The quantum break-time of a system is the time-scale after which its true quantum evolution
departs from the classical mean field evolution. For capturing it, a quantum resolution of the …

We review some features of Bose–Einstein condensate (BEC) models of black holes
obtained by means of the horizon wave function formalism. We consider the Klein–Gordon …

Systems of enhanced memory capacity are subjected to a universal effect of memory
burden, which suppresses their decay. In this paper, we study a prototype model to show …

We argue that near-future detections of gravitational waves from merging black hole binaries
can test a long-standing proposal, originally due to Bekenstein and Mukhanov, that the …

We study the corpuscular model of an evaporating black hole consisting of a specific
quantum state for a large number N of self-confined bosons. The single-particle spectrum …

We establish a fundamental connection between quantum criticality of a many-body system,
such as Bose-Einstein condensates, and its capacity of information-storage and processing …

We study equilibrium configurations of a homogenous ball of matter in a bootstrapped
description of gravity which includes a gravitational self-interaction term beyond the …

Classicalization is a phenomenon by which a theory shields itself from the strong coupling
regime by redistributing a high energy of few initial hard quanta among many weakly …

Recent ideas about understanding physics of black hole information-processing in terms of
quantum criticality allow us to implement black hole mechanisms of quantum computing …

By analyzing the key properties of black holes from the point of view of quantum information,
we derive a model‐independent picture of black hole quantum computing. It has been …