2010
DOI: 10.1088/1751-8113/43/42/425401
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On non-commutativeU(1) gauge models and renormalizability

Abstract: Based on our recent findings regarding (non-)renormalizability of non-commutative U⋆(1) gauge theories [1, 2] we present the construction of a new type of model. By introducing a soft-breaking term in such a way that only the bilinear part of the action is modified, no interaction between the gauge sector and auxiliary fields occurs. Demanding in addition that the latter form BRST doublet structures, this leads to a minimally altered non-commutative U⋆(1) gauge model featuring an IR damping behavior. Moreover,… Show more

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Cited by 24 publications
(37 citation statements)
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“…The latter was implemented for the scalar field theory in [13]. Several generalizations were studied for the gauge fields, for example models defined in [33,34] and [36,37]; however, the complexity of the actions prevented the complete analysis so it remains unclear which nonlocal operators could render the gauge theory renormalizable. Our present result shows that −1 terms appear in quantization even in a local version of gauge theory.…”
Section: Discussionmentioning
confidence: 99%
“…The latter was implemented for the scalar field theory in [13]. Several generalizations were studied for the gauge fields, for example models defined in [33,34] and [36,37]; however, the complexity of the actions prevented the complete analysis so it remains unclear which nonlocal operators could render the gauge theory renormalizable. Our present result shows that −1 terms appear in quantization even in a local version of gauge theory.…”
Section: Discussionmentioning
confidence: 99%
“…Informally, this framework amounts (among other tasks) to represent the abstract involutive algebras of operators stemming from the above mentioned coordinate algebras on well chosen involutive algebras of functions equipped with a deformed product, i.e star-product, which can be achieved through the introduction of some suitable (invertible) quantization map. One well-known example heavily used in earlier studies of quantum properties of NCFT on Moyal spaces [31][32][33] (for a review on gauge theories on Moyal spaces see [34]; families of star products on the Moyal space R 4 θ have been constructed in [35]) is the Weyl quantization map, linked to the Wigner-Weyl transform, giving rise to the Moyal product. Other star-products related to κ-Minkowski spaces as well as deformations of R 3 with su(2) noncommutativity have also appeared and used to construct and study NCFT on these spaces [36][37][38][39][40][41][42][43][44][46][47][48] (for a general construction see [45]).…”
Section: Jhep07(2017)116mentioning
confidence: 99%
“…Unfortunately, its complicated vacuum structure explored in [36,37] forbids the use of any standard perturbative treatment. 1 Alternative based on the implementation of a IR damping mechanism have been proposed and studied [39][40][41][42]. Although this damping mechanism is appealing, it is not known if it can produce a renormalisable gauge theory on R 4 θ .…”
Section: Jhep12(2015)045mentioning
confidence: 99%