2015
DOI: 10.1142/s0217751x15501754
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Paraquantum strings in noncommutative space–time

Abstract: A parabosonic string is assumed to propagate in a total noncommutative target phase space. Three models are investigated: open strings, open strings between two parallel [Formula: see text] branes and closed ones. This leads to a generalization of the oscillators algebra of the string and the corresponding Virasoro algebra. The mass operator is no more diagonal in the ordinary Fock space, a redefinition of this later will modify the mass spectrum, so that, neither massless vector state nor massless tensor stat… Show more

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Cited by 5 publications
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“…Therefore, the present of the angular deficit parameter defines the curvature of the spacetime [18] and thus leads to the shift of the energy levels. The topological effect may cause changes in the gravitational field which invariably causes a change in the corresponding wave functions and energy levels .Finally, our result may find many applications in different fields of physics [29][30][31] Appendix A The NU method solves many linear second order differential equations by reducing them to a generalized equation of hypergeometric type. Here, instead of the original formulation, we use the parametric version which enables us to solve a second-order differential equation of the form [22][23]25,26] ( )…”
Section: Discussionmentioning
confidence: 99%
“…Therefore, the present of the angular deficit parameter defines the curvature of the spacetime [18] and thus leads to the shift of the energy levels. The topological effect may cause changes in the gravitational field which invariably causes a change in the corresponding wave functions and energy levels .Finally, our result may find many applications in different fields of physics [29][30][31] Appendix A The NU method solves many linear second order differential equations by reducing them to a generalized equation of hypergeometric type. Here, instead of the original formulation, we use the parametric version which enables us to solve a second-order differential equation of the form [22][23]25,26] ( )…”
Section: Discussionmentioning
confidence: 99%