Exploring the Mass of Higgs Particles and Their Relationship to the Universe

In summary, Higgs particles all have the same mass and the current best estimate is 117 GeV/c2. This mass is responsible for the spontaneous symmetry-breaking that occurs in particles, allowing for the selection of one groundstate. The Higgs field is present throughout the universe, similar to the superconducting phase in solid state physics, and the Higgs particle is like the Cooperpairs in this system. Additionally, Higgs particles have short lifetimes like other particles in the vacuum.
  • #1
kurious
641
0
Are Higgs particles all the same mass?
Does a proton have more Higgs particles associated with its rest mass
than an electron has associated with its rest mass?
And does the mass of all Higgs particles equal the total rest mass of
the universe? Do Higgs particles have short lifetimes like other
particles in the vacuum?
 
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  • #2
Are Higgs particles all the same mass?
In the framework of the standard model yes, and the best estimate to date comes from june 2004, and is about 117 Gev/c2

http://www.scienceblog.com/community/article2964.html
"Scientists at the Department of Energy's Fermi National Accelerator Laboratory today (June 9) announced new results that change the best estimate of the mass of the postulated Higgs boson from approximately 96 GeV/c2 to 117 GeV/c2"
 
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  • #3
All Higgs particles have the same mass as meteor pointed out. The reason then why the restmass of a proton is not equal to the mass of for example a massive vektorboson, is decided by the way they interact with the Higgs-particle when spontanous symmetry-breaking occurs. Havy particles were able to absorb more Higgs particles due to strong interactions.

We must see the Higgs-field as a field that is omnipresent in our universe though. it makes sure that the groundstate is degenerate so that nature is able to select one groundstate out of multiple possibilities so that symmetrybreaking can occur. It is the same as the transition of a system to the superconducting fase in solid state fysics or as in the dual superconductor-models of quark-confinement. The higgs-particle here is merely the Cooperpairs which give rise to the special properties of a superconducting-medium, like zero-resitance due to the bosonic properties of Cooperpairs. The all want to sit together so it is very difficult to scatter Cooperpairs out of a Cooperpair-current.
 

Related to Exploring the Mass of Higgs Particles and Their Relationship to the Universe

1. What is the Higgs particle and why is it important?

The Higgs particle, also known as the Higgs boson, is a subatomic particle that is theorized to give other particles their mass through interactions with the Higgs field. It is important because it helps explain the origin of mass and plays a crucial role in our current understanding of the Standard Model of particle physics.

2. How was the Higgs particle discovered?

The Higgs particle was discovered in 2012 at the Large Hadron Collider (LHC) in CERN. Scientists used the LHC to accelerate protons to high energies and smash them together, producing a wide range of particles. By analyzing the data from these collisions, scientists were able to identify the unique signature of the Higgs particle.

3. What is the relationship between the Higgs particle and the universe?

The Higgs particle is intimately connected to the universe as it helps explain the fundamental forces and particles that make up the universe. Without the Higgs particle, many particles would not have mass and the universe as we know it would not exist. It is also believed to have played a role in the formation of the early universe.

4. How does studying the mass of Higgs particles contribute to our understanding of the universe?

Studying the mass of Higgs particles can provide insight into the fundamental forces and particles that govern the universe. It can also help us understand the origins of mass and potentially lead to a more complete understanding of the Standard Model and beyond. Additionally, it could potentially shed light on unanswered questions about the universe, such as the existence of dark matter.

5. Are there any practical applications for the research on Higgs particles?

While the primary goal of studying Higgs particles is to increase our understanding of the universe, there may be practical applications that arise from this research. For example, the technology used to discover and study the Higgs particle has led to advancements in particle accelerators, which have a wide range of applications in fields such as medicine and materials science.

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