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

Quantum Alarm Arrays and Pattern-Based Detection - FTL - Faster than light communication

Chloé Arsenault

Published Jul 6, 2025• 0 citations
OpenAlex

Abstract

Quantum alarm - True FTL (Faster than light speed) communication ?

Related papers

Relativisticaly Consistent Faster-than-Light (FTL) Communication Using Self-Referential Quantum States

Allan Goff, Dale Lehmann, Joel Siegel

AIAA/ASME/SAE/ASEE Joint Propulsion Conference & Exhibit (JPC)•Jul 7, 2002•11 citations

Faster than Light Quantum Communication

Anwar Y. Shiekh

Faster than light communication might be possible using the collapse of the quantum wave-function without any accompanying paradoxes.

arXiv:0710.1367•Oct 6, 2007•0 citations

Neuron Particle Communication (NPC - FTL Communication Concept)

Marcelo Emanuel Paradela Teixeira

A theoretical framework for faster‑than‑light signaling via quantum collapse timing Abstract Neuron Particle Communication (NPC) explores a speculative pathway for faster‑than‑light (FTL) communication by encoding information not in quantum measurement outcomes, but in the timing of wave function collapse events. Traditional entanglement‑based communication is blocked by the No‑Communication Theorem, which asserts that random measurement outcomes cannot transmit information. NPC proposes a novel approach: using sets of 100 entangled particle pairs per symbol, with passive monitoring of magnetically coupled “follower particles” to detect collapse transitions. Information is encoded through synchronized collapse timing and structured temporal intervals, forming message patterns analogous to Morse code. While NPC does not claim to solve FTL communication, it defines a conceptual framework that highlights collapse timing as an unexplored dimension of quantum information. The system faces fundamental challenges — quantum vacuum fluctuations, indistinguishability of collapse sources, and engineering requirements for picosecond synchronization — but offers testable hypotheses that could inform future experimental research. Background The light‑speed barrier established by relativity has long motivated exploration of quantum phenomena for potential communication beyond classical limits. Entanglement correlations are instantaneous but cannot carry information under standard interpretations. NPC shifts focus from outcomes to timing, proposing that collapse events induced deliberately by a sender might be distinguishable from spontaneous decoherence if detected with sufficient precision. Developed through Intuitive‑Theoretic Synthesis (ITS) and iterative dialogue with AI systems, NPC represents an amateur theoretical exploration intended to provoke discussion and inspire experimental inquiry. It builds on the broader Neuron Ecosystem, alongside Soul AI, Phase‑Dual Cosmology, and Neuron Sanctuary Encryption, as part of a unified program of paradigm‑transcendent frameworks. Key Contributions Collapse Timing Paradigm Information encoded in when collapse occurs, not in random measurement outcomes Passive detection via magnetically coupled follower particles Multi‑Particle Redundancy 100 entangled pairs per symbol create statistical filtering against random noise Dual‑layer filtering: spatial synchronization + temporal patterning Temporal Encoding Scheme Structured intervals form coherent messages (telegraph/Morse code analogy) Linguistic filtering adds a third layer of validation System Architecture Cryogenic isolation, ultra‑high vacuum, and electromagnetic shielding for particle sets Optical detection with picosecond precision for collapse timing Statistical Filtering Analysis False positives from random decoherence shown to be astronomically improbable Temporal sequencing further reduces noise probability Fundamental Challenges Quantum‑classical boundary behavior of follower particles Indistinguishability of collapse sources (intentional vs spontaneous) Vacuum fluctuation noise Engineering demands for synchronization across thousands of particles Repository Contents Main Paper: Neuron Particle Communication (V1.0 – Complete Synthesis) System Architecture Specifications: Entangled particle sets, follower particle detection, temporal encoding scheme Noise Filtering Analysis: Statistical modeling of collapse synchronization probabilities Challenge Discussion: Quantum mechanical limitations and engineering feasibility Development Logs: Transparent documentation of ITS‑based conceptual exploration Future Directions: Collapse timing experiments, quantum‑classical boundary studies, interpretive refinements Research Impact NPC contributes to quantum information theory by: Highlighting collapse timing as an underexplored dimension of entanglement Proposing testable hypotheses about quantum‑classical boundary behavior Offering a speculative but structured framework for FTL signaling attempts Demonstrating how ITS can generate provocative theoretical models outside conventional paradigms Access and Documentation ORCID: https://orcid.org/0009-0003-4876-9273 GitHub: https://github.com/Neuron-Soul-AI/Neuron-Soul-AI LinkedIn: https://www.linkedin.com/in/marcelo-emanuel-paradela-teixeira-702082382/ Email: marcelo.soul.ai@gmail.com License: CC BY‑NC 4.0 © Marcelo Emanuel Paradela Teixeira 2025

•Nov 17, 2025•0 citations

Quantum communication technologies: Quantum detection circuit for quantum channel coding

Masahide Sasaki, Jun Mizuno, Mikio Fujiwara +3 more

•Sep 20, 2002•0 citations

Relativistically Consistent Faster-than-Light (FTL) Communication Using Self-Referential Quantum States

Allan Goff

A protocol using cross‐entangled independent Einstein‐Podolsky‐Rosen (EPR) beams is developed as a means of sending information faster than light (FTL) by taking advantage of quantum nonlocality and indistinguishable particle statistics. Two observers bracket a central midpoint transmitter that contains dual EPR sources from which bits are encoded in packets of photon pairs. FTL communication occurs between the observers in a simplex mode. A reformulation of quantum mechanics is proposed that permits such communications, as well as wave function collapse, to be relativistically consistent, while also resolving the problem of causal ordering normally associated with spacelike connections. The issue of temporal paradox is handled separately at both the quantum and classical levels. Spacelike causal connections lead to closed loops in spacetime and causal self‐reference. It is shown that such self‐reference leads to nonlinearities in the evolution of the wave function that may be sufficient to lead to wave function collapse.

AIP conference proceedings•Jan 1, 2004•7 citations

Gaping Photon Telegraph: Entanglement-Based Binary Coding via Photon Survival State

Aditya Borah

Gaping Photon Telegraph (GTP) is a novel quantum communication protocol that encodes information using the survival or death of photons in an entangled three-particle system A-B-C. Unlike conventional quantum key distribution which uses photon polarization or phase states, GTP deliberately uses weak entanglement between photons B and C, acting as a "gaping string" that breaks upon any disturbance. Core Concept:- Bit 0: Photon B survives → measured as 0 at receiver C- Bit 1: Photon B dies/decouheres due to entanglement disturbance → measured as 1 at receiver C Key Features:1. Eavesdropper Detection: Any measurement by an eavesdropper destroys entanglement and kills the photon. The act of spying becomes the alarm signal itself.2. GM144 Cipher: A 144×144 coordinate matrix mapping 20,736 positions to dictionary words. Each transmission sends one coordinate instead of spelling letters, enabling word-level secure communication.3. Triple-Repeat Error Correction: Each bit is sent as 111 + Bit×3 + 000 with majority voting to distinguish natural photon death from intentional hacking.4. No FTL Violation: Receiver requires pre-shared GM144 dictionary. No information is transmitted faster than light, complying with quantum no-signaling theorem. This paper presents the theoretical framework, frame structure, and GM144 dictionary system for GTP. The method transforms photon decoherence from a problem into a communication resource, creating a quantum alarm system rather than a quantum telephone. Author: Aditya Borah, Sapekhati, Assam, IndiaDate: April 2026

•Jul 4, 2026•0 citations
A theoretical framework for faster‑than‑light signaling via quantum collapse timing Abstract Neuron Particle Communication (NPC) explores a speculative pathway for faster‑than‑light (FTL) communication by encoding information not in quantum measurement outcomes, but in the timing of wave function collapse events. Traditional entanglement‑based communication is blocked by the No‑Communication Theorem, which asserts that random measurement outcomes cannot transmit information. NPC proposes a novel approach: using sets of 100 entangled particle pairs per symbol, with passive monitoring of magnetically coupled “follower particles” to detect collapse transitions. Information is encoded through synchronized collapse timing and structured temporal intervals, forming message patterns analogous to Morse code. While NPC does not claim to solve FTL communication, it defines a conceptual framework that highlights collapse timing as an unexplored dimension of quantum information. The system faces fundamental challenges — quantum vacuum fluctuations, indistinguishability of collapse sources, and engineering requirements for picosecond synchronization — but offers testable hypotheses that could inform future experimental research. Background The light‑speed barrier established by relativity has long motivated exploration of quantum phenomena for potential communication beyond classical limits. Entanglement correlations are instantaneous but cannot carry information under standard interpretations. NPC shifts focus from outcomes to timing, proposing that collapse events induced deliberately by a sender might be distinguishable from spontaneous decoherence if detected with sufficient precision. Developed through Intuitive‑Theoretic Synthesis (ITS) and iterative dialogue with AI systems, NPC represents an amateur theoretical exploration intended to provoke discussion and inspire experimental inquiry. It builds on the broader Neuron Ecosystem, alongside Soul AI, Phase‑Dual Cosmology, and Neuron Sanctuary Encryption, as part of a unified program of paradigm‑transcendent frameworks. Key Contributions Collapse Timing Paradigm Information encoded in when collapse occurs, not in random measurement outcomes Passive detection via magnetically coupled follower particles Multi‑Particle Redundancy 100 entangled pairs per symbol create statistical filtering against random noise Dual‑layer filtering: spatial synchronization + temporal patterning Temporal Encoding Scheme Structured intervals form coherent messages (telegraph/Morse code analogy) Linguistic filtering adds a third layer of validation System Architecture Cryogenic isolation, ultra‑high vacuum, and electromagnetic shielding for particle sets Optical detection with picosecond precision for collapse timing Statistical Filtering Analysis False positives from random decoherence shown to be astronomically improbable Temporal sequencing further reduces noise probability Fundamental Challenges Quantum‑classical boundary behavior of follower particles Indistinguishability of collapse sources (intentional vs spontaneous) Vacuum fluctuation noise Engineering demands for synchronization across thousands of particles Repository Contents Main Paper: Neuron Particle Communication (V1.0 – Complete Synthesis) System Architecture Specifications: Entangled particle sets, follower particle detection, temporal encoding scheme Noise Filtering Analysis: Statistical modeling of collapse synchronization probabilities Challenge Discussion: Quantum mechanical limitations and engineering feasibility Development Logs: Transparent documentation of ITS‑based conceptual exploration Future Directions: Collapse timing experiments, quantum‑classical boundary studies, interpretive refinements Research Impact NPC contributes to quantum information theory by: Highlighting collapse timing as an underexplored dimension of entanglement Proposing testable hypotheses about quantum‑classical boundary behavior Offering a speculative but structured framework for FTL signaling attempts Demonstrating how ITS can generate provocative theoretical models outside conventional paradigms Access and Documentation ORCID: https://orcid.org/0009-0003-4876-9273 GitHub: https://github.com/Neuron-Soul-AI/Neuron-Soul-AI LinkedIn: https://www.linkedin.com/in/marcelo-emanuel-paradela-teixeira-702082382/ Email: marcelo.soul.ai@gmail.com License: CC BY‑NC 4.0 © Marcelo Emanuel Paradela Teixeira 2025
A protocol using cross‐entangled independent Einstein‐Podolsky‐Rosen (EPR) beams is developed as a means of sending information faster than light (FTL) by taking advantage of quantum nonlocality and indistinguishable particle statistics. Two observers bracket a central midpoint transmitter that contains dual EPR sources from which bits are encoded in packets of photon pairs. FTL communication occurs between the observers in a simplex mode. A reformulation of quantum mechanics is proposed that permits such communications, as well as wave function collapse, to be relativistically consistent, while also resolving the problem of causal ordering normally associated with spacelike connections. The issue of temporal paradox is handled separately at both the quantum and classical levels. Spacelike causal connections lead to closed loops in spacetime and causal self‐reference. It is shown that such self‐reference leads to nonlinearities in the evolution of the wave function that may be sufficient to lead to wave function collapse.
Gaping Photon Telegraph (GTP) is a novel quantum communication protocol that encodes information using the survival or death of photons in an entangled three-particle system A-B-C. Unlike conventional quantum key distribution which uses photon polarization or phase states, GTP deliberately uses weak entanglement between photons B and C, acting as a "gaping string" that breaks upon any disturbance. Core Concept:- Bit 0: Photon B survives → measured as 0 at receiver C- Bit 1: Photon B dies/decouheres due to entanglement disturbance → measured as 1 at receiver C Key Features:1. Eavesdropper Detection: Any measurement by an eavesdropper destroys entanglement and kills the photon. The act of spying becomes the alarm signal itself.2. GM144 Cipher: A 144×144 coordinate matrix mapping 20,736 positions to dictionary words. Each transmission sends one coordinate instead of spelling letters, enabling word-level secure communication.3. Triple-Repeat Error Correction: Each bit is sent as 111 + Bit×3 + 000 with majority voting to distinguish natural photon death from intentional hacking.4. No FTL Violation: Receiver requires pre-shared GM144 dictionary. No information is transmitted faster than light, complying with quantum no-signaling theorem. This paper presents the theoretical framework, frame structure, and GM144 dictionary system for GTP. The method transforms photon decoherence from a problem into a communication resource, creating a quantum alarm system rather than a quantum telephone. Author: Aditya Borah, Sapekhati, Assam, IndiaDate: April 2026