H-CRSPV: Preventing Semantic Omission in Late-Bound Large Language Model Releases

📅 2026-10-05
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🤖 AI Summary
This study addresses completeness and binding errors in large model releases caused by single-verification-passed but semantically omitted (SOVE) artifacts. To mitigate this, we propose a hybrid encrypted relational semantic plan verification layer. This framework integrates a replication-based admission layer, RelationIR binding, and atomic finalizers to enforce obligation completeness and one-to-one object binding prior to evidence selection, thereby achieving a paradigm shift from per-object verification to global semantic consistency. Experimental evaluations demonstrate that the prototype system successfully intercepts 36 semantically omitted artifacts with zero false positives when admitting honest releases, establishing both structural precision and conditional semantic guarantees.
📝 Abstract
Large-language-model release pipelines increasingly combine commitments, signatures, provenance records, and heterogeneous verification backends. Yet validating every submitted object does not establish that a release realizes every requirement of its registered transformation. An untrusted realization proposer may omit a required relation, propose an unauthorized evidence-sharing assignment, or bind valid evidence to the wrong object. This verification-boundary failure is termed Semantic Omission under Valid Evidence (SOVE). Hybrid Cryptographic Relation-based Semantic Plan Verification (H-CRSPV) is a replicated admission layer that enforces required-set completeness before release consumption. Before evidence selection, an authorized registration entity commits an authenticated authority record. Validators independently derive the required-obligation multiset, check exact entry-occurrence coverage, validate proposal-induced evidence sharing, and bind admissible groups one-to-one to keeper-resolved objects. Evidence remains provisional until the challenge window closes and an atomic finalizer activates the release. The analysis establishes structural exactness and conditional semantic guarantees under explicit assumptions. Across 36 omission artifacts, submitted-object validation accepts all 36 because every submitted object passes its backend-specific verifier. H-CRSPV rejects all 36 while accepting all six honest releases. The prototype also validates six restricted source-to-RelationIR bindings and rejects all 60 tested mutations. In a continuous four-validator Qwen2.5-1.5B workflow, the same authority record remains fixed across three legal releases with different post-registration availability states. These results show that per-object validity does not establish complete, correctly bound, and finalized release evidence.
Problem

Research questions and friction points this paper is trying to address.

Semantic Omission
Large Language Model Release
Verification-boundary Failure
Evidence Binding
Release Pipeline Integrity
Innovation

Methods, ideas, or system contributions that make the work stand out.

Semantic Omission
Large Language Model Release
Cryptographic Verification
Replicated Admission Layer
Evidence Binding
W
Weijie Miao
Department of Industrial and Systems Engineering, The Hong Kong Polytechnic University, Hong Kong
H
Henry Hong-Ning Dai
Department of Computer Science, Hong Kong Baptist University, Hong Kong
Ming Li
Ming Li
Department of Industrial and Systems Engineering, The Hong Kong Polytechnic University
Cyber-Physical SystemBlockchainLarge Language ModelsESG Technologies