Charm quark in a proton and invisibility of material.

Proton

Could there be a quark that is invisible to the observer? There is the possibility that if some particle is rotating or spinning so fast that impacting wave motion travels over it continuing to the direction where it goes without causing an echo. 

How can the massive particle called charm-quark be inside a proton? Even if its weight is higher than protons? Maybe the reason for that is in the particle-wave duality. If we think that the main mass of the proton is forming of two up and one down quarks we can see that those quarks' quantum fields are crossing in the middle of the proton. In real life, the inner structure of a proton is much more complicated than just those three quarks. 

And that thing forms charm-quark. There is the possibility. Those three crossing quantum fields form the particle that hovers inside the quantum field, which forms a proton. In that model, there are small radiation strings, that push the charm quark from both sides. So the charm quark and some other quarks send radiation from their both poles. Or from the rotating axle. 

If that thing is true this thing can cause us that we must re-estimate the weight of some material. That kind of phenomenon where radiation strings or wave motion left from rotating particles can make cosmic inflation more accurate than it was before. The direction and way how material turns to wave motion will tell about the nature of the material. 

That radiation pike is true, the wave motion. That comes from that radiation pike's direction forms a cone that travels past the object. So the wave motion that impacts that radiation pike acts like an air cone. That supersonic aircraft forms when traveling in the air. If that radiation cone doesn't touch particles, it can stay invisible. 

Material and particles are one form of energy. And wave motion can turn to the particle. So we can say that particles are a solid form of wave motion. But that thing doesn't mean that all particles are beautiful balls. Some particles might seem like eggs. 

And some others might look like a cylinder or whirl. If cylinder- or whirl shape quark is possible. That material can be invisible to the eye. The reason is that a cylinder-shaped hypothetical elementary particle pushes wave motion over it. 

That means the cylinder-shaped structure makes wave motion continue its travel in the direction where it goes. So that the roll-shaped particle tornado doesn't make an echo or wave motion that goes back to the direction where the wave motion is coming. 

That means that there might be particles that we are not seen before. If some particles are looking like cylinders or eggs that can cause cases where those particles are hard to detect. There is a possibility that a particle's form is meaning much more than we even thought. Or it doesn't mean anything. The fact is that we know many things about particles and materials. But there are lots of things that we don't know. 

Image: https://bigthink.com/starts-with-a-bang/proton-contain-charm-quark/

The new qubit can increase the power of quantum computers.

The difference between new and traditional qubits is that the new qubit consists of many smaller qubits that are closed inside one bigger qubit. The idea is simple. The hadron where is three quarks turn the new qubit. In that system, each of those quarks can turn into independent qubits. In this text, I use the proton as an example. The proton is a baryonic hadron that contains two up and one down quark. 

An interesting thing is that. The quantum computer system can transform other internal structures of hadrons like gluons into qubits. So hadron can turn multi-level qubit that has multiple independent qubits in one package. 

And then the quantum field that surrounds those three quarks can turn into an extra-qubit. Those outside qubits can contain information where the system must transport those sub-qubits. That allows for encrypting information on many levels. 

The quark structure of the proton. There are two up quarks in it and one down quark. (Wikipedia/Proton)

The quark-based qubits and quantum entanglement are not no used in quantum computers. The reason for that is the quarks are hiding in hadrons. But otherwise, that kind of thing is interesting. Quarks are very close to each other. And the quantum entanglement through the hadrons quantum field could make it possible to adjust the energy levels in quark qubits. 

The idea is that the quantum entanglement between quarks in the same or different hadrons can use to adjust the quarks' internal superpositions. And then the quantum field of the hadron can also turn into an extra-qubit. 

The most out qubit could carry less confidential information than qubits inside it. But this kind of qubit can store information better than a regular qubit. The system can store that hadron where those internal qubits store information in extremely cold conditions. And that turns this qubit into a quantum-size USB stick. 

When that kind of system wants to download information from the qubit it needs instructions on how to handle qubits there system stored its information. The system can store that information in the most out edge of the qubit. 

Or the information on how to control those three quarks can store in the binary computers. In that case, the quantum USB is like any other hadron. But the system knows how to get access to data that is stored in those three quarks. 

If researchers can store data in those three quarks in the proton. They could send the qubit to the receiver by using ion cannon. That ion cannon makes it possible to quantum computers to communicate over long distances. The ion cannon can shoot those ions through the hollow optical fibers or inside hollow laser rays. This kind of system can revolutionize quantum computing. 

https://scitechdaily.com/a-new-faster-type-of-quantum-computer/

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

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