1975
DOI: 10.1007/bf01614094
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The significance of conformal inversion in quantum field theory

Abstract: The 2-point functions of Euclidean conformal invariant quantum field theory are looked at as intertwining kernels of the conformal group. In this analysis a fundamental role is played by a ·two-element group W, whose non-identity element fR. = R•I consists of the conformal inversion R multiplied by a space-time reflection I. The propagators of conformal invariant quantum field theory are determined by the requirement of02-covariance. The importance of the at-inversion in the theory of Zeta-functions is mention… Show more

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Cited by 42 publications
(50 citation statements)
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“…One is a method called the Euclidean connection developed by Alhassid and his collaborators [17,[23][24][25], which is based on group contractions and expansions, and the other is a method developed by Kerimov [26] (see also [27,28]), which is based on intertwining operators between Weyl equivalent principal series representations of dynamical groups. Since it is already known in the context of both CFT [29] and AdS/CFT correspondence [30] that two-point functions can be regarded as kernels of intertwining operators between two representations of conformal group conjugate with each other by Weyl reflection, it is natural to expect that one can also formulate purely algebraic methods to compute momentum-space CFT two-point functions along the line of Kerimov's method. We would like to leave this issue for future studies.…”
Section: Conclusion and Discussionmentioning
confidence: 99%
“…One is a method called the Euclidean connection developed by Alhassid and his collaborators [17,[23][24][25], which is based on group contractions and expansions, and the other is a method developed by Kerimov [26] (see also [27,28]), which is based on intertwining operators between Weyl equivalent principal series representations of dynamical groups. Since it is already known in the context of both CFT [29] and AdS/CFT correspondence [30] that two-point functions can be regarded as kernels of intertwining operators between two representations of conformal group conjugate with each other by Weyl reflection, it is natural to expect that one can also formulate purely algebraic methods to compute momentum-space CFT two-point functions along the line of Kerimov's method. We would like to leave this issue for future studies.…”
Section: Conclusion and Discussionmentioning
confidence: 99%
“…In ordinary conformal field theory in d dimensions, a comprehensive discussion of the building blocks for the two-and three-point correlation functions of primary fields was given by Osborn and Petkou [23] who built on the earlier works by Mack [24] and others [25][26][27][28][29][30]. Their analysis was extended to superconformal field theories formulated in superspace by Osborn and Park [21,[31][32][33].…”
Section: Two-point Functionsmentioning
confidence: 99%
“…Such superfields are defined on a supersymmetric subspace of M 3|6 × CP 1 known as the analytic subspace. It is parametrised by coordinates 27) while the harmonic derivative ∂ ++ acquires additional terms…”
Section: Jhep08(2015)125mentioning
confidence: 99%
“…It is widely recognized that, up to a few numerical factors, two-point functions for primary operators of conformal field theory (CFT) are completely determined through the SO (2, d) conformal symmetry in any spacetime dimension d ≥ 1. However, it is less recognized-or generally unappreciated except to experts [1][2][3][4]-that two-point functions in CFT have special representation-theoretic meanings: they are the integral kernels of intertwining operators for two equivalent representations of conformal algebra so (2, d). Namely, once given a two-point function for a primary operator of scaling dimension ∆, we can construct an operator G ∆ which maps a primary state of scaling dimension d − ∆ to another primary state of scaling dimension ∆.…”
Section: Introductionmentioning
confidence: 99%
“…Namely, once given a two-point function for a primary operator of scaling dimension ∆, we can construct an operator G ∆ which maps a primary state of scaling dimension d − ∆ to another primary state of scaling dimension ∆. 1 Such operator G ∆ -the intertwining operator-satisfies the following commutative diagram and operator identities (intertwining relations):…”
Section: Introductionmentioning
confidence: 99%