But Israel lacks the industrial capacity of the United States or China, limiting mass production.
By Hezy Laing
Around the world, only a handful of countries have accumulated deep, real‑world experience using robots in active warfare.
The United States, Israel and China stand at the center of this transformation, each developing and deploying autonomous or semi‑autonomous systems in ways that reflect their strategic cultures, industrial capacities, and battlefield realities.
Their approaches differ, but together they illustrate how robotics has become an essential pillar of modern conflict.
The United States remains the global pioneer in military robotics, with the longest and most heavily funded programs in the world.
Over the past decade, the Pentagon has expanded its investment in artificial intelligence and autonomous systems at an unprecedented pace, with AI‑related federal contracts surging dramatically between 2022 and 2023.
American forces rely on a wide ecosystem of robotic platforms, from the MQ‑9 Reaper and the XQ‑58 Valkyrie in the air to the RIPSAW M5 unmanned ground vehicle and the Sea Hunter autonomous naval vessel.
Smaller systems like the PackBot and TALON have been used for years in bomb‑disposal and hazardous missions.
The United States is strongest in airpower robotics and in integrating autonomous systems across all branches of the military.
Its main limitations lie in the slower development of heavy unmanned ground vehicles and in policy constraints that restrict the use of fully autonomous weapons.
American robotic systems have been deployed in Iraq, Afghanistan, Syria, and across the Pacific, where they have proven highly effective in surveillance, precision operations, and dangerous ground tasks.
Israel has woven robotics and AI into its military operations more tightly than almost any other nation.
Its forces routinely employ autonomous drones, AI‑assisted targeting systems, and robotic border‑patrol vehicles.
Systems such as the Harop loitering drone, the RoBattle unmanned ground vehicle, the Guardium patrol robot, and the Hermes 900 surveillance aircraft are central to Israeli doctrine.
Israel’s greatest strength is the constant real‑world testing of these systems in active combat environments, which accelerates innovation and adaptation.
Its weakness is scale: Israel lacks the industrial capacity of the United States or China, limiting mass production.
Israeli robots have been used extensively along the Gaza border, in counterterrorism operations, and in surveillance missions in Lebanon and Syria.
Their performance has been consistently effective, particularly in precision strikes and border defense.
China, meanwhile, is racing to become a dominant force in robotic warfare.
It has developed a wide array of systems, including the Sharp Claw series of unmanned ground vehicles, robotic “mule” transport platforms, the Wing Loong II unmanned aircraft, and even experimental unmanned tanks and humanoid robots.
China’s greatest advantage is its industrial scale and its ability to rapidly prototype and mass‑produce new designs.
It is weaker in real‑world combat experience, as most of its systems have been tested only in exercises or border patrols rather than large‑scale conflict.
Chinese robots have appeared in operations along the India–China border, in South China Sea drills, and in domestic security missions.
While they are operational, their battlefield effectiveness remains less proven than that of American or Israeli systems.
Ukraine has become the world’s most intense laboratory for robotic warfare.
Under the pressure of a full‑scale invasion, Ukrainian forces have turned to autonomous drones, AI‑driven reconnaissance systems, robotic “dogs” for mine detection, and small unmanned ground platforms for logistics and observation.
The country’s greatest strength is its ability to innovate rapidly in real time, often using civilian technology adapted for military purposes.
Its weakness is industrial capacity: Ukraine cannot mass‑produce large robotic systems while fighting a war.
Ukrainian robots have been used across the eastern and southern fronts, in urban combat, and in mine‑clearing operations.
Their small autonomous drones, in particular, have reshaped battlefield tactics and proven remarkably effective.
Other nations are developing significant capabilities, though on a smaller scale.
Australia’s MQ‑28 Ghost Bat represents one of the most advanced autonomous wingman drones in the world, developed in partnership with the United States.
The United Kingdom has invested heavily in robotic dogs, autonomous surveillance systems, and unmanned ground vehicles, many of which have been supplied to Ukraine.
Russia has fielded systems such as the Uran‑9 unmanned ground vehicle and a wide range of drones, though their performance in Syria and Ukraine has been inconsistent.
Taken together, these countries illustrate the emerging landscape of robotic warfare.
The United States leads in scale and sophistication, Israel in combat‑tested integration, China in industrial momentum, and Ukraine in rapid battlefield innovation.
Their experiences show that military robotics is no longer experimental—it is now a defining feature of modern conflict, shaping how wars are fought and how armies adapt to the future.
