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PreprintCC BY 4.0Zenodo

The Calibration Barrier in Consciousness Science: A Formal Research Strategy for the Hard Problem

  1. 1University of West London

Abstract

The hard problem asks why physical processes are accompanied by experience. This paper develops a calibration audit for a prior evidential question: whether observations identify a psychophysical correspondence. Reference-relative hypotheses are separated from conventional relabellings. Finite reconstruction results characterize bridge ambiguity, and joint channel transformations show why accurate report prediction can leave it unresolved. Many-to-one bridges are treated through exact and approximate aggregation. Confidence sets propagate sampling error, dependence within independent blocks, episode selection, and noisy physical-state recognition. An exact synthetic benchmark separates approximately 90 percent report accuracy from bridge identification. A comparative benchmark adds weak predictive separation, correlated reports, selection, and channel misspecification across 12000 further replicates. In its weak combined-failure setting at the largest sample size, a plug-in likelihood comparison selects the wrong bridge in all 500 replicates; a correctly bounded audit retains both candidates. That protection has a cost: conservative bounds also leave some valid weak-signal cases unresolved. All procedures can select the wrong bridge under systematically inverted reference labels. The audit is an application of established identification and robust-inference principles, with usefulness demonstrated conditionally in synthetic models. A proposed motion protocol distinguishes reference consistency, operational accuracy, and intrinsic phenomenal identity. No human validation is claimed. Calibration can constrain psychophysical laws; it cannot choose between observationally equivalent metaphysical interpretations or explain why experience exists.

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BibTeX
@misc{hong2026calibration,
  title = {{The Calibration Barrier in Consciousness Science: A Formal Research Strategy for the Hard Problem}},
  author = {Kwan Hong TAN},
  howpublished = {Zenodo},
  year = {2026},
  month = oct,
  doi = {10.5281/zenodo.23524881},
  url = {https://zenodo.org/records/23524881},
  note = {CC BY 4.0},
}
RIS
TY  - UNPB
TI  - The Calibration Barrier in Consciousness Science: A Formal Research Strategy for the Hard Problem
AU  - Kwan Hong TAN
PY  - 2026
DA  - 2026/10/21
PB  - Zenodo
DO  - 10.5281/zenodo.23524881
UR  - https://zenodo.org/records/23524881
AB  - The hard problem asks why physical processes are accompanied by experience. This paper develops a calibration audit for a prior evidential question: whether observations identify a psychophysical correspondence. Reference-relative hypotheses are separated from conventional relabellings. Finite reconstruction results characterize bridge ambiguity, and joint channel transformations show why accurate report prediction can leave it unresolved. Many-to-one bridges are treated through exact and approximate aggregation. Confidence sets propagate sampling error, dependence within independent blocks, episode selection, and noisy physical-state recognition. An exact synthetic benchmark separates approximately 90 percent report accuracy from bridge identification. A comparative benchmark adds weak predictive separation, correlated reports, selection, and channel misspecification across 12000 further replicates. In its weak combined-failure setting at the largest sample size, a plug-in likelihood comparison selects the wrong bridge in all 500 replicates; a correctly bounded audit retains both candidates. That protection has a cost: conservative bounds also leave some valid weak-signal cases unresolved. All procedures can select the wrong bridge under systematically inverted reference labels. The audit is an application of established identification and robust-inference principles, with usefulness demonstrated conditionally in synthetic models. A proposed motion protocol distinguishes reference consistency, operational accuracy, and intrinsic phenomenal identity. No human validation is claimed. Calibration can constrain psychophysical laws; it cannot choose between observationally equivalent metaphysical interpretations or explain why experience exists.
ER  -