Cross-Authority Settlement Taxonomy
by Nick Clark | Published April 25, 2026
Bilateral commitments routinely cross between parties governed by different authority taxonomies — a buyer regulated under one jurisdiction's classification system transacting with a seller regulated under another. The architecture composes those taxonomies through credentialed translation events rather than forcing a single global taxonomy. Each translation is itself a signed observation entered into lineage, and the resulting pair settlement composes with taxonomy-translator and lineage-preserving-import primitives to retain the originating classification on both sides of the boundary.
Mechanism
Each authority maintains its own taxonomy of settlement classes — categories that label commitments according to that authority's regulatory, contractual, or operational scheme. A class in authority A's taxonomy may correspond exactly, partially, or only conditionally to a class in authority B's taxonomy. When a matched pair forms across the boundary, neither side can simply import the other side's class label without losing the regulatory binding that accompanies it. The architecture resolves this by introducing taxonomy translation as a credentialed event distinct from the settlement itself.
A taxonomy translation is performed by a translator authority — an entity credentialed by both originating authorities (or by a higher-scope authority that subsumes both) to assert a mapping between named classes. The translator signs a translation record that names the source class, the target class, the mapping kind (exact, narrower, broader, conditional), any conditions that bound the mapping, and the validity window. When a pair settlement crosses authorities, the participating parties admit a specific translation record by reference; the settlement record then carries both the originating class on each side and the translation under which they were reconciled.
The lineage-preserving-import primitive ensures that downstream consumers of the settlement record can recover the original classes, not merely the translated form. An auditor or regulator examining the settlement on authority A's side sees the original class A label, the corresponding class B label, the translator who signed the mapping, and the conditions under which the mapping holds. The same auditor working from authority B's side sees the symmetric view. Neither side is required to adopt the other's taxonomy; each retains its own classification while gaining a credentialed bridge.
The mechanism extends to chained translations. Where no translator is credentialed for both authorities directly, a chain of translations through one or more intermediate taxonomies may be admitted, with each link in the chain signed by a translator credentialed for that link. The settlement record references the entire chain rather than only its endpoints, so audit can verify that every step rests on a credential that was current at the time of admission. The chain itself is a first-class lineage entity and is subject to the same governance evolution rules as a single-link translation.
Operating Parameters
The translator-credentialing parameter governs which authorities may sign translation records between which taxonomies. A translator credentialed for one pair of jurisdictions may not assert mappings for an unrelated pair without explicit credential extension. The mapping-kind parameter specifies the supported relationships: exact equivalence, narrower-than, broader-than, or conditional. Conditional mappings carry predicate expressions that the participating parties must admit; for example, a mapping may hold only when the underlying commitment is denominated in a specified currency or executed within a specified time window.
The validity-window parameter bounds the temporal scope of a translation; mappings expire and require re-credentialing through governance procedure. The dispute-channel parameter names the authority to which mapping disputes are referred when participating parties disagree about whether a particular settlement falls within a mapping's conditions. The fallback parameter specifies behavior when no admissible translation exists between the source and target classes — typically a refusal to settle, with the lineage recording that the pair was rejected for taxonomy incompatibility rather than for substantive disagreement.
A precedence parameter governs selection when multiple admissible translations exist between the same source and target classes. Translators may be ranked by credential scope (a multilateral standards body precedes a bilateral working group), by recency (a more recent translation precedes an older one with overlapping validity windows), or by an authority-declared priority list. The precedence rule is itself governance-declared and versioned, so a settlement record can identify which precedence vintage selected the admitted translation. This is the lever that allows a federation to migrate from a legacy translator regime to a successor regime without invalidating in-flight settlements.
The audit-surface parameter governs how much of the translation evidence is exposed in settlement records consumed by third parties. A minimal-disclosure setting exposes only the translator identity and the mapping-kind, suitable for high-volume commercial environments where conditions are voluminous and proprietary. A full-disclosure setting exposes the entire predicate, suitable for regulated environments where mapping conditions are themselves regulatory artifacts. The audit-surface choice is bound to the settlement record at admission and cannot be reduced retrospectively, so a regulator examining a high-disclosure record after-the-fact retrieves the same predicate the parties admitted.
Alternative Embodiments
The taxonomy primitive admits embodiments across multi-jurisdictional commerce, cross-border logistics, and federated industrial operations. In commerce, two trading partners regulated under different securities-classification schemes settle a derivative whose underlying instrument is classified differently in each jurisdiction; the translator authority is a recognized standards body that has signed the cross-scheme mapping. In logistics, a freight handoff between carriers in different national customs regimes uses a translator credentialed by a multilateral customs accord to map cargo classifications across regimes.
In federated industrial operations — for example, joint manufacturing across plants operated by separate corporate entities each with its own quality-class taxonomy — the translator is a joint-venture authority credentialed by both parents. In defense interoperability, allied forces operating under different national classification schemes for materiel or sensor data use a coalition translator authority. In healthcare, providers operating under different diagnostic-coding systems use a translator credentialed by an inter-system harmonization body. The primitive is the same: an explicit, credentialed, lineage-bound mapping rather than an implicit alignment.
A self-translator embodiment arises when a single authority operates across multiple internal taxonomies — for example, a multinational firm whose regional divisions maintain locally-tuned product classifications. The firm's central authority signs translations between its own regional taxonomies, allowing inter-regional pair settlements without forcing global taxonomy unification. A federated-translator embodiment distributes the translator role across multiple authorities, each credentialed for a slice of the mapping space; the participating parties admit a translation by reference to the slice-specific translator that signed it, and the federated set is itself governance-declared.
A machine-derived-translation embodiment uses a credentialed model to propose mappings, with a human-credentialed translator endorsing or rejecting each proposal before it enters the live mapping registry. The proposals and their endorsements are both lineage entries, so audit can reconstruct which translations originated from machine inference and which from direct human assertion. This embodiment is intended for high-volume taxonomy domains (e.g., product classification across e-commerce platforms) where pure-human curation cannot keep pace with taxonomy evolution.
Composition
Cross-authority taxonomy composes directly with the taxonomy-translator primitive that defines how translation records are signed, admitted, and revoked. It composes with the lineage-preserving-import primitive that ensures the original classification survives the boundary crossing. It composes with the matched-pair settlement primitive that defines bilateral commitment exchange; the cross-authority case is the general case, and same-authority settlement is the degenerate case where source and target taxonomies are identical and translation is implicit.
It composes with the cross-jurisdictional-dispute primitive: when a pair disagrees about whether a translation's conditions were satisfied, the dispute proceeds against the translator's signed record rather than against either party's unilateral interpretation. It composes with governed-evolution primitives: when an authority updates its taxonomy, existing translations remain valid for settlements admitted under the prior version, while new settlements are admitted under fresh translations covering the updated classes. The composition supports gradual harmonization without forcing big-bang taxonomy migration.
Composition with the cascade-propagation primitive admits taxonomy-aware cascade analysis: when a cascade-condition event must propagate across an authority boundary, the event's class identifiers are translated through the same translator-credentialing infrastructure that admits ordinary settlements, so the receiving authority sees a class label intelligible in its own taxonomy with full lineage back to the originator's class. Composition with byzantine-robust quorum admits multi-translator endorsement, where a translation is admitted only when a quorum of independently-credentialed translators sign concurring records, raising the bar for translation tampering without changing the settlement-side mechanics.
Prior-Art Distinction
Conventional approaches to cross-authority commitment fall into two camps. The first is forced single-taxonomy: parties adopt a global classification scheme (often imposed by the dominant party or by a supranational body) and conform their internal records to it. This approach is structurally fragile because authority autonomy is contested, taxonomy evolution is centrally bottlenecked, and regional variations cannot be accommodated without forking. The second approach is implicit translation, where parties privately agree on equivalences without an auditable record; this fails under dispute because the equivalence is not signed and not bound to lineage.
The architecture described here departs from prior art by treating taxonomy translation as an explicit, credentialed, time-bounded observation distinct from both the underlying taxonomies and the settlements that rely on them. Translation records are first-class lineage entities; mappings are signed by credentialed translators; conditions are explicit and auditable. No prior-art system known to the inventor provides this combination of explicit translation events, lineage preservation of source classes, and governed translator credentialing.
Specifically distinguishing prior-art categories include ontology-mapping middleware (which produces equivalence assertions but lacks signed translator credentialing and lineage-bound preservation of source classes), reference-data-management platforms (which centralize classification but do not admit federated authority autonomy), and inter-agency MOUs documenting class equivalences (which are static text instruments without runtime admission, expiry, or dispute-routing). Each of these prior-art categories addresses an aspect of the cross-taxonomy problem; none combines runtime credentialed translation, lineage-preserved source-class retention, conditional mapping predicates, and governed evolution in the manner the disclosure requires.
Disclosure Scope
The cross-authority taxonomy primitive is disclosed in Provisional Application 64/049,409 as part of the matched-pair settlement framework. The disclosure covers the translator-authority credentialing model, the mapping-kind taxonomy (exact, narrower, broader, conditional), the validity-window mechanism, the lineage-preserving import of source classifications, and the dispute-channel for translation disagreements. Embodiments named include multi-jurisdictional securities settlement, cross-border customs handoff, federated industrial joint operations, allied defense interoperability, and inter-system healthcare coding harmonization. The disclosure encompasses governed evolution of taxonomies and translations, including the coexistence of legacy settlements under prior translations with new settlements under updated translations.
Claim scope encompasses (i) the credentialed translator-authority model and its multi-authority endorsement embodiments, (ii) the mapping-kind taxonomy and the conditional-predicate machinery, (iii) the validity-window and precedence parameters, (iv) the lineage-preserving import that retains source-class identity across the boundary, (v) the chained-translation embodiment, (vi) the self-translator and federated-translator embodiments, and (vii) the machine-derived-translation embodiment with credentialed human endorsement. The disclosure does not foreclose extension to taxonomy domains not enumerated above; the primitive is taxonomy-agnostic and applies wherever named-class commitments cross between authorities operating disjoint classification schemes.