Quantum measurement: decoherence and consciousness

琼金 黄

Prediction P3 proposes that quantum decoherence rate can be modulated by the observer’s state of consciousness. Within the Life Panorama framework, an observer’s consciousness parameters—coherence C and quantum coupling Q—directly determine settlement efficiency, which in turn controls the extra decoherence rate induced by the observation process. The core prediction is: Γ_obs ∝ (1−C)(1−Q). A high-C, high-Q observer (e.g., long-term meditator) produces cleaner settlement and weaker extra decoherence, leading to a measurably lower decoherence rate. Standard quantum mechanics predicts no such effect. This paper provides theoretical derivation, experimental design, statistical criteria, and strict falsification conditions. quantum decoherence, consciousness, coherence C, quantum coupling Q, settlement efficiency, Life Panorama, entanglement fidelity, meditation, quantum measurement

Akira Seto, Tatsutaka Yamamoto, Seiki Nakazato +1 more

AHMED KADHIM Salih

This paper examines the quantum measurement problem through the von Neumann-Wigner interpretation. We propose that environmental decoherence via air molecules and photons is not sufficient to account for the definite outcomes of measurements, and that the timing of conscious awareness correlates with the collapse of the superposition. The model offers a testable framework distinguishing conscious observation from purely physical decoherence.

Paul Meuffels

琼金 黄

Drawing upon the axiomatic framework of The Panorama of Life: Unified Theory of Consciousness and Spacetime (Version 8.0), this paper presents a comprehensive, operationally ready experimental protocol for the core prediction that an individual’s consciousness state measurably modulates the quantum decoherence rate. The protocol details the double-slit interferometry setup, participant grouping, quantitative assessment of consciousness parameters (coherence C and quantum coupling Q), and provides a quantitative prediction formula for the decoherence rate difference between experimental and control groups. Potential noise sources and their mitigation strategies are systematically analyzed. A rigorous statistical significance framework targeting p<0.001 is designed, and multiple tiers of falsification conditions are explicitly defined. The aim is to transition the study of consciousness–quantum interaction from theoretical speculation to strict experimental testing, offering a reference that can be directly implemented by any third-party experimental physics team. consciousness, quantum decoherence, double-slit experiment, quantum measurement, mind-matter interaction, experimental protocol

Michael B. Mensky