Sub-AdS scales are mapped to sub-stacks of M < N D-branes, yielding a scale-dependent central charge c(R0) = (R0/L)^{d+q-1} c(L), with consistency checks from small black holes and Dp-brane theories.
Matrix Entanglement
1 Pith paper cite this work. Polarity classification is still indexing.
abstract
In gauge/gravity duality, matrix degrees of freedom on the gauge theory side play important roles for the emergent geometry. In this paper, we discuss how the entanglement on the gravity side can be described as the entanglement between matrix degrees of freedom. Our approach, which we call 'matrix entanglement', is different from 'target-space entanglement' proposed and discussed recently by several groups. We consider several classes of quantum states to which our approach can play important roles. When applied to fuzzy sphere, matrix entanglement can be used to define the usual spatial entanglement in two-brane or five-brane world-volume theory nonperturbatively in a regularized setup. Another application is to a small black hole in AdS5*S5 that can evaporate without being attached to a heat bath, for which our approach suggests a gauge theory origin of the Page curve. The confined degrees of freedom in the partially-deconfined states play the important roles.
citation-role summary
citation-polarity summary
fields
hep-th 1years
2024 1verdicts
CONDITIONAL 1roles
background 1polarities
unclear 1representative citing papers
citing papers explorer
-
A Central Charge for sub-AdS Holography
Sub-AdS scales are mapped to sub-stacks of M < N D-branes, yielding a scale-dependent central charge c(R0) = (R0/L)^{d+q-1} c(L), with consistency checks from small black holes and Dp-brane theories.