Noise is the problem with quantum systems.

Above is Maurits Escher’s drawing Ascending and Descending. The drawing. It could portray the quantum system model. There is a quantum circuit where information travels. And the trunk. That mission is to deny the noise. The trunk is the cooling system that surrounds the quantum circuit. Because. In a quantum system, information travels in quantum entanglement from a higher energy quantum dot to a lower energy quantum dot. This means the quantum circuit is like a tower. 

The main problem. With quantum systems, the transmitting side in the quantum entanglement must be at a higher energy level than the receiver. That means it’s hard to make a closed quantum circuit that surrounds data. Every time data travels around the system, the last particle pulls the energy level in the system higher. 

Another problem is that. When the system processes information, it must bring information from other systems. This means that the other system must be at a higher energy level than the receiving system. But. Information rides in an energy beam, and that thing raises energy in the system. The free energy is the thing that destroys the quantum system. We can call this thing: “The last particle in the line problem”. When information reaches the last particle. The system must rise. The last particle’s energy level. Higher than the first particle. Energy level is. Or the last particle must transfer information to the hard disk. Then the system can adjust the quantum system again. 

Another solution can be the photons that are anchored around the laser beams. The photon is like a ring around that laser beam. The laser transmits information to the photon. Those laser beams also transport energy away from those photons. And that can keep their temperature stable. The important thing. It is to keep receiving particles at a lower energy level than transmitting particles. 

Information travels in the system between quantum points. The problem with quantum systems is the “noise.” The noise is free energy. In the system. Free energy forms because of the quantum field or glow that surrounds every quantum dot. When a quantum dot. Like a photon in quantum entanglement, the dot in a higher energy level transmits data to the quantum dot in a lower energy level. The information travels in the string, and when that wave movement reaches the receiver. 

It forms a flash in the quantum field. Or, the glow that surrounds the quantum dot. That flash transfers energy to the trunk. That causes oscillation in the groove that holds the quantum dot. Each quantum dot is like a light bulb. It shines energy. And that’s why those quantum dots cannot transfer all energy between each other. Lots of energy that carries information just travels into empty space in the quantum circuit. 

“In noisy quantum circuits, most of the work fades away—only the last few steps really count. Credit: Shutterstock” (ScitechDaily, Quantum Circuits Have a Hidden Weakness, and It Changes Everything)

The noise forms when energy in the system is rising. Data is traveling in the quantum circuit between superpositioned and entangled particles. The transmitting particle must be at a higher level than the receiving particle. The reason why the quantum system is so sensitive to noise is that all quantum dots are identical. Except that their energy level is different. This causes a situation where every oscillation escalates through the entire system. Because all of those particles have different energy levels, which causes the situation. Where those particles’ sizes are different. Because the transmitting particle’s size is a larger part of the energy, or information that travels between those quantum dots, it travels past the receiver. And that is one thing that forms free energy. 

Especially in the closed quantum circuit, data travels in a circle, and the system must raise the energy level within the circuit. The problem is in the cases. Where information reaches the last particle in the quantum system. Then the last particle must send information back to the first particle. So, the system must raise the last particle’s energy level over the first particle. And that means the system must raise the energy level in the entire system. The noise is another term for free energy in the quantum system. Free energy or entropy form. 

Because. Quantum entanglement cannot transmit 100% of energy to the receiver. The energy that travels between those quantum dots or particles affects the quantum glow around the particle. That glow transfers energy or wave movement between those particles and the trunk of the system. The energy level in the system. Cannot rise endlessly. If the energy in the quantum glow rises too high. That energy destroys the entire system. 

https://scitechdaily.com/quantum-circuits-have-a-hidden-weakness-and-it-changes-everything/

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/

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/

How to simulate the entire universe using a laptop?

“A new tool, Effort.jl, is revolutionizing cosmology by letting scientists analyze enormous datasets quickly and accurately on a simple laptop. (Artist’s concept). Credit: SciTechDaily.com” (ScitechDaily, Researchers Have Discovered a Way To Simulate the Universe – on a Laptop)

How to simulate the entire universe using a laptop? The answer lies in the accuracy the system employs. When we want to conduct. In a comprehensive analysis or simulation of the entire system, we must first select the scale at which we want to simulate it. If we want to make a simulation of the entire universe, we must begin with its smallest parts. In this case, we must only remember that the system's entirety is the sum of multiple subsystems. An atom, as an example, is the sum of electron shells and the nucleus. 

The nucleus of an atom is the sum of the protons and neutrons. And protons and neutrons are sums of quarks and gluons. We can make the simulation step by step. First, we can make a simulation of interactions. Between quarks and gluons. Then we can connect these simulations. Together with the proton and neutron interaction. 

And then we can make simulations. Of how electrons behave with each other and then how electron orbits interact with the atomic core. In this case, the system handles the entirety as modules. Each module handles each participant. The proton module involves the up and down quarks. Interaction with each other. This means that the system creates a mosaic where each participant of the structure is handled. Like an element. The system forms a bigger structure by connecting the smaller mosaic plates. The system makes a puzzle. Where each piece is a smaller-sized system. And together. Those smaller systems form a bigger entirety. 

If we want to calculate chemistry calculations. And to make simulations. Between molecules, we must not know quark interactions. We can choose the scale as atoms or atomic groups. To make simulations of their behaviors. In molecular-scale interactions. Those interactions happen in the farthest electron orbital. So we must not care. About the internal interactions of atoms. Removing. Unnecessary parts from the simulations. We can remove too high accuracy. 

That means we remove unnecessary parts of the system. If we want to drive from point A to point B. We want to know what route we choose. We don’t want to know what kind of houses or what kind of trees. Are in certain areas. We don’t need to know when every single person comes home. We must not know there is a free parking lot if we are on a transit journey. We need to know only which streets we select. This means the system must remove unnecessary information to make our work easier. So, the system gives only information. That we need. 

When we talk about accuracy. We can think that the system must control small points in the simulations. If we want to make a complete simulation of the universe and start from the quark-gluon levels, there are too many points that the system must handle.  We should begin those simulations from a much higher level. Like in the level of local galactic clusters. That means . We must make a model. Where the details in the entirety are lost. That allows us to handle things like galaxies as one point or entirety. 

If we want to simulate the interactions between galaxies. We must realize that there are billions of galaxies in the universe. That makes this type of simulation hard to make. There are billions of stars in each galaxy. And all giant spiral galaxies are following large groups of star clusters and dwarf galaxies. 

But it's possible to handle those systems as a whole. In that model. The system makes ball-shaped structures. There, it removes details. So the galaxies are like balls that interact with each other. But then there are still too many objects. That means we can make another crop. We can select certain galaxies whose interactions we can analyze. If we want to make a simulation. 

To determine how the Andromeda galaxy and the Milky Way will collide, we must calculate the route that those galaxies follow. There, we need to see the effect. The Magellanic Clouds affect that route. Calculating that three-body problem is possible, if we do not follow the highest accuracy. There is a possibility that Andromeda travels past the Milky Way. And then those galaxies start to orbit each other. Closing together. Then in the last stage, the supermassive black holes collide in the middle of the new galaxy. 

But if we want to make universe-scale simulations. We must use a different scale of accuracy. We must not calculate all electrons and each electron's trajectories. If we want to calculate things like how stars or interstellar nebulae behave. We must change the scale of accuracy. To make a large-scale simulation. We must understand that we can cut off atomic-scale objects. If we simulate large entireties. 

In universe-scale simulations, it's important. To determine the thing. What we want to simulate. If we want to simulate interactions between two galactic superclusters, we must not calculate the interactions of each single galaxy. We can think. That those galaxies and even local clusters are the entirety at the level of cosmic superclusters. We can think that. The superclusters are like balls. The giant entities where the local clusters form the mass centers. Or we can simply think. That they are like giant balls. That makes the simulation of the galactic superclusters' interactions easy. 

https://scitechdaily.com/researchers-have-discovered-a-way-to-simulate-the-universe-on-a-laptop/

Futuristic journey to the Proxima Centauri system.

  Futuristic journey to the Proxima Centauri system. 

A hypothetical journey to Alpha Centauri, or actually to Proxima Centauri, will be the thing that changes our view of the universe and ourselves. The film introduces three types of spacecraft. The Millennium ship, the cryostatic ship, and the WARP ship. The WARP ship is not yet possible. In some models, the unmanned, small-sized WARP probes use miniature black holes as a power source and for quantum communication. Those systems travel first to other solar systems to search for a possible habitable planet. 

The next step is the cryostatic crew. That travels to the targeted solar system as a vanguard. Whose mission is to prepare the base for the main group of colonists who travel to that solar system in the generation ships. Those generation ships are the giant metal cathedrals that can reach a speed. Of about 2-5% of the speed of light. The WARP system is the only thing. That can take the crew back from the Alpha Centauri system while their sender is alive. The journey to Alpha Centauri takes hundreds of years. 

The biggest problem with the journey to Alpha Centauri is that when we send crew to that mission, they cannot return. That means those people are gone forever. The cryoship reaches 20-50% of the speed of light. That speed is very slow in the universe, and that means, even if we make a cryoship, we would send those people on the mission. where we don’t meet those people again. The cryostatic system denies aging, and those people can return from their mission, but the Earth has changed while they were on their journey. And there is no one left from the team that sent those operators on their journey. 

AI-made inspiration details about the hypothetical  Proxima B base. That base looks like the Moonbase. Its mission would be to protect the crew against the Proxima superflares, extreme weather, and possible. micro-organisms. Because there is always an epidemiological risk. Those structures must be separated. The bubble protects the crew against superflares. The base could be underground, and that thing could be the airlock and observation station. 

The generation ship will be the thing that transports the main groups of colonists. That craft needs generations to travel to Alpha Centauri. Those colonists who arrive at the Alpha Centauri system will never see Earth. That means Earth is a distant thing to those colonists. When we think about a situation where the generation ship is an artificial world. That slowly travels between solar systems; there is a big difference between that artificial world and a real planet. The environment in the artificial world is fully controlled. There are very carefully controlled microbes and temperatures on board the generation ship. Those systems are urgent because their mission is to deny. The artificial ecosystem's collapse. 

When colonists land on Proxima Centauri B or some other planet in that planetary system. There are artificial wombs and advanced nanotechnology that allow the creation of artificial DNA. And those systems create artificial people who could operate at the surface of Proxima Centauri B or other planets in that solar system. 

There is the natural environment. Winds, rain, and sunlight. There can also be natural microbes on that strange world. When that crew lands on that planet, they must live in the bubble. The base is isolated from the environment. The base’s mission is to protect those colonists against the Proxima super flares, storms, and the heat or extreme low temperature on that locked planet. Those colonists require protective suits if they travel on that planet. Because superflares raise the temperature very fast. The base can be in underground tunnels. That protects the colonists better. The Proxima would always be in the same position, because the planet is locked. 

The long-term data storage problem.

  The long-term data storage problem. 

When we think about long-term data storage. That resists electromagnetic radiation, magnetic fields, and physical damage, we can think about things like films, where data is stored in the form of barcodes. Those barcodes can be stored. In the microfilm, each frame can be protected using armored glass. The computer can read that data using the microfilm reader. If there is a CCD camera mounted in the system. The system can use a projector and the film. That barcode travels through that system. The computer can have a simple operating system that allows it to read those barcodes and then decode that data into the computer. The barcodes can have like two thin lines, which represent zero, and one wide line can represent one. The system can have certain code that tells the end of the program. 

Or code sequence ends. But if the system uses a geometrical form. like squares, triangles, crosses, and circles. That thing makes creating the new type of quantum communication possible. The square can be one, the triangle can be zero, and the circle can be the operator that tells that the code line or program’s code is ended. Basically, those geometrical shapes that the computer reads and transforms into programs can be letters. B can be 1, A can be 0. The system can take any letter group from the alphabet. The system requires marks to separate two zeros and show when the program ends. That makes the data system faster. 

The ability to store data in chemical form can be a game-changing way to store information. But can there be a practical way to make that thing? Sometimes futurologists say that they will store data in the DNA. molecule. And that is one of the most exciting ways to store data. Artificial cells can transmit that data into computers using bioluminescence, which flashes are ones and zeros. Or those artificial cells can send electric impulses to a computer. And that is one way to store information. But there is another way. To make chemical data storage. That doesn’t require the ability to code DNA molecules. 

One way is to use carbon-chloride molecules. Those chroride-carbon chains are flat. And there are  ways to make that thing. 

1) The choride-carbon chain is the one. And the intermediate is zero. Those molecules can be put under the glass. And then the system can read those molecules. The length of the intermediate determines. If there is a zero or a break. 

2) The system can involve two types of molecules. The first molecule is one, and the other one is zero. Those molecules can be stored under the glass plates, and the microscope reads data, which is stored in those molecules. 

3) The system could be faster if there were different molecules that show the zeros and ones. And if there is a molecule that shows the break. Or the endpoint of the code. There should be a separator that determines. When there are two zeros after each other. The system must also be separated. If the power is shut down or if there is only a break when the system waits for a new program. That makes those systems faster, and they don’t require a clock as much as electronic binary systems. 

A simple way to store data is to use images or a series of geometrical images to store and transmit data. The geometrical forms can be 1, 0, beak, and the end of the code line. Chemical and optical ways to transmit data. This is the thing. That makes data transportation safe. The data that is stored in the form of molecules can be transported using protein tapes. 

Why does AI fall into the infinitely continuing loop?

   Why does AI fall into the infinitely continuing loop? 

Infinite loops, or infinitely continuing loops, mean that the system is stuck operating with the same problem without a reasonable solution. 

All our neurons operate as pairs. When the first neuron sends a message to the receiver. The receiver acknowledges the message. Those receiver neurons send the message. That the message is received. Sometimes something causes a situation. The transmitting neuron sends an acknowledgment back to the receiver. And then. Those neurons start to play a ping-pong, using those neurotransmitters. That means those neurons can fall into a situation where they just surround the same dataset in the form. Called infinity loop. 

But no problem, the outside neurons come and remove the loop. That releases those neurons to operate on a new problem. The outside system must only recognize the infinite loop, and that is quite an easy thing to do. The control system, “judge,” must just see. The system  under the “judge’s” supervision gives the same answer repeatedly. If the answer is the same multiple times, the supervisor sees that those data processor units, like neurons, can be released to operate on another problem. 

The reason why our brains would not fall into a thinking loop is this. We have so many neurons. Our neurons watch each other. And if there is a situation in which some neuron group starts to operate on the same problem repeatedly, and data starts to surround that neuron group, the outside neuron comes and releases those neurons. That means. Outside neuron destroys neurotransmitters that carry the surrounding information. And releases those neurons. 

The upper image introduces the algorithm. As you see, data travels in a circle. But sometimes the algorithm makes mistakes. The mistake can happen when the algorithm uses the wrong dataset. Or sometimes the algorithm simply returns the last mission solution to its beginning point. The system should only send a mark that it's not busy. But sometimes the router will send something else to the return point of the algorithm. When data travels in a computer. 

One wrong value causes a scandal. And in binary computers. It is not accepted. If the value is more than 1. Binary processors can operate only in states one and zero.  The stuck gate causes value 2. The system is stuck. The problem is that the system cannot null itself. And in infinite loops form when data surrounds the system. And it cannot null itself. Without stopping, those algorithms cannot take on the new mission. 

Have you ever tried to make an infinite loop in your mind? The infinite loop, or infinitely continuing loop, is the case where thoughts surround in a circle. The infinite continuum is the case where we think, “I had a dream, that I had a dream...”. This means the list of those internal spaces can continue forever. But the fact is this. Our brains cannot make an infinite loop. Or an infinite circle. Things like pi (3,14...the ratio of a circle's circumference to its diameter) are not infinite loops. They are infinite continuums. 

Outside systems can deny the infinite loops. When the system operates to solve a problem. The outsider judge system. Checks the answers. If the main system always gives the same answers, the system has fallen into an infinite loop. And the outside system orders stuck systems to dismantle the loop. And reboot the system for the next mission.

Brains can create situations that we might think of as a “virtual infinite circle”, but we are never stuck in that thing. And the reason why the AI can be stuck in those processes is this. The algorithms are like circles. But the second thing is that. The AI operates over the binary computer platforms. The AI is an algorithm group that requires the giant computer centers. There are billions of microchips in that system. But there is one weakness. When the AI or large language model, LLM, starts to solve the problem, it has a certain data handling capacity in use. 

Or, the system reserved a certain number of microprocessors for use in that problem. But if the system cannot solve the problem, the AI calls more data handling units to operate on the process. If there are no limits for that process, the system can use its entire capacity. For one problem. That is the thing. That causes the infinite loop. The computer makes its calculations. And then. It makes an error detection. Calculating the same calculations backwards. Another way is to make the error detection. Using two different lines or computers. 

If both computers have the same solutions, that means (probably) there are no errors. There is a possibility. There is a common error that causes a false answer in both computers. But the last one is faster. Than the case. Where the system detects errors. By calculating all calculations backward.  After that, the system can introduce a solution. But sometimes, Something causes situations that the system cannot detect the errors as it should. 

The infinite loop forms in the case that there is no outside actor. Or the system uses its entire processor capacity to solve some problem. In that case, the system has no resources to end the task if the processors are starting to play pin-pong with the solution. That keeps those processors busy, and they have no time to null that process.  

There is a need for an outside microprocessor. That gives an order to stop the action. If the entire system is not reserved. There is a system. That denies the main system from falling into infinite loops. 

Our knowledge of black holes is expanding.

  Our knowledge of black holes is expanding.

 

"Researchers believe that an odd pair of merging black holes first detected in 2019 were "dancing" around a third supersized singularity that was lurking in the background. (Image credit: CNAS/SHAO)" (LiveScience, Scientists think they detected the first known triple black hole system in the universe — and then watched it die)

       

Researchers believe. They found the first triple black hole system. And if that is true. It proves that black holes can form similar systems. To “regular”stars form. In some visions, black holes can form entire galaxies. Those three black holes are going to their end. There is one supermassive and two smaller black holes.  Black holes can hijack each other. Or massive stars in the same star system can form a group of black holes. A black hole’s relativistic jet can also press things like planets into black holes. There are no observations about that kind of black hole. But theoretically, high-energy jets can raise the energy level in the planet’s atmosphere so high that the energy in its atmosphere can press it into one entirety.     

Our understanding of black holes is continually expanding. Due to new observation models and fundamental mathematical and computational tools, such as quantum computers and AI, we can develop new models of the most fascinating phenomena in the universe. In the past, we thought that black holes were only destroyers. When information fell into a black hole. That means the information is gone forever. But today we think differently. The key element in quantum mechanics is that information cannot just vanish. Information can only change its form. A black hole  rolls information into it. In the yarn ball model, a black hole rolls information into its event horizon like the strings or wires. Those wires store information that the black hole releases as wave movement. 

When we look at the black hole’s event horizon, we would see that thing waving. When those waves move up and down, they send waves to space. When the wave pushes the quantum field around the event horizon and falls back, it leaves a small quantum vacuum between the event horizon. And the quantum field around it. That pulls energy or information out from the black hole. When a black hole's event horizon separates from the whirl around it, it allows it to send a wave burst. The black hole is an interaction. If the outside whirl that includes quantum fields and material is removed, the black hole will be destroyed. 

The black hole’s evaporation causes a similar effect to what ice makes when we transport it into the room. When a black hole evaporates, energy field. That comes from outside, try to fill that space. So what if black hole’s evaporation ends? What if a black hole sometimes reaches energy stability with space around it? That can cause a situation where energy or a quantum field don’tt move to the black hole. Or out of it. That thing can turn a black hole completely invisible. And that causes a wild theory that maybe dark matter could be black holes that almost reach energy stability with their environment. 

Black holes are like gravitational solitons. They are packed gravitational wave packages. Like impacting, identical laser beams or identical acoustic waves can form solitons. Gravitational waves that impact with each other can form a gravitational soliton. 

Today, we think that the black hole evaporates. In that process black hole releases information that is stored in the form of Hawking radiation. Or, in the form of gravitational waves. So can the black hole have hair? Maybe a black hole has so-called soft hair, or maybe it’s partially bald. The black hole’s hair means strings that transport information out from that structure. The black hole is not completely smooth. There are small hills and valleys in its structure. If a black hole were to be completely smooth, that means that it could not touch the fields around it. Those small hills and valleys would play an important role in black hole interactions. 

Those small hills and valleys form when a black hole forms. And supernova energy presses those particles into one entirety. Called a singularity. Electrons that orbit atoms will be smashed against the atom's nucleus. And they leave at the shell of that thing as the quantum-sized hills and valleys. There are also models where there are no singularities. Singularities can explain some black holes. Things like the Kugelblitz theory suggest. Black holes can form from the energy fields or wave movement. In that case, something starts to transport energy out from a certain point. And then energy or wave movement that comes from around tries to fill that point. This thing could prove superstring theory. 

That means black holes are like gravitational solitons. When gravity fields start to travel against each other. That effect locks wave movement in the gravitational wave soliton. Can that soliton be stable? That depends on the energy that whirls around it. If that gravitational soliton can form a whirl that is large enough that it cannot let energy or wave movement travel out from that soliton, that makes it stable. Maybe not all black holes are similar. Some of them might have a singularity. And some of them might not have that thing. Black holes are not destroyers. 

They store information in them. In new models, there can even be universes inside black holes. And in wildest models, our universe exists in a black hole. In this model, we cannot see the black hole’s event horizon because it's too far away. In some models, there is also a shockwave inside the event horizon that covers the event horizon itself. And when information travels through that event horizon, it stretches those waves. And anyway, the black hole is surrounded by a material disk. That covers things that are outside that thing. 

There is a possibility that our universe formed when a black hole from the previous universe detonated. Those new models are tools that can open the biggest mystery in the universe. Black holes can offer a solution for information paradoxes. And answer how the universe formed. 

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

The ability to control the mind can be an ultimate training method. But it can also open the darkest visions of dictatorship.

 The ability to control the mind can be an ultimate training method. But it can also open the darkest visions of dictatorship. 

Brightest innovations have darkest sides. That is the thing. That we should somehow learn. This is the thing. That people like Fritz Haber are shown to us. The same person who created ammonia synthesis and made fertilized irrigation possible created chemical weapons that killed millions in the First World War. In the same way. Things like artificial intelligence and brain-implanted microchips are tools. That can make many good things. But those systems can also control things like killer robots. And that means we must realize that all of those systems have two sides, bright and dark. 

The ability to control consciousness and decode thoughts is a tool. That has always fascinated people. The CIA and other intelligence agencies studied those things for a very long time. And an idea is to create a spy who doesn’t know being a spy. The person would walk into the office. And read documents and other things. And then that person goes to the safe place. And after the mark, that person can repeat everything that this person saw and heard. The idea is to use humans as walking recorders who don’t know that they are spies. 

The BCI system can make this thing possible. Brain circuits store information in the microchip, and then that system decodes that data in a safe place. 

That makes them pass things like lie detectors and even sodium amytal interrogation. In some other visions, the consciousness control can be used to hide top-secret technology. What if the operator can make missions using highly classified systems? And then that person will not remember anything. And any details about the missions and equipment are lost in their memories. The ability to control memories is a tool that can have many roles in the future. Controlled memories. Or, so-called synthetic memories are tools that can be used to train complicated things very fast. 

And that thing can save human lives. If a person is in trouble in remote areas. And the only person who can give first aid is person who lacks the needed skills, those systems can offer those skils in a very short time. Those systems can teach complicated algorithms to people, and they can make many things that we don’t even think about possible. Brain implants can be used to teach people things like karate. When we think about things like mind manipulation. We must realize one thing. In the wrong hands, those systems are extremely dangerous. 

When Brain-Computer Interfaces, BCI systems operate with people, they interact with the computer directly through the brain lobes. That means the mind cannot separate data, or information that it gets from the BCI, from information that the person’s own senses will send. And that is the danger of the BCI, that it is a very powerful tool. The BCI can cause a singularity where people are connected with the AI and each other. By those kinds of systems. In the worst cases, the system destroys personality and turns people into a homogenous mass of information. The biggest problem with the BCI-controlled computers is that. A person will not separate what is real and what is a cyber dream. That means the person can simply forget to sit on the computer and then die because of a lack of food and drinking. 

The biggest problem is this: the person. Hackers can target the users of wireless BCI connections. This thing makes remote extortion possible. The same system also offers a way to communicate using brain waves. That thing is called technical telepathy. Technical telepathy is thing that allows a person to control robots and other things using brain-implanted microchips. Those robots send information to the controller’s brain that handles that information. Like it comes from the senses. These kinds of systems are created to control bionic prostheses. But they can also control robots and other things. 

https://www.livescience.com/17449-matrix-inception-brain-manipulation.html

https://www.popularmechanics.com/military/research/a63149552/pentagon-psychic-spies/

https://www.sciencedirect.com/science/article/pii/S2589004223007526

AI’s advancement turns slower.

    AI’s advancement turns slower.

Growing accuracy requires more complicated code. That causes a situation where AI’s advancement slows. When developers created some pseudo-AI tool in a couple of hours in the 1980s, those programs required about 10-50 lines of code. Those programs asked “what's your name?” and then they output the name that the user gave. Then they might ask, “Is the sun shining”? And then the user could answer “yes” or “no”. Then the program replied with something that gave good things in the user’s mind. Today, AI algorithms require billions of code lines. And that causes a situation where the advancement slows. 

So, when accuracy grows in program advancement slows. 

AI’s advancement turns slower. When its accuracy grows. And that means the AI follows the line of the limits in mathematics. Term limits mean the equation that’s the curve approaches zero endlessly. But that curve never reaches zero. If we translate this mathematical equation into an AI model, we can say that when AI approaches human level, the advancement slows down. Maybe. The AI will never reach a complete human level for programmers, but it will reach a level that is almost human-level intelligence. So the base elements in the AI are easy to make.

Then, researchers should find something more accurate. At the same time, they must find new, complicated ways to train their AI. And that means there is a need for more complicated algorithms. Those algorithms require more power, more time, and more accuracy. This means that the programmers use more and more time. That developers can  create more complicated code for algorithms. And how they should react. When accuracy grows. The sector of their algorithm can work turn smaller in the same time. When the need for accuracy grows, the speed of programming slows. 

And the next thing is that the error detection must be at a level where the system can be trusted. Another thing. What slows AI’s advancement is the calculation power. The system needs the entire data center for every query. That means the system needs so much calculation power that developers have no money to buy the systems that they need. Complicated code requires high-power, very high-accuracy systems. And when the system requires lots of capacity for the smallest duties. 

That causes a situation where the developers don’t have time to use AI as they need. When some details keep the system busy, it has no time to drive new code. Complicated code requires a complicated- and long-term error-detection process. The human coder cannot check even billions of lines of computer code. The entire human lifetime is not enough for that process if the human coder wants to make that thing without automated tools. 

Neuralink microchips can eavesdrop on the neural system.

   Neuralink microchips can eavesdrop on the neural system. 

The Neuralink microchip is a tool. That can make paralyzed people live more fulfilling lives. Neuralin microchips are installed in the patient's brain. And they can be connected to the computers. That allows users to control the computer using their thoughts. That thing is a brain-computer interface (BCI). This connects the human brain straight to the net. That opens the path to control remote robots using EEG. Those systems' data security must be over the top. If those systems are hacked, the results can be devastating. 

That BCI interface allows a user to control the computers, mobile telephones, and all other electronics using that microchip. The computer is the key to controlling physical things. And that's why BCI is the key element to control physical tools. The idea of the BCI was introduced in the Graig Thomas novel "Firefox". In that novel and movie, the pilot controlled the super fighter's weapon systems using the BCI. 

The BCI system that allows the use of user interfaces using EEG is the tool that can make more than Graig Thomas's fictional system ever could. Firefox was written in 1977, and that means modern neuralink applications are bypassing that fiction. And the reality is turned more impressive than fiction. The AI and advanced data technology are turning fiction into fact. The AI-controlled microchips can transmit data to the brain. 

Darth Vader, a fictional character from the Star Wars movies, is one version of the human-robot hybrid. The BCI can make that thing possible. The bionic robot can be connected to the brain using the BCI. 

And that advances learning. The BCI system makes technical remote viewing possible. That happens by connecting those microchips to the surveillance cameras or robot bodies. The same system can allow people to transmit their sensorial data and other things to other people across the air. Those microchips have their ultimate risks. That risk is hacking. The AI-based systems can also use neuro-implanted mictochips to project a person's thoughts to the computer screen. 

The neuralink-type microchips that operate with Bluetooth allow the user to connect themselves. Straight into the internet using things like mobile telephones as sockets. The internet can make it possible for a person to transmit things like tastes, visual images, and the sense of touch over the net. 

The sense that the neuralink microchip transmits depends on the brain area where the chip is installed. That thing gives an ultimate experience that the brain cannot separate from personal experience. And that is the risk in those systems. Those microchips can also transmit things like other people's memories. Or maybe the AI can create synthetic memories that are the synthetic EEG curves. If those curves are sent to the right memory area in the brain. Our brain cannot separate those " synthetic memories" from real memories. 

The brain-implanted microchips are tools that can make things like a Darth Vader suit possible. Those microchips can control things like a bionic prosthesis. That thing means that the robot-human hybrids are possible. Brain-implanted microchips can make incredible things possible. But a technical advance can make it possible to use intelligent tattoos that are miniature microchips to communicate with the brain. Those very small microchips and antennas can give enough accuracy for the data transmission between the computer and neural structures. 

https://www.rudebaguette.com/en/2025/08/elon-musks-neuralink-launches-mind-control-chip-trials-in-uk-paralyzed-patients-become-human-guinea-pigs-in-this-shocking-experiment/

https://en.wikipedia.org/wiki/Brain%E2%80%93computer_interface

https://en.wikipedia.org/wiki/Firefox_(novel)

Biomimetic drones can make a revolution in drone technology.

  Biomimetic drones can make a revolution in drone technology. 

"Illustration of a flapping-wing drone landing gently on a person's hand." (RudeBaguette, “Falcon-Like Drone Lands Softly On Your Palm”: Japan Team Says This Is The Future Of Flight)

Biomimetic technology gives drones new abilities. Small-sized drones that can flap their wings are the new tools for drone technology. Flapping-wing drones can land softly in the hand.  And they are less vulnerable than propellers. Flapping-wing drones can look like birds or insects. The insect-looking drone can slip into the house and then transmit discussions to its mothership. 

Those biomimetic drone systems can be the ultimate tools for surveillance and other types of missions. They can investigate how insects really live. And those systems can also observe people who are suspected of illegal activities. Small-sized drones can operate in houses, and they can search for unauthorized users. 

Or they can search for thermal leaks and possible fire. There is a possibility that the insect-shaped drone looks like a brooch. And then that brooch is simply left on the table. That tool can operate under its controller's command and make records from the space. The small robot insect can also use stun or lethal injections to target people. And when we talk about things like flapping-wing robots, there can be many types and many forms of those systems. 

The robot can look like a caramel box, and it can find any target in that building using artificial intelligence. Those systems are more dangerous than we can even imagine. They can play garbage and destroy the privacy at any point in the world. 

And that gives them the ultimate ability to perform different types of operations in certain areas. The problem with the small-sized drones is their limited operational range. The answer to that problem can be the drone, which has wing geometry and wing adjustments that mimic albatrosses. 

That bird is known for its ultimate ability to fly for even years without the need to land. And that ability is possible to transfer to a flapping-wing drone. Artificial feathers can adjust air flows in similar ways to how feathers work for real birds. The wing and surface act like real albatross feathers and wing geometry. The flapping-wing drone can have many types of missions. The wing geometry and body shape can mimic other birds like hawks. 

That thing gives those drones quite a fast top speed. When we think about the flapping-wing drones, those systems can also use things like fuel cells and special solar panels as a power source. In albatross-shaped drones, the system can load its batteries from airflow, and that increases its flight time. 

Those solar panels can mimic feathers. Or those drones can drink some hydrocarbon like alcohol to give fuel for their fuel cells. That system allows them to operate anywhere, anytime. But things like radioisotope batteries can give those systems virtually unlimited operational time and range. But if that system is in the wrong hands, it causes security problems, because those nuclear batteries involve dangerous radioactive material. 

https://www.rudebaguette.com/en/2025/08/falcon-like-drone-lands-softly-on-your-palm-japan-team-says-this-is-the-future-of-flight/

https://www.rudebaguette.com/en/2025/08/albatrosss-dynamic-soaring-flight-style-holds-the-secret-to-extending-drone-flight-times-with-wind-energy/

The new missile interceptors are under test.

   The new missile interceptors are under test. 

Satellites are a key element for military operations. That's why those spaceborne systems are high-priority targets. Those spaceborne navigation and communication satellites are also very vulnerable. If an enemy uses some kind of anti-satellite weapons against them. The idea of antisatellite missiles and weapons is not new. In the 1950s, the U.S. and Soviet military developed nuclear missiles that could destroy satellites and incoming nuclear missiles. The fact is, the same systems that can destroy incoming missiles can destroy other satellites. 

In 1963, the nuclear test "Dominick Starfish Prime" showed that the nuclear warheads were ineffective against ballistic missiles. If a nuclear warhead detonates too close to its own cities, the electromagnetic pulse destroys electronics in its own bases and cities. That meant that there was a need to create more advanced weapons that didn't cause an EMP pulse. 

One of the early attempts to make effective ASAT and ABM systems was the "GATV" or Gemini-Agena Target Vehicle. In that test, two Gemini spacecraft connected to the Agena stage. And then those spacecraft were put to rotate around that stage. The idea was to create artificial gravity. But another purpose was (probably) to create a giant propeller that could destroy incoming satellites and missiles. 

The need to create the new ASAT weapons was due to the EMP weapon threat. An EMP weapon can be a satellite that involves a nuclear bomb. If that nuclear bomb is launched over the enemy territory, it destroys all electrical equipment. Another very frightening system is the Fractional Orbital Bombardment system, FOBS. 

The FOBS is the nuclear warhead that is parked in orbit. When the order comes, the FOBS dives against its target. The miniature shuttles can carry FOBS or EMP weapons. The idea is that those systems can dive through the atmosphere against their target. Or they can suddenly detonate above the target area. The thing is that the miniature shuttle can return to base if its warhead was not used. 

One variant of the FOBS system is the large nuclear power laser that can get energy from a nuclear detonation. The nuclear warhead can be around the laser element. A large mirror can collect that radiation for the laser element. In the last case, the laser can also get energy from the sunlight. And the nuclear warhead is required only if the system needs power that allows a laser beam to reach the ground. 

"A graphic the US Defense Intelligence Agency (DIA) put out earlier this year illustrating the threats to the United States homeland that Golden Dome is expected to help shield against. DIA" (Twz.com, Space-Based Missile Interceptors For Golden Dome Being Tested By Northrop)

"A graphic showing, in a very rudimentary way, the typical trajectories, from launch to impact, for traditional ballistic missiles, hypersonic boost-glide vehicles, quasi or aeroballistic missiles, and air-breathing hypersonic cruise missiles. GAO" (Twz.com, Space-Based Missile Interceptors For Golden Dome Being Tested By Northrop)

"A Defense Intelligence Agency (DIA) graphic depicting various types of space-based anti-satellite capabilities. DIA" (Twz.com, Space-Based Missile Interceptors For Golden Dome Being Tested By Northrop)

Above: AGTV, Agena-Gemini Target Vehicle (Agena Target Vehicle, ATV)

X-37B

Dream Chaser

Mig-105 "Spiral"

Large-sized reconnaissance satellites with large mirror telescopes are tools that can guarantee the satellite's survivability. Those kinds of satellites can keep a longer distance from the Earth. That gives them safe against low-orbiter ASAT systems. The missile aimed at those satellites must fly for a longer time. And that gives more time to react to that threat. The satellite can have counter-weapons. Like space claymores that shoot iron balls against the incoming missile. Those systems are suitable against other satellites. So, the weapon race went to Space. 

There is a possibility of creating systems that can destroy those long-distance satellites using large-sized missile interceptors. Those interceptor missiles' top stage can be transformed into the YAG laser. The acetylene lamp can give energy to high-power lasers. And the rocket engine can use those gases as fuel. The top stage can fly against the targeted satellite and launch the laser system. 

In the 1980s, the Reagan government introduced an idea about the spaceborne antiballistic missile system, ABM, whose mission was to destroy Soviet missiles when they were attacking the USA. The program name was the Strategic Defense Initiative, SDI. In that time, technology was not advanced enough for this system to work. 

The main problem was that spaceborne missile defense systems could be vulnerable against Soviet anti-satellite weapons like kinetic energy interceptors and ground-based EMP and laser systems. The simplest possibility was that the missile launched a large number of iron nails at the orbiter to orbit in the opposite direction to the ABM platform. And those iron nails would damage or destroy the system. 

The modern version would include high-orbit observation platforms and the systems that shoot targets using kinetic energy railguns. Or the system can include the space shotgun. The iron balls that shot against other satellites or missiles. Those systems can look like the space version of the Claymore mines. The system sees the target and then the explosives send metal balls against it. The other versions are electromagnetic railguns that break the shell of targeted satellites and missiles. The problem is always debris that can close the trajectory from other satellites. 

The answer can be the EMP or other directed energy weapons. They can destroy other satellites. And especially EMP systems can keep those satellites intact. That thing denies the form of the debris. The EMP satellite can use normal solar panels to load its capacitors. Then the system targets the radio or microwave antenna to give an impulse. That can destroy the targeted satellite electronics. 

The other versions are things like long manipulators or miniature satellites whose mission is to impact targeted satellites. Or those AI-controlled systems can also push the targeted satellites away from their trajectory. There have been ideas that the satellites can also be put in a mylar bag, and then the killer satellite can put the targeted satellite in that bag and drop it into the atmosphere. 

https://news.satnews.com/2023/06/18/guardiansat-secures-patent-for-satellite-based-automated-countermeasure-system/

https://www.twz.com/space/space-based-missile-interceptors-for-golden-dome-being-tested-by-northrop

https://en.wikipedia.org/wiki/Anti-satellite_weapon

https://en.wikipedia.org/wiki/ASM-135_ASAT

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

https://en.wikipedia.org/wiki/Mikoyan-Gurevich_MiG-105

https://en.wikipedia.org/wiki/Boeing_X-37

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

Is the universe made of information?

Is the universe made of information?

Information exists only if we detect it.  But maybe we should call for information. That involves deliberate information as data. Deliberate information exists only if we detect it. 

The fact is that this thing depends on the way we think about information. We can think that all physical things are information. Or we can think. That information is an abstraction that makes something visible. Things like quantum technology are opening the vision about information as separated from material or physical particles. 

The physical particle can carry information. And then we can face things like electromagnetism as the information carriers. The electromagnetic field can carry information, or, in wave-particle duality, the electromagnetic field can transform or condense into a particle. 

Or a particle can turn into the electromagnetic field. That happens in annihilation. Information is independent of direct observation. We know that there are things like eagles, even if we don't see one of them ourselves. Another person can tell us that thing. So, in that case, the medium actor lets us know that there is something called an eagle. And if that person is inaccurate enough, we can even believe that there are eagles on Earth. Eagle is bird and they live somewhere, even if we don't see them. 

The question is, will the universe be a form of information? There is a lot of information about the universe. The thing is that the universe is like Schrödinger's cat. It forms of information and it doesn't form of information. The thing is this. We must determine the information before we can answer that question. If we want that information to mean something, that means the universe is not formed of information. But if information doesn't need to mean anything, that means information forms the universe. 

But if the information must make sense, the universe involves only meaningless oscillations and waves. So when we talk about things like black holes, we talk about information. That vanishes. Or, we talk about information that slides through the event horizon. In that case, the information means the particles and quantum fields that slide into the black hole. That means a black hole collects information, but we cannot reach it through the event horizon. 

The information is substantial, or substance. That means the existence of information depends on the information itself. The material is not a substance because its existence depends on the universe and quantum fields. Without those things, Materia turns into wave movement. But information doesn't need even the universe to exist. If some civilization can exist after the ultimate end of the universe, that civilization has knowledge of the universe. They have information about their past. And they can talk about the universe even if they didn't see it themselves. 

They can make clones of animals that lived in the universe. But for that work, those creatures require physical things. So, information itself cannot make anything. It can interact with the physical universe through sockets. Those sockets can be the DNA molecules that contain information. Those sockets or tensors that connect information with the physical world can be the bits in the computer's mass memory. 

But a computer cannot turn that information into a physical form. Without robots. Robots are tensors that allow computers to turn abstraction into reality. Materia can be destroyed. But information lives forever. Theoretical information can be reorganized into a new form. 

There must be some information stored in the system that the system can sort data into a new form. In human brains, memory cells are like the net eye. They can sort information from those cells into a new form with a very high accuracy. The reason for that is that there are so many small information dots that the brain can put into a new order. And the number of those memory dots determines how accurate that image is. The information can make sense. But that information must not have a match in the real world. 

Or, we just don't find that sense from the captured information. Or maybe we should call that thing signals. But are signals physical things? Maybe, maybe not. That means we capture radio signals from space that involve information about reactions in distant worlds. 

Is some other, intelligent civilization behind some of those radio signals? 

The answer is this: researchers have not detected any confirmed messages from another civilization. 

Or a shorter version is: nobody knows. There might be many messages that mean deliberate information. But researchers and AI don't detect those messages from natural radio signals. That means the search continues. And we are alone until we get an answer. We get an answer only if there is a message that comes from a confirmed alien source. Until that silence continues and the answer remains open. 

That is the problem with things like language science and especially the search for extraterrestrial intelligence, SETI. That means we might have billions of alien messages. But we cannot detect the information that those signals involve. 

Because. We don't know anything about the information systems that they have. So we cannot separate those messages from the cosmic background. That is one version of the theories why we don't have alien contact. That model goes like this. They cannot detect our messages, as we cannot detect their messages. And maybe we should be glad about that possibility. 

We call virtual information imagination. That information can seem very reasonable, like a human who walks on air. We know that thing is impossible, but in the virtual world in our brains, those things might seem very reasonable. Or at least we see those things while we sleep. 

In the human body, neurons connect information with physical things. Neurons use information to control muscles and other things. The information that we get exists only if we detect it. If we don't detect that information, it doesn't exist to us. 

https://thatsthenatureoftime.blogspot.com/

AI and robots can develop and fix themselves.

Today, AI starts to develop itself. But what if we were to take that ability to the physical systems? An even more interesting aspect is a “cannibal robot” that can collect spare parts and improve itself by utilizing another robot’s components. That means that the new robot can search for spare parts and improve parts from robot wrecks. That kind of thing is fundamental because it allows a physical robot to fix itself. AI-controlled robots that can collect spare parts from garbage and fix themselves will be the new tool for other planet research. The robot that can fix itself can also operate in remote areas on Earth. 

The AI that controls robots can make a checklist of what causes damage to the robot’s body. Then the robot can search for parts that can replace that weakness. If a robot requires a stronger shell, it just searches for plates that it can connect to its body. In the same way, if a robot requires more power, it can search for more servo-engines that can use its manipulators. The ability to search and benefit from raw materials from the environment makes robots more survivable and flexible. The AI develops itself in the same way as a robot that collects spare parts from its environment. 

AI is a computer program. And the computer program is a virtual robot. When AI develops its own code, it actually searches code models from the digital environment. In that case, the AI makes a model or matrix about things that it needs. Then the system will ask if there is some AI that has those abilities. Then the AI asks the code that gives the desired ability to the AI. The AI can also ask another AI to generate the code that it requires. And then the AI connects that code into itself. The problem is how the AI can detect things that it needs. And the second thing is that the AI must create the right form for the query that it makes for other AIs. 

The AI can also search things like internet databases about the code that it needs. And then generate that code in its code generator. In that case, there are two AIs: the first one that connects the code to another AI’s source code. Then the system boots another AI. And after that, the other AI makes the changes for the first AI’s source code and boots the system. The code also requires testing, and in that case, there must be at least two different systems. Because if there is a malfunction in the code, the other part of the system can operate without errors. That system can also remove malicious code from another system. But if there are no errors, the system can scale code changes through the entire system. 

https://www.euronews.com/next/2025/07/24/cannibal-robot-scientists-develop-a-robot-that-can-grow-and-heal-by-eating-others

https://www.livescience.com/technology/robotics/watch-this-robot-cannibal-grow-bigger-and-stronger-by-consuming-smaller-robots

AI and artificial life.

 

AI can modify life itself, and artificial cells can also modify AI. When we think about the DNA as data storage, we must realize that the problems are how to create synthetic DNA that involves only the things that researchers want. The other thing is how to transport. That data is sent to the microchips so that the computer can read that data. The answer can be electric impulses that the computer can read. AI is the tool that can read DNA better than play chess. The DNA is a linear data storage. And that makes the AI able to read it using microscopes and spectrometers. 

The AI can search data that is stored in CRISPR datasets. And search for similarities in the DNA that is taken from people or animals that have certain abilities. The AI can make virtual cells and simulations. About what kinds of things certain base pairs at certain points in DNA make. The AI can also connect and search data across species borders. And that allows developers to connect chlorophyll genomes to skin cells. That forms the green man. 

The same nanoparticles that can transport medicines to certain receptors can transfer the mRNA molecule in the same way in targeted cells. 

The AI can connect that data with datasets about the advancement of the fetus. Nanotechnology, along with advanced tools, makes it possible for the AI-controlled system to cut DNA and connect the new bits of DNA into those holes. The other way is to create artificial mRNA whose mission is to control the cell organelles. The system must just create the mRNA molecule that controls the cell organelle, and then that cell can create anything that the mRNA encodes it to create. 

The pathogen that can basically transform species into new ones can be based on the mRNA viruses or packages. Those mRNA molecules order the cell to create copies of itself. And then finally transform the cell into another. The mRNA is the tool that can order the mitochondria to decay in the muscle cells and that increases those cells' power. The artificial cells can also create neurotransmitters and electric impulses that allow the system to transfer memories into the nervous system. And basically, all our skills are based on memories. That is one of the things that we should know when we create new artificial species: are they bacteria or more complicated species? 

Natural bacteria cannot communicate or transmit data to the nervous system. But artificial cells can do that. And when we think about the ability to live forever or fix large-scale injuries, we must create neurons and then transmit lost data to those neurons. The single neuron involves only 1-5 bits of data. Thoughts and memories are formed in connections and states of those neurons, which humans have over 86 million, but our brains can connect those neurons into virtual neurons. 

And the connections between neurons are as important as the number of physical neurons. When a neuron is lost in an accident, the data that is involved is lost. The artificial cell can transport memories back into those cells. But that requires that the lost data is stored somewhere. And the second thing is that the system must have the ability to create artificial DNA that involves data that is normally stored in the brain. 

Things like intelligent tattoos that involve small-sized nanotechnical microchips or neurological microchips that are implanted into people’s brains can make it possible to return those memories. If the neuroimplanted microchips can transport data from memory centers to hard disks, it makes it possible to return those memories using artificial cells. That thing can restore the abilities of the badly damaged people. The brain-implanted microchips can also make it possible to read people’s minds. And that thing can turn humans more than we are today. 

https://www.freethink.com/artificial-intelligence/virtual-cells

https://pmc.ncbi.nlm.nih.gov/articles/PMC8539479/

https://www.quantamagazine.org/rna-is-the-cells-emergency-alert-system-20250714/

https://www.quantamagazine.org/what-can-a-cell-remember-20250730/

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

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

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

Time arrows and black holes.

Antigravity and Meissner effect. 

Normally, the Meissner effect is an electromagnetic phenomenon in superconducting materials. The Meissner effect happens in electromagnetic wavelengths. The gravitational Meissner effect is a similar effect that happens in the gravitational wavelength. Today, the gravitational Meissner effect is still a theory. 

Can gravity be like the Meissner effect? The Meissner effect is possible only in the extremely low temperature superconducting objects where an atom’s quantum fields form an entirety. The question is whether a similar effect that forms in gravity fields forms in cases where all parts of the atom are under one homogenous quantum field? Or is it enough that the electrons will push against the atom’s core into a homogenous form? 

If the “Gravitational Meissner effect” is possible, that makes antigravity levitation possible. If the gravitational Meissner effect is possible, that means the energy waves that travel past the particle or object are like time arrows, or arrows of time. Those things harness energy from their environment and push it into particles or particle groups. And that energy pushes those particles back in time. 

Or, otherwise saying, they cause time dilation. When the mass of an object increases, that means its spin turns faster. The spin speed accelerates until the particle cannot receive energy. Then the particle's speed starts to slow. In that process, it sends energy waves. Because it must transfer that kinetic energy somewhere. Black holes send gravitational waves when they slow their speed and release energy that is stored in them. 

The arrow of time (or time arrow) in the modern universe. 

Why doesn't the time arrow (arrow of time) work in the modern universe? There is one very good explanation. There is too much space in the modern universe. When a time arrow moves forward, it pushes energy to objects like particles around it. And then that energy pushes particles back in time. But the problem is that this requires that the particle can store the energy that it gets. In the modern universe, a receiving particle takes that energy into its quantum field. And then releases that energy immediately. 

The time arrow that pushes an object back in time requires a situation where a particle that receives energy will not give that energy away immediately. So the system must be dense enough and harness energy from a large enough area that the time arrow (or arrow of time) can push particles back in time. 

When we think about things like wormholes, those hypothetical energy tornadoes are one version of the time arrows. The wave movement tornado around the wormhole stores energy from around it. Then that energy will move to an object that travels in the wormhole. That energy can prevent an object from aging because that thing will not let the energy out from that particle or object. The case where the wormhole transports objects back in time is this. 

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). Can this kind of effect be possible in the gravitational fields? In this image, Tc= temperature critical or critical temperature. The critical temperature means that below the critical temperature. The Meissner effect turns into reality. Could there also be a density critical that makes the gravity field act like EM-fields act in the Meissner effect? 

The energy level in those objects that travel in a wormhole must rise higher than the energy shadow at the front of the particle can transport that thing out from the object. The black hole is one type of time arrow. The black hole is a very fast-spinning object that collects quantum fields from around it and transforms that thing into kinetic energy. That means the black hole’s spin accelerates all the time. But that acceleration stops sooner or later. When the spinning speed of a black hole slows, it sends gravitational radiation or gravitational waves. 

When a black hole or any other particle spins in the energy field, it collects energy from that field. That thing makes an energy pothole. The pothole is the wormhole back in time. The particle can harness energy only from its environment. The thing in black hole cases is that the black hole is not eternal. It makes a hole through time. But the reason why the time arrow works in that case is that the energy field in that pothole is dense enough. The energy cannot escape from the black hole as easily as it could escape from some other objects. The black hole’s energy level can rise so high that it breaks the energy barrier around it. And that causes black hole destruction. The black hole travels back in time until it starts to deliver its energy. 

But why can gravity slow aging? The answer can be in the nature of gravity. If we think that gravity is one form of the Meissner effect, the particle that spins just makes energy fields travel past the particle. That makes quantum levitation. In the case of black holes, particles are in the same direction. And that makes the effect more powerful. The fast spin packs energy, or quantum fields, from such large areas that the object cannot release its energy through that thing. The dense material causes quantum fields to travel through the extremely dense object. Those energy fields or waves are like time arrows. They push objects in the middle of them back in time because they cannot let quantum fields travel through them. 

That means if we want to make a time machine that uses a time arrow, we should make extremely dense pearls. Then we must shoot particles or laser beams through it. That pumps energy to the structure around the channel. But for working that requires extremely dense materials. 

https://www.ecoticias.com/en/humanity-breaks-time-for-the-first-time/18338/

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

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