Gravitation and strong interaction.

Above is the model of gravitational waves. In the same way. All objects. In the universe. Send those kinds of waves. In. The case of elementary particles. The structure of those particles forms a similar effect. This means that there could be many sources for those waves. Theoretically, spinning bosons like gluons. They can send that very short-wave radiation.  The idea is that a gluon travels around the string that binds quarks together. If. Those gluons spin while they travel between those quarks. That spinning gluon also forms a so-called bremsstrahlung effect. When. That spinning boson sends radiation. Its energy level decreases. And that thing acts like ice in a room. 

When those gluons travel between quarks. They. Form a quantum low-pressure behind them. That effect pulls quarks together. And that effect is the thing. That. We call strong interaction. But could the strong interaction be the same as gravitation?

That means. Those bosons act like W and Z bosons. W and Z bosons are transporters of the weak interaction. When nuclei start to decay. Baryons, protons and neutrons form the W boson. That travels between baryons. And that forms free energy in the atom’s core. Sooner or later, the free energy causes the atom to decay. Forming nuclear fission. In nuclear fission, the reaction releases bonds. That keep the atom in one piece. Nuclear fission releases energy that was stored in those bonds. The W boson has positive electric charge. And it pushes protons away from each other. The Z boson has neutral electric charge. So, we can think of the W boson as releasing energy. And the Z boson binds energy. 

In the same way, annihilation releases a similar bond energy. The reason why annihilation releases more energy than fission is simple. In annihilation, more bonds are released. And in all of those reactions. Fission, fusion, and annihilation. Atoms release bond energy. That is stored in them. When deuterium and tritium fusion (D-T fusion)happens. One neutron is left in the reaction. This causes energy realease. After a short time, the bond between quarks in that released neutron cuts. That releases more energy. When the energy level of that neutron is very high. The quantum field jumps away from it. And rips the neutron into pieces. That is one of the reasons. Why. Fusion is such a powerful reaction. 

The D–T (Deuterium-Tritium) fusion reaction. (Wikipedia)

Gravitational waves could be a form of Bremsstrahlung radiation.  When. A particle changes its direction. It sends radiation called Bremsstrahlung. Synchrotron radiation is the magnetic version of Bremsstrahlung. Gravitational waves act a little bit like gamma rays. That radiation could travel through the particles. And then take their energy with them. That means that radiation acts like a thermal pump. When. A particle loses its energy. It. Turns colder or lower energy. This means that energy or quantum fields start to travel into that particle. And that explains gravitational waves' special form. So if dark matter particles. 

Mythical WIMPs (Weakly Interacting Massive Particles). Exists. That radiation can come from those particles. And near black holes, those particles send that Bremsstrahlung radiation. There is a small possibility that WIMPs and gravitons are the same thing. In some models, the graviton is the small particle, or quantum-sized black hole. Existing. In all elementary particles. That particle spins very fast. And what we see as an elementary particle is the halo of that hypothetical WIMP or graviton. Particle. This fast-spinning particle binds energy from around it. 

This is one version of the answer to the question of why gravitational waves are so different than other radiation. When those particles orbit a black hole, they send this radiation. This means that those WIMPs are very small particles. Maybe their spin is extremely strong. And fast-spinning particles can turn invisible. Because. Of that spin. Quantum fields transfer to travel past the particle. The super-fast spin guides those quantum fields past the particle. And there is a possibility. 

That a quantum string is forming. At the particle's spin axis. That string will transport energy out from that particle, which acts like a thermal pump. This means that the gluons are like donuts that travel on those strings. And that forms the model. The strong interaction transporter, the gluon, is quite similar to the photon. 

This effect focuses energy into one point. And it prevents non-targeted radiation from the particle. In this model, that effect makes the particle invisible. The energy streaming that leaves the particle is so thin. It cannot affect an area. 

That is large enough to oscillate atom-sized objects. So. If that is the gravitational model. The counter-gravitation.. O.r antigravitation must be possible. Antigravitation could be the recoil effect of gravitation. But why is that force so weak? The answer could be simpler than we even dare to think. The recoil of the graviton. It happens only in the wavelength of the gravitational interaction.  But gravitation itself is the interaction with all other fundamental interactions. 

This means that. When. Those particles spin. They. Bind energy. And the universe’s is the thing that prevents them from reaching energy stability. Particles’ evaporation is the thing. That makes them bind energy. This evaporation is the effect. That makes them bind other quantum fields. And those quantum fields transport energy and particles into the gravitational center. This is the thing. That makes gravitational coulter-waves so weak. Gravity has a larger scale of forces. 

Than antigravitation. That we can call gravitational recoil. Gravitational recoil. It is possible if the graviton particle exists. 

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

https://en.wikipedia.org/wiki/Deuterium%E2%80%93tritium_fusion

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

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

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

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

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