Reset Dynamics, Paper 14: Observable Correspondence, Identifiability, and Experimental Signatures

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contents <p>This is Paper 14 in the Reset Dynamics series.</p> <p>**Title:** Observable Correspondence, Identifiability, and Experimental Signatures</p> <p>**Abstract:**<br>We complete the Reset Dynamics framework by establishing a rigorous bridge between abstract cohomological structure and experimentally identifiable observables. Beyond observable correspondence, we prove a Topological Identifiability Theorem: under quantization, loop-dependence, and gauge invariance conditions, observed inconsistencies uniquely correspond to nontrivial cohomology classes in H¹.</p> <p>We further provide rejection criteria excluding non-topological explanations (noise, local defects, statistical fluctuations), ensuring that detected holonomy is not merely phenomenological but structurally necessary. A decision flowchart for topological identifiability is provided. We identify the uniform winding number distribution at criticality as the signature of topological tunneling and symmetry restoration.</p> <p>Key contributions:<br>- Observable mapping for mismatch variables, holonomy, winding number<br>- Topological Identifiability Theorem (quantization + loop-dependence + gauge invariance ⇒ H¹ ≠ 0)<br>- Decision flowchart for experimental identification<br>- Rejection criteria for non-topological explanations<br>- Scaling signatures for phase transition (⟨g²⟩ ∼ |R-1|⁻¹) and nonlinear repair (⟨g²⟩ ∼ √D)<br>- Topological tunneling and symmetry restoration at criticality<br>- Complete falsifiability conditions<br>- Detailed numerical experiment protocol and statistical analysis methods</p> <p>**Reset Dynamics Series Overview:**<br>- Paper 1-13: as above<br>- Paper 14 (this work): Observable Correspondence, Identifiability, and Experimental Signatures</p> <p>**Related Zenodo records:**<br>- Paper 1: https://zenodo.org/records/19373151<br>- Paper 2: https://zenodo.org/records/19609968<br>- Paper 3: https://zenodo.org/records/19861236<br>- Paper 4: https://zenodo.org/records/19923360<br>- Paper 5: https://zenodo.org/records/19978542<br>- Paper 6: https://zenodo.org/records/19979476<br>- Paper 7: https://zenodo.org/records/19979922<br>- Paper 8: https://zenodo.org/records/20024507<br>- Paper 9: https://zenodo.org/records/20024960<br>- Paper10: https://zenodo.org/records/20025265<br>- Paper11: https://zenodo.org/records/20036480<br>- Paper12: https://zenodo.org/records/20036915<br>- Paper13: https://zenodo.org/records/20037205 </p>
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spellingShingle Reset Dynamics, Paper 14: Observable Correspondence, Identifiability, and Experimental Signatures
pan, feiyue
observable correspondence
topological identifiability
cohomological obstruction
winding number
experimental signatures
phase transition scaling
topological tunneling
symmetry restoration
falsifiability, Reset Dynamics
<p>This is Paper 14 in the Reset Dynamics series.</p> <p>**Title:** Observable Correspondence, Identifiability, and Experimental Signatures</p> <p>**Abstract:**<br>We complete the Reset Dynamics framework by establishing a rigorous bridge between abstract cohomological structure and experimentally identifiable observables. Beyond observable correspondence, we prove a Topological Identifiability Theorem: under quantization, loop-dependence, and gauge invariance conditions, observed inconsistencies uniquely correspond to nontrivial cohomology classes in H¹.</p> <p>We further provide rejection criteria excluding non-topological explanations (noise, local defects, statistical fluctuations), ensuring that detected holonomy is not merely phenomenological but structurally necessary. A decision flowchart for topological identifiability is provided. We identify the uniform winding number distribution at criticality as the signature of topological tunneling and symmetry restoration.</p> <p>Key contributions:<br>- Observable mapping for mismatch variables, holonomy, winding number<br>- Topological Identifiability Theorem (quantization + loop-dependence + gauge invariance ⇒ H¹ ≠ 0)<br>- Decision flowchart for experimental identification<br>- Rejection criteria for non-topological explanations<br>- Scaling signatures for phase transition (⟨g²⟩ ∼ |R-1|⁻¹) and nonlinear repair (⟨g²⟩ ∼ √D)<br>- Topological tunneling and symmetry restoration at criticality<br>- Complete falsifiability conditions<br>- Detailed numerical experiment protocol and statistical analysis methods</p> <p>**Reset Dynamics Series Overview:**<br>- Paper 1-13: as above<br>- Paper 14 (this work): Observable Correspondence, Identifiability, and Experimental Signatures</p> <p>**Related Zenodo records:**<br>- Paper 1: https://zenodo.org/records/19373151<br>- Paper 2: https://zenodo.org/records/19609968<br>- Paper 3: https://zenodo.org/records/19861236<br>- Paper 4: https://zenodo.org/records/19923360<br>- Paper 5: https://zenodo.org/records/19978542<br>- Paper 6: https://zenodo.org/records/19979476<br>- Paper 7: https://zenodo.org/records/19979922<br>- Paper 8: https://zenodo.org/records/20024507<br>- Paper 9: https://zenodo.org/records/20024960<br>- Paper10: https://zenodo.org/records/20025265<br>- Paper11: https://zenodo.org/records/20036480<br>- Paper12: https://zenodo.org/records/20036915<br>- Paper13: https://zenodo.org/records/20037205 </p>
title Reset Dynamics, Paper 14: Observable Correspondence, Identifiability, and Experimental Signatures
topic observable correspondence
topological identifiability
cohomological obstruction
winding number
experimental signatures
phase transition scaling
topological tunneling
symmetry restoration
falsifiability, Reset Dynamics
url https://doi.org/10.5281/zenodo.20037402