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Juke-Mand Anti-Signal Protocol: Testing Volitional Quantum Decoherence Through Avoidance Strategy

Don Balch

Published Aug 20, 2025• 0 citations
OpenAlex

Abstract

This study tests whether conscious intent can influence quantum random number generation through an avoidance-based protocol. Participants select a "charge" number to protect and a "juke" number as a decoy, then attempt to avoid QRNG matches to their charge while potentially drawing matches to their juke. This paradigm addresses replication challenges in consciousness research by making the target behavior (avoidance) more intuitive and measurable than traditional manifestation protocols.

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Project WHISPER

Erich Habich-Traut

Project WHISPER is a preregistered experimental protocol testing whether statistical properties of quantum random number generator (QRNG) output recorded prior to a future event are independent of a later, independently generated target bit. The study specifies a single, falsifiable hypothesis: that summary statistics computed on a fixed pre-event window of QRNG data are either independent of, or systematically biased toward, a future target value generated by an independent QRNG. All hypotheses, analysis windows, statistical tests, and significance thresholds are preregistered prior to data unblinding. The protocol is designed to eliminate classical information leakage, experimenter bias, and analytical flexibility. A null result supports standard quantum mechanical assumptions of temporal independence; a positive result would motivate independent replication and further investigation.

•Jan 1, 2026•0 citations
This study tests whether conscious intent can influence quantum random number generation through an avoidance-based protocol. Participants select a "charge" number to protect and a "juke" number as a decoy, then attempt to avoid QRNG matches to their charge while potentially drawing matches to their juke. This paradigm addresses replication challenges in consciousness research by making the target behavior (avoidance) more intuitive and measurable than traditional manifestation protocols.
This study establishes a chance-performance baseline for the Juke-Mand Anti-Signal Protocol, which tests whether volitional intent or emotional states can influence quantum random number generator (QRNG) outcomes. The baseline will also be robust enough to serve as a control for testing volitional quantum intent decoherence effects, which involve participants attempting to mentally influence the collapse of a quantum wave function to produce specific numbers within the 0-255 range of the uint8 output.
The question of human free will has remained a central philosophical challenge for millennia. In physics, the issue of determinism versus indeterminism resurfaces in quantum mechanics, where measurement choices play a key role. In this work, we propose an experimental protocol inspired by delayed-choice quantum eraser experiments, in which the random switching of measurement settings is not performed by a quantum random number generator (QRNG), but instead by human participants making rapid spontaneous choices. If human choices are fundamentally unpredictable in a way that is not reducible to quantum mechanics or physical determinism, then the universal wave function could not have encoded them prior to the decision event. By introducing quantum memories to extend the decision window and ensuring strict separation and blindness of participants, this experiment could test whether interference patterns depend on genuinely free human choices or yield results identical to QRNG-based protocols.
The question of human free will has remained a central philosophical challenge for millennia. In physics, the issue of determinism versus indeterminism resurfaces in quantum mechanics, where measurement choices play a key role. In this work, we propose an experimental protocol inspired by delayed-choice quantum eraser experiments, in which the random switching of measurement settings is not performed by a quantum random number generator (QRNG), but instead by human participants making rapid spontaneous choices. If human choices are fundamentally unpredictable in a way that is not reducible to quantum mechanics or physical determinism, then the universal wave function could not have encoded them prior to the decision event. By introducing quantum memories to extend the decision window and ensuring strict separation and blindness of participants, this experiment could test whether interference patterns depend on genuinely free human choices or yield results identical to QRNG-based protocols.
The question of human free will has remained a central philosophi- cal challenge for millennia. In physics, the issue of determinism versus indeterminism resurfaces in quantum mechanics, where measurement choices play a key role. In this work, we propose an experimental pro- tocol inspired by delayed-choice quantum eraser experiments, in which the random switching of measurement settings is not performed by a quantum random number generator (QRNG), but instead by human participants making rapid spontaneous choices. If human choices are fundamentally unpredictable in a way that is not reducible to quantum determinism, then the universal wave function could not have encoded them prior to the decision event. By introducing quantum memories to extend the decision window and ensuring strict separation and blind- ness of participants, this experiment could test whether interference patterns depend on genuinely free human choices or behave identically to QRNG-based protocols. A violation of standard quantum predic- tions would have profound consequences for physics, philosophy, and neuroscience.
Project WHISPER is a preregistered experimental protocol testing whether statistical properties of quantum random number generator (QRNG) output recorded prior to a future event are independent of a later, independently generated target bit. The study specifies a single, falsifiable hypothesis: that summary statistics computed on a fixed pre-event window of QRNG data are either independent of, or systematically biased toward, a future target value generated by an independent QRNG. All hypotheses, analysis windows, statistical tests, and significance thresholds are preregistered prior to data unblinding. The protocol is designed to eliminate classical information leakage, experimenter bias, and analytical flexibility. A null result supports standard quantum mechanical assumptions of temporal independence; a positive result would motivate independent replication and further investigation.