Conformal invariance of antisymmetric tensor field theories in any even dimension
Jean Thierry-Mieg, Peter D. Jarvis

TL;DR
This paper classifies all flat-space massless conformally invariant tensor field theories in even dimensions, extending known models and introducing new classes of self-dual tensor theories that couple to chiral fermions.
Contribution
It systematically classifies conformally invariant massless tensor theories in any even dimension and constructs new classes of self-dual tensor models that are conformally invariant.
Findings
Scalar and spinor invariance in all dimensions
Gauge p-tensor invariance only in 2p+2 dimensions
New conformally invariant self-dual tensor classes in even dimensions
Abstract
Using a theorem of Jackiw and Pi expressing the delicate balance of the spin and the orbital momentum, we systematically classify the flat-space massless Lagrangian quantum field theories that are invariant under the global conformal group SO(D,2). We recover in a uniform way the facts that scalars and spinors are invariant in any dimension, and that gauge p-tensors are invariant only in 2 p + 2 dimensions. This case includes the Maxwell theory in 4 dimensions and the Kalb-Ramond 2-forms theory in 6 dimensions. We then construct two new classes of Lagrangians extending the Avdeev-Chizhov self-dual tensor model to higher dimensions, one class using a symmetric metric and the other a skew metric in internal space. Finally, we prove in the same uniform way that both classes are conformal invariant in any even dimension. In 4 dimensions, these self-dual tensors naturally couple to the…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Noncommutative and Quantum Gravity Theories · Cosmology and Gravitation Theories
