Gauge Covariant Link Formulation of Twisted N=D=4 and N=4 D=5 Super Yang-Mills on a Lattice
Alessandro D'Adda, Noboru Kawamoto, Jun Saito, Kazuhiro Nagata

TL;DR
This paper develops a gauge covariant lattice formulation of four-dimensional N=4 super Yang-Mills theory with twisted supersymmetry, ensuring invariance and addressing fermion issues, and extends it to five dimensions.
Contribution
It introduces a novel gauge covariant link formulation for twisted N=4 super Yang-Mills on a lattice, extending previous methods and providing a five-dimensional lift.
Findings
Super Yang-Mills action is invariant under all supercharges on the lattice.
The formulation addresses chiral fermion problems.
A five-dimensional extension with exact supersymmetry is constructed.
Abstract
We propose a lattice formulation of four dimensional super Yang-Mills model with a twisted N=4 supersymmetry in a manifestly gauge covariant manner. The formulation we employ here is a four dimensional extension of the manifestly gauge covariant method which was developed in our proposals of Dirac-Kahler twisted N=D=2 and N=4 D=3 super Yang-Mills on a lattice. Twisted N=4 supersymmetry algebra is geometrically realized on a four dimensional lattice with link supercharges and the use of link (anti-)commutators. Employing Grassmann parameters with link nature, we explicitly show that the resulting super Yang-Mills action is invariant under all the supercharges on a lattice without chiral fermion problems. As a group and algebraic interpretation of the link approach, we show that promoting bosonic supercovariant derivatives to their exponentials consistently with the lattice Leibniz rule…
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Taxonomy
TopicsParticle Accelerators and Free-Electron Lasers · Superconducting Materials and Applications · Particle accelerators and beam dynamics
