4 research outputs found
Finding a suitable fit function used to determine the Physical width of the Flux tube with Dynamical fermions
We have determined the width of the flux tube for several temperatures and distances using four different fit functions in order to determine the appropriate function that fits the data of the middle transverse distribution of flux tube with the dynamical fermions. Our results have revealed that only one fitting function cannot determine the width of the flux tube at the given temperatures and distances. We conclude that appropriate fit functions are a four coefficient function where R < 0.8 fm and where Gaussian function is R > 0.8 fm
Profiles, potential and string tension of the flux tube in SU(2) and SU(3) lattice gauge theories
In this work, we have studied SU(2) and SU(3) gauge theories explaining the colour interaction of a quark and an antiquark, and their identical and dissimilar properties. Using both gauge theories, we have performed simulations under similar conditions and have studied the differences in the results obtained. We have compared the transverse and longitudinal profiles of the chromoelectric and chromomagnetic components of the field strength, potential, and temperature-dependent string tension of the flux tube. The potential between the quark and antiquark of the SU(3) theory was larger than that of the SU(2) under all temperatures. The string tension of SU(3) tends to stabilize starting from the critical temperature while that of SU(2) has a gradual decreasing feature
The Shape Analysis at One End of the Flux Tube with Dynamical Quarks
In the deconfinement phase transition, we have analyzed the shape of the one end of the flux tube computed by HISQ configurations in full QCD with (2+1) flavors. The ratio of the longitudinal and transverse profile of the parallel chrome-electric field strength revealed that the transverse profile becomes wider than the longitudinal profile when the temperature increases. Also, we found that the comparison, as a function of the distance between two quarks, likely shows melting distances of the flux tube. The melting distances are different for each temperature. They are R = 1.5 fm at T/Tc = 0.97 and R = 1.2 fm at above the critical temperatures T/Tc = 1.00, 1.03, 1.06 and 1.09
Simulations of Radioactive Decays: an Application of Low-Energy Electromagnetic Packages for the Nuclear Medicine
Problems of the radiobiology and the nuclear medicine require clarifying the
specifi cs of radionuclides interactions with unhealthy cells. In this work we aimed
to simulate emitting particles tracks of radionuclides and their radioactive decays at
DNA level inside the cell nucleus. Accordingly, using the Monte Carlo-based track
structure simulation technique, we estimated the radial distribution of deposited
energy and kinetic energy spectra of electrons produced by primary particles
resulting from radioactive decays of diff erent radionuclides within cell nucleus. To
address the possibility of DNA damage, we performed the cluster analysis of track
structures of emitted particles inside the volumes corresponding to the size of the
native double-stranded DNA. For this purpose,
G4-RadioactiveDecay
and low-
energy electromagnetic packages form
Geant4
Monte-Carlo toolkit were combined
together. Besides, a comparative analysis was performed for various low-energy
electromagnetic packages as
G4-DNA
and
G4-Livermor