Duality-symmetric D3-brane action with twisted self-dual 2-form doublet
Pichet Vanichchapongjaroen

TL;DR
This paper constructs a duality-symmetric D3-brane action in four dimensions using the Sen formalism, incorporating twisted self-duality and $SL(2, ext{R})$ symmetry, with detailed analysis of symmetries and Hamiltonian structure.
Contribution
It applies the Sen formalism to develop a non-linear, duality-symmetric D3-brane action coupled to supergravity, including potential terms and symmetry analysis.
Findings
Successfully constructs the $SL(2, ext{R})$ duality-symmetric D3-brane action.
Shows the decoupling of physical and unphysical sectors at equations of motion and Hamiltonian levels.
Demonstrates the presence of symmetries such as diffeomorphism and kappa symmetry in the action.
Abstract
In this paper we apply the Sen formalism, which is originally developed for chiral form fields, to construct non-linear duality-symmetric actions in four dimensions. The non-linear actions contain a potential term whose allowed form satisfies a condition arising from a requirement that twisted self-duality condition of the theory is equivalent to a constitutive relation. This condition can be perturbatively solved to obtain the potential term. In special cases such as DBI theory or D3-brane, the potential term has a closed form. In particular, we construct the duality-symmetric D3-brane action coupled to the type IIB supergravity background in the Sen formalism Key features of the Sen formalism are also present in the duality-symmetric actions. For example, there are unphysical fields with the wrong sign of kinetic terms. These fields are uncoupled…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Noncommutative and Quantum Gravity Theories · Algebraic structures and combinatorial models
