How is provenance different from an AIBOM or model monitoring?
Provenance differs from an AIBOM and from model monitoring because they operate at different layers, and the difference is the whole point. An AI bill of materials and a model card describe a model at the supply-chain level, its components, datasets, and lineage, a static inventory of what went into the system[5]. Model monitoring watches aggregate behavior over time, flagging drift across many predictions.
Both are useful, and RankShieldMD can emit AIBOM artifacts itself. But neither proves anything about an individual runtime decision. When a specific result is questioned after the fact, an inventory of the model's ingredients and a dashboard of last month's drift cannot tell you whether this decision came from the approved model on intact data. Per-decision provenance is the finer, missing layer: a cryptographic receipt for each decision, sealed at the moment it happens, that can be verified in isolation. It is the difference between knowing what is generally in the kitchen and having a signed, tamper-evident receipt for the specific meal that was served. Governance platforms document risk and policy; monitoring tools observe behavior; RankShieldMD proves the decision. The three are complementary layers, not substitutes. Provenance is simply the one that survives the question prove this one, because it attaches a checkable record to each individual decision rather than to the program that produced them all. A buyer evaluating AI-trust tooling should ask which layer a vendor actually delivers, since a governance dashboard and a per-decision receipt are easy to conflate and very different to rely on when a single decision is challenged.
Does decision provenance tell you the citations are real?
No, and the distinction is worth drawing sharply because the two questions get collapsed constantly. Decision provenance answers which model produced this output, on which inputs, unaltered since. Evidence provenance answers a different question: are the sources this output cited real, and do they say what the output claims they say. A system can have either without the other. A perfectly sealed decision record tells you nothing about whether the paper it referenced exists, and a well-grounded retrieval pipeline with genuine citations tells you nothing about which model version ran.
The second question is not hypothetical. A 2026 study in Critical Care Explorations had two blinded domain-expert reviewers check 300 references generated by three frontier models across ten neurocritical care topics, verifying each against PubMed, DOI, Google Scholar and CrossRef. It found that "165 of 300 references (55.0%) contained a verifiable citation inaccuracy" and "85 of 300 (28.3%) were completely fabricated."[9] Those are references a clinician would have to check by hand to catch.
For clinical decision support specifically, this reaches further than accuracy. The FDA's fourth criterion, the one that separates non-device software from a regulated device, requires that the software let a health care professional independently review the basis of a recommendation.[7] A citation the clinician cannot verify, or that misrepresents the source it points to, erodes the exact property that criterion depends on. Citation traceability is not a quality nicety in a CDS context. It is load-bearing for the line the product is trying to stay on the right side of, which we cover in non-device by design.
An evidence-provenance record binds different fields than a decision record. It needs the identity of each retrieved source, a stable one such as a DOI or PMID, a digest of the passage actually supplied to the model rather than the document as a whole, and the binding of both to the output that used them. The passage digest is the part usually skipped, and it is what lets someone later confirm that the sentence relied on was really in that source at that time, rather than a paraphrase the model produced and attributed.
One honest limit. Sealing which source was retrieved, and that the record has not been altered, is a mechanical claim we can make. Judging whether a real source actually supports the clinical assertion made from it is a clinical and editorial function, not a cryptographic one. Provenance can prove a citation was present and unaltered. It cannot prove the citation was apt.
Why does the proof need to be quantum-safe?
The proof needs to be quantum-safe because the evidence behind a clinical decision must stay unforgeable for as long as the decision matters, and that is measured in decades, well within the window where quantum computers could threaten today's cryptography[2]. A proof that is unforgeable now but forgeable in fifteen years is not good enough for a record of a person's care.
There is also a specific, documented threat pattern: harvest now, forge later, where an adversary copies today's classically-signed evidence and waits for a capable quantum computer to forge or repudiate it retroactively. Long-retention healthcare records are an attractive target precisely because they are kept for so long[2]. That is why RankShieldMD signs every attestation with composite post-quantum signatures, ML-DSA-65 paired with Ed25519, built to the NIST post-quantum standards FIPS 203, 204, and 205[4], so the evidence stays verifiable and unforgeable as cryptography evolves. We state the posture honestly: it is quantum-safe, not quantum-proof. No quantum computer capable of breaking current cryptography exists yet, and no one can guarantee any system is unbreakable; what we can do is build to the standards so a decade of decisions stays defensible.