Drone Aircraft Carrier

An aircraft carrier or large naval platform designed or converted to operate unmanned aerial vehicles (UAVs) as its primary carrier aircraft.

Drone Aircraft Carrier

Overview

A drone aircraft carrier (Drone Carrier, UAV Carrier; Korean: 드론 항공 모함) refers to an aircraft carrier or large surface vessel platform designed or converted to operate unmanned aerial vehicles (UAVs) as its primary carrier aircraft instead of manned fighters. In the narrow sense, it includes ships built as dedicated drone carriers, such as Turkey's TCG Anadolu; in the broad sense, it also covers systems that operate manned and unmanned aircraft together, such as the U.S. carrier-based MQ-25 Stingray. Entering the 2020s, as the range, payload, and autonomy of unmanned systems improved rapidly, it emerged as a key concept for redesigning the cost-effectiveness and survivability of carrier power.

Key Details

Concept and Background

Traditional aircraft carriers operate dozens of manned fighters and provide advanced air-defense and strike capabilities, but their construction and operating costs are enormous and they require thousands of crew members. Drone carriers, by contrast, can carry many relatively inexpensive UAVs and assign them to roles such as intelligence, surveillance, and reconnaissance (ISR), anti-submarine warfare, refueling, support for manned aircraft formations, and attritable strike missions. The key motivations are lowering the risk of human casualties and being more advantageous than manned aircraft in long-endurance loitering and repeated sorties.

Platform Types

1) Dedicated drone carriers — ships designed from the outset for UAV operations. Turkey's TCG Anadolu (commissioned in 2023) is often cited as the world's first drone carrier and aims to operate Bayraktar TB3 and the jet-powered UAV Kızılelma.

2) Mixed-operation carriers — the U.S. Navy's carrier strike group system, operating manned fighters and UAVs together. The MQ-25 Stingray shares the aerial refueling mission of carrier-based manned aircraft and extends their combat radius.

3) Converted/multi-purpose vessels — a method of converting amphibious assault ships or large transport ships to carry a mix of drones and helicopters. Iran's Shahid Bagheri-class drew attention as an example of converting a merchant ship to operate drones and helicopters.

Core Technology Elements

Launch and recovery methods: Electromagnetic Aircraft Launch System (EMALS) and advanced arresting gear are key to automating UAV launch and recovery. China's Type 076 amphibious assault ship (Sichuan) is known as a large drone-carrier-type platform equipped with an electromagnetic catapult.
Autonomous shipboard operations: Deck management and mission-planning software capable of autonomously performing automatic launch/recovery, turnaround, and rearming on the carrier deck are required.
Communications and data links: Low-latency data links between satellites and ships-UAVs, and communications survivability in electronic warfare environments, determine operational success.
Combat management system integration: A manned-unmanned teaming (MUM-T) system that integrates and controls UAVs with manned aircraft formations is required.

Operational Concepts and Limitations

Drone carriers are developing in the direction of combining with the Distributed Maritime Operations (DMO) concept to disperse threats across multiple medium-sized unmanned platforms instead of concentrating power in a single high-cost carrier. However, challenges remain, including ▲reliability and regulatory issues regarding autonomy ▲ensuring safety when communications are lost ▲safety of high-density operations on the carrier deck ▲survivability of UAVs (evading air-defense networks). In addition, because UAV payload and range are limited compared with manned fighters, for the time being their role is expected to focus on complementing rather than replacing manned forces.

Latest Trends

2024–2025 was a turning point as drone carriers moved from concept validation to operational deployment. The United States continued carrier integration tests of the MQ-25 Stingray and pushed to unmannedize the aerial refueling mission supporting manned aircraft, and it fleshed out plans to gradually expand the proportion of UAVs in the next-generation Carrier Air Wing (CAW) concept. China launched the large Type 076 amphibious assault ship in late 2024, securing a platform with electromagnetic catapult and large UAV operation capabilities, which is assessed as a new variable in the maritime balance of power in the Indo-Pacific region. Turkey continued shipboard launch and recovery tests of the TB3 on Anadolu and accumulated drone carrier operating doctrine, while Iran deployed a converted carrier to broaden the scope of drone operations in the Middle East. In Europe, the United Kingdom and Italy, among others, are conducting UAV tests on carrier decks and manned-unmanned teaming experiments in parallel. Technologically, autonomous shipboard launch and recovery, AI-based mission replanning, and combined UAV-satellite communications emerged as key competitive areas in 2025.