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

APS

Counterfactual Assessment of The Quantum Zeno Effect

Onofrio L. Russo, Oktay H. Gokce

Published Jan 1, 2019• 0 citations
OpenAlex

Related papers

Counterfactual Measurements and the Quantum Zeno Effect

Onofrio L. Russo, Liang Jiang

Bulletin of the American Physical Society•Mar 3, 2014•0 citations

Counterfactual Assessment of Decoherence in Quantum Systems

Onofrio L. Russo, Liang Jiang

Bulletin of the American Physical Society•Mar 19, 2013•0 citations

High‐Efficiency Weak‐Trace‐Free Counterfactual Communication Via Quantum Zeno Effect

Tianyi Xing, Anqi Huang, Yizhi Wang +10 more

ABSTRACT The quantum Zeno effect, which inhibits quantum state evolution via repeated weak measurements, significantly enhances the efficiency of interaction‐free measurement (IFM). This fundamental mechanism facilitates high‐efficiency counterfactual quantum communication, enabling information delivery without particle transmission through the channel. However, the transmission time of the counterfactual communication requires minutes for bit and suffers the bit error when transmitting an image. Applying the quantum Zeno effect, we experimentally demonstrate high‐efficiency weak‐trace‐free counterfactual communication on a quantum photonic chip, achieving a transmission probability of 74.2 1.6% for bit 0 and 85.1 1.3% for bit 1. Furthermore, we successfully transmit our group's logo – Quanta – through counterfactual communication, and reduce the time cost from minutes to seconds for bit, with zero bit errors after information processing. Our study provides a promising approach for secure and efficient communication using integrated silicon quantum photonics.

arXiv:2509.01074•Laser & Photonics Review•Mar 23, 2026•0 citations

Understanding the quantum Zeno effect

Hiromichi Nakazato, Mikio Namiki, Saverio Pascazio +1 more

arXiv:quant-ph/9605008•Physics Letters A•Jul 1, 1996•56 citations

Direct counterfactual communication via quantum Zeno effect

Yuan Wen Cao, Yu-Huai Li, Zhu Cao +7 more

110:170502], quantum mechanics was found to allow for communication, even without the actual transmission of physical particles. From the viewpoint of communication, this mystery stems from a (nonintuitive) fundamental concept in quantum mechanics-wave-particle duality. All particles can be described fully by wave functions. To determine whether light appears in a channel, one refers to the amplitude of its wave function. However, in counterfactual communication, information is carried by the phase part of the wave function. Using a single-photon source, we experimentally demonstrate the counterfactual communication and successfully transfer a monochrome bitmap from one location to another by using a nested version of the quantum Zeno effect.

Proceedings of the National Academy of Sciences•Apr 25, 2017•95 citations

Quantum Zeno effect by general measurements

Kazuki Koshino, Akira Shimizu

arXiv:quant-ph/0411145•Physics Reports•Apr 27, 2005•224 citations
ABSTRACT The quantum Zeno effect, which inhibits quantum state evolution via repeated weak measurements, significantly enhances the efficiency of interaction‐free measurement (IFM). This fundamental mechanism facilitates high‐efficiency counterfactual quantum communication, enabling information delivery without particle transmission through the channel. However, the transmission time of the counterfactual communication requires minutes for bit and suffers the bit error when transmitting an image. Applying the quantum Zeno effect, we experimentally demonstrate high‐efficiency weak‐trace‐free counterfactual communication on a quantum photonic chip, achieving a transmission probability of 74.2 1.6% for bit 0 and 85.1 1.3% for bit 1. Furthermore, we successfully transmit our group's logo – Quanta – through counterfactual communication, and reduce the time cost from minutes to seconds for bit, with zero bit errors after information processing. Our study provides a promising approach for secure and efficient communication using integrated silicon quantum photonics.
110:170502], quantum mechanics was found to allow for communication, even without the actual transmission of physical particles. From the viewpoint of communication, this mystery stems from a (nonintuitive) fundamental concept in quantum mechanics-wave-particle duality. All particles can be described fully by wave functions. To determine whether light appears in a channel, one refers to the amplitude of its wave function. However, in counterfactual communication, information is carried by the phase part of the wave function. Using a single-photon source, we experimentally demonstrate the counterfactual communication and successfully transfer a monochrome bitmap from one location to another by using a nested version of the quantum Zeno effect.