China is rapidly exploring how humanoid robots could move beyond demonstrations and become part of future military operations. After humanoid machines competed in running, boxing and dancing events at the World Humanoid Robot Games in China, attention quickly shifted from entertainment to their possible use on the battlefield. The growing interest reflects a wider global race to develop autonomous systems that can perform dangerous tasks while reducing the risks faced by human soldiers.
The World Humanoid Robot Games, held in China last month, showcased how quickly these machines are developing. Robots demonstrated their ability to run, jump, box and dance, attracting considerable public attention. Some machines even recorded impressive speeds in the 100-meter event, highlighting advances in balance, movement and coordination. For many spectators, the event was primarily a display of technological progress. For China’s military researchers, however, the capabilities demonstrated by these machines offered a glimpse of what future battlefield robots might eventually be able to do.
Only two days after the Games ended, the People’s Liberation Army’s official newspaper published a significant message about the military potential of robotics. The PLA Daily called for researchers to speed up the movement of advanced technologies from laboratories into military training environments. It specifically discussed the development of robotic “combatants,” signaling growing interest in adapting civilian advances in robotics for defense purposes.
China’s military establishment has increasingly been examining how humanoid robots could operate under battlefield conditions. A review of Chinese military procurement notices, academic research, patents, government documents, official publications and defense-industry materials indicates that researchers are studying a broad range of possible applications. The work includes testing robots against military requirements, obtaining robotic equipment and technologies, developing training systems and examining how humanoids could work alongside human troops.
Much of the recent research has focused on capabilities that would be essential for a robot operating in unpredictable environments. These include perception, physical manipulation, movement and the ability to learn from large quantities of training data. A humanoid robot designed for military use would need to identify objects and obstacles, understand its surroundings, move through difficult terrain and manipulate equipment. Unlike a conventional industrial robot working in a controlled factory, a battlefield machine would have to deal with constantly changing conditions.
Research activity appears to have gained momentum during 2025 and 2026. The development is taking place alongside China’s rapidly expanding commercial humanoid-robot industry. Chinese manufacturers accounted for roughly 95% of global humanoid robot shipments in 2025, according to BofA Global Research. That commercial scale could give China’s defense sector access to a large and increasingly sophisticated domestic ecosystem of robotics companies, engineers, components and artificial-intelligence technologies.
The relationship between civilian robotics and military technology is particularly important in this area. Advances initially developed for factories, logistics, research laboratories or entertainment can potentially be adapted for defense applications. Improvements in motors, batteries, sensors, artificial intelligence, computer vision and robotic control can all contribute to machines capable of performing increasingly complex physical tasks.
The interest in humanoid robots is also part of a much larger transformation in modern warfare. The conflict between Russia and Ukraine has demonstrated the growing importance of unmanned and semi-autonomous systems. Artificial-intelligence-enabled drones are being used for reconnaissance, navigation and attacks, while ground robots can perform logistical duties and assist with the recovery of wounded personnel. These developments have provided militaries around the world with practical evidence that machines can increasingly operate in environments where sending humans may be dangerous.
China has been closely watching the lessons emerging from the war in Ukraine. The conflict has shown how quickly relatively small and inexpensive unmanned systems can change battlefield tactics. It has also demonstrated the importance of combining artificial intelligence, communications networks, sensors and autonomous navigation. For Chinese military planners, these developments offer valuable information about how future conflicts could unfold and what technologies might provide an advantage.
Humanoid robots present a different set of possibilities from drones and conventional military vehicles. Their human-like shape could allow them to interact with environments designed for people. A machine with two legs and two arms could potentially move through buildings, climb stairs, handle tools and operate equipment without requiring specially designed infrastructure. This could make humanoids attractive for certain missions where traditional wheeled or tracked robots face physical limitations.
Military researchers are reportedly considering scenarios in which humanoid robots could operate alongside soldiers during urban operations or move into areas considered too dangerous for human personnel. Such possibilities remain largely experimental, and significant technological challenges still need to be overcome. A robot that performs successfully in a controlled demonstration is very different from one expected to function reliably amid smoke, debris, electronic interference, poor visibility and unpredictable human activity.
Energy and endurance are among the biggest obstacles. Humanoid robots require substantial power for movement, computing and sensors. Batteries remain limited compared with the energy demands of sustained physical activity. Reliability is another concern. Military equipment must function under harsh conditions, and a failure in a critical situation could make an expensive robot ineffective.
Artificial intelligence presents another major challenge. A military robot would need to distinguish between objects, people and threats while operating under uncertain conditions. Making machines capable of sophisticated decisions also raises difficult questions about human control, accountability and the appropriate role of autonomous systems in warfare. Technology may advance quickly, but military organizations still have to determine where humans should remain directly involved in decision-making.
