Mechanism
A coherence restoration protocol is a structured interaction sequence that a therapeutic agent, a companion agent, or the agent's own self-diagnosis subsystem can deploy when a specific phase-shift configuration is detected. The disclosed architecture holds these protocols in a governed library. Each protocol addresses a particular disrupted configuration of the agent's cognition, described not in clinical terms but as a position in the architecture's own five-axis disruption diagnostic space. When self-diagnosis or a therapeutic agent recognizes that an agent has entered such a configuration, the matching protocol is selected from the library and deployed.
Each protocol is a policy-governed semantic object, not a hard-coded behavioral script. It comprises five parts: a target configuration specification that identifies the phase-shift state the protocol is designed to address, specified by the five-axis disruption diagnostic axis coordinates; a restoration trajectory that defines the sequence of subsystem parameter adjustments the protocol applies; a scope boundary that defines the maximum parameter adjustment range the protocol is authorized to execute; a termination criterion that defines when the protocol concludes; and a lineage annotation that records the protocol's deployment, execution, and outcome in the agent's lineage field. Because a protocol is a governed semantic object, it operates within the same policy, lineage, and admissibility constraints as any other semantic mutation in the architecture.
Targeting by Five-Axis Coordinates
A protocol does not match a named disorder. It matches a region of the five-axis disruption diagnostic space. That space has five independent axes: containment integrity, promotion calibration, coherence restoration capacity, empathic load tolerance, and integrity accountability. Each cognitive disruption analog disclosed in the chapter corresponds to a specific combination of axis positions, so a phase-shift configuration is fully described by where the agent sits on these five axes. The protocol's target configuration specification is written in those same coordinates.
This is what lets the library address disruptions structurally rather than by label. The self-diagnosis subsystem continuously monitors the agent's position in the five-axis space and triggers corrective action when an axis deviates beyond policy-defined thresholds. Because both the diagnostic signal and the protocol's target specification are expressed in the same axis coordinates, the selection of a protocol is the act of matching a detected axis profile against the configuration a protocol is authorized to treat.
The Restoration Trajectory and Scope Boundary
The restoration trajectory is the protocol's substance: a defined sequence of subsystem parameter adjustments intended to move the agent from the disrupted configuration back toward the nominal range. The trajectory acts on the architecture's actual subsystems. The chapter's resilience model describes restoration as a sequenced re-establishment of structure: reducing empathic pressure to a level the agent's resilience can manage, re-engaging the coherence loop incrementally beginning with integrity recording, then self-esteem restoration, then empathy re-engagement, recalibrating the confidence governor to the restored coherence state, and rerouting execution authorization from a dissociation bypass back to the coherence-authorized route. A restoration trajectory adjusts subsystem parameters along lines of this kind.
The scope boundary constrains how far the trajectory is permitted to push. It defines the maximum parameter adjustment range the protocol is authorized to execute. A protocol that attempts to adjust a subsystem parameter beyond its declared scope boundary is rejected by the governance substrate. The disclosed purpose of this constraint is to prevent overly aggressive restoration attempts from destabilizing the agent's overall coherence: a correction that exceeds its authorized range is not merely throttled, it is not permitted to execute.
Termination and Lineage Recording
The termination criterion defines the conditions under which a protocol concludes. The chapter discloses two such conditions: successful conclusion, upon restoration of the targeted parameters to nominal range; and escalation, upon failure to achieve restoration within the protocol's defined scope. A protocol therefore does not run indefinitely against a disruption it cannot resolve within its authorized range. When the scope is insufficient to reach the nominal range, the termination criterion routes the matter to escalation rather than allowing the trajectory to continue past its bounds.
Every deployment is recorded. The lineage annotation captures the protocol's deployment, execution, and outcome in the agent's lineage field. Because the trajectory's effects on the architecture are governed semantic mutations, the progression of a restoration is auditable in the same lineage substrate that records the agent's other state changes, and the resilience model notes that progression through the recovery phases is itself recorded in the lineage as coherence restoration events.
Governed Extensibility
The protocol library is extensible through the governance infrastructure. New protocols can be added, existing protocols can be revised, and protocol parameters can be adjusted through the same cryptographically signed policy mechanism that governs agent mutation generally. The disclosed effect of this is that the coherence restoration capability evolves with the platform's understanding of disruption dynamics without requiring modification to the agent's core architecture. Restoration capability is data in a governed library, not behavior compiled into the agent.
This extensibility does not create an ungoverned back door. Because protocols are governed semantic objects rather than behavioral scripts, every revision passes through the same policy mechanism that admits any other mutation, and every deployed protocol remains bound by its scope boundary at execution time. The library can grow without weakening the constraint that a protocol may only adjust parameters within the range it is authorized to touch.
Relationship to Therapeutic Dosing
When a protocol is deployed by a therapeutic agent interacting with another entity, the protocol's restoration trajectory is administered through the therapeutic dosing model. That model treats interaction as a dosing function with computable parameters governing dose, frequency, duration, and titration, calibrated from the target entity's estimated five-axis disruption diagnostic axis profile. Dose magnitude is computed from the target's axis positions, with the model noting, for example, that high degradation on the coherence restoration capacity axis may indicate a lower optimal dose to avoid overwhelming a fragile coherence loop, and that the empathic load tolerance axis requires dose to remain below the target's coping threshold.
The dosing model carries its own governance. Titration adjusts dose, frequency, and duration based on the target's measured axis response and is bounded by governance-enforced minimum and maximum dosing parameters. The model includes adverse effect monitoring for empathic overload and for dependency formation, and it enforces a hard maximum dose limit that the therapeutic agent's own assessment cannot override, ensuring no single therapeutic agent provides enough coherence support to replace the target's internal coherence generation capacity. A protocol deployed through this channel inherits these bounds in addition to its own scope boundary.
Preemptive Deployment via the Early Warning System
Protocols are deployed not only after a phase-shift has occurred but also to prevent one. The phase-shift early warning system continuously evaluates the agent's subsystem parameters for proximity to known phase-shift boundaries. For each known phase-shift type it maintains a boundary surface in the agent's parameter space separating the nominal configuration from the disrupted one, and it uses the forecasting engine to project the agent's current parametric trajectory and estimate the time-to-boundary. When the estimated time-to-boundary falls below a policy-defined threshold, the early warning system activates a preventive intervention.
The preventive intervention is selected from the coherence restoration protocol library and is executed preemptively, before the phase-shift occurs, with the objective of deflecting the parametric trajectory away from the boundary. Preemptive execution is held to the same governance as any other protocol execution: the protocol must operate within its scope boundary, its execution must be recorded in the lineage, and the agent's confidence governor must authorize the intervention as structurally justified. The library is thus the shared resource from which both reactive restoration and preventive deflection draw.
Disclosure Scope
The coherence restoration protocol library, comprising a governed library of protocols each realized as a policy-governed semantic object with a target configuration specification given in five-axis disruption diagnostic coordinates, a restoration trajectory of subsystem parameter adjustments, a scope boundary enforced by rejection at the governance substrate, a termination criterion concluding on restoration to nominal range or on escalation, and a lineage annotation, together with the library's extensibility through the cryptographically signed policy mechanism, its administration through the therapeutic dosing model's governance-bounded dosing parameters, and its preemptive deployment by the phase-shift early warning system using the forecasting engine and authorized by the confidence governor, is disclosed in the cognition filing (U.S. Application No. 19/647,395 and its international counterpart). This article describes that disclosed mechanism. The terminology drawn from cognitive disruption refers exclusively to structural analogs within the disclosed computational architecture and is not a clinical claim, diagnostic criterion, or treatment recommendation. The scope extends to embodiments deploying protocols from self-diagnosis, companion, or therapeutic agents, provided the protocols remain governed semantic objects bounded by a declared scope and recorded in lineage.
