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spaceSpace and Physics

CERN Just Had A Particle Bonanza With Five New Discoveries

author

Dr. Alfredo Carpineti

author

Dr. Alfredo Carpineti

Senior Staff Writer & Space Correspondent

Alfredo (he/him) has a PhD in Astrophysics on galaxy evolution and a Master's in Quantum Fields and Fundamental Forces.

Senior Staff Writer & Space Correspondent

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A digital reconstruction of a detection event in the LHCb. The different blocks represent different particles. LHCb collaboration

In CERN's quest to discover the complexity of particle physics, it has just hit a particularly good spot – five new subatomic particles have been found. With this discovery, physicists hope they can unlock the mystery of how the nuclei of atoms are stuck together.

These five new particles are just five different versions of Omega-c-zero, Ωc0, a particle made of two strange quarks and one charm quark. As reported in a research paper, these new objects represent five excited states of the same particle, each with a little bit more energy than the standard Ωc0.

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Ωc0 is part of the same family of protons and neutrons, the so-called baryons because they have three quarks, the fundamental building blocks of matter. Physicists at CERN are trying to understand how quarks interact with each other and to do so they are colliding particles to see what can possibly form.

The Omega-c particle has been known to science since 1994, and quantum chromodynamics has hinted that there are heavier versions out there waiting to be found. By colliding protons together, the experiment LHCb was able to spot them.  

"These particles have been hiding in plain sight for years, but it has taken the exquisite sensitivity of the LHCb to bring them to our attention," Professor Tara Shears of Liverpool University, who works on the LHCb, told BBC News.

Physicists have codified this fundamental interaction, known as the strong nuclear force, in a very complex theory known as quantum chromodynamics. The data obtained by CERN and other labs are helping to test this.

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"This is a striking discovery that will shed light on how quarks bind together," added Dr Greig Cowan of the University of Edinburgh, who also works on the LHCb. "It may have implications not only to better understand protons and neutrons, but also more exotic multiquark states, such as pentaquarks and tetraquarks."

[H/T: BBC News]


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spaceSpace and Physics
  • tag
  • LHC,

  • quark,

  • CERN,

  • LHCb,

  • quantum chromodynamics

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