The Correspondence Equation: A Falsifiable Framework for Measuring Representation–Reality Drift

The Correspondence Equation (CE) is a quantitative framework for measuring how well an operational representation corresponds to the true, relevant state of a system, across weighted dimensions with variable observability. Version 1.1 resolves two failure modes found by adversarial stress-testing of v1.0: the equation was undefined with zero evidence, and a fully unobserved catastrophic dimension could be reported as near-perfect correspondence. Both are fixed here by blending unobserved dimensions toward a disclosed conservative prior rather than excluding them, verified to reduce the hidden-catastrophe gap from 0.99/0.0012 to 0.55/0.0012 on the same test case. This version also formalizes an exact decomposition separating a genuine change in the underlying state from a change caused by improved observability of an already-existing problem — the same identifiability question addressed in epidemiological surveillance (true vs. detected incidence), applied here to representational correspondence. A serious vulnerability found during testing is disclosed and left unresolved: reducing the declared weight of a known-failing dimension can neutralize the model's bottleneck sensitivity nearly as effectively as hiding it. This is stated explicitly as a condition of publishing v1.1 at all. CE is presented as a falsifiable hypothesis, not a validated instrument. No claim is made about performance on any real historical system. A tested, executable Python reference implementation is included, reproducing every numeric result in the paper. Builds on and cites: Situation Awareness theory (Endsley), organizational sensemaking (Weick), epidemiological ascertainment bias, and intelligence indications-and-warning analysis (Wohlstetter, Grabo).

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-06
DOI
https://doi.org/10.5281/zenodo.22543571
Primary Topic
Military Strategy and Technology
Type
preprint
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preprint

The Correspondence Equation: A Falsifiable Framework for Measuring Representation–Reality Drift

Adan Ignacio Ramalho Mendez
Zenodo (CERN European Organization for Nuclear Research)
Military Strategy and Technology
preprint

The Correspondence Equation: A Falsifiable Framework for Measuring Representation–Reality Drift

Adan Ignacio Ramalho Mendez
preprint en

Abstract

The Correspondence Equation (CE) is a quantitative framework for measuring how well an operational representation corresponds to the true, relevant state of a system, across weighted dimensions with variable observability. Version 1.1 resolves two failure modes found by adversarial stress-testing of v1.0: the equation was undefined with zero evidence, and a fully unobserved catastrophic dimension could be reported as near-perfect correspondence. Both are fixed here by blending unobserved dimensions toward a disclosed conservative prior rather than excluding them, verified to reduce the hidden-catastrophe gap from 0.99/0.0012 to 0.55/0.0012 on the same test case. This version also formalizes an exact decomposition separating a genuine change in the underlying state from a change caused by improved observability of an already-existing problem — the same identifiability question addressed in epidemiological surveillance (true vs. detected incidence), applied here to representational correspondence. A serious vulnerability found during testing is disclosed and left unresolved: reducing the declared weight of a known-failing dimension can neutralize the model's bottleneck sensitivity nearly as effectively as hiding it. This is stated explicitly as a condition of publishing v1.1 at all. CE is presented as a falsifiable hypothesis, not a validated instrument. No claim is made about performance on any real historical system. A tested, executable Python reference implementation is included, reproducing every numeric result in the paper. Builds on and cites: Situation Awareness theory (Endsley), organizational sensemaking (Weick), epidemiological ascertainment bias, and intelligence indications-and-warning analysis (Wohlstetter, Grabo).

Zenodo (CERN European Organization for Nuclear Research)
Good health and well-being
Military Strategy and Technology
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