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    AUTONOMY & SEASCAN™

    TacOps Maritime Systems designs unmanned surface platforms around an autonomy-agnostic architecture, enabling integration with government-furnished or third-party autonomy solutions when required. In parallel, TacOps develops SeaScan™, a proprietary maritime autonomy framework optimized for vessel behavior, motion management, and payload protection in real sea states.

    AUTONOMY PHILOSOPHY

    AUTONOMY DESIGNED FOR THE OCEAN, NOT THE LAB

    Many autonomy systems are developed and validated in controlled environments. TacOps autonomy is designed for the realities of maritime operations, where sea state, weather, and payload sensitivity dictate how a vessel must be operated.

    Rather than executing missions at fixed speeds or purely geometric paths, TacOps autonomy adapts vessel behavior dynamically—mirroring the decisions an experienced human operator would make to preserve the platform and its payload.

    SEASCAN™

    SEASCAN™ — BEHAVIOR-BASED MARITIME AUTONOMY

    SeaScan™ is TacOps' proprietary autonomy software framework that governs how the vessel moves through the water, not just where it goes. SeaScan enables the TOMS platform to dynamically adjust speed, maneuvering, and operating posture in response to sea conditions and mission demands.

    This behavior-based approach prioritizes survivability, payload protection, and sustained mission execution over theoretical transit performance.

    Key behaviors include

    • —Dynamic speed reduction in rough or confused seas
    • —Human-like throttle and maneuvering behavior
    • —Reduced hull slamming and shock loading
    • —Protection of sensitive ISR and communications payloads
    • —Sustained operations in degraded environmental conditions
    STABILIZATION & MOTION MANAGEMENT

    AUTONOMY INTEGRATED WITH PLATFORM STABILIZATION

    SeaScan incorporates the stabilizing systems utilized by the TOMS platform into its autonomy logic, allowing vessel motion, shock, and dynamic loading to be actively managed as part of normal operation.

    Rather than treating stabilization as a passive feature, SeaScan coordinates propulsion, heading, and stabilizing inputs to reduce vertical motion, limit structural and payload loading, and preserve system performance during extended operations.

    Key functions include

    • —Coordination between autonomy, propulsion, and stabilizing systems
    • —Active reduction of vertical motion and impact loading
    • —Adaptive operating profiles based on sea state and payload sensitivity
    • —Improved payload survivability over longer mission durations
    OPERATIONAL VALUE

    WHY BEHAVIOR MATTERS

    In unmanned maritime operations, payload survivability is often the limiting factor—not navigation accuracy or propulsion capability. By encoding experienced operator behavior into the autonomy stack, SeaScan enables missions to continue longer with reduced risk to onboard systems.

    This approach supports

    • —Extended mission duration without constant supervision
    • —Reduced wear, fatigue, and maintenance burden
    • —Improved sensor performance in higher sea states
    • —Higher confidence in autonomous operations
    TOMS INTEGRATION

    PURPOSE-BUILT FOR THE TOMS PLATFORM

    SeaScan is developed alongside the TOMS platform architecture, allowing hull dynamics, propulsion behavior, stabilization systems, and payload considerations to be treated as a single integrated system.

    This tightly coupled approach enables predictable performance across mission profiles while preserving flexibility for future capability growth.