"Let's improve other levels when we have the opportunity in the future."

Without thinking any more, he exited the personal panel and continued to focus on the formula in front of him.

"So, this thing should be named... Lin's wave coherent superposition equations?"

After thinking about it in his mind, he couldn't help but smile. Under the theory of naming it after Lin, he added another important person!

The importance of this new equation may not be as important as the Navier-Stokes equation. After all, the Navier-Stokes equation is used in the study of fluid mechanics, and the place where fluid mechanics is studied is far better than it is now.

There is more research on this matter.

However, in terms of physical significance, behind this new partial differential equation, it can reveal a role of strings.

This is indirect proof of the existence of strings.

So you can imagine what kind of shock it will bring when this is known to the physics community.

Proving the existence of strings is a very difficult matter. According to past calculations by physicists, a particle collider at least as big as the Earth would be needed to smash the strings.

There are also indirect methods of proof. As Lin Xiao and Professor Edward Witten said before, when heavy ions collide, a closed string will be produced according to calculations, and the emergence of the closed string will cause the dissipation of part of the energy. However,

This kind of calculation still has greater requirements on experimental data.

But Lin Xiao’s current method of indirect proof is quite simple.

It is known that coherent superposition will occur between waves, and according to the process of proving Lin's wave coherent superposition equation, it is pointed out that strings play a role in it. If strings do not play a role, it means that string theory calculates something.

It's not a string, it's something else, but obviously what string theory calculates is a string, so strings exist.

This is such a logic. Of course, Lin Xiao doesn't care whether the physics community will approve it. The inverse sine theory physicists will definitely approve it, because they are already very eager for anything that can prove the existence of strings, and

Physicists who don't like string theory will probably deny it because they will think that such a proof is not rigorous, and they will probably be more inclined to use particle colliders to conduct research.

Of course, these things are not considered by Lin Xiao.

Let the string theory physicists argue with other physicists.

Of course, we have to wait until he sends out the paper first.

However, he doesn't have time to sort out papers for the time being.

In fact, this paper may not even need to be published.

After all, there are many places where wave diffraction and interference can be used, even in the military, such as the stealth coating of fighter jets.

Stealth coating is a kind of absorbing material. The absorbing material mainly uses resistance, dielectric, and magnetic loss to absorb radar electromagnetic waves. How to absorb these electromagnetic waves with greater efficiency will test the internal molecules of the coating material.

Structure, and using this system of equations can solve this problem well. When electromagnetic waves are irradiated into the absorbing coating material, the special structure inside is used to interfere and diffract these electromagnetic waves, allowing them to fall into the internal structure of the material.

In the "microwave darkroom", it is eventually completely absorbed, thereby enhancing the effect of the invisible coating.

In addition to this function, the interference and diffraction of waves can also be used in many places, such as ultra-high precision sensors, such as the laser interferometer that was often used before, which utilizes the principle of interference, and if there is

With Lin Xiao's formula, the level of precision can be improved again.

Another example is holographic projection technology, which uses the principles of interference and diffraction to record and reproduce the true three-dimensional image of an object.

The application of many of these technologies in the military may prevent Lin Xiao's formula from being published.

Therefore, Lin Xiao will also consider whether to release it based on the situation in the future.

Of course, for Lin Xiao, these things have to wait until he solves the problem at hand before talking about it.

After all, he now has to calculate what kind of crystal structure can amplify and reduce X-rays based on this equation that can describe interference and diffraction.

This is the purpose of spending so much time studying this thing.
Chapter completed!