Mechanism
Environmental disruption is heterogeneous in both signature and consequence. A spurious sensor return, an adversarial spoof, an instrumental fault, and an environmental transient all enter the architecture through the same observation surface, and the mesh cannot afford either to ignore early indicators or to commit full-magnitude response to every preliminary signal. The disclosed mechanism resolves this tension with a graduated-actuation mode selector that produces a continuous and bounded mapping from the composite-admissibility determination to an actuation mode, rather than a binary permit-or-deny decision.
The graduated-response generator produces a graduated execution response proportional to the classified disruption and its authority. Each detected departure from the governance-characterized baseline is classified to a governance-policy-defined disruption class and corroborated across a plurality of sensing agents, and the resulting composite-admissibility determination drives the selected actuation mode. The selectable modes are governance-policy-defined per actuator class, per authority level, and per deployment domain, and include at minimum a disabled mode, a simulated dry-run mode, an advisory mode, a consultative mode that awaits operator confirmation, a constrained mode, a stage-gated mode with admissibility re-evaluation between stages, a partial mode at fractional magnitude or reduced rate, a full mode at nominal execution, and an emergency-accelerated mode reached upon emergency preemption.
As composite admissibility rises, the selector transitions the selected mode through increasingly autonomous modes, from disabled through simulated, advisory, consultative, constrained, and stage-gated to full. As composite admissibility falls, the selector transitions toward less autonomous modes. This continuous mapping enables graceful degradation under reduced confidence without forcing a binary outcome of either unconstrained execution or complete cessation.
Mode escalation and de-escalation are first-class, lineage-recorded events. On emergency preemption, the selector may elevate the selected mode toward the emergency-accelerated mode, subject to the governing preemption budget and expiration constraints, with the preemption authority credential and scope recorded in lineage. When a newly consumed observation, an updated forecast, or an updated dispositional field indicates reduced admissibility during execution, an actuation already in progress is transitioned to a reduced mode (constrained, partial, simulated, or disabled), with the triggering input and the transition timestamp recorded. The disruption-lineage recorder records each detection, classification, attribution, probe, response, and downstream consequence in the governance-chain lineage field, so a response decision and its mode transitions can be reconstructed after the fact.
Operating Parameters
The mode selection is governed by per-actuator confidence thresholds. Each actuator is associated with a plurality of governance-policy-defined confidence thresholds that gate execution at each mode, comprising a per-mode threshold specifying the minimum composite-admissibility determination required for execution at that mode, and per-mode transition thresholds specifying the composite-admissibility levels at which the selected mode transitions between modes. A high-consequence actuator requires elevated composite admissibility across multiple contributing factors for execution at full mode, while a low-consequence actuator may execute at full mode under a lower threshold. The thresholds are governance-policy-defined rather than fixed, so the disclosure states no specific numeric value.
The disruption classes are governance-policy-defined and extensible. A disruption is any departure of a sensed field from its governance-characterized baseline attributable to a source, the source being adversarial, accidental, environmental, instrumental, or of any governance-policy-defined classification. The primitive admits extension to any future field class through governance-policy-defined detector registration without architectural modification, and the disruption classifier maps each detected departure to a governance-policy-defined disruption class rather than to a fixed enumerated set.
Selection inputs and transitions are recorded as governance-credentialed observations. The advisory and consultative modes support human-in-the-loop review by emitting a credentialed advisory observation or a credentialed consultation request before physical execution; the simulated mode supports pre-deployment verification and what-if analysis by recording a dry run without physical effect. Because each mode selection, escalation, and de-escalation enters the governance-chain lineage with its triggering input and authority credential, an after-action review can distinguish a response that was constrained by reduced admissibility from one that was elevated by emergency preemption.
Alternative Embodiments
The disclosure contemplates several embodiments. The graduated execution response admits counter-action across civilian and defense contexts, including without limitation evasive-maneuver actuation such as civilian evasive driving, flight-path deviation, vessel course-change, or robotic workspace-clearance; governance-credentialed evasive-routing coordinated with infrastructure agents to produce route-plan changes that avoid the disruption source; authority-notification broadcasting governance-credentialed observations to law-enforcement, regulatory, public-safety, or coalition authorities; and collective-warning emission broadcasting credentialed observations to nearby agents through the governed mesh. In each case the selected mode is determined by the composite-admissibility determination rather than committed on detection.
The primitive is medium-agnostic across field classes. It operates across radio-frequency, optical, acoustic, thermal-infrared, magnetic, electric, seismic, barometric, chemical, radiological, and gravitational field classes through a shared architectural mechanism, and the same graduated-actuation mode selector governs the response regardless of which field class supplied the originating observation. A degraded-mode posture is reached through the continuous mapping itself: when reduced composite admissibility is detected, the selector transitions toward less autonomous modes, recording the transition in lineage so that a later audit can recognize the reduced posture.
A simulated-and-advisory embodiment runs the selector against proposed actuations without physical effect. The simulated mode executes a dry run recorded in the lineage field, supporting pre-deployment verification and what-if analysis, while the advisory mode emits a credentialed observation recording what actuation would have been taken without physically executing it, supporting human-in-the-loop review and shadow-deployment data collection. A shadowed mode physically executes the proposed actuation and additionally emits an advisory observation recording an alternative path for shadow evaluation. These modes preserve the full lineage record while withholding physical commitment, so the selector's behavior can be evaluated before live deployment.
Composition With Mesh Operation
The graduated-response generator composes with the surrounding primitives of the environmental disruption sensing chapter. It composes with the cross-domain coherence evaluator through multi-source disruption corroboration, so that the composite-admissibility determination driving the selected mode aggregates departure detections across a plurality of sensing agents rather than resting on any single sensor. It composes with the forecasting primitive through disruption-propagation prediction, so that a predicted progression of the disruption can inform the selected mode. It composes with the capability envelope through disruption-induced capability derating, so that a disruption that degrades sensing or actuation capability is reflected in the response.
Composition extends to the governed active-probe mechanism and to cascade modeling. The governed active-probe mechanism emits governance-credentialed probe signals to distinguish disruption cause hypotheses, and the probe and its result enter the same lineage as the detection and the response, so the basis of a mode selection includes any probe that informed it. Detected disruptions also feed the companion cascade-propagation modeling primitive, which models downstream propagation of a detected disruption. Because each detection, classification, attribution, probe, response, and downstream consequence is recorded in the governance-chain lineage field, the graduated response extends from the single-event case to a multi-source, multi-agent operational environment while remaining reconstructible.
Operational Applications
Defense environmental-response operations gain graduated support across domains. In each domain the graduated-actuation mode selector is parameterized by the domain's actuator classes, authority levels, and confidence thresholds, but the underlying mechanism, a continuous mapping from composite admissibility to actuation mode with lineage-recorded transitions, is invariant. This invariance produces benefits beyond any single domain: the response format is shared across actuator classes, and after-action review composes from the per-domain lineages because every detection, classification, attribution, probe, and response carries governance-chain lineage.
Civilian infrastructure response gains the same architectural support. Power-grid and transportation-system responses each map to the same selector with domain-appropriate sensing modalities and actuator classes, because the disruption classes and the confidence thresholds are governance-policy-defined rather than fixed. The architecture supports response evolution through governance-policy updates to the per-actuator thresholds and the disruption-class definitions, with the resulting changes governed and lineage-recorded so that a response made under an earlier policy can be reconstructed against the policy that governed it.
The simulated and advisory modes support continuous evaluation of the selector before live commitment. A dry run in simulated mode and a withheld actuation in advisory mode both populate the lineage record without physical effect, providing evidence for governance-policy tuning of the per-actuator confidence thresholds. The disclosure does not state a numeric miss rate or false-response rate; it discloses that the thresholds are governance-policy-defined and that their tuning is itself governed and recorded.
Prior-Art Distinction
Prior intrusion-detection, jamming-detection, spoofing-detection, and anomaly-detection architectures produce binary alarm or no-alarm outputs and terminal, unstructured alarms without structural lineage. The disclosed primitive is distinguished in that it produces graduated responses rather than binary outputs; its observations carry authority credentials, dispositional context, and admissibility evidence rather than being unstructured alarms; it carries complete lineage supporting deterministic forensic reconstruction of each detection event; it integrates a governed active-probe mechanism producing cause-hypothesis discrimination, whereas prior detectors are purely passive; and it integrates a spoofing-detection mechanism producing governance-credentialed authenticity determinations, whereas prior detectors cannot distinguish genuine from fabricated field measurements.
Disclosure Scope
This disclosure, U.S. Provisional Application No. 64/049,409, covers the graduated-response generator and the graduated-actuation mode selector that produces a graduated execution response proportional to the classified disruption and its authority, the continuous and bounded mapping from the composite-admissibility determination to a governance-policy-defined actuation mode, the per-actuator confidence thresholds gating each mode, the lineage-recorded mode escalation and de-escalation, and the composition with the cross-domain coherence evaluator, the forecasting primitive, the capability envelope, the governed active-probe mechanism, and the cascade-propagation modeling primitive. Coverage extends to alternative actuation modes, alternative disruption classes, and alternative deployment domains, all governance-policy-defined. Coverage does not extend to the specific sensor technologies that supply observations, which enter the architecture through declared credential interfaces.
