Skip to main content

Interesting facts about Higgs boson.


The Higgs boson is an extremely high-mass particle whose spin is 0. That means Higgs boson is not rotating. And that thing makes it extremely hard to detect that particle. The weak isospin of the Higgs boson is the result of that particle's interaction with the Higgs field. When we think about the structure of the Higgs boson the lack of spin causes a situation. Where the Higgs boson sends radiation from its shell. 

That radiation forms an electromagnetic vacuum around that particle. And then it rips the Higgs boson in pieces. The reason why the 0 spin causes the sudden destruction of the Higgs boson is that there is no kinetic energy that will slow the energy transfer from the Higgs boson. In that model, the Higgs boson suddenly releases all its energy from it, and the Higgs boson is smooth. That means it cannot interact with anything than Higgs fields. 

The spin 0 guarantees that the particle will not get any energy from the Higgs field. When we think that the Higgs field is the electromagnetic field that radiation or wavelength is different than other electromagnetic fields there could be an unlimited number of particles that cannot interact with anything else than the Higgs field. That means those particles send their energy or wave movement in the form that it cannot resonate with other particles or electromagnetic fields. If a high-energy particle releases its energy only in the wavelength of the Higgs field. That means we cannot see that radiation. The Higgs field is the thing that gives mass to all particles. 




When we think that the Higgs field is the electromagnetic field that oscillates with a certain frequency there is theoretically possible that there is so-called Higgs radiation. All other electromagnetic fields can turn to radiation so, why Higgs field cannot make that thing?

Normal particles that spin in 1/2 the particle's shell will transfer energy to the particle when it touches the electromagnetic field around it. So the regular particle with spin is 1/2 gets energy from outside. And that thing makes them longer-life than Higgs boson. Because the Higgs boson has spin 0 the energy will not transfer into that particle. That thing explains why the Higgs boson is a very short-term particle. 

But the hypothetical graviton-particle would have spin 2. That thing makes that particle extremely hard to detect. Because the graviton just spins around its axle it pushes the gravitational radiation to the direction where it was going. That thing removes echo from the graviton. And that thing makes it very hard to detect that particle. There is a possibility that graviton has unlimited spin. Unlimited spin means that the particle just rotates around its axle. That thing causes a situation the particle turns into stealth or a ghost. 

When the particle's spin is 1/2. That thing means that the particle is wobbling back and forth. When that particle turns its direction it sends the photon. If a particle just spins around its axle there is no photon that it can send. In some models, the particle that spin is >1 will get more energy than it releases. And in that model, the particle can reach an energy level that jumps to the fourth dimension. Or otherwise saying the particle loses its ability to interact with other particles. 


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


https://simple.wikipedia.org/wiki/Higgs_field




Comments

Post a Comment

Popular posts from this blog

Einstein’s light cone and five-dimensional spacetime.

“Light cone in 2D space plus a time dimension, more commonly referred to as ‘space time’” (Wikipedia) The light cone introduces the model. That time focuses information on the hypersurface of the present. But why can't we see into the past or future? Entropy is introduced as the reason for. Why can't we see the future? Or to the past. This means that entropy scatters information into such a small mosaic and twists it. That information exists. But. We cannot collect it into a form. That. We can use it.  Term spacetime, or. Space time. Means the space and time. “In physics, spacetime, also called the space-time continuum, is a mathematical model that fuses the three dimensions of space and the one dimension of time into a single four-dimensional continuum. Spacetime diagrams are useful in visualizing and understanding relativistic effects, such as how different observers perceive where and when events occur.” (Wikipedia, spacetime) There is a connection between time and space, an...
Post a Comment
Read more

Supermassive black holes from the universe's dawn.

“An AI-generated visualization of a distant galaxy, containing, besides dust, gas, and young stars, three massive, active black holes (black spheres, not to scale) with bright accretion disks. Other distant galaxies are shown in the background. And. A few stars in the foreground. Credit: MPE (generated with AI).” (ScitechDaily, Three Supermassive Black Holes Found in a Galaxy From the Dawn of the Universe) Supermassive black holes from the universe's dawn are among the most interesting objects in modern astronomy. Reseachers found three supermassive black holes in one galaxy. And the famous “little red dots” from the dawn of time. They are so-called black hole stars. Or at least some of them are.  Those objects should tell us about the history of the young universe. And. Those distant objects. Tell us about gravitational interaction behavior over very long distances. We know that gravitational waves have a speed. Gravitational waves travel at the speed of light. This means. That gr...
Post a Comment
Read more

A superkilonova, which has never been seen before, may be spotted.

"A puzzling cosmic blast detected in both light and gravitational waves may hint at a previously unseen type of explosion, challenging astronomers to rethink how neutron stars are born and collide. Credit: Shutterstock" (ScitechDaily, Astronomers May Have Spotted a Never-Before-Seen “Superkilonova” Hidden Inside a Supernova) "When the largest stars exhaust their fuel, they end their lives in powerful supernova explosions. These blasts scatter heavy elements such as carbon and iron into space, helping enrich the universe. A different and far rarer kind of cosmic explosion, known as a kilonova, happens when two neutron stars collide. Neutron stars are the dense remnants of dead stars, and when they merge, they can create even heavier elements, including gold and uranium. Materials like these later become part of new stars, planets, and other cosmic structures." (ScitechDaily, Astronomers May Have Spotted a Never-Before-Seen “Superkilonova” Hidden Inside a Supernova) A...
Post a Comment
Read more