Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Physics Today

Negotiating the Tricky Border Between Quantum and Classical

James Lee Anderson, G. C. Ghirardi, Renata Grassi, Philip Pearle, Nicolas Gisin, David Z. Albert, Gerald Feinberg, Peter Holland, Vinay Ambegaokar, Kenneth J. Epstein, Wojciech Hubert Zurek

Published Apr 1, 1993• 56 citations
Publisher
DOI
10.1063/1.2808860

Related papers

Alternative Quantum Formulations and Systems at the Classical-Quantum Border

R. Vilela Mendes

Springer proceedings in mathematics & statistics•Jan 1, 2021•0 citations

Bridging the Quantum-Classical Divide

Springer eBooks•Nov 13, 2007•0 citations

The impact of honesty and trickery on a Bayesian quantum prisoners’ dilemma game*

Boyang Liu, Xin Bing Zhao, Hong‐Yi Dai +4 more

To explore the influence of quantum information on the common social problem of honesty and trickery, we propose a Bayesian model for the quantum prisoners’ dilemma game. In this model, the players’ strategy formation is regarded as a negotiation of their move contract based on their types of decision policies, honesty or trickery. Although the implementation of quantum information cannot eliminate tricky players, players in our model can always end up with higher payoffs than in the classical game. For a good proportion of a credibility parameter value, a rational player will take an honest action, which is in remarkable contrast to the observation that players tend to defect in the classical prisoners’ dilemma game. This research suggests that honesty will be promoted to enhance cooperation with the assistance of quantum information resources.

Chinese Physics B•Apr 23, 2020•3 citations

Classical Limit, Quantum Border and Energy

A.M. Kowalski, Angelo Plastino, Gaspar Gonzalez

We analyze the (dynamical) classic limit of a special semiclassical system. We describe the interaction of a quantum system with a classical one. This limit has been well studied before as a function of a constant of motion linked to the Heisenberg principle. In this paper, we investigate the existence of the mentioned limit, but with reference to the total energy of the system. Additionally, we find an attractive result regarding the border of the transition.

Physics•Jul 26, 2023•1 citation

Navigating Between the Classical and the Quantum Worlds

Selçuk Ş. Bayın

Springer eBooks•Jan 1, 2023•0 citations

Quantum populations near black-hole singularities

Ludwig Eglseer, Stefan Hofmann, Marc Schneider

Schwarzschild black-hole interiors border on spacelike singularities representing classical information leaks. We show that local quantum physics is decoupled from these leaks due to dynamically generated boundaries, called Zeno borders. Beyond Zeno borders black-hole interiors become asymptotically silent, and quantum fields evolve freely toward the geodesic singularity with vanishing probability measure for populating the geodesic boundary. Thus Zeno borders represent a probabilistic completion of Schwarzschild black holes within the semiclassical framework.

arXiv:1710.07645•Physical review. D/Physical review. D.•Nov 11, 2021•6 citations
To explore the influence of quantum information on the common social problem of honesty and trickery, we propose a Bayesian model for the quantum prisoners’ dilemma game. In this model, the players’ strategy formation is regarded as a negotiation of their move contract based on their types of decision policies, honesty or trickery. Although the implementation of quantum information cannot eliminate tricky players, players in our model can always end up with higher payoffs than in the classical game. For a good proportion of a credibility parameter value, a rational player will take an honest action, which is in remarkable contrast to the observation that players tend to defect in the classical prisoners’ dilemma game. This research suggests that honesty will be promoted to enhance cooperation with the assistance of quantum information resources.
Schwarzschild black-hole interiors border on spacelike singularities representing classical information leaks. We show that local quantum physics is decoupled from these leaks due to dynamically generated boundaries, called Zeno borders. Beyond Zeno borders black-hole interiors become asymptotically silent, and quantum fields evolve freely toward the geodesic singularity with vanishing probability measure for populating the geodesic boundary. Thus Zeno borders represent a probabilistic completion of Schwarzschild black holes within the semiclassical framework.