Exploring the Higgs Field in Space-Time

In summary, the Higgs field is a quantum field that gives fundamental masses to particles and manifests in the same manner everywhere in spacetime. It is also responsible for the existence of the Higgs boson, which was observed in 2012. While the Higgs field can change value, its average value remains constant over large volumes. It may be possible to alter the Higgs field in certain conditions, but this is not yet fully understood.
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hsdrop
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is the higgs field the same ever wair or does the field thicker and thinner in places like space-time?
 
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  • #2
The Higgs field is a quantum field, not a mechanical entity, so concepts such as "thickness" do not make any sense in this context. All I can really say is that the vector bosons of the weak interaction have the same rest mass everywhere in spacetime, so in that sense the effect of the Higgs field is quite uniform.
 
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  • #3
so if its the same everywhere why is it called a field witch would imply some different in the way it works
 
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Yes, it can be taken to be the same everywhere, in the sense that it manifests in the exact same manner no matter where you are.
 
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i know this maybe a way out there question but is the higgs field what prevents F.T.L. or has nothing to do with it?
 
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It's not the Higgs boson that "prevents" FTL. It's the very fundamental structure of relativistic spacetime that does not allow causally connected events at space-like distances.

In todays understanding of elementary particles the Higgs field is a scalar field with a non-vanishing vacuum expectation value (VEV). This Higgs mechanism provides the fundamental masses to the quarks and leptons as well as the massive gauge bosons (the ##Z^0##- and ##W^{\pm}## bosons) via their coupling to the Higgs field. The non-vanishing VEV leads to the mass terms for these fields without violating the underlying local gauge symmetry. Such symmetries are vital for the consistency of this kind of quantum field theory. If you break such a symmetry in any way, the entire model becomes useless, i.e., you cannot make any sense out of it. Now in addition to providing the fundamental masses to the elementary constituents of matter, as with any other physical field in a QFT it also corresponds to a particle. The quantum excitations of the Higgs field appear as scalar particles, the famous Higgs boson. It is the final building block of the Standard Model, observed by the ATLAS and CMS collaboration at the Large Hardon Collider at CERN in 2012.

One should, however, be aware that about 98% of the mass of the matter surrounding is is NOT due to the Higgs mechanism but dynamically generated by the strong interaction, but that's another (not yet fully understood) topic.
 
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ok can you dum that down a bit i have no idea what the letters mean but i would not mind learning
 
  • #8
Is the @op asking whether the Higgs field is constant? It's certainly not. The Higgs bosons are ripples, excitations of the Higgs field, so it must be varying.

However, the average value of the Higgs field over some volume large enough will be the same everywhere. So Higgs field may be seen as constant background + relatively small ripples of zero mean value.

The mean value of Higgs field can change though, and the inflation epoch might have been such an event.
 
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  • #9
thank you for tacking the time to explane it to me :smile: is there a way at all to lessen the affects of the flied ?
 
  • #10
So you want to cancel the Higgs field :).

Well, since we know Higgs field can change value, so there must be some way to change it. Just heat the universe to the temperature comparable to Big Bang and we're done.

More realistically, maybe there exist some materials or conditions where the value of the Higgs field is effectively altered. Just as electromagnetic field symmetry is spontaneously broken in semiconductors, there might be similar phenomenon for Higgs field. But we don't know of any such process yet.
 

FAQ: Exploring the Higgs Field in Space-Time

What is the Higgs field and why is it important to explore?

The Higgs field is a fundamental field that is believed to give particles their mass. It is important to explore because understanding the Higgs field can help us understand the origin of mass in the universe and provide insight into the fundamental laws of nature.

How can we explore the Higgs field in space-time?

We can explore the Higgs field in space-time through experiments, such as the Large Hadron Collider, which can recreate conditions similar to those in the early universe and allow us to study the interactions between particles and the Higgs field.

What have scientists learned about the Higgs field so far?

Scientists have confirmed the existence of the Higgs field and the Higgs boson particle through experiments at the Large Hadron Collider. They have also discovered that the Higgs field is responsible for giving particles mass, and have been studying its interactions with other particles.

How does the exploration of the Higgs field contribute to our understanding of the universe?

Studying the Higgs field can help us understand the fundamental laws of nature and the origins of mass in the universe. It also provides insight into the structure and behavior of particles, which can help us understand the evolution of the universe.

What are some potential applications of understanding the Higgs field?

Understanding the Higgs field could lead to the development of new technologies, such as more efficient energy production and storage methods. It could also provide insights into the behavior of particles in extreme conditions, which could have implications for space exploration and other fields of science.

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