{
  "id": "oai:papers.qnfo.org:decoherence-as-a-ubiquitous-consciousness-driven-collapse-analytical-comparison-",
  "slug": "decoherence-as-a-ubiquitous-consciousness-driven-collapse-analytical-comparison-",
  "title": "Decoherence as a Ubiquitous Consciousness‑Driven Collapse: Analytical Comparison with Standard Environmental Decoherence",
  "authors": [
    "Rowan Brad Quni-Gudzinas"
  ],
  "abstract": "The measurement problem and the hard problem of consciousness are often treated as separate philosophical challenges. A growing line of speculation proposes that consciousness itself induces wavefunction collapse, implying that collapse could occur continuously throughout the universe wherever conscious substrates exist. If such a consciousness‑driven collapse (CDC) mechanism were operative, its phenomenology should be indistinguishable from standard environmental decoherence for mesoscopic quantum systems, yet it might also generate subtle deviations that could be probed experimentally. We construct a minimal CDC model in which the collapse rate is proportional to the information content of the conscious substrate, and we compare its predictions with the canonical Lindblad‑type decoherence rate for a representative large‑molecule interferometry experiment. Using explicitly assumed parameters (molecular mass 10⁴ amu, spatial superposition separation 10^-9 m, temperature 300 K, information content 10⁶ bits, proportionality constant 10^-13 mathrms^-1 bit^-1), we derive a CDC rate of 10^-7 mathrms^-1 and an environmental decoherence rate of 1.2×10⁷ mathrms^-1. The CDC contribution is therefore many orders of magnitude smaller than the environmental background, rendering it experimentally invisible under current conditions. A Zeno‑effect bound from sustained Rabi oscillations in a superconducting qubit further constrains any linear CDC coupling to α<10^-5 mathrms^-1 bit^-1, comfortably above our assumed value. The result suggests that, unless the proportionality constant is dramatically larger, CDC will not affect the design of quantum technologies. Nevertheless, the analysis identifies a concrete experimental regime—ultra‑low‑temperature, high‑mass superpositions—where CDC could become comparable to environmental decoherence, providing a clear target for future tests.",
  "abstract_markdown": "The measurement problem and the hard problem of consciousness are often treated as separate philosophical challenges. A growing line of speculation proposes that consciousness itself induces wavefunction collapse, implying that collapse could occur continuously throughout the universe wherever conscious substrates exist. If such a consciousness‑driven collapse (CDC) mechanism were operative, its phenomenology should be indistinguishable from standard environmental decoherence for mesoscopic quantum systems, yet it might also generate subtle deviations that could be probed experimentally. We construct a minimal CDC model in which the collapse rate is proportional to the information content of the conscious substrate, and we compare its predictions with the canonical Lindblad‑type decoherence rate for a representative large‑molecule interferometry experiment. Using explicitly assumed parameters (molecular mass $10^{4}$ amu, spatial superposition separation $10^{-9}$ m, temperature 300 K, information content $10^{6}$ bits, proportionality constant $10^{-13}\\,\\mathrm{s^{-1}\\,bit^{-1}}$), we derive a CDC rate of $10^{-7}\\,\\mathrm{s^{-1}}$ and an environmental decoherence rate of $1.2\\times10^{7}\\,\\mathrm{s^{-1}}$. The CDC contribution is therefore many orders of magnitude smaller than the environmental background, rendering it experimentally invisible under current conditions. A Zeno‑effect bound from sustained Rabi oscillations in a superconducting qubit further constrains any linear CDC coupling to $\\alpha<10^{-5}\\,\\mathrm{s^{-1}\\,bit^{-1}}$, comfortably above our assumed value. The result suggests that, unless the proportionality constant is dramatically larger, CDC will not affect the design of quantum technologies. Nevertheless, the analysis identifies a concrete experimental regime—ultra‑low‑temperature, high‑mass superpositions—where CDC could become comparable to environmental decoherence, providing a clear target for future tests.",
  "date": "2026-10-26",
  "first_published": "2026-10-26",
  "last_revised": "2026-10-26T00:00:00Z",
  "modified": "2026-10-26T00:00:00Z",
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  "url": "https://papers.qnfo.org/papers/decoherence-as-a-ubiquitous-consciousness-driven-collapse-analytical-comparison-",
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    "creators": [
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        "name": "Rowan Brad Quni-Gudzinas",
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    "titles": [
      {
        "title": "Decoherence as a Ubiquitous Consciousness‑Driven Collapse: Analytical Comparison with Standard Environmental Decoherence"
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    "publicationYear": "2026",
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        "description": "The measurement problem and the hard problem of consciousness are often treated as separate philosophical challenges. A growing line of speculation proposes that consciousness itself induces wavefunction collapse, implying that collapse could occur continuously throughout the universe wherever conscious substrates exist. If such a consciousness‑driven collapse (CDC) mechanism were operative, its phenomenology should be indistinguishable from standard environmental decoherence for mesoscopic quantum systems, yet it might also generate subtle deviations that could be probed experimentally. We construct a minimal CDC model in which the collapse rate is proportional to the information content of the conscious substrate, and we compare its predictions with the canonical Lindblad‑type decoherence rate for a representative large‑molecule interferometry experiment. Using explicitly assumed parameters (molecular mass 10⁴ amu, spatial superposition separation 10^-9 m, temperature 300 K, information content 10⁶ bits, proportionality constant 10^-13 mathrms^-1 bit^-1), we derive a CDC rate of 10^-7 mathrms^-1 and an environmental decoherence rate of 1.2×10⁷ mathrms^-1. The CDC contribution is therefore many orders of magnitude smaller than the environmental background, rendering it experimentally invisible under current conditions. A Zeno‑effect bound from sustained Rabi oscillations in a superconducting qubit further constrains any linear CDC coupling to α<10^-5 mathrms^-1 bit^-1, comfortably above our assumed value. The result suggests that, unless the proportionality constant is dramatically larger, CDC will not affect the design of quantum technologies. Nevertheless, the analysis identifies a concrete experimental regime—ultra‑low‑temperature, high‑mass superpositions—where CDC could become comparable to environmental decoherence, providing a clear target for future tests.",
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