Scalar model of glueball in nonperturbative quantisation à la heisenberg
45 70
Keywords:
glueball, scalar field approximation, quantum chromodynamics, non-perturbative methods, gluonic fieldsAbstract
A scalar model of glueball is considered. The model is based on two scalar fields approximation for SU(3) non-Abelian Lagrangian. The approach to approximation makes use of the assumption that 2 and 4-points Green’s functions are described in terms of some two scalar fields. The model is described via non-perturbative method due to value of coupling constant, which does not permit us using of Feynman diagrams and therefore of perturbative methods. Asymptotical ehaviour of the scalar fields are obtained. Profiles of these fileds calculated for a range of values of a parameter of the problem is given. Detailed numerical investigation of corresponding equations describing this model is performed. The dependence of the glueball mass vs arameters of scalar fields is shown. Comparison of characteristics of glueball obtained in our two-scalar model and predictions of other models and experimental data for glueball is performed.References
1. Brünner F., Parganlija D. and Rebhan A. Glueball Decay Rates in the Witten-Sakai-Sugimoto Model// Phys. Rev.D – 2015 – Vol. 91. – Iss.10. – No. 106002.
2. Brünner F. and Rebhan A. Nonchiral enhancement of scalar glueball decay in the Witten- Sakai-Sugimoto model // arXiv:1504.05815 [hepph]. – 2015.
3. Ochs W. The Status of Glueballs // J. Phys. G – 2013.– Vol. 40.– No. 043001.
4. Dzhunushaliev V. Nonperturbative quantization: ideas, perspectives, and applications. // arXiv:1505.02747 [hep-ph]. – 2015.
5. Dzhunushaliev V. Scalar model of the glueball // Hadronic J. Suppl. – 2004. – Vol. 19. – P. 185.
6. Banks T., Horsley R., Rubinstein H.R., and WolffU. Estimate of the gluon condensate from Monte Carlo calculations // Nucl. Phys.B – 1981. – Vol. 190. – p. 692.
7. Di Giacomo A. and Rossi G.C. Extracting 〈(α/π)Σa,μνGμν
aGμν a 〉 from gauge theories on a lattice // Phys. Lett. B.– 1981. – Vol. 100. –p. 481.
8. Rakow P.E. // PoS. – 2006. – 284.
9. Shifman M.A., Vainshtein A.I., Zakharov V.I. QCD and resonance physics. theoretical foundations // Nucl. Phys.B. – 1979. – Vol. 147. –p. 385.
10. Mathieu V., Kochelev N., Vento V. The physics of glueballs // Int. J. Mod. Phys. E. – 2009. – Vol. 18 – p. 1-49.
2. Brünner F. and Rebhan A. Nonchiral enhancement of scalar glueball decay in the Witten- Sakai-Sugimoto model // arXiv:1504.05815 [hepph]. – 2015.
3. Ochs W. The Status of Glueballs // J. Phys. G – 2013.– Vol. 40.– No. 043001.
4. Dzhunushaliev V. Nonperturbative quantization: ideas, perspectives, and applications. // arXiv:1505.02747 [hep-ph]. – 2015.
5. Dzhunushaliev V. Scalar model of the glueball // Hadronic J. Suppl. – 2004. – Vol. 19. – P. 185.
6. Banks T., Horsley R., Rubinstein H.R., and WolffU. Estimate of the gluon condensate from Monte Carlo calculations // Nucl. Phys.B – 1981. – Vol. 190. – p. 692.
7. Di Giacomo A. and Rossi G.C. Extracting 〈(α/π)Σa,μνGμν
aGμν a 〉 from gauge theories on a lattice // Phys. Lett. B.– 1981. – Vol. 100. –p. 481.
8. Rakow P.E. // PoS. – 2006. – 284.
9. Shifman M.A., Vainshtein A.I., Zakharov V.I. QCD and resonance physics. theoretical foundations // Nucl. Phys.B. – 1979. – Vol. 147. –p. 385.
10. Mathieu V., Kochelev N., Vento V. The physics of glueballs // Int. J. Mod. Phys. E. – 2009. – Vol. 18 – p. 1-49.
Downloads
How to Cite
Dzhunushaliev, V., & Makhmudov, A. (2016). Scalar model of glueball in nonperturbative quantisation à la heisenberg. International Journal of Mathematics and Physics, 6(2), 74–79. Retrieved from https://ijmph.kaznu.kz/index.php/kaznu/article/view/132
Issue
Section
Theoretical Physics and Plasma Physics
