arg6 (SPBC725.14, UniProt O94330) notes

Identity and naming

Function

Location

Curation points

2026-10-26 systematic fungal annotation audit

Reviewed all 11 existing rows and the core functions with the review and annotation-reviewer workflows. Preserved every machine-sourced term, evidence code, qualifier, source identifier, WITH/FROM entry and row order. No new annotations were added in this audit.

The NAGS assignment combines fungal architecture, phylogenetic inference and native arginine auxotrophy. No purified target assay was established in the consulted sources. A pathway keyword does not turn glutamate consumption into glutamate biosynthesis; that directionally incompatible NAS claim remains removed.

Normal publication caching completed. Normal Falcon research with Perplexity-lite fallback was attempted for this gene; authentication/quota failures prevented a generated report. Manual review used the actual cached primary sources and curated UniProt, and no provider-named research file was fabricated. Per-gene attempts and validation logs are in .cache/module-audit-logs/arginine-SCHPO-arg6-*. Abstract-only or bibliographic-only sources are distinguished from full text in reference reviews; unavailable source details are not treated as experimental refutations.

Actions: ACCEPT 8, MODIFY 2, REMOVE 1. Record sections were backfilled; focused schema/reference validation passed on the initial complete panel. Final targeted checks and HTML rendering are recorded in the audit logs.

PR #5563 follow-up, 2026-10-26

Restored supported GO:0005739 mitochondrion rows to ACCEPT under the explicit root-organelle policy; existing matrix rows remain separate. Reasons distinguish organelle screens, direct targeting, publication-linked curated evidence and unavailable full text. No original annotation payload changed. Cytosol decisions use target-specific fractionation/processing evidence rather than relationship qualifiers or generic precursor transit. For Aga1, matrix inference does not imply universal post-import autoproteolysis.