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

Using Laser to Achieve Faster-Than-Light Communication

CuiHaiLong

Published Sep 1, 2019• 0 citations
OpenAlex

Abstract

using the coherence of laser, superluminal quantum communication is realized at long distance, which opens up a new era of communication.

Related papers

Using Laser to Realize Quantum Communication

CuiHaiLong

using the coherence of laser, superluminal quantum communication is realized at long distance, which opens up a new era of communication.

•Sep 1, 2019•0 citations

Comments on a recent proposal of superluminal communication

G. C. Ghirardi

We analyze critically a recent proposal of faster than light communication.

arXiv:1411.0893•Nov 4, 2014•4 citations

A New Quantum Protocol for Superluminal Classical Communication leading to Superluminal Teleportation

Quantum Physics Letters•Apr 1, 2023•0 citations

Principle and method of faster-than-light quantum communication

Ji-Yuan Gu, Pei Dong, Bao-Guo Dong

Aiming at the challenge of possibility and feasibility of the faster-than-light quantum communication, the principle is based on the microscopic mass-energy systems correlating with spacetime model and the mass-energy spacetime correlation interactions, we present a kind of possible faster-than-light quantum communication mechanism and its feasible working mode, namely via the microscopic mass-energy systems composed of two quantum entanglement particles correlate with spacetime, to solve the mechanism of transmitting its interactions, combine the nonlocality and quantum operability of quantum entanglements, and add the orderly storage working mode of entanglement particle pairs, with the correlating states between entanglement particle pairs correspond and convert into information encoding, namely could realize the long-distance real-time dynamical information exchange, linking-acting and communication, it also can be referred to as the faster-than-light quantum communication. In this communication procedure, to utilize the long-distance real-time dynamical linking-acting effects of quantum entanglement particles, no need of interaction propagators, directly create and carry out interactions, nonuse any carrier of transmitting information, there is no object in existence to need motion at all, naturally no the limit of speed of light also, therefore, such kind of communication mode is feasible in scientific principles, the presented communication method is feasible technologically. Such kind of communication method, no need of the realized conditions and related complicated systems of the information channels and information transmission carriers of common quantum teleportation systems, just can realize the working and operating mode of noninterference at all, unable interception, unable shield, absolute secrecy, faster-than-light, and the long-distance real-time quantum communication and remote control, which also can make its actual application in technology and engineering become feasible. That can be used in the environmental conditions that the existing communication and remote control technology can not apply or difficultly, for example deep stratum, deep sea, deep space, remote mountains, dangerous zone etc. Any other method can not realize the long-distance real-time communication and remote control.

•Jun 23, 2026•0 citations

Super Distance Communication with Quantum Entanglement

楷 袁

HANS Publication PrePrints•Jan 1, 2017•0 citations

Experimental Test of the No-Signaling Theorem

Tiziano De Angelis, Eleonora Nagali, Fabio Sciarrino +1 more

In 1981 N. Herbert proposed a gedanken experiment in order to achieve by the "First Laser-Amplified Superluminal Hookup" (FLASH) a faster-than-light (FTL) communication by quantum nonlocality. The present work reports the first experimental realization of that proposal by the optical parametric amplification of a single photon belonging to an entangled EPR pair into an output field involving N=5 x 10{3} photons. A theoretical and experimental analysis explains in general and conclusive terms the precise reasons for the failure of the FLASH program as well as of any similar FTL proposals.

arXiv:0705.1898•Physical Review Letters•Nov 7, 2007•14 citations
Aiming at the challenge of possibility and feasibility of the faster-than-light quantum communication, the principle is based on the microscopic mass-energy systems correlating with spacetime model and the mass-energy spacetime correlation interactions, we present a kind of possible faster-than-light quantum communication mechanism and its feasible working mode, namely via the microscopic mass-energy systems composed of two quantum entanglement particles correlate with spacetime, to solve the mechanism of transmitting its interactions, combine the nonlocality and quantum operability of quantum entanglements, and add the orderly storage working mode of entanglement particle pairs, with the correlating states between entanglement particle pairs correspond and convert into information encoding, namely could realize the long-distance real-time dynamical information exchange, linking-acting and communication, it also can be referred to as the faster-than-light quantum communication. In this communication procedure, to utilize the long-distance real-time dynamical linking-acting effects of quantum entanglement particles, no need of interaction propagators, directly create and carry out interactions, nonuse any carrier of transmitting information, there is no object in existence to need motion at all, naturally no the limit of speed of light also, therefore, such kind of communication mode is feasible in scientific principles, the presented communication method is feasible technologically. Such kind of communication method, no need of the realized conditions and related complicated systems of the information channels and information transmission carriers of common quantum teleportation systems, just can realize the working and operating mode of noninterference at all, unable interception, unable shield, absolute secrecy, faster-than-light, and the long-distance real-time quantum communication and remote control, which also can make its actual application in technology and engineering become feasible. That can be used in the environmental conditions that the existing communication and remote control technology can not apply or difficultly, for example deep stratum, deep sea, deep space, remote mountains, dangerous zone etc. Any other method can not realize the long-distance real-time communication and remote control.
In 1981 N. Herbert proposed a gedanken experiment in order to achieve by the "First Laser-Amplified Superluminal Hookup" (FLASH) a faster-than-light (FTL) communication by quantum nonlocality. The present work reports the first experimental realization of that proposal by the optical parametric amplification of a single photon belonging to an entangled EPR pair into an output field involving N=5 x 10{3} photons. A theoretical and experimental analysis explains in general and conclusive terms the precise reasons for the failure of the FLASH program as well as of any similar FTL proposals.