Future-Splitting State Recruitment in History-Dependent HCP Magnesium Mechanics: A Minimum-Decisive Prospective Protocol for State Sufficiency, Probe Selection, and Mechanism Localisation

This preprint specifies a minimum-decisive prospective experimental protocol for testing the Future-Sufficient Address Invariant / Future-Splitting State Recruitment (FSAI/FSSR) family in history-dependent HCP magnesium mechanics, using AZ31/AZ31B as the default reference system. It does not claim discovery of twinning, detwinning, hysteresis, constitutive memory, or a new physical law. Instead, it begins from the strongest practical predeclared domain-native constitutive state and asks whether a lawful reversal selected specifically to expose false state equivalence can produce a held-out future split beyond a frozen tolerance. If a split survives state-matching, challenge, boundary, measurement, stochastic, and probe-induction nulls, the protocol requires the smallest predeclared measurable physical augmentation that restores held-out predictive closure, followed by remove/restore testing. The FSSR-selected challenge is also compared under matched budget with a standard parameter-information experimental-design challenge. State sufficiency, challenge-design value, mechanism localisation, and prospective lead are reported as four independent verdicts. Preservation and NULL outcomes are explicitly valid results. This paper reports a prospective protocol only; no empirical experiment or positive MKUFT result is reported.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-04
DOI
https://doi.org/10.5281/zenodo.22309144
Primary Topic
Magnesium Alloys: Properties and Applications
Type
preprint
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preprint

Future-Splitting State Recruitment in History-Dependent HCP Magnesium Mechanics: A Minimum-Decisive Prospective Protocol for State Sufficiency, Probe Selection, and Mechanism Localisation

Mark Charles McLaughlin
Zenodo (CERN European Organization for Nuclear Research)
Magnesium Alloys: Properties and Applications
preprint

Future-Splitting State Recruitment in History-Dependent HCP Magnesium Mechanics: A Minimum-Decisive Prospective Protocol for State Sufficiency, Probe Selection, and Mechanism Localisation

Mark Charles McLaughlin
preprint en

Abstract

This preprint specifies a minimum-decisive prospective experimental protocol for testing the Future-Sufficient Address Invariant / Future-Splitting State Recruitment (FSAI/FSSR) family in history-dependent HCP magnesium mechanics, using AZ31/AZ31B as the default reference system. It does not claim discovery of twinning, detwinning, hysteresis, constitutive memory, or a new physical law. Instead, it begins from the strongest practical predeclared domain-native constitutive state and asks whether a lawful reversal selected specifically to expose false state equivalence can produce a held-out future split beyond a frozen tolerance. If a split survives state-matching, challenge, boundary, measurement, stochastic, and probe-induction nulls, the protocol requires the smallest predeclared measurable physical augmentation that restores held-out predictive closure, followed by remove/restore testing. The FSSR-selected challenge is also compared under matched budget with a standard parameter-information experimental-design challenge. State sufficiency, challenge-design value, mechanism localisation, and prospective lead are reported as four independent verdicts. Preservation and NULL outcomes are explicitly valid results. This paper reports a prospective protocol only; no empirical experiment or positive MKUFT result is reported.

Zenodo (CERN European Organization for Nuclear Research)
Peace, Justice and strong institutions
Magnesium Alloys: Properties and Applications
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