We study the growth of entanglement between two adjacent regions in a tripartite, one-dimensional many-body system after a quantum quench. Combining a replica trick with a space-time duality transformation, we derive an exact, universal relation between the entanglement negativity and Rényi-1/2 mutual information that holds at times shorter than the sizes of all subsystems. Our proof is directly applicable to any local quantum circuit, i.e., any lattice system in discrete time characterized by local interactions, irrespective of the nature of its dynamics. Our derivation indicates that such a relation can be directly extended to any system where information spreads with a finite maximal velocity
In this paper, we extract from concurrence its variable part, denoted $\Lambda$, and use $\Lambda$ a...
Squashed entanglement and its universal upper bound, the quantum conditional mutual information, are...
We explore quantum entanglement between two causally disconnected regions in the multiverse. We firs...
We study the growth of entanglement between two adjacent regions in a tripartite, one-dimensional ma...
We study the growth of entanglement between two adjacent regions in a tripartite, one-dimensional ma...
In a non-equilibrium many-body system, the quantum information dynamics between non-complementary re...
In a non-equilibrium many-body system, the quantum information dynamics between non-complementary re...
In a non-equilibrium many-body system, the quantum information dynamics between non-complementary re...
In a non-equilibrium many-body system, the quantum information dynamics between non-complementary re...
This thesis consolidates my research on several topics of quantum information. We start with an anal...
We study the time evolution of the logarithmic negativity after a global quantum quench. In a 1+1-di...
Squashed entanglement and its universal upper bound, the quantum conditional mutual information, are...
Squashed entanglement and its universal upper bound, the quantum conditional mutual information, are...
We explore quantum entanglement between two causally disconnected regions in the multiverse. We firs...
The process by which open quantum systems thermalize with an environment is both of fundamental inte...
In this paper, we extract from concurrence its variable part, denoted $\Lambda$, and use $\Lambda$ a...
Squashed entanglement and its universal upper bound, the quantum conditional mutual information, are...
We explore quantum entanglement between two causally disconnected regions in the multiverse. We firs...
We study the growth of entanglement between two adjacent regions in a tripartite, one-dimensional ma...
We study the growth of entanglement between two adjacent regions in a tripartite, one-dimensional ma...
In a non-equilibrium many-body system, the quantum information dynamics between non-complementary re...
In a non-equilibrium many-body system, the quantum information dynamics between non-complementary re...
In a non-equilibrium many-body system, the quantum information dynamics between non-complementary re...
In a non-equilibrium many-body system, the quantum information dynamics between non-complementary re...
This thesis consolidates my research on several topics of quantum information. We start with an anal...
We study the time evolution of the logarithmic negativity after a global quantum quench. In a 1+1-di...
Squashed entanglement and its universal upper bound, the quantum conditional mutual information, are...
Squashed entanglement and its universal upper bound, the quantum conditional mutual information, are...
We explore quantum entanglement between two causally disconnected regions in the multiverse. We firs...
The process by which open quantum systems thermalize with an environment is both of fundamental inte...
In this paper, we extract from concurrence its variable part, denoted $\Lambda$, and use $\Lambda$ a...
Squashed entanglement and its universal upper bound, the quantum conditional mutual information, are...
We explore quantum entanglement between two causally disconnected regions in the multiverse. We firs...