Formulation of Free Higher Spin Supersymmetric Theories in Superspace
J. Phillips

TL;DR
This thesis formulates free higher spin superfield theories in four-dimensional superspace, exploring their geometrical structure, superspin classifications, and connections to five-dimensional theories, including new insights into superspace Casimir operators.
Contribution
It provides the first superfield actions for massive higher spin multiplets and introduces the super projector method to analyze superspace geometries and their relation to higher-dimensional theories.
Findings
Superfield actions for massless and massive higher spin supermultiplets are constructed.
The super projector method clarifies the geometrical structure of superspace actions.
New superspace Casimir operators for anti-de Sitter backgrounds are derived.
Abstract
The N = 1 superfield formalism in four-dimensions is well formulated and understood, yet there remain unsolved problems. In this thesis, superfield actions for free massless and massive higher spin superfield theories are formulated in four dimensions. The discussion of massless models is restricted to half integer superhelicity. These models describe multiplets with helicities (s, s-1/2) where s is an integer. The investigation of massive models covers recent work on superspin-3/2 and superspin-1 multiplets. Superspin-3/2 multiplets contain component fields with spins (2, 3/2, 3/2, 1) and superspin-1 multiplets contain component fields with spins (3/2, 1, 1, 1/2). The super projector method is used to distinguish supersymmetric subspaces. Here, this method is used to write general superspace actions. The underlying geometrical structure of superspace actions is elucidated when they are…
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Taxonomy
TopicsPhysics of Superconductivity and Magnetism · Quantum Chromodynamics and Particle Interactions · Black Holes and Theoretical Physics
