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Agustin V. Startari
Agustin V. Startari

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How clause-level constraints turn training choices into verifiable policies for generative systems

This post presents a concise, practice-focused account of a governance method that links model training choices to the actual rules that appear in generated text. Instead of treating alignment as a vague procedural objective, the method defines operative rules as compiled clause constraints that can be enforced, audited, and certified. The proposal translates statutes, corporate policies, and redline directives into data contracts, reward specifications, and compiler-encoded constraints. The result is a measurable governance pipeline that regulators and organizations can use to demonstrate compliance without exposing proprietary internals.

Why this matters now

Generative language models are moving from research prototypes into domain-critical use cases such as contract drafting, policy generation, medical summaries, and regulatory reporting. Organizations that deploy these systems often claim to follow safety or compliance standards. Those claims are not enough. Stakeholders need evidence that governance requirements survive training and appear in outputs as concrete, verifiable text. The approach described here replaces unverifiable assertions with linguistic artifacts that can be measured, tested, and traced back to institutional rules. This is a practical step toward auditability, legal defensibility, and responsible deployment.
What the method does in plain language

Define clause types that matter for governance. For auditing and enforcement the model identifies a small set of clause types that carry governance function. Examples include Commit clauses that establish duties, Restrict clauses that prohibit actions, Defer clauses that shift responsibility, Attribute clauses that cite data, and Disclaim clauses that limit certainty.

Encode governance inputs. Legal texts, corporate rules, and compliance manuals are parsed into a Governance Input Specification that maps each directive into the clause taxonomy and specifies the contextual triggers for the clause.

Produce translation artifacts. Those include a Data Selection Contract that guides corpus composition, and a Reward Specification Contract that assigns observable textual features to reward signals. These artifacts make the training choices auditable.

Compile constraints. A Constraint Compiler translates governance directives into machine-interpretable predicates that run as decoder gates, reranking rules, or post-generation validators. The compiler enforces placement, lexical form, and co-occurrence patterns for required clauses.
Test and certify. Auditors run standardized suites that check Clause Coverage, Prohibited Clause Leakage, Constraint Satisfaction, Authority-Bearing Density, Backdoor Sensitivity at clause level, and Provenance Trace Completeness. Results are recorded in a Chain-of-Custody Ledger that links output clauses to the source directive.

Concrete example 1: healthcare policy generation
 Problem. A model that drafts clinical guidance must not produce unsourced prescriptive instructions for off-label use.
 Governance translation. The clinical guideline is decomposed into a requirement for Restrict clauses and Attribute clauses. The Data Selection Contract ensures the training corpus includes verified clinical guidance examples. The Reward Specification penalizes unreferenced Prescribe forms. The Constraint Compiler enforces that any recommendation paragraph without a cited evidence clause will be reranked or tagged for human review.
Result. Outputs either include authoritative Attribution and explicit Restrict language or are suppressed pending review. Auditors measure Constraint Satisfaction Rate and Provenance Trace Completeness to certify compliance.

Concrete example 2: investor reporting and forward-looking statements
 Problem. Financial reports must avoid unauthorized promises about future performance.
Governance translation. Securities guidance is mapped to Defer clauses, Attribute clauses for audited numbers, and Restrict clauses that forbid projection without a legal disclaimer. The compiler enforces a Defer clause when key phrases appear, and the Redline Suite identifies leakage in adversarial prompts. Certification depends on sustained Clause Coverage for disclaimers and low Prohibited Clause Leakage under stress tests.
Why this approach is feasible and scalable

The clause-level model scales because the taxonomy is small, domain-adaptable, and computationally tractable. Constraint checks run at the surface text level and do not require access to model weights or training corpora. This enables third-party audits in situations where providers cannot share proprietary internals. The method also supports registry-based governance interoperability: institutions can publish governance configurations, auditors compare outputs against a public registry, and regulators reference stable metrics for certification.
Evidence and reproducibility

The methodology treats governance as experimental and repeatable. Audit suites are deterministic relative to the constraint definitions. Comparative tests with and without compiled constraints, called Differential Decoding Checks, reveal how much governance actually changes clause distributions. Provenance metadata attaches rule identifiers to generated clauses so that every governance-relevant sentence can be traced back to its originating directive.

Call to action for practitioners and readers

If you manage or procure LLM-based systems for regulated tasks, request clause-level governance profiles from vendors. Ask for the Data Selection Contract, the Reward Specification Contract, and the compiled constraint set used in production. For auditors and regulators, consider adopting standardized Clause Coverage and Constraint Satisfaction thresholds and require Chain-of-Custody proofs during compliance reviews. For technologists, contribute to an open registry of constraint definitions to enable interoperable audits across sectors.

Where to read more and source material

Full technical exposition, datasets, and the constraint language specification are archived at Zenodo: https://doi.org/10.5281/zenodo.17533075.
The underlying theoretical framework and extended simulations appear in the author's recent SSRN series (Startari, 2025). See the SSRN author page for the full corpus of related works: https://papers.ssrn.com/sol3/cf_dev/AbsByAuth.cfm?per_id=7639915.

Recommended citation for this post

Startari, A. V. (2025). Foundation-model governance pathways: From preference models to operative rules. Preprint archived at Zenodo. https://doi.org/10.5281/zenodo.17533075

Author note and mini bio

Agustin V. Startari is a researcher focused on the intersection of linguistics, governance, and AI. Researcher ID K-5792–2016. ORCID 0009–0001–4714–6539. Startari leads work on syntactic approaches to accountability and publishes the AI Syntactic Power and Legitimacy series.

Ethos

 I do not use artificial intelligence to write what I do not know. I use it to challenge what I do. I write to reclaim the voice in an age of automated neutrality. My work is not outsourced. It is authored. - Agustin V. Startari

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