2003
DOI: 10.1016/j.physrep.2003.09.002
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Heat kernel expansion: user's manual

Abstract: The heat kernel expansion is a very convenient tool for studying one-loop divergences, anomalies and various asymptotics of the effective action. The aim of this report is to collect useful information on the heat kernel coefficients scattered in mathematical and physical literature. We present explicit expressions for these coefficients on manifolds with and without boundaries, subject to local and non-local boundary conditions, in the presence of various types of singularities (e.g., domain walls). In each c… Show more

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Cited by 999 publications
(1,527 citation statements)
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References 435 publications
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“…In particular, a 0 (x, y) does not depend on ξ. It is reassuring to note that our (diagonal) a 2 (y) coincides 5 with the one quoted in [18]. In turn, this also provides an indirect check for the (non-diagonal) coefficient a 1 (x, y).…”
Section: Solution To the Recursion Relations Of The Heat Equation In supporting
confidence: 79%
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“…In particular, a 0 (x, y) does not depend on ξ. It is reassuring to note that our (diagonal) a 2 (y) coincides 5 with the one quoted in [18]. In turn, this also provides an indirect check for the (non-diagonal) coefficient a 1 (x, y).…”
Section: Solution To the Recursion Relations Of The Heat Equation In supporting
confidence: 79%
“…Of course, heat kernel and zeta function methods have been used long before in many different ways in quantum field theory on curved spacetimes, see e.g. [3,14,15,16,17] and in particular the review [18], book [13] and references therein.…”
Section: The Area Dependencementioning
confidence: 99%
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“…K (2) ρ=0 = 1.45 and K (2) ρ=1 = 1.83. 13 In presence of both UV an IR BKTs, ΩI = log(kz)+r I 0 V +r I 0 +r I 1 for ++ gauge fields. 14 Deviations from UV localization lead to non-oblique operators for heavy fermions, such as anomalous Zbb couplings that we do not discuss in this paper.…”
Section: Jhep03(2014)102mentioning
confidence: 99%