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humsafar
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I want to know the ways newly created particles are detected during collisions such as in LHC or Fermilab, i.e either they check the EM force, electric charge being observed or other things...
humsafar said:I want to know the ways newly created particles are detected during collisions such as in LHC or Fermilab, i.e either they check the EM force, electric charge being observed or other things...
humsafar said:But particles like neutrino or neutron are neutral, how do we detect these particles which have no + or - Ion?
The muon and anti-muon are both charged, ± 1 electron charge, and have a mass about 206 times the electron mass. There is no uncharged muon. Both have a decay lifetime of about 2.2 microseconds. Both are easily deflected by the large magnets in the LHC detectors, and leave charged particle tracks in the particle detectors. Seehumsafar said:OK...just one more thing...how does a particle like Muon which is also electromagnetically zero (like neutron) gets detected...
There are 3 pions, two charged and one neutral.humsafar said:how do we detect pion?
Particle detection during collisions is the process of detecting and studying the various particles that are produced during high-energy collisions, such as those that occur in particle accelerators. These particles are extremely small and cannot be seen with the naked eye, so specialized detectors are used to identify and measure their properties.
Particle detection during collisions is important because it allows scientists to study the fundamental building blocks of matter and the forces that govern them. By analyzing the particles produced during collisions, scientists can gain a better understanding of the laws of physics and the nature of the universe.
Scientists use a variety of specialized detectors to detect particles during collisions. These detectors include particle trackers, which measure the trajectory of particles, and calorimeters, which measure the energy of particles. Other detectors, such as time-of-flight detectors and Cherenkov detectors, are used to determine the type and identity of particles.
A wide range of particles can be detected during collisions, including elementary particles like electrons, protons, and neutrons, as well as more complex particles like mesons and baryons. Scientists have also detected particles that are predicted by theories, such as the Higgs boson, and are constantly searching for new particles that may help to further our understanding of the universe.
Particle detection during collisions can tell us a lot about the universe, including the fundamental forces that govern the behavior of matter, the origins of the universe, and the properties of particles. By studying the particles produced during collisions, scientists can also gain insights into the nature of dark matter and dark energy, which make up the majority of the universe but are still largely unknown.