2002
DOI: 10.1103/physrevd.65.085017
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General structure of the photon self-energy in noncommutative QED

Abstract: We study the behavior of the photon two point function, in non-commutative QED, in a general covariant gauge and in arbitrary space-time dimensions. We show, to all orders, that the photon self-energy is transverse. Using an appropriate extension of the dimensional regularization method, we evaluate the one-loop corrections, which show that the theory is renormalizable. We also prove, to all orders, that the poles of the photon propagator are gauge independent and briefly discuss some other related aspects.

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Cited by 29 publications
(55 citation statements)
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“…Clearly the above structure is much more reacher with respect to earlier θ-exact without SW map results [54,56]. Each of B…”
Section: Photon Two-point Function: Photon-loopmentioning
confidence: 56%
“…Clearly the above structure is much more reacher with respect to earlier θ-exact without SW map results [54,56]. Each of B…”
Section: Photon Two-point Function: Photon-loopmentioning
confidence: 56%
“…(3.5). This result already takes into account that pieces containing less than two Bose distributions vanish in dimensional regularization [8]. Of course there is no need to keep an arbitrary d in Eq.…”
Section: The Lowest Order Contributions To the Free Energymentioning
confidence: 76%
“…The (T = 0) pieces yield a zero result in the dimensionally regularized momentum integral [8] so that we may replace the sums in Eqs. (4.24a), (4.24b), (4.24c) and (4.24d) by the first terms in Eqs.…”
Section: The Three-loops Contributionsmentioning
confidence: 99%
“…If one calls the non-commutativity parameter θ, so that two spatial coordinates x, y satisfy the relation [x, y] = iθ, one would expect ordinary commutative space to emerge in the limit θ → 0. In many field theoretical and quantum mechanical problems, however, the passage from the non-commutative space to its commutative limit has not appeared to be smooth [9]- [12]. The literature is replete with expressions where θ appears in the denominator.…”
mentioning
confidence: 99%