Operational Resilience and Revalidation for Lithium-Sulfur Separator Engineering: Failure Modes across the Evidence Chain
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Keywords

artificial intelligence
materials
systems
evidence synthesis
reliability
provenance

Abstract

This critical review examines operational resilience and revalidation in lithium-sulfur separator engineering, with links to intelligent manufacturing and evidence governance. The organizing question is which changes in data, equipment, chemistry, or environment require formal revalidation. Ten or more scholarly and user-supplied records are synthesized through a mechanism-to-decision framework spanning system boundaries, measurement, representation, evaluation, translation, and governance. No experiment, participant dataset, effect estimate, or production result is invented. Particular attention is given to software or process updates silently invalidating prior validation. The review argues that credible translation requires source-level traceability, explicit validity domains, failure-aware evaluation, and revalidation triggers. Google Scholar-supplied records are retained in structured APA form, and no missing DOI or pagination field is completed by conjecture.

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