Below is the link to my new paper (4 pages)
http://vixra.org/abs/1503.0171
The Fragmentation in the Nucleon-Nucleon Collisions within the Scale-Symmetric Physics
Summary
Here, within the atom-like structure of baryons described in the Scale-Symmetric Physics, is presented the fragmentation of hadrons in the pp and AA collisions. Applying the Stefan-Boltzmann law the calculated production of pion/kaon/proton in pp and AA collisions is in an excellent agreement with the ALICE data.
Experiments at Brookhaven’s RHIC observed an enhancement in transverse-momentum-dependent baryon/meson ratios for central AA collisions in comparison with pp collisions. Here we showed that the difference follows from the different dominating channels of fragmentation of hadrons in AA and pp collisions. In pp collisions dominate the decays of charged pions into neutral pions and the remnant with energy/mass equal to the mass distance between pions. There as well is destroyed the S state of nucleons so their mass is reduced to 727.44 MeV. On the other hand, in AA collisions dominate the decays of pions into four gluons and decays of the additional central condensates into 4 fragments as well.
The curve ratio = ratio(transverse-momentum) follows from the Stefan-Boltzmann law. It is because the fragmentation leads to super-dense condensates composed of the carriers of gluons which behave as a black body.
Emphasize that due to the very strong shortest entanglement of the carriers of gluons in the strong charge, any fragmentation of the core of baryons is impossible.
Notice that we calculated the ratios for transverse momentum with complete fragmentation (about 3 GeV) and the asymptotic values for higher transverse momentums so we can draw the curve ratio = ratio(transverse-momentum).
http://vixra.org/abs/1503.0171
The Fragmentation in the Nucleon-Nucleon Collisions within the Scale-Symmetric Physics
Summary
Here, within the atom-like structure of baryons described in the Scale-Symmetric Physics, is presented the fragmentation of hadrons in the pp and AA collisions. Applying the Stefan-Boltzmann law the calculated production of pion/kaon/proton in pp and AA collisions is in an excellent agreement with the ALICE data.
Experiments at Brookhaven’s RHIC observed an enhancement in transverse-momentum-dependent baryon/meson ratios for central AA collisions in comparison with pp collisions. Here we showed that the difference follows from the different dominating channels of fragmentation of hadrons in AA and pp collisions. In pp collisions dominate the decays of charged pions into neutral pions and the remnant with energy/mass equal to the mass distance between pions. There as well is destroyed the S state of nucleons so their mass is reduced to 727.44 MeV. On the other hand, in AA collisions dominate the decays of pions into four gluons and decays of the additional central condensates into 4 fragments as well.
The curve ratio = ratio(transverse-momentum) follows from the Stefan-Boltzmann law. It is because the fragmentation leads to super-dense condensates composed of the carriers of gluons which behave as a black body.
Emphasize that due to the very strong shortest entanglement of the carriers of gluons in the strong charge, any fragmentation of the core of baryons is impossible.
Notice that we calculated the ratios for transverse momentum with complete fragmentation (about 3 GeV) and the asymptotic values for higher transverse momentums so we can draw the curve ratio = ratio(transverse-momentum).