Electrodynamics On Matrix Space: Non-Abelian By Coordinates
Amir H. Fatollahi

TL;DR
This paper explores the dynamics of particles with matrix-valued coordinates in a non-commutative space, connecting matrix space physics with non-Abelian gauge theories and D0-brane phenomenology.
Contribution
It derives Lorentz equations for matrix coordinates and discusses the non-Abelian transformation properties of gauge potentials and field strengths.
Findings
Matrix coordinates induce non-Abelian gauge transformations.
Derived Lorentz equations for matrix-valued particles.
Discussed phenomenological implications for D0-brane bound states.
Abstract
We consider the dynamics of a charged particle in a space whose coordinates are hermitian matrices. Putting things in the framework of D0-branes of String Theory, we mention that the transformations of the matrix coordinates induce non-Abelian transformations on the gauge potentials. The Lorentz equations of motion for matrix coordinates are derived, and it is observed that the field strengths also transform like their non-Abelian counterparts. The issue of the map between theory on matrix space and ordinary non-Abelian gauge theory is discussed. The phenomenological aspect of "finite-N non-commutativity" for the bound states of D0-branes appears to be very attractive.
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