What is Higgs Energy ?

Higgs field

The Higgs field is the theoretical field of energy that permeates the universe, consistent with the idea put forth in 1964 by Scottish theoretical physicist Peter Higgs. Higgs suggested the sector as a possible explanation for a way the elemental particles of the universe came to possess mass, because within the 1960s the quality Model of quantum physics actually couldn't explain the rationale for mass itself. He proposed that this field existed throughout all of space which particles gained their mass by interacting with it.

Discovery of the Higgs Field
Though there was initially no experimental confirmation for the idea , over time it came to be seen because the only explanation for mass that was widely viewed as according to the rest of the Standard Model. As strange because it seemed, the Higgs mechanism (as the Higgs field was sometimes called) was generally accepted widely among physicists, along side the remainder of the quality Model.

One consequence of the idea was that the Higgs field could manifest as a particle, much within the way that other fields in physics manifest as particles. This particle is called the Higgs boson. Detecting the Higgs boson became a serious goal of experimental physics, but the matter is that the idea didn't actually predict the mass of the Higgs boson. If you caused particle collisions during a accelerator with enough energy, the Higgs boson should manifest, but without knowing the mass that they were trying to seek out , physicists weren't sure what proportion energy would wish to travel into the collisions.

One of the driving hopes was that the huge Hadron Collider (LHC) would have sufficient energy to urge Higgs bosons experimentally since it had been more powerful than the opposite particle accelerators that had been built before. On July 4, 2012, physicists from the LHC announced that they found experimental results according to the Higgs boson, though further observations are needed to verify this and to determine the varied physical properties of the Higgs boson. The evidence of this has grown, to the extent that 2013 Nobel prize in Physics was awarded to Peter Higgs and Francois Englert. As physicists determine the properties of the Higgs boson, it'll help them more fully understand the physical properties of the Higgs field itself.

Brian Greene on the Higgs Field
One of the simplest explanations of the Higgs field is that this one from Brian Greene, presented on the July 9 episode of PBS' Charlie Rose Show, when he appeared on the program with experimental physicist Michael Tufts to debate the announced discovery of the Higgs boson:

Mass is that the resistance an object offers to having its speed changed. You take a baseball. When you throw it, your arm feels resistance. A shotput, you feel that resistance. The same way for particles. Where does the resistance come from? The theory suggests that perhaps space was crammed with an invisible "stuff," an invisible molasses-like "stuff," and when the particles attempt to move through the molasses, they feel a resistance, a stickiness. It's stickiness which is where their mass come from. That creates the mass.

It's an elusive invisible stuff. You don't see it. You have to find some way to access it. And the proposal, which now seems in touch fruit, is that if you slam protons together, other particles, at very, very high speeds, which is what happens at the massive Hadron Collider... you slam the particles together at very high speeds, you'll sometimes jiggle the molasses and sometimes flick out a touch speck of the molasses, which might be a Higgs particle. So people have searched for that tiny speck of a particle and now it's like it has been found.

The Future of the Higgs Field
If the results from the LHC pan out, then as we determine the character of the Higgs field, we'll get a more complete picture of how physics manifests in our universe. Specifically, we'll gain a far better understanding of mass, which may, in turn, give us a far better understanding of gravity. Currently, the quality model of physics doesn't account for gravity (though it fully explains the opposite fundamental forces of physics). This experimental guidance might help theoretical physicists  on a theory of quantum gravity that applies to our universe.

It may even help physicists understand the mysterious matter in our universe, called substance , that can't be observed except through gravitational influence. Or, potentially, a greater understanding of the Higgs field might provide some insights into the repulsive gravity demonstrated by  dark energy which seems to permeate our observable universe.

Higgs field

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