Higgs Boson: Decay, Proton Remnants & Detection

In summary, the conversation discusses the idea of decay of Higgs bosons and how they are created through the interaction of protons. The standard model of particle physics explains the decay of Higgs bosons, but the individual's contemplations suggest a different explanation involving quantum mechanics and field theory. However, such theories are not allowed on Physics Forums and the conversation is being closed.
  • #1
Trevor Hulette
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I am concerned about the idea of decay of HB... when two photons collide in Hadron .. exploding outward.. as the proton remnants leave trails in the field surrounding .. revealing a smaller particle field which quickly disappear... My contemplations lead me to think they do NOT quickly decay.. as we cannot see them prior to proton annihilation , it is the interaction with the proton remnants that create a state of excitation in the HB causing them to be detectable .. but QUICKLY fall back into their base state and disappear from detection as they fill the zone blown out by the proton remnant... the proton remnant shoots through the field spreading it but compressing the HB field as it pushes these tiny base field particles to the side causing them to bunch up around the area the proton traveled.. ghost trails... which revealed them..
Picture it like this.. a really thick oil... you swipe a spoon through it and it doesn't automatically fill in behind but accumulates around the edge the spoon traveled.. that accumulation is where it reveals itself to detection.. but quickly fills the void behind proton remnant path.. thinning out and disappearing from equipment detection

Higgs-Boson-story.jpg
 
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  • #2
The interactions of protons that create Higgs bosons are very well understood and well described by the standard model of particle physics. The observations made at the LHC are in good agreement with the expectations for the standard model Higgs boson, which decays in about 10-22 s. Unfortunately, your contemplations have very little to do with this description and the basic ingredient in understanding what is going on is a basic understanding of quantum mechanics and quantum field theory as well as an understanding of what the picture you have linked represents.

Also be advised that we do not allow speculation or personal theories at Physics Forums. I am therefore closing this thread.
 
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1. What is the Higgs Boson and why is it important?

The Higgs Boson is a subatomic particle that is believed to give other particles their mass. Its discovery in 2012 confirmed the existence of the Higgs field, which is responsible for this mass-giving mechanism. The Higgs Boson is important because it helps explain how the universe works at a fundamental level and provides insight into the origins of mass in the universe.

2. How does the Higgs Boson decay?

The Higgs Boson can decay into other particles, such as photons, quarks, and leptons, depending on its energy. This decay happens almost immediately after the particle is created in a high-energy collision. The specific decay path of the Higgs Boson is still being studied and further research is needed to fully understand this process.

3. What are proton remnants?

Proton remnants are leftover particles from high-energy collisions that create the Higgs Boson. These remnants are typically hadrons, which are particles made up of quarks and gluons. They are important in detecting the presence of the Higgs Boson and studying its properties.

4. How is the Higgs Boson detected?

The Higgs Boson is detected by observing its decay products in high-energy particle collisions. These collisions occur at particle accelerators, such as the Large Hadron Collider (LHC) at CERN. Scientists use specialized detectors to track and measure the energy and momentum of the particles produced in these collisions, which can indicate the presence of the Higgs Boson.

5. What are the implications of studying the Higgs Boson?

Studying the Higgs Boson and its properties can help us better understand the fundamental building blocks of the universe and how they interact with each other. It can also provide insight into the origins of mass and the nature of the Higgs field. Additionally, research on the Higgs Boson can lead to advancements in technology and innovations in the field of particle physics.

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