We prove, for any state in a conformal field theory defined on a set of boundary manifolds with corresponding classical holographic bulk geometry, that for any bipartition of the boundary into two non-clopen sets, the density matrix cannot be a tensor product of the reduced density matrices on each region of the bipartition. In particular, there must be entanglement across the bipartition surface. We extend this no-go theorem to general, arbitrary partitions of the boundary manifolds into non-clopen parts, proving that the density matrix cannot be a tensor product. This result gives a necessary condition for states to potentially correspond to holographic duals
We investigate the extension of a holographic construction for the entanglement negativity of two di...
Abstract We study bulk entanglement entropy in even spacetime dimensions using the heat kernel metho...
Abstract We investigate the quantum null energy condition (QNEC) in holographic CFTs, focusing on ha...
We prove, for any state in a conformal field theory defined on a set of boundary manifolds with corr...
We study real-space quantum entanglement included in conformally invariant boundary states in confor...
We study entanglement entropy (EE) in conformal field theories (CFTs) in Minkowski space with a plan...
Abstract: We identify conditions for the entanglement entropy as a function of spatial region to be ...
International audienceIn quantum field theories defined on a space-time with boundaries, the entangl...
We propose a covariant holographic conjecture for the entanglement negativity of bipartite mixed sta...
In many physical scenarios, close relations between the bulk properties of quantum systems and theor...
We explore interfaces and junctions joining multiple two-dimensional conformal field theories, with ...
Quantum many-body systems have a rich structure in the presence of boundaries. We study the groundst...
Abstract: We study a number of (3 + 1)- and (2 + 1)-dimensional defect and boundary conformal field ...
Gapped two-dimensional topological phases can feature ungappable edge states which are robust even i...
We consider CFT states defined by adding nonlocal multi-trace sources to the Euclidean path integral...
We investigate the extension of a holographic construction for the entanglement negativity of two di...
Abstract We study bulk entanglement entropy in even spacetime dimensions using the heat kernel metho...
Abstract We investigate the quantum null energy condition (QNEC) in holographic CFTs, focusing on ha...
We prove, for any state in a conformal field theory defined on a set of boundary manifolds with corr...
We study real-space quantum entanglement included in conformally invariant boundary states in confor...
We study entanglement entropy (EE) in conformal field theories (CFTs) in Minkowski space with a plan...
Abstract: We identify conditions for the entanglement entropy as a function of spatial region to be ...
International audienceIn quantum field theories defined on a space-time with boundaries, the entangl...
We propose a covariant holographic conjecture for the entanglement negativity of bipartite mixed sta...
In many physical scenarios, close relations between the bulk properties of quantum systems and theor...
We explore interfaces and junctions joining multiple two-dimensional conformal field theories, with ...
Quantum many-body systems have a rich structure in the presence of boundaries. We study the groundst...
Abstract: We study a number of (3 + 1)- and (2 + 1)-dimensional defect and boundary conformal field ...
Gapped two-dimensional topological phases can feature ungappable edge states which are robust even i...
We consider CFT states defined by adding nonlocal multi-trace sources to the Euclidean path integral...
We investigate the extension of a holographic construction for the entanglement negativity of two di...
Abstract We study bulk entanglement entropy in even spacetime dimensions using the heat kernel metho...
Abstract We investigate the quantum null energy condition (QNEC) in holographic CFTs, focusing on ha...