Protective-Order Integration With Intent Architecture

Mechanism

The operator-intent envelope is the structural region within which the agent may form and commit intentions on behalf of an operator. A protective-order constraint is a credentialed input that contracts the envelope: it removes regions from the space of admissible intentions, identifies parties or party classes whose presence in an intention triggers refusal, and binds for a declared validity period. The constraint enters the architecture not as a heuristic filter but as a structural binding that the intent layer evaluates before any commitment.

Issuance is gated by authority recognition. The architecture maintains a taxonomy of recognized authorities — courts, tribunals, statutory bodies — and a structured channel through which orders from those authorities arrive. An order presented through any other channel does not bind. The channel itself is credentialed: the wire format requires a signature traceable to the issuing authority's credentialing root, a declared validity period, an identification of the restrained party, and a declaration of the restricted behaviors. Orders missing any structural element are rejected at ingress; the rejection itself is recorded as a credentialed observation.

Revocation is cryptographic. A protective order remains binding until it expires or until a revocation event arrives through the same structured channel, signed by the same authority class that issued it. Revocation cannot be effected by operator preference, by agent inference, or by environmental observation; it requires a credentialed event. This asymmetry — easy to bind, hard to release — is the structural meaning of protective-order priority. Conflict resolution is rule-bound: when a protective-order constraint conflicts with operator preference, the protective order prevails; when it conflicts with another protective-order constraint, a declared precedence rule resolves the conflict, and the resolution is recorded.

Operating Parameters

Each protective-order constraint declares its issuing authority, its issuance timestamp, its validity period, the restrained party identifier (or party-class predicate), the set of restricted behaviors expressed in the architecture's behavior taxonomy, and the precedence class to which it belongs. The validity period is wall-clock bounded; an order whose validity period has elapsed no longer binds, and any commitment that would have been refused under the order is now admitted, with the lapse itself recorded.

The authority taxonomy is declarative: the set of recognized authority classes, their credentialing roots, and the precedence relations among them are specified in the policy reference. A jurisdictional configuration may declare that family-court orders bind with one precedence class and criminal-court orders with another; conflicts between them resolve under the declared precedence rule. The structured channel exposes a declared latency bound — the maximum time between an authority's signature event and the order's binding within the architecture — beyond which the channel is treated as degraded and incoming orders are quarantined pending channel-health verification.

Conflict resolution declares a deterministic rule for every conflict class: order-versus-preference, order-versus-order within the same precedence class, order-versus-order across precedence classes, and order-versus-emergency-override. Each resolution outcome is recorded with its rule reference, allowing downstream audit to verify that conflicts were resolved by declared rule rather than by ad-hoc inference. The cryptographic signature scheme, the revocation event format, and the credentialing root rotation policy are themselves operating parameters declared in the policy reference and subject to governance review.

Alternative Embodiments

In a domestic-violence embodiment, a court-issued no-contact order binds an agent operated by or on behalf of the restrained party, contracting the operator-intent envelope to refuse any intention whose execution would place the operator within a restricted distance of the protected party, contact the protected party through any communication channel, or appear at a restricted location. Detection of an attempted-but-refused intention is recorded as a credentialed observation; repeated attempts produce a credentialed pattern admissible to the issuing court.

In a corporate-injunction embodiment, an injunction issued by a commercial court binds an enterprise agent, contracting its envelope to refuse intentions that would breach the injunction's specified conduct restrictions — for instance, refusing to generate communications to a restricted counterparty, refusing to commit transactions in restricted instruments, or refusing to access restricted data. The injunction's validity period and revocation channel mirror those of the domestic embodiment; the difference is the authority class and the behavior taxonomy.

In a regulatory embodiment, a sanctions list issued by a recognized statutory body binds a financial-services agent, contracting its envelope to refuse counterparty interactions with sanctioned entities. The list is itself a structured order with a credentialed authority, a validity period, and a revocation channel. Updates to the list arrive as incremental credentialed events, each binding or releasing constraints atomically. In a child-safeguarding embodiment, a custody order binds a companion agent operated for or interacting with a minor, contracting its envelope to refuse intentions that would route the minor to a non-custodial party. In a multi-agent embodiment, the same protective order binds every agent within the jurisdictional reach of the issuing authority through the shared credentialing root, without per-agent re-issuance.

Composition

Protective-order integration composes with the operator-intent envelope as the primary constraint surface. Operator preferences shape the envelope from within; protective-order constraints contract it from without. The composition is asymmetric: operator preference cannot expand the envelope past a protective-order boundary, but a protective-order revocation can expand the envelope back to its pre-binding shape. The intent layer evaluates protective-order constraints before operator preferences in every commitment decision, and the order of evaluation is structural, not configurable.

The mechanism composes with the lineage system: every order issuance, every binding event, every conflict resolution, every refused intention, and every revocation is recorded as a credentialed observation. The lineage stream is admissible as evidence in proceedings before the issuing authority, allowing the architecture to support not only enforcement but also the procedural record that enforcement requires. It composes with the credentialing root infrastructure: the same root-of-trust that admits operator-intent declarations also admits protective-order issuances, allowing a single governance framework to govern both. It composes with the multi-agent mesh: protective-order events propagate across the mesh as credentialed broadcasts, binding every agent within the issuing authority's jurisdictional reach.

The mechanism additionally composes with the forecasting engine. Forecasts that propose intentions touching restricted parties, locations, or behaviors are evaluated against the protective-order constraints during the planning phase, not only at the actuator boundary. A speculative branch that would commit a restricted intention is pruned in the planning graph before promotion, recorded as a credentialed prune event, and the residual is observable to downstream audit. This composition prevents the agent from reaching the actuator boundary with restricted intentions in the first place, while still preserving the structural refusal at the boundary as a final guarantee. The mechanism composes with the cycle-period adaptivity: the appearance of a new protective-order constraint is itself an environmental event that can drive cycle-period contraction, since the agent's prior forecasts may now produce larger residuals against the contracted envelope. Composition with the operator-confirmation surface ensures that operator confirmations of intentions cannot bypass protective-order constraints; the confirmation is evaluated within the contracted envelope, and confirmations that fall outside the envelope are themselves refused with a credentialed observation.

Prior Art

Existing protective-order enforcement is largely manual: violations are observed by the protected party, reported to law enforcement, and adjudicated after the fact. Geofencing applications attempt automated detection but operate as standalone alerting systems without architectural authority recognition; their classifications carry no credentialing chain and are challenged for admissibility. Content-filter systems impose conduct restrictions on enterprise agents but do so through configuration rather than through credentialed orders; the binding has no structural connection to a recognized authority and no cryptographic revocation channel.

Sanctions-screening systems in financial services consume authority-issued lists but implement the binding as a heuristic check rather than as a structural envelope contraction, and their conflict resolution against operator preference is ad-hoc. Access-control systems impose constraints through role and policy bindings but lack the temporal-validity, cryptographic-revocation, and rule-bound conflict-resolution structure that protective-order semantics require. The mechanism described here departs from each of these by making the protective-order constraint a structurally bound, authority-credentialed, cryptographically revocable, rule-resolvable contraction of the operator-intent envelope, with every event recorded in credentialed lineage.

Disclosure Scope

The cognition patent claims the integration of protective-order constraints with the operator-intent envelope as a structural primitive: a credentialed contraction of the envelope, gated on issuance by a recognized authority through a structured channel, revocable only through a cryptographic event from the same authority class, and resolved against competing constraints under rule-bound precedence. The claim covers the mechanism independent of the specific authority class, the specific behavior taxonomy, and the specific cryptographic scheme, provided that issuance is authority-credentialed, revocation is cryptographic, conflict resolution is rule-bound, and every event is recorded in credentialed lineage.

The disclosure scope extends to alternative embodiments across domestic-violence, corporate-injunction, regulatory, child-safeguarding, and multi-agent deployments. It extends to composition with operator-preference shaping, with lineage admissibility, with credentialing-root infrastructure, and with multi-agent broadcast propagation. The scope does not depend on a particular wire format for the order, on a particular cryptographic primitive, or on a particular jurisdiction's procedural law, but it does depend on the four structural properties that distinguish this primitive from conventional content-filter, geofence, or sanctions-screening implementations: authority-credentialed issuance, structurally enforced binding, cryptographic revocation, and rule-bound conflict resolution.

The disclosure further addresses the procedural surface that the architecture exposes to the issuing authority and to the restrained party. The issuing authority gains a credentialed return channel: the architecture's lineage stream of refused intentions, conflict resolutions, and revocation events is admissible as a procedural record before the same authority that issued the order, supporting both enforcement and review. The restrained party gains a structurally exposed contestation surface: every refusal carries a lineage reference identifying the order under which the refusal occurred and the rule that was applied, so that contests over false-positive refusals can proceed against a structured record rather than against an opaque inference. Operators and downstream integrators gain a stable contract: the four structural properties define the surface they must respect, while the specific authority taxonomy, behavior taxonomy, and cryptographic scheme remain configurable per jurisdiction without altering the architectural commitment. The scope also covers degraded-channel operation: when the structured channel falls below its declared latency bound, incoming orders are quarantined and pre-existing bindings remain in force, ensuring that protective-order constraints cannot be silently dropped by transient channel failure. Together these properties define a primitive that reaches what conventional protective-order automation has missed — not the detection of violations, which is technically feasible today, but the structural integration of the detection into a credentialed envelope whose every event carries the procedural pedigree that legal use demands.