This study tests whether the suppression of charge number matches observed in the prior Juke-Mand Anti-Signal Protocol (JMASP) reflects a quantum-level effect analogous to destructive interference or measurement disturbance.
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.
In waveguide quantum electrodynamics (QED) systems, noninteracting quantum entities can be coupled through the vacuum field of the waveguide, leading to both coherent and dissipative interactions. We systematically demonstrate that the reflection spectrum is clear and direct in representing the collective interaction using the mirror reflection properties of semi-infinite waveguides. Due to the destructive interference with its mirror image, the emitter is decoupled from the waveguide, suppressing the decay so that the reflection spectrum shows an anticrossing phenomenon induced by coherent interaction. Moreover, the reflection spectrum of an anti-parity-time symmetric Hamiltonian caused by dissipative coupling exhibits an unconventional splitting characterized by level attraction transitioning at exceptional points. Our findings highlight the significance of exploring non-Hermitian effects in waveguide quantum systems, offering potential applications in quantum networks reliant on long-distance interactions. Published by the American Physical Society 2024