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Gauged permutation invariant matrix quantum mechanics: Path Integrals
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abstract
We give a path integral construction of the quantum mechanical partition function for gauged finite groups. Our construction gives the quantization of a system of $d$, $N\times N$ matrices invariant under the adjoint action of the symmetric group $S_N$. The approach is general to any discrete group. For a system of harmonic oscillators, i.e. for the non-interacting case, the partition function is given by the Molien-Weyl formula times the zero-point energy contribution. We further generalise the result to a system of non-square and complex matrices transforming under arbitrary representations of the gauge group.
Forward citations
Cited by 3 Pith papers
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Negative heat capacities in spherically symmetric sectors of $d$-matrix quantum mechanics
SO(d) and O(d) invariant sectors of d-matrix QM show negative microcanonical heat capacity that becomes positive at k_crit ~ N^2/4, forming a caloric fold similar to AdS black holes.
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Gauged permutation invariant tensor quantum mechanics, least common multiples and the inclusion-exclusion principle
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Gram--Wishart--Stiefel formulation of the $N=2$, large--$d$ gauge theory in 1D
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