How outputs on AINumbers.co get checked
Verifiability answers whether you can inspect how a result was produced. It does not by itself answer whether the result is correct. This page describes the mechanisms the suite uses to check that, what each one covers, and what it deliberately leaves for the reader to judge.
Six mechanisms, each narrow on purpose
None of these mechanisms alone proves a tool is right for your situation. Each one closes off a specific way a result could be wrong or could drift silently over time. Together they form the checking layer behind the OpenChainGraph-anchored tools; simpler calculators without a ChainGraph node rely on the JS syntax and count-drift gates described below but do not carry a compute proof.
§28§15§18What this establishes, and what it does not
Taken together, these mechanisms establish that a given computation matches its declared specification and the text it cites, that it produces the same output every time it runs, and that changes to it are visible rather than silent. That is a conformance duty the tools carry, and it is checked mechanically on every change.
None of this is a promise that your specific use of a tool is compliant with any regulation, or that the tool's model of a rule is the only correct one, or that a result requires no professional judgment before you rely on it. A computation can conform exactly to its own specification and still be the wrong tool for your situation, built on an outdated version of a rule, or misapplied to facts it wasn't designed for. Middle-office review exists precisely because "the calculation ran correctly" and "the number is right for this deal" are two different questions, and these mechanisms only answer the first one.
See Terms & Reliance for the full disclaimer, and SPEC.md for the normative definition of every mechanism named on this page.