However, the physical origin of our observation is not yet understood. Additional characteristics of the high multiplicity p p events displaying this novel feature deserve further detailed study.
daschaich said:I think it just means you have a lot of tracks, each with relatively little p_T.
Why do you say that ? Adding particle tracks from different events will just reproduce random backgrounds (like accidentals), not signals.arivero said:they should get the same result by just adding a lot of tracks from different colisions
Those correlations are seen in very high multiplicity events (~100 tracks) indeed.arivero said:So either they need a lot of *simultaneus* tracks to get some quantum interference in action, or they need really an object above 60 GeV.
arivero said:That was my first idea too, but then they should get the same result by just adding a lot of tracks from different colisions.
arivero said:they need a lot of *simultaneus* tracks
No, and please note that there was not much discussion before #5arivero said:Hmm, are you lads following the conversation from #5
Please note that a two jet event must be back to back, so can not be in the region [itex]\Delta\phi\sim0[/itex] with large [itex]\Delta\eta[/itex] whether the color argument is relevant or not.arivero said:A poster at Dorigo's has given a pausible explanation: they need at least 3 jets to get correlations via mechanisms based in colour, and then the selection of having a lot of tracks enhances the selection of 3-jets.
The new two-particle correlations refer to the patterns of particle interactions that have been observed in the CMS detector at the Large Hadron Collider (LHC). These correlations involve the simultaneous detection of two particles and can provide insights into the behavior and properties of particles at high energies.
Studying these new correlations can help us better understand the fundamental building blocks of the universe and the forces that govern them. They can also provide evidence for new particles or interactions that have not yet been discovered.
The CMS detector is a large, complex instrument designed to detect and measure particles produced in high-energy collisions. It uses advanced technologies such as tracking detectors, calorimeters, and muon detectors to identify and measure the properties of particles. By analyzing the data collected by the CMS detector, scientists were able to observe the new two-particle correlations.
These correlations can provide valuable insights into the behavior of particles at high energies, which can help us better understand the structure and evolution of the universe. They can also provide evidence for new theories and models that can help us further our understanding of the universe.
The discovery of these new correlations is a significant contribution to the field of particle physics and is part of ongoing research efforts to understand the fundamental nature of the universe. It may also have implications for other areas of science, such as cosmology and astrophysics, as we continue to unravel the mysteries of the universe.