AI Governance

Build A Materials Graph For PFAS Reporting With AI

PFAS rules are changing fast across OSHA updates, state product reporting, and EU restrictions. Many construction materials manufacturers still chase spreadsheets to assemble safety data sheets, sustainability labels, and regulatory filings. The result is rework and risk. A central materials knowledge graph plus a small AI layer can turn one internal model into many external outputs, with a human review step that protects brand and compliance under 2026 deadlines.

Graph-To-Forms Rosetta

Why 2026 Reporting Is Harder Than Last Year

PFAS filings are expanding in scope and geography. EPA extended the TSCA 8(a)(7) PFAS reporting submission window to October 13, 2026 for most manufacturers, with a later date for some small importers, which increases data volume and history depth you must compile (EPA TSCA 8(a)(7)). Minnesota now requires initial PFAS in products reports by July 1, 2026, with defined fields like function and concentration that rarely match your internal system names (MPCA reporting rule).

Safety data sheets also shifted. OSHA’s 2024 update to the Hazard Communication Standard aligns with GHS Revision 7 and tightens SDS expectations, which means your templates and data lineage must be clearer and more consistent across plants (OSHA HazCom 2024 final rule). In Europe, regulators plan to complete the scientific evaluation of a broad PFAS restriction by the end of 2026, so the target is moving while you prepare evidence packages (ECHA timeline update).

This is why one-off mappings fail. Each request looks similar yet asks for slightly different fields, thresholds, and categories. Teams copy, tweak, and paste regualtory content, then repeat the cycle when a form changes.

What A Materials Knowledge Graph Actually Is

Think of a materials graph as a labeled map of substances, mixtures, components, and finished products, with relationships that show how material A rolls up into product B and what properties follow it. Nodes represent real things like CAS-identified substances, supplier blends, intermediates, and SKUs. Edges capture usage, percentage, role, and process steps.

The graph stores attributes once, then reuses them through rollups and rules. It also holds provenance so you can see who entered a value, from which document, on what date, and under what assumption. That audit trail is what regulators and customers expect when they ask where a number came from.

The AI Layer That Translates One Model Into Many Schemas

The translator is a thin service that reads from your canonical graph and writes to external formats like state PFAS portals, SDS section structures, and sustainability labels. It relies on three ingredients. A library of schema definitions with field-level requirements and validation. A rulebook for unit conversions, thresholds, synonyms, and category mapping. A small language model that normalizes free text and assembles narratives for SDS sections while citing the underlying graph facts.

Treat it as a Rosetta stone. Your team maintains one internal vocabulary and the translator maps to Minnesota categories, EPA data fields, or European narratives without branching product data. When a rule changes, you update the mapping and regenerate the output instead of rebuilding the dataset.

Keep Humans In The Loop Where It Matters

Route low risk fields to auto-approve when confidence is high and provenance is clean. Send uncertain items to a reviewer queue with side-by-side evidence from the graph, highlighted gaps, and suggested text. Require signoff for high impact sections such as SDS hazards and PFAS concentrations above thresholds. Every action writes to the audit log with user, timestamp, and decision notes.

You do not need a giant review team. Focus reviews on exceptions, deltas from last filing, and first-time submissions. Use sampling for stable families of products that share a formulation.

Minimum Viable Dataset For Construction Materials

Start by centralizing what you already have rather than launching a new collection program. Useful sources include:

  • Formulations and bills of materials with CAS numbers and ranges
  • Supplier SDS and certificates of analysis
  • Plant batch records, change notices, and QC limits
  • Prior filings and sustainability disclosures that already passed review

Store each attribute with units, range, source document, effective dates, and data owner. Mark unknowns explicitly to avoid silent gaps that cause rework later.

Practical Build Sequence For The First 12 Weeks

Pick one product line with recurring filings and high question volume. Load ten to twenty representative SKUs and their dependent materials. Define your internal attribute dictionary for substances, roles, percentages, and functions. Implement two outbound mappings first. One SDS generator that fills the 16 sections using graph facts and templated language. One PFAS reporting pack that produces Minnesota’s required fields and a draft for TSCA history.

Use a simple confidence rubric. Exact numeric facts pulled from controlled sources can publish with lightweight review. Narrative text, category choices, and any values derived from assumptions should queue for approval. Report weekly on exceptions instead of averages so leaders see where the translator struggles.

Governance That Will Survive An Audit

Name a data owner for each attribute family. Capture evidence links at the point of entry and freeze them for filed versions. Version the translator mappings so you can reissue a filing with the exact rules in force on that date. Keep a change log that explains why a value moved, who approved it, and which products are impacted.

For cross-border work, tag attributes with jurisdictional relevance. The same graph value may be used in different outputs, yet thresholds, categories, and narratives vary by destination. This tagging avoids quiet mismatches across regions when 2026 rules shift again.

What Good Looks Like After A Few Months

Your team can regenerate an updated SDS or a state PFAS report from the same source of truth in hours instead of days. Review time concentrates on genuine risk rather than formatting. When a supplier updates a blend or a plant changes a step, the graph propagates the impact so the translator can rebuild only what changed.

The real win is traceability. You will know which document each value came from, how it rolled up, and why the output reads the way it does. That confidence reduces fire drills when a customer, regulator, or auditor asks for proof.

Frequently Asked Questions

EPA moved TSCA 8(a)(7) PFAS submissions to October 13, 2026 for most manufacturers, Minnesota requires first PFAS product reports by July 1, 2026, and ECHA targets end of 2026 for its PFAS restriction evaluation. These dates stack new data demands across regions. See EPA, MPCA, and ECHA updates linked above.

Use a small model to normalize supplier text and draft SDS narratives while citing graph facts. The heavy lifting is deterministic mapping, units, thresholds, and schema validation. Keep humans in the loop for any narrative or category choice.

Store ranges and roles with documented assumptions, reference the supplier SDS, and mark sensitivity. The translator can still assemble outputs that respect disclosure limits while flagging any fields that require confirmation before filing.

No. Treat the materials graph as a compliance and technical backbone that links to your PIM or MDM. Product marketing data can remain in PIM while substance, mixture, and process facts live in the graph and feed regulated outputs.

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About the Author

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John Johnson

Account Executive, AI Solutions at Parq

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