Introduction
Naval warfare is undergoing a profound transformation and is increasingly defined by autonomous systems powered by artificial intelligence. These systems act not as auxiliary tools but as decisive mission actors integrated into the overall operational structure. Their structural configuration and mission profile determine resilience and flexibility, while their ability to operate under communication loss makes them indispensable in modern maritime strategy.
The NAVIS Doctrine — Naval Autonomous Vector for Integrated Scenarios — establishes a doctrinal foundation for the employment of autonomous platforms, including semi‑submersible capability, Integrated Flat Heat Pipe Panels (IFHPP), multi‑layered deployment bases, and trawl‑resilience as one of the structural components contributing to overall platform survivability. Within this framework, autonomous platforms are conceived as mission actors embedded within adaptive operational scenarios and capable of decision‑making under degraded communications.
Trawl‑resilience in NAVIS is defined as a structural design principle built into platform morphology and the logic of basing, ensuring resistance to mechanical interaction with adversary trawling systems.
NAVIS is a structured, author‑developed concept of maritime autonomy that can strengthen and complement the existing naval power of the United States and its allies.
Within the NAVIS doctrinal construct, the inclusion of concrete mission‑level employment examples is not envisaged. Scenario‑based operational and tactical applications constitute a separate analytical layer developed in classified formats and therefore fall outside the scope of this publication.
Strategic Necessity
Adversaries such as Russia and China are accelerating the deployment of unmanned maritime systems capable of striking ports, bases, and critical infrastructure, conducting hybrid operations below the threshold of open war. In contested littoral zones and strategic straits, traditional fleets are vulnerable to saturation attacks by small autonomous systems. These threats undermine conventional planning models and demand doctrinal innovation. Even with advanced anti‑submarine defenses, fleets remain exposed to distributed, covert, and unpredictable attacks.
NAVIS addresses this gap by offering a scenario‑oriented architecture. Platforms are conceived as mission actors embedded within adaptive operational scenarios, capable of autonomous decision‑making under degraded communications. The doctrine aligns with NATO’s Warfighting Capstone Concept (NWCC), Defence Planning Process (NDPP), and Science & Technology Trends 2023–2043, ensuring compatibility with distributed operations, resilience, and multi‑domain integration. NAVIS also references STANAG 4603, STANREC 4815, and AMSP‑01 to AMSP‑05, embedding interoperability and simulation standards into its conceptual design.
The recent events in Iran demonstrated that the United States proved unprepared for large‑scale autonomous aerial drone attacks. This failure raises justified concerns about U.S. readiness for similar threats in other domains, where autonomous systems may prove even more disruptive. In this context, the NAVIS Doctrine presented here offers a structured, author‑developed concept of maritime autonomy. The version presented here reflects only the key elements of the Doctrine; its full form contains a far more detailed architecture encompassing a wide range of scenarios, technical modules, and operational linkages, forming a coherent system designed for practical application in future conflict environments. Within NAVIS, the transition from strategic requirements to practical implementation is achieved through the structural classification of autonomous maritime platforms. These categories reflect doctrinal designations, taking into account technical differences and similarities, forming the functional layers through which NAVIS performs defensive, strike, rescue, and logistical tasks. What follows is a general examination of the types of maritime drones.
Defensive Naval Drones (DND)
Mission Profile. DND provide layered defense in maritime operations. Roles include pre‑positioning in staging areas, final reconnaissance, tactical communication relay, barrier breaching, defensive coverage against aerial and maritime threats, EW deployment, and post‑strike retrieval of surviving drones.
Structural Configuration. Reinforced hull emphasizing bow integrity, protected navigation suite and communication modules, hybrid propulsion system, semi‑submersible capability, IFHPP for thermal suppression, and integrated self‑destruction mechanism.
Mission Equipment Suite. Reconnaissance payloads, communication relay modules, EW systems, barrier‑breaching mechanisms, amphibious support gear, and universal power architecture. Configurations adapt through modular payload configuration, enabling substitution of breaching systems with energy reserves or munitions.
Defensive Armament Systems. Close‑range air defense, light turrets, smoke deployers, integrated EW perimeter systems.
Tactical Employment. In strike operations, DND conduct reconnaissance, suppress threats, breach barriers, and maintain communications. In amphibious scenarios, they escort landing forces, deliver equipment, and support evacuation. Post‑mission, DND coordinate retrieval and guidance of surviving strike drones to recovery zones, ensuring operational continuity.
Strike Naval Drones (SND)
Mission Profile
SND are designed for offensive operations targeting maritime and coastal assets, disrupting logistics and infrastructure.
Structural Configuration
Unified architecture with DND and SRND, radar‑absorbing coatings, semi‑submersible capability, hybrid propulsion system, IFHPP, self‑destruction mechanism, and reconfigurable payload architecture.
Mission Equipment Suite
Advanced navigation systems with embedded scenario logic, SATCOM modules, concealment and deception systems, autonomous self‑diagnostic and termination protocols.
Offensive Payload Systems
Thermobaric warheads, shaped charges, guided munitions, EW suppression modules, short‑range anti‑air systems, and programmable target prioritization enabling dynamic switching during combat evolution. Payloads are modular blocks optimized for weight distribution and autonomous execution.
Tactical Employment
- Group‑Based Deployment: synchronized operations with DND, distributed strikes, dynamic reprioritization.
- Autonomous Operation: independent routing, onboard risk analysis, execution under communication loss.
- Adaptive Engagement: operator override capability, remote self‑destruction, deployment of decoys and smoke screens.
- Kamikaze‑Style Missions: high‑impact strikes against fortified positions, coordinated with EW suppression of CIWS and directed‑energy defenses.
Search‑and‑Rescue Naval Drones (SRND)
Mission Profile
SRND conduct the full rescue cycle: detection, aid delivery, evacuation, victim monitoring.
Structural Configuration
Reinforced hull for harsh environments, semi‑submersible capability, energy‑efficient modules, IFHPP, unified platform architecture with expanded internal volume for rescue operations.
Mission Equipment Suite. Hydroacoustic sensors, visual detection systems, emergency aid kits, navigation markers, evacuation systems, victim monitoring modules (temperature, oxygen, heart rate). Additional interoperability features enable coordination with UAVs and helicopters for rapid extraction.
Defensive Systems
Limited armament: light turret and passive EW suppression modules for emergency protection.
Tactical Employment
Deployed in disaster zones, SRND mark areas, monitor victims, deliver life‑support resources, coordinate evacuation, and ensure interoperability with shipborne assets, helicopters, and UAVs. Their covert operation in storm or contested zones ensures continuity of humanitarian missions.
In the framework of NAVIS, the use of aerial unmanned systems is envisaged for local reconnaissance, route refinement during strike operations, and the interception of hostile unmanned platforms. These functions are distributed between two types of aerial drones — reconnaissance drones and interceptor drones — which are regarded as external means of ensuring operational resilience and do not require the formation of a separate category of naval platforms. The creation of a specialized class of carrier‑type naval drones would result in duplication of the functional role of strike platforms, an increase in the cost of producing and operating such systems, and an unnecessary expansion of the classification structure. Within the existing NAVIS architecture, the full spectrum of combat tasks is already allocated among the three types of naval drones, which eliminates the need to introduce additional categories.
Deployment Bases
NAVIS employs a multi‑layered system of deployment bases: surface‑based platforms, subsurface stations, seafloor modules, and container platforms. These basing layers incorporate concealment, environmental adaptation, and trawl‑resilience measures as part of their structural protection profile.
Classification of Container Types:
- Type‑A: surface‑based, rapid access, fleet‑integrated.
- Type‑B: subsurface, tethered, camouflaged.
- Type‑C: seafloor‑deployed, engineered for high‑pressure tolerance and terrain‑adapted anchoring.
- Type‑D: aerial delivery, shock‑absorbing, autonomous stabilization.
- Type‑E: hybrid, adaptable across modes.
Geological factors
Seafloor deployment requires validated seabed slope profiles, hydrodynamic and seismic analysis, and terrain compatibility. Seasonal and seismic factors must be integrated into deployment planning to ensure container stability and survivability. Redundancy protocols and distributed basing prevent single‑point failures, ensuring resilience under contested conditions.
Logistics
Operational Logistics Architecture
Logistics is defined as an operational system encompassing assembly, deployment, mission support, extraction, and reuse.
Lifecycle Stages.
- Mission‑Specific Assembly: modular integration based on operational parameters.
- Delivery to Staging Area: via surface towing, aerial deployment, or underwater capsules.
- Activation Protocols: manual, environmental triggers, or AI command.
- Mission Execution: strike, escort, reconnaissance, rescue, or command relay.
- Extraction and Recovery: autonomous or assisted retrieval.
- Reuse and Servicing: inspection, servicing, reintegration.
Scenario‑Based Logistics
Preventive deployment, reactive deployment, covert deployment, evacuation logistics. Logistics is an operational layer aligned with mission architecture.
Application Scenarios
NAVIS employs scenario logic, where each platform fulfills a defined role within the overall structure. Core scenarios include:
- Maritime Target Engagement: coordinated deployment of SND and DND.
- Amphibious Support Operations: escort and cover for landing forces.
- Evacuation and Humanitarian Assistance: rescue and evacuation missions.
- Covert Pre‑Deployment: concealed staging in contested zones.
- Hybrid Multi‑Platform Operations: distributed force structuring, resilience, adaptive engagement across domains. Hybrid operations integrate strike, defense, and rescue functions, enabling NATO to maintain initiative under degraded communications and contested environments.
Conclusion
The material presented here is a publicistic version of the NAVIS Doctrine. It translates doctrinal formulations into an accessible analytical narrative, preserving the terminology and structural logic of NAVIS while presenting them in a format suitable for strategic discussion and conceptual dissemination. The doctrine itself presupposes a deeper development of operational modeling and scenario simulations that extend beyond the scope of this text. Amid the rapid growth of autonomous threats, the United States requires not a partial adjustment but a doctrinal restructuring of its maritime thinking. NAVIS offers precisely such a framework — coherent, reproducible, and oriented toward high‑probability scenarios of future conflicts. In an environment of mounting strategic uncertainty, the question is no longer whether such an architecture is needed, but how soon it will be required. The present article represents only the initial level of this architecture.
Sergey E. Ivashchenko is a strategic analyst working at the intersection of escalation dynamics, information strategy, and long‑range strategic forecasting.
This article was originally published by RealClearDefense and made available via RealClearWire.
