Detecting Higgs Boson Resonance at CERN and Brookhaven Labs

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SUMMARY

CERN's Accelerator and Brookhaven's Relativistic Heavy Ion Collider (RHIC) are currently capable of generating and detecting Higgs Boson resonance, specifically H115.6 GeV at a center-of-mass energy of 39 TeV. The nuclear reaction Pu244(39 TeV) + Au197 results in the production of Higgs particles, which decay into Z and W bosons. Evidence for the transition from a hadron phase to a Quark-Gluon Plasma (QGP) phase has been observed, including enhanced production of strange mesons and decreased production of heavy psi mesons. Indirect evidence supporting these findings has been detected in CERN data.

PREREQUISITES
  • Understanding of Higgs Boson physics
  • Familiarity with particle collision dynamics at 39 TeV
  • Knowledge of Quark-Gluon Plasma (QGP) formation
  • Experience with analyzing particle decay processes
NEXT STEPS
  • Research the latest findings on Higgs Boson resonance at CERN
  • Study the implications of Quark-Gluon Plasma in high-energy physics
  • Explore the experimental techniques used in the RHIC
  • Investigate the significance of strange mesons in particle physics
USEFUL FOR

Physicists, particle physicists, and researchers involved in high-energy experiments, particularly those focused on Higgs Boson studies and Quark-Gluon Plasma research.

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Cern's Accelerator and Brookhaven's Relativistic Heavy Ion Collider labs are now capable of generating and detecting the Higgs Boson resonance.

The nuclear reaction is as follows:
Pu244(39 Tev) + Au197 -> CMS(39 Tev) -> H115.6 GeV(1 Tev) + E

Ecms = (160 GeV/nucleon)* 244 nucleons = 39 Tev

Higgs Decays:
H115.6 Gev(1 Tev) -> Z93 Gev + Z93 Gev

H115.6 Gev(1 Tev) -> W+82 Gev + W-82 Gev

The energy available for producing new matter, is about 3.5 Tev.

A 40 Tev cms (center-of-mass) energy is available at the Relativistic Heavy Ion Collider undergoing final preparations at Brookhaven.

Evidence for the transition from a hadron phase (baryons and mesons) into a QGP phase was expected to consist of:

(1) an enhanced production of strange mesons

(2) a decrease in the production of heavy psi mesons (each consisting of a charm and anti-charm quarks)

(3) an increase in the creation of energetic photons and lepton-anti-lepton pairs.

(indirect) evidence (at least of types 1 and 2) has now turned up in the CERN data.

Reference:
http://aleph.web.cern.ch/aleph/alpub/seminar/wds/Welcome.html
http://user.web.cern.ch/user/cern.html
http://opal.web.cern.ch/Opal/
www.cern.ch
www.bnl.gov

 
Last edited by a moderator:
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Interesting... if true (which I seriously doubt).

1) The tevatron is not at CERN but at Fermilab.
2) The large CERN accelerator is down pending installment of LHC.
3) No mention of H is made on the BNL site.
4) No mention of H is made on physicsweb.

Can you provide a clear link to the results? preprint / experimental results-page will do...
 
It is clear he refers to the preliminary Aleph results, three years old by now. They are in the first quoted URL.
 

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