Thermodynamics of D0-branes in matrix theory
arXiv:hep-th/9810170 · doi:10.1016/S0370-2693(98)01434-8
Abstract
We examine the matrix theory representation of D0-brane dynamics at finite temperature. In this case, violation of supersymmetry by temperature leads to a non-trivial static potential between D0-branes at any finite temperature. We compute the static potential in the 1-loop approximation and show that it is short-ranged and attractive. We compare the result with the computations in superstring theory. We show that thermal states of D0-branes can be reproduced by matrix theory only when certain care is taken in integration over the moduli space of classical solutions in compactified time.
13 pages, 1 figure
References in corpus (1)
Cited by in corpus (16)
- Extracting black hole physics from the lattice
- Phase structure of matrix quantum mechanics at finite temperature
- A note on supersymmetric Yang-Mills thermodynamics
- Emergent Cosmology from Matrix Theory
- String Theory in Electromagnetic Fields
- Free Energy and Phase Transition of the Matrix Model on a Plane-Wave
- Thermodynamic Partition Function of Matrix Superstrings
- Dynamical aspects of the plane-wave matrix model at finite temperature
- Exact fuzzy sphere thermodynamics in matrix quantum mechanics
- Strings at Finite Temperature: Wilson Lines, Free Energies, and the Thermal Landscape
- Warm p-soup and near extremal black holes
- Screening and D-brane Dynamics in Finite Temperature Superstring Theory
- Thermodynamic Behavior of Fuzzy Membranes in PP-Wave Matrix Model
- Ten Dimensional Black Hole and the D0-brane Threshold Bound State
- Non-perturbative Thermodynamics in Matrix String Theory
- DLCQ strings and branched covers of torii