Примери за използване на Higgs bosons на Английски и техните преводи на Български
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Thus, it is impossible to directly observe Higgs bosons.
Surprisingly, the Higgs bosons decay most often in this way.
Thus, it's not possible to directly observe Higgs bosons.
Higgs Bosons give other particles mass via the Higgs mechanism.
And to solve this,you need to introduce extra Higgs bosons.
Two Higgs bosons may have decayed into bottom quarks in this 2016 collision in the ATLAS detector.
One of these possibilities would be that there are two Higgs bosons, each with a different job.
Higgs bosons have a mass of 125 gigaelectron volts(GeV), or one that's about 133 times heavier than a proton.
At the collision energies available at the LHC, Higgs bosons are made in only one collision in every 1 billion.
Before this measurement, it was not possible to directly measure the interaction strength of a top quark and Higgs bosons.
But almost 60 percent of the Higgs bosons should decay into a pair of bottom quarks- the second-heaviest of the six quarks.
After the upgrade is complete, according to CERN the Large Hadron Collider will be capable of making somewhere around 15 million Higgs bosons per year.
Higgs bosons are made in high-energy collisions between pairs of particles that have been accelerated to nearly the speed of light.
There very well could be a whole plethora of Higgs bosons out there that are too heavy for us to see with our current generation of particle colliders.
Sure, this solves the baryon asymmetry problem butjust immediately leads to the question of what nature is doing with so many Higgs bosons.
Because it is difficult orimpossible to isolate collisions in which Higgs bosons decay into bottom quarks, scientists needed another approach.
Accordingly, it is essentially impossible to identify those events in which bottom quarks are produced through the decay of Higgs bosons.
Thus, the production of bottom quarks by Higgs bosons decaying into bottom quarks is totally swamped by pairs of bottom quarks made by more ordinary processes.
In fact, some speculative theories that push our knowledge of physics beyond the Standard Model do predict the existence of these heavy Higgs bosons.
So far, experiments using the world's most powerful accelerators have not observed any Higgs bosons, but indirect experimental evidence suggests that particle physicists are poised for a profound discovery.
If we are to explain the universe as we already know it, to understand how dark matter lives alongside ordinary matter,scientists need to find evidence for five Higgs bosons.
Another physicist from the CMS collaboration, André David, tempered the excitement,telling Gizmodo that Higgs bosons decaying to bottom quarks is the Standard Model prediction- it's the null result.
Around 30 percent of the Higgs bosons produced in these collisions should produce either a set of photons or a set of W and Z bosons, the particles that carry the weak nuclear force(one of the four fundamental forces).
But the bottom quarks look much messier in the detector, andit's easy to confuse bottom quark pairs that come from Higgs bosons with those produced in other ways.
Today, both experimental collaborations announced the observation of the associated production of Higgs bosons, with the specific decay of Higgs bosons into a matter-antimatter pair of bottom quarks.
The exact nature of these additional Higgs characters depends on the theory, of course, ranging anywhere from simply one ortwo extra-heavy Higgs fields to even composite structures made of multiple different kinds of Higgs bosons stuck together.
If you combine the effect of large numbers of particles on the gravity equation andthe reheatons favouring light Higgs bosons, you get gravity just weak enough for playing basketball instead of collapsing into a singularity, says Cohen.
The exact nature of these additional Higgs characters depends on the theory, of course, ranging anywhere from simply one ortwo extra-heavy Higgs fields to even composite structures made of multiple different kinds of Higgs bosons stuck together.
In a recent paper submitted to the Journal of High Energy Physics,a team of physicists has advanced a proposal to search for the existence of more Higgs bosons, based on the peculiar way the particles might decay into lighter, more easily-recognizable particles, such as electrons, neutrinos and photons.
Today, physicists have another exciting announcement-:They have made the first unambiguous observation of Higgs bosons decaying into a matter-antimatter pair of bottom quarks.