1km/h. In the same way, if the horizon is a shockwave that travels 80% of the speed of light, and the photon impacts that field at the speed of light. The impact speed would be only 20% of the speed of light. This means that the photon’s energy level is not high enough for it to travel through that field. So could this kind of thing surround some particles or atoms? 

Of course, black holes are invisible. But. In the case of altermatter or dark matter, the field around those particles closes wave movement and photons in the quantum field. But is this possible at the quantum level? 

The wormhole, a tunnel through spacetime, can transport energy out from a particle so fast that the particle will not send wave movement or photons around it. 

Could the coherent gamma-ray beam transport so much energy away from the atom’s core that all photons from the electron shell travel into the atom’s shell? The gamma beam takes energy out of the atom’s shell. And the gamma-effect must not continue all the time. It’s enough that those gamma-rays keep the atom’s core energy level so low that electrons start to travel in that atom’s core. 

Another thing that can make particles or even atoms invisible is the opposite or mirror version of the electroweak interaction. In electroweak interaction, the weak nuclear force sends an energy impulse to electrons that orbit an atom’s core. And then those electrons send photons away from the atom. Fission and fusion are part of that kind of reaction. In the mirror version, something takes energy out of the atom’s core. 

The idea is that something changes the atom’s core energy level to lower than its electron shell. This should cause electrons to transfer photons into the atom’s core. If photons travel only into the atom’s core, that makes matter invisible. The problem is where the atom’s core puts that energy? 

The answer could be in the extremely short-wave coherent gamma rays. Those gamma-rays can act like a thermal pump, which transports energy out from the atom’s core. This thing. It can keep the atom’s core energy level so small that it makes energy travel into the atom’s core, and then that gamma-ray string. It can transport energy in a direction that the observer must look straight into the gamma-ray beam. 

https://www.quantamagazine.org/in-expanding-de-sitter-space-quantum-mechanics-gets-even-more-elusive-20260330/

https://scitechdaily.com/weighing-the-universe-astrophysicists-measure-the-total-amount-of-matter-dark-matter-and-dark-energy/

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

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

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

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

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

Could string theory be the gate to the TOE (Theory of Everything) and GUT (Grand Unified Theory)?

String theory. The string model is one of the attempts to explain the universe. This theory could explain almost everything. The mainframe of this theory is simple. The entire universe is formed of the strings. Those strings form matter as we know it. There are multiple internal structures. In the string model. And those strings explain things like the universe’s expansion like this. Strings that are actually tornado-shaped structures in the quantum fields of the universe. They transport energy to the edge of the universe, and that energy pushes its outer edge farther. 

This makes space in the universe. And that space pulls those superstrings open. Then those superstrings start to leak. Then they release energy or wave movement that travels through them. This means that. Every single superstring is actually a wormhole, a tunnel through space and time. When the universe starts to expand, those superstrings send energy into space.

And that energy would be the dark energy. The idea of the wormhole is that. Energy pushes information through it. The wormhole, or energy tornado. It denies. That energy leaks to the universe. When a particle, like a photon, travels through the wormhole, it stays young. Its energy level is the same as it was when it went to the wormhole. The expansion of the universe turns quantum fields weaker, but when the particle travels in a wormhole, the wormhole will not allow the particle’s energy level to decrease. This means that when a particle comes out from that string or wormhole, it releases more energy than it should. And that increases entropy in the system. The problem is that there is no physical evidence of the strings or wormholes. 

If there is a quantum-sized black hole or graviton in each particle. That thing can explain the form of the superstrings. When those hypothetical gravitons impact, they follow similar trajectories. As regular-sized black holes. This means that those graviton impacts can form the spiral-shaped structure that is the hypothetical superstring. 

Those quantum-sized black holes can form the structure. That looks a little bit like a pearl necklace. And if we want to use normal-sized (Stellar or supermassive black holes) as a model, there would be. A ring-shaped. Energy rings around every pearl. Those pearls are the halos of those quantum-sized black holes. Which could be the same as the hypothetical graviton. And their transition disks. Could cause those rings. The next thing that reseachers must do is to prove the existence of those structures.  

In one model. Those strings. Are not. So-called solid structures. There are models that superstrings are series. Of the wheel-shaped structures. In theoretical models. Those strings form around quantum-sized black holes. This means that. In every single particle in the universe is a quantum-sized black hole. The annihilation reaction that releases. Very high-energy gamma-rays. Could be similar. To the reaction that sends gamma-rays. In the black hole collimations. The gamma-ray burst forms when those black holes’ halos impact each other. That impact forms those gamma-ray bursts. 

So, when an antimatter particle impacts with its mirror particle, those particles turn into energy. The difference. Between matter and antimatter particles is their spin direction. That means those particles interact in a similar way to black holes when they impact. This means that, if the elementary particle is the quantum halo around the quantum-size black hole. That means that antimatter is the quantum halo that surrounds an opposite-spinning black hole than the matter.

And maybe dark energy is the thing that forms. When those antimatter and matter particles impact. First, the particle shells impact, and that sends the gamma-ray burst. Then their core, their hypothetical quantum-size graviton black holes' impact, and the energy that this impact releases could be covered by the flash of the particle’s shell. Or when those gravitons or quantum-sized black holes impact, they could follow similar trajectories as normal-sized black holes. This thing can form a spiral-shaped structure in the quantum fields. that can form superstrings. 

https://www.quantamagazine.org/are-strings-still-our-best-hope-for-a-theory-of-everything-20260323/

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

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

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

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

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

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

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

Researchers think that maybe dark matter is not only one thing.

“Dark matter continues to challenge our understanding of the universe, especially as new observations reveal behaviors that defy traditional models. A recent study proposes that dark matter may consist of multiple interacting components, offering a unified way to explain both diffuse and highly concentrated structures seen across galaxies. Credit: SciTechDaily.com” (ScitechDaily, Mystery Deepens: Astrophysicists Say Dark Matter May Not Be One Thing)

Dark matter means an unknown gravitational effect. This phenomenon is one of the most fascinating aspects of the universe. There is a possibility that dark matter is not a single entity. It might be many things that we see as dark matter. In some models, dark matter doesn’t even exist. That means that dark matter could be ordinary material that behaves differently than reseachers calculated. First thing. What we must realize is that. There are lots of things in the universe that we don’t know. Matter outside galaxies. It has a lower energy level than galaxies. 

This means that the material is very hard to observe. Galaxies cover that matter under their brightness. When particles spin, they release energy from their equator. That forms an energy hole to the particle’s spin axis. And that energy hole pulls energy to the particle. This causes an interesting idea: could the dark matter be a particle? That has spin 1? If that kind of particle exists, it can be invisible. 

The spin of most particles is 1/2. This means that the particle wobbles back and forth. It changes its direction after each 1/2 round. This means that the same particle binds and releases energy. So, could that process be the thing? Behind the dark matter?

So when a particle changes its direction. It sends a photon. The particle must stop before it changes its direction. And at that point, it releases that energy quantum. This means that the particle will form a WARP bubble-shaped quantum low-pressure shape around it. And maybe that bubble can cause a situation. A particle. Like a quark or an electron can turn its spin into one. 

This means that the particle can spin a full round around it. This requires an extreme. Big step between energy levels. When a particle travels over an energy step, which separates. A high-energy area. The extremely low-energy areas can make it possible. For the particle to form a bubble. That allows it to spin a full round around its axle, which could make it invisible. 

“Projected dark matter density distribution and the induced strong lensing critical curves in a two-component self-interacting dark matter model. Credit: Science China Press (ScitechDaily, Mystery Deepens: Astrophysicists Say Dark Matter May Not Be One Thing)

Things like cosmic voids can cause this kind of virtual gravitational effect. When things. Like cosmic voids are forming, outside quantum fields are starting to fill them. This means the cosmic void can cause a virtual gravitational effect. In the same way, when particles are escaping from the galaxies, they will enter the very low-energy area. 

The material evaporation is stronger or faster than in higher energy areas. This means that material sends energy. But the evaporation also binds energy. And maybe energy that travels faster. The particles that evaporate in galaxies can be one thing. That makes the effect that we see as dark matter. When material evaporates or turns into wave movement, it sends photons. 

During that process. These forms. A bubble or quantum low-pressure region around that particle. This means that we see the effect that this void forms stronger than the particle's gravitational field. So. Those small nanovoids could be one source for an effect called dark matter. We must also remember. That also includes. Other particles than protons and electrons that evaporate. Things like quarks and also bosons are evaporating. And that thing binds energy. 

That causes high-speed evaporation. This evaporation form. The bubble is quite similar to the WARP-bubble. When that kind of bubble forms energy, or a quantum field tries to fill it. When the universe expands. That thing. Means that the quantum fields around that bubble turn weaker. But that expansion also pulls. That expansion can form a situation. The bubble’s or void’s size expands all the time. But quantum fields cannot fill it. The antimatter annihilation will cause quantum fields to move. And that means those explosions can also cause an effect. That seems like gravitation. The thing is that. There are many things. That can form the effect. That we see as dark matter. Dark matter means a gravitational effect. That is the second  of two dominant things in the universe. 

https://scitechdaily.com/mystery-deepens-astrophysicists-say-dark-matter-may-not-be-one-thing/

New steps for the quantum internet.

"Scientists have taken a significant step toward building a future quantum internet by successfully teleporting the quantum state of a photon between two separate quantum dots. Credit: Stock" (ScitechDaily, Quantum Teleportation Breakthrough Brings the Quantum Internet Closer)

In a quantum internet, information travels in nanotubes. The system pulls quantum entanglement through the nanotubes. The quantum internet, which utilizes quantum teleportation for information transport, will offer new and ultra-secure data transmission. This means that eavesdroppers will not be able to see the signal or information. That travels between superpositioned and entangled photon pairs. The quantum network transmits data in a way. That looks like a vector exam. 

The superpositioned and antangled particle pairs act in series. Each of the particles is a quantum point, and data travels between them. Step by step. There is one problem. The transmitter side in the quantum entanglement. It must be at a higher energy level than the receiving part. So, this means that when the particle receives information, its energy level must be higher than that of the receiving particle. There are two ways to handle that problem. The first transmitting particle’s energy level must be very high. 

Above. Math vector in a 3D model. The quantum internet. It uses. This model. For data transportation. The system must handle the horizontal position of the photons. Those are the locations of the turning points of the information flow. The vertical points are energy levels of the photons. And the topological model of the quantum internet. It looks. Like a series of 3D vectors. Actually, the system is more complicated. It must control things like oscillation frequencies and the size of the objects. 

"A common quantum optics process may secretly contain an immense topological structure. By revealing this hidden complexity, researchers show how ordinary entangled photons could enable powerful new ways to encode and stabilize quantum information. Credit: Shutterstock" (ScitechDaily, Scientists Discover Hidden Topological Universe Inside Entangled Light)

"Examples of quantum topologies, shown as vectorial textures on a sphere. Credit: Wits University." (ScitechDaily, Scientists Discover Hidden Topological Universe Inside Entangled Light)

In the upper image. Wave movement. Slide above photons. That topological structure is the photon's contact layer that touches the quantum entanglement. If the contact layer. It is not tight enough, which causes information loss in the system. The quantum entanglement. It transports information like a string in analogical systems. In a quantum system. That string transfers wave movement from higher-energy photons to lower-energy photons. 

"Examples of quantum topologies, shown as vectorial textures on a sphere. Credit: Wits University" (ScitechDaily, Scientists Discover Hidden Topological Universe Inside Entangled Light)

"These structures offer a new way to represent and protect information in quantum systems, potentially helping quantum signals resist noise and interference. The team demonstrated these features using the orbital angular momentum (OAM) of light, which can exist in two-dimensional states as well as in far higher-dimensional configurations." (ScitechDaily, Scientists Discover Hidden Topological Universe Inside Entangled Light)

"A graphene-inspired magnetic system reveals that two-dimensional magnetism and electronics can obey the same underlying mathematics. The discovery offers a new lens for understanding wave-like behavior in engineered materials. Credit: SciTechDaily.com" (ScitechDaily, Engineers Create Unusual Magnetic Material That Behaves Like Graphene)

But there are always limits. When information travels in a series of superpositioned and entangled particles, the difference between energy levels turns zero. And that means information will not travel. Another way is easier. When a particle receives information, the system raises its energy level. The problem is how the system makes information. To keep its form. The solution could be that the receiving particle drives information into mass memory. And then the system raises its energy level. Then the mass memory loads information into that particle.

But the fact is that: Theoretically, this kind of system is very easy to make. Practical solutions are not so easy. The practical solution in the quantum internet requires an ability to control photons and information flow precisely. This requires lots of data, because the system must have. All knowledge of the quantum system and its environmental interactions. So that it can control it with necessary accuracy. Information that travels in the quantum network must be protected from outside effects. 

This means that information channels must be. In a Faraday cage that protects it from outside magnetic fields. New materials like “iron graphene” can make it possible to create the nanotubes that act like a Faraday cage. The magnetic version of graphene can glue iron atoms onto it. The magnetic graphene can also be used to create systems that drive information in the photons. The “magnetic graphene” can be used to trap electrons in it. Then the system uses those electrons to transmit data to photon pairs that are trapped between those material layers. 

https://scitechdaily.com/quantum-teleportation-breakthrough-brings-the-quantum-internet-closer/

https://scitechdaily.com/scientists-discover-hidden-topological-universe-inside-entangled-light/

https://scitechdaily.com/scientists-discover-hidden-topological-universe-inside-entangled-light/

There is no quantum computer. Without quantum memory.

“An international team of physicists has uncovered a subtle but important twist in how 'memory' works in quantum systems. Credit: Shutterstock” (ScitechDaily, An international team of physicists has uncovered a subtle but important twist in how “memory” works in quantum systems. Credit: Shutterstock)

Theoretically, a quantum memory is very easy to understand. Information is stored on the qubit as hills and valleys on those particles. That means.  That kind of system. It is theoretically easy to make. But a practical solution is harder. Because the system should transform binary data into hills and valleys on the qubit. The system can use a photon that transfers information to another photon. 

The body of information. 

The quantum computer is like a body that needs nutrients. For binary computers and quantum computers, information is the nutrient. The data processing system. Mimics human digestion. Their information is stored in mass memory. Until. It’s shared for the data units that require that information. 

Quantum memory is not what we thought, the new study suggests. The key to the quantum internet and ultra-secure data transmission is impossible if those systems cannot store information. The system transmits information into a quantum computer. That stores data in the transmitting side of the quantum entanglement, and then the system transmits that data forward. The problem is this. Without the ability to store data. The quantum system cannot send it forward. 

And without that thing, there are no quantum systems. We can think of this system. Like metabolism or digestion. Before information is transported into the quantum system, the AI-based system must preprocess it into a form that the quantum system can handle. That information.  The system must predict. Every type of anomaly. If there is some kind. Of anomaly. The system must store. that data into mass memory. 

“Scientists have unveiled a real-time method for tracking rapid qubit fluctuations inside quantum computers. The breakthrough reveals that even stable qubits can deteriorate in milliseconds, offering new insight into how to improve quantum processor performance. Credit: Shutterstock” (ScitechDaily, Scientists Finally See Quantum Computer Failures as They Happen)

 Data is the nutrient for the computer. The binary system preprocesses data. And then send it to the quantum data storage. In the human body. The fat cell stores nutrients until the body needs them. In the same way. In the body of information, a quantum computer stores information in the quantum data storage. And then that system starts to make. Quantum entanglement with the receiving particles. 

We can think that quantum data storage stores data in the form of standing waves. Another way is to create some kind of “hairy” qubit. In the last case, data is stored in the qubit in the form where the qubit’s surface is filled with “hair”. The length of those “hairs” is one state of a qubit. And that kind of qubit can be a revolutionary way to create models of how the quantum computer and quantum circuit should work. The system sends data to the receiver by using quantum entanglement. But. Before that thing is done, the computer must store information in the qubit. 

This is why the quantum computer must follow the behavior of quantum entanglement. All the time. When data is transferred to the receiving particle. The quantum computer can resend that data by transforming the side of quantum entanglement that received the data to the transmitting side. The point of quantum entanglement is that. The transmitting and receiving particles must have different energy levels. If the receiving particle’s energy level rises to the same level as the transmitting particle, the entanglement will be broken. But. If the system can transmit information .Into the next particle, which can make the quantum internet possible. Before the system can turn the receiving particle into a transferring particle. The system must cut the entanglement with the first particle. 

https://scitechdaily.com/quantum-memory-isnt-what-we-thought-physicists-reveal-a-hidden-duality/

https://scitechdaily.com/scientists-finally-see-quantum-computer-failures-as-they-happen/

https://scitechdaily.com/scientists-may-have-found-the-holy-grail-of-quantum-computing/

Quantum systems require a new way to think about math.

"IISc physicists discovered that Ramanujan’s classic π-formulas arise naturally in modern theories describing critical phenomena and black holes. The connection suggests his early mathematics may have foreshadowed key structures in today’s high-energy physics. Credit: Stock" (ScitechDaily, Ramanujan’s 100-Year-Old Pi Formula That Hides the Secrets of the Universe)

"A new study reveals that Srinivasa Ramanujan’s century-old formulas for calculating pi unexpectedly emerge within modern theories of critical phenomena, turbulence, and black holes."(ScitechDaily, Ramanujan’s 100-Year-Old Pi Formula That Hides the Secrets of the Universe)

100 years ago, Srinivasa Ramanujan introduced a Pi formula that hides a powerful argument. Pi is a mathematical constant, approximately equal to 3.14159, that is the ratio of a circle's circumference to its diameter. It appears in many formulae across mathematics and physics, and some of these formulae are commonly used. for defining π, to avoid relying on the definition. Of the length of a curve.” Wikipedia, Pi) We know that Pi has a certain value, and we can use that value in mathematical formulae. To use in calculations to determine the area of the circles. 

Pi is also needed. To calculate the volume of things like balls. The ball can be. Determined as a series of circles or rims. So, where is that information needed? What would you do with formulas that can calculate the distance from the ball surface to the layer? That information is useful in the calculations. That is used. For. Calculating the qubit interaction with the receiver. This information is urgent for quantum networking and quantum computing. 

The new quantum systems require new types of calculations. Or those calculations are not. A very new thing. The needed accuracy. The third-degree and higher polynomial functions are very high. The new mathematical formulas must be created. For the quantum systems that require new types of dimensions. And new variables. To make it possible. To simulate quantum systems. For making a complete simulation, the machine requires all information from the system. And the main problem with quantum systems is this. Everything happens in the 3D universe. 

"Choose a point on the circle (blue). You want to map it to a unique point on the straight yellow line. To do this, draw a dashed line between the green point at the top of the circle and your chosen blue point. Then map the blue point to whichever yellow point this dashed line passes through. You can do this for any given point on the circle. (The green point at the top of the circle gets mapped to a special yellow point at infinity.)" (QauntaMagazine, String Theory Inspires a Brilliant, Baffling New Math Proof)

"Unlike in the previous examples, your dashed line sometimes maps two different points on the elliptic curve (blue) to the same point on the yellow line below. You can’t find a map that avoids this, meaning that the elliptic curve has a more complicated set of solutions than the circle or sphere." (QauntaMagazine, String Theory Inspires a Brilliant, Baffling New Math Proof)

A second problem is this. Everything means something in those systems. Things like solar winds, changes in magnetic fields. And other kinds of things. It can have a big effect on systems. There, a superstring travels through a photon. And that turns a photon into a quantum router that shares photonic information into qubits.

Those calculations are needed for models that the systems use for quantum simulations. The millennium problem P=NP (P versus NP) means that checking calculations should be as fast as solving them. Error detection happens. By. Calculating all calculations backward. The problem is in extremely long calculations. If.  The machine uses. Even. Days to calculate some formula. Using backward calculation is a very long process. So if some stage needs more time to check, there should be a problem. But the fact is this. Nobody proved or disproved that problem universally. 

“The P versus NP problem is a major unsolved problem in theoretical computer science. Informally, it asks whether every problem whose solution can be quickly verified can also be quickly solved.”(Wikipedia, P versus NP problem). The idea is that these complex polynomials can be checked by calculating the time. If P=NP. 

Here, "quickly" means an algorithm exists that solves the task and runs in polynomial time (as opposed to, say, exponential time), meaning the task completion time is bounded above by a polynomial function on the size of the input to the algorithm. The general class of questions that some algorithms can answer in polynomial time is "P" or "class P". For some questions, there is no known way to find an answer quickly, but if provided with an answer, it can be verified quickly. The class of questions where an answer can be verified in polynomial time is "NP", standing for "nondeterministic polynomial time” (Wikipedia, P versus NP problem)

The new calculation models give new changes. To solve and check a complex polynomial problem. Things. Like, high-class polynomial functions are new tools. For quantum simulations. New. High-power computers can be used to calculate polynomial functions with new accuracy. This thing requires new accuracy for mathematical constants, like Pi. 

https://www.claymath.org/millennium/p-vs-np/

https://www.quantamagazine.org/string-theory-inspires-a-brilliant-baffling-new-math-proof-20251212/

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

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

The brain uses memory Lego to create new behavioral models.

“Princeton researchers found that a primate’s prefrontal cortex reuses modular “cognitive Legos” to solve related tasks, giving biological brains a flexibility that AI still lacks. The insight could help improve AI systems so they retain old skills while learning new ones. Credit: Adapted by Dan Vahaba (Princeton University), from “Brain Silhouette 2” (Littleolred, CC0 1.0, freesvg.org) and “Lego bricks” (Benjamin D. Esham, CC BY-SA 4.0, Wikimedia Commons).” (ScitechDaily, Your Brain Has a Learning Shortcut AI Can’t Copy)

Behavior is the reaction that we see from the outside. And. When an actor notices something, that something acts as a trigger. The trigger launches. A certain behavioral reaction. When we see our friends, we can say “hi”. Or, when we slip on the ice, we put our hands in a certain position, that protects our head from impact with the ground. This means that. When we see something. Hear something, or feel something that causes a reaction. Does something cause a reaction, and what type of reaction is? That depends on the memory blocks connected to that sense. If. There is no memory connection with sense. That doesn’t launch a reaction that we see as behavior. 

The ability to use complete building blocks to create new behavioral models makes human brains more effective than any AI. The AI cannot mimic that ability. Each memory block is like Lego. And. It gives flexibility and effectiveness. To handle memories. And especially the behavior or reflexes. Those are connected with those memories. 

The idea is that there is so-called macro behavior. Behavior is the thing. That. The memory block activates. The modular structure of memories. And actions. What we see from the outside gives humans incredible flexibility. The macro-behavior is like a puzzle, an entirety that includes multiple smaller bits.  Each macro-behavior module can act as a module for larger-scale macro puzzles. 

This means that the human brain handles behavior like a set of modules, which can connect and reconnect with other modules. If we think that. The human brain includes about 100 billion neurons. And each of them has one memory unit. That means there are 100 billion memory units. That gives very high flexibility and morphing ability. For those. Memory structures. The AI cannot mimic those things because that requires the ability to handle so many memory units simultaneously. 

The ability to create new behavioral modules makes human brains effective. The ability to interconnect those modules is unique. One of the reasons. The reason this thing is so unique is that the neuron is not passive. The neuron knows what kind of data it can handle. So it can tell other neurons. That. It's a neuron that processes signals that come from the eye. This means that the neuron that transmits a signal from the retina can ask the routing for data to the neuron that can handle that vision information. 

This saves energy and time because the signal doesn’t disturb other neurons. The transmitter neuron connects a mark. Like a serial number, to the data packet. This information includes data from the transmitter neuron. And if the route that neurons select is wrong. And the receiver neuron cannot handle that information. It can send that information back to the transmitter. Then the routing neurons can ask where the right receiver is. 

https://scitechdaily.com/your-brain-has-a-learning-shortcut-ai-cant-copy/