Cybersecurity, as a property of propulsion.

• AEROMAG

  The motor platform. The electromechanical core on which the cyber-physical secure architecture is built. SENTINEL-LINK inherits the AeroMag operating envelope and integrates the cybersecurity surface into the motor itself rather than adding a separate security module.

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• MAG-FOC

  The deterministic control surface. Mag-FOC provides the microsecond-scale control loop at the gate-driver stage where the hardware veto is enforced. Commands that fail authentication or fall outside the operating window do not reach the motor — Mag-FOC vetoes them before the gate transition.

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• REINVENTY SHIELD

  The cryptographic authentication layer. Every command entering the actuation chain is cryptographically validated against the active supervisory key set. Reinventy Shield provides the cryptographic infrastructure — signing, verification, key rotation, key zeroization on anti-capture events — that the sovereign authentication node requires.

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• DISTRIBUTED CONDUCTIVE SENSING NETWORKS

  The volumetric anti-tamper sensing layer. Conductive filament networks embedded throughout the structural elements of the actuator detect physical intrusion attempts at the structural level — micro-strain from drilling, deformation from cutting, breach of the actuator enclosure. Tamper detection is volumetric and structural rather than peripheral or perimeter-only. Specific filament network composition and density characteristics released under non-disclosure agreement.

• CRYPTOGRAPHIC COMMAND AUTHENTICATION

  Every command entering the actuation chain is cryptographically validated before any gate-driver transition. The validation surface is integrated into the propulsion chain at the same physical layer as the motor control logic — not above it, not beside it, but integral to it. Commands without valid cryptographic signature, with out-of-window timestamps, or with semantically inconsistent payloads are rejected before action.

• MICROSECOND-SCALE HARDWARE VETO

  The hardware veto fires at the gate-driver level on the microsecond scale. Unauthenticated, out-of-window, or semantically inconsistent commands — including bypass attempts that try to inject command signals downstream of the authentication surface — are vetoed before the gate transition propagates to the motor. The veto is deterministic and is executed in hardware logic, not in firmware that could itself be compromised.

• VOLUMETRIC ANTI-TAMPER SENSING

  Physical intrusion attempts on the actuator structure are detected via the distributed conductive sensing networks embedded throughout the structural elements. Micro-strain from drilling, deformation from cutting, breach of the enclosure — all are detected at the structural level, volumetrically, not through peripheral sensors that an adversary can bypass by approaching from an unexpected geometry.

• ANTI-CAPTURE RESILIENCE

  On detection of capture or sabotage events — confirmed tamper, cryptographic key compromise, unauthorized physical access — the platform executes a defined anti-capture protocol: cryptographic key zeroization, magnetic configuration locking, and logical inertization of the actuation chain. The platform becomes operationally inert rather than continuing to function under adversarial control.

Specific values for veto latency, cryptographic protocol selection, sensing network density, anti-capture protocol timing, and key rotation cadence are released under non-disclosure agreement.

• CYBER-RESILIENT MANIPULATORS

  Mobile manipulation systems, industrial robotics, and autonomous material-handling platforms where the actuation chain integrity is part of the operational safety envelope. The platform makes the actuator itself part of the cyber-resilience boundary rather than relying entirely on supervisory-layer authentication.

• INFRASTRUCTURE ACTUATOR SECURITY

  Utility automation actuators, critical-process actuators in industrial facilities, and infrastructure-protection actuator deployments where unauthorized actuation has system-level consequences (process upset, safety event, infrastructure damage). The platform addresses the structural cyber-vulnerability of conventional industrial actuators.

• INDUSTRIAL AUTONOMY DECISION POINTS

  Decision-point actuators in industrial autonomy chains — robotic cells, automated production lines, autonomous logistics hand-offs — where the actuator decision is the final step in the autonomy chain. The platform converts that final step into an authenticated step, closing the integrity loop on the autonomy decision.

• CRITICAL-INFRASTRUCTURE ACTUATOR AUTHENTICATION

  Authentication of actuator commands in critical-infrastructure deployment contexts where chain-of-custody integrity for every actuation command must be cryptographically traceable. The platform provides the cryptographic authentication surface natively, eliminating the audit gap between the supervisory layer and the actuation stage.

SENTINEL-LINK sits within Reinventy's foundational platforms patent roadmap. Coverage is engineered to span the cyber-physical secure actuation architecture — the integration of cryptographic authentication into the propulsion chain, the hardware veto methodology at the gate-driver level, the volumetric anti-tamper sensing topology, and the anti-capture protocol logic that together define the platform — within the cyber-physical secure actuation family and adjacent filings, in the company's 2026-2027 high-priority filing window. Specific patent application metadata, claim language, and jurisdictional extension scope are released under non-disclosure agreement. For the broader IP posture disclosure regime, see /ip-posture.