AI will bring the next generation of math.

AI will revolutionize mathematics. This tool brings new types of accuracy for calculations. When mathematicians try to prove some math problems right or wrong. The system. It can be used for extremely long quantum decimal numbers that can prove formulas true or false. Another thing is that even if the AI finds the zero points in things. Like the Riemann Zeta function (Riemann Hypothesis), that doesn’t make it an unusable tool. 

The AI can have many ways. To use that function. The simplest way is that. The AI will not use those points in the zeta function. 

The AI can create prime numbers in the computer memory. So. In those cases, the system can transform those prime numbers into a series. The system. It can delete all numbers other than prime numbers from that series. The system. It can put those numbers into the frame. And then mix their locations in the series. When the system requires encryption. It must only send. The number of the frame. There is a prime number that the encryptor requires. If those numbers are in a table that looks like a chessboard. 

The transmitter must only tell. It uses the prime number from frame G:2. The golden rule is that the key must not be sent with the message. So, the system can be random. The tables that it will use. Then it sends those tables to the receiver. And then. The system that decrypts data can find the same binary number. 

The simple encryption table. It could look like this. (Quanta)  

The attacking system doesn’t know what prime numbers the encryption system used. If the attacking system uses a brute force attack, it tries to guess the right prime number. And we know that things like algorithms are not guessing. They try each number to open the message. The system can also cut the data line into pieces. And use different prime numbers for each data package. The system can use multilevel encryption. 

That means that. The first stage of encryption happens. When the message is left on a personal computer. Then at the point of the router, the system can use another count by using random prime numbers. And there can be multiple systems that count and share information. And the message. It can also travel by using different physical lines. 

The system that receives information. That can use decryption in similar points. As the encryptor encrypted the data. A router-computer can divide the numbers in the message. The transmitter router is used for encryption. Then the final decryption happens on a personal computer. The system can share encryption and decryption for different independent systems. That minimizes damages. If a code-breaking catastrophe occurs in one system. The other systems can stand the attack. The attacker must find and break all of those systems separately. 

When AI calculates things like azimuth angles. It can use extremely high accuracy for those numbers. This kind of accuracy brings new ideas for geometry. 

https://www.quantamagazine.org/the-ai-revolution-in-math-has-arrived-20260413/

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

Black holes are mysterious objects. And one interesting thing orbits every single black hole in the Universe.

 

Image: Pinterest

 Black holes are mysterious objects. And one interesting thing orbits every single black hole in the Universe. 

That thing is the photon ring. The photon ring is the photons that are orbiting the event horizon. Those photons might be the reason why we cannot see a black hole. There is a theory that some information falls into a black hole by following the half-elliptic trajectory. That means the nucleus of the black hole would act as the gravitational sling and makes it possible that some of those superstrings can escape inside the black hole. 

That photon ring has the ability that it will encrypt the information that is escaping from the black hole. When superstrings or flat photons that could be visible are traveling across that photon ring those photons are cutting it into pieces. Or it turns the information into a form that we cannot observe it. 

That thing gave interesting ideas for things like quantum computers and protective fields. If the photon whirl protects the quantum computer or its quantum entanglements. That photon whirl protects those quantum systems from the outcoming energy fields. The fact is that the energy itself will not break the quantum entanglement. The change in the energy level is the thing that destroys things. 

Or sharply saying decreasing the energy level causes the particle sends light quantum. That light quantum, energy burst, or wave motion is the thing that destroys molecular and other bonds. 

The protective field can protect the layer against incoming material objects. Or even laser rays. A photon whirl can act like a laser ray that whirls around the object. 

The photonic whirl has caused an idea of the protective field. In this case, there are two-layer quantum fields. That is made by expanding two different elementary particles or their quantum fields. That thing will happen by stressing those particles with energy. 

The photons are trapped between those two internal quantum fields and they are starting to whirl in that bubble. When something hits that photon whirl. It erases that incoming thing immediately. That thing would be the real-life protective field. When those photons are impacting things they would erase that immediately. 

There are plans that by using an extremely high power electric field there is the possibility to capture photons between electrons around the layer. The electricity travels at the core of the wire. And it rises electrons to the upper energy level.

So there is a possibility. That the electrons are acting like a photonic trap. And if those photons are whirling around the layer they would encrypt the information that humans cannot see in that layer. So that thing could be the key to the ultimate stealth and protective systems. 

https://www.quantamagazine.org/black-holes-ring-of-light-could-encrypt-its-inner-secrets-20220908/

https://miraclesofthequantumworld.blogspot.com/

The problem with quantum communication is how to make systems understand each other.

In old fashion encryption, the sending system decodes the message by using the precise key. That key is the coin in this text. Then the receiving system decrypts the massage by using the same key that the sender uses but oppositely. If the sender encrypted the ASCII codes by using multiplication. 

The receiver will divide the ASCII codes by using the same encryption key. In the quantum system, the sender uses a certain group of encryption keys. The idea is that the sender doesn't know precisely which encryption key it uses. But the system knows that in the number of the keychain it used. 

But the sender doesn't know which number the "keychain 2" is in the receiving system. That thing makes it harder to capture the key. Each encryption key in the keychain has a certain value. In the next text. The keys are handled as physical tools like coins. So each coin is a certain key. Those values are the material (frequency), color energy level, and many other things. In the case of qubits the electron, photon, proton, and electromagnetic radiation can be used as values that are telling the system is a message meant to it. 

If we compare the toss of a coin with the encryption process we can think that sending and receiving systems are tossing the coin. If the sides of the coin are the same. Those systems are in the same frequency. And the information can travel between those systems. The problem is how to make sure, that the sides of the coin are the same.

The image above is a good example of the problems with quantum encryption. In that model, the persons toss the coin. If both of them will get the same side another system is ready to receive the message. If the sides of the coin are different. The systems will not match. So in the case, that the sides are different the receiving system thinks that message is for somebody else. And it will not try to open it. 

One of the biggest problems is how to send the key to the receiving system. Or how to make the coins match between systems? There can be billions of coins in the system. 

Those coins or keys might look the same. 

But they can be different. 

The material of those coins can be different. One coin is made by using bronze. 

The second one is made of nickel. And the third coin is made of ice. There are rules of the systems regarding which material they should accept, and which value of the coin is acceptable. And of course, things like impact power and other things can use as encryption value. 

Also, the time when the coin is sent can make the key more complicated. So the time stamp of the coin can tell if the message is meant for receiving system. So in this system, every coin is the qubit or encryption key. 

In quantum systems, the system uses uncertain principles for encrypting and decrypting the message. The system can give the keychain to encrypting tool. And then the encryption system selects one key at random. After that, the sender sends the message. And then the receiving system will know which keychain it must use. Then the system will try all keys together. 

The thing that makes quantum computer superior is that they can handle at the same time multiple keys. In that case, the system uses multiple keys that are used at the same time. And that makes quantum computer superior. 

https://networkedinternet.blogspot.com/