China’s Robot Revolution is reshaping robotics, manufacturing and AI as Beijing expands its humanoid robot industry, while India faces a growing technological gap.
Qalam Times News Network
Kolkata | September 10, 2026
Beijing is rapidly combining artificial intelligence, robotics and manufacturing—raising economic, technological and strategic concerns for India
China’s Robot Revolution is no longer something confined to science-fiction films. What once appeared as a futuristic idea in Hollywood is increasingly becoming part of the real world, with China emerging as the dominant force in humanoid robotics, industrial automation and the integration of artificial intelligence with physical machines.
The idea may remind many people of Real Steel, the 2011 film starring Hugh Jackman, which imagined a future in which robots replaced human boxers in the ring. At the time, the concept seemed firmly rooted in science fiction. But the spectacular demonstrations at China’s second World Humanoid Robot Games have offered a striking glimpse of how quickly robotics is moving from laboratories and cinematic screens into real-world applications.
The China’s Robot Revolution has also attracted growing attention because of the scale at which Beijing is developing its robotics ecosystem. Analysts and industry observers increasingly argue that the combination of AI, advanced sensors, motors, batteries and mechanical systems—often described as “embodied intelligence”—could become one of the most important technologies shaping the global economy and, potentially, geopolitics.
According to industry estimates cited in discussions about China’s robotics sector, the country accounts for the overwhelming majority of global humanoid-robot production, with some estimates putting its share at between 95 and 97 per cent. Beyond manufacturing capacity, China is attempting to build an entire ecosystem covering research, components, artificial intelligence, batteries, semiconductors, software and mass production.
The five-day World Humanoid Robot Games in Beijing provided a dramatic showcase of China’s ambitions. The event reportedly brought together 2,056 humanoid robots representing 666 teams from 16 countries, competing across 51 events and 1,301 individual contests.
Among the most closely watched competitions was the 100-metre sprint. A robot named TianGong Ultra, developed by the Beijing Humanoid Robot Innovation Centre, reportedly completed the distance in 8.64 seconds.
The reported time was faster than Usain Bolt’s human world record of 9.58 seconds. However, comparisons between humanoid robots and human athletes need to be treated cautiously because robots operate under fundamentally different mechanical and technical conditions.
The 400-metre event produced another eye-catching result, with China’s TianGong robot reportedly completing the race in 38.15 seconds, compared with the human world record of 43.03 seconds.
The pace of improvement has been particularly striking. At the previous year’s competition, the winning time in the same event was reportedly around 1 minute and 28 seconds. The dramatic reduction illustrates how rapidly developers are improving balance, movement, motors, control systems and artificial intelligence.
Robotics demonstrations were not limited to athletics. An all-robot café reportedly served 202 cups of coffee in one hour without direct human assistance, earning recognition as a Guinness World Records achievement.
Yet the competitions also produced plenty of comic failures. Robots have been seen losing balance, crashing into walls and struggling to coordinate their movements. In football matches, some machines even appeared to bring down their own teammates.
For researchers and manufacturers, however, such failures are not necessarily signs of weakness. Every fall, collision or coordination error generates data that can be used to improve software, sensors, motor control and machine-learning systems. In robotics, repeated experimentation is itself an essential part of technological development.
China’s price advantage is changing the global robotics market
China’s greatest advantage may not simply be the sophistication of its robots but the country’s ability to manufacture them at comparatively low cost.
Chinese robotics companies are increasingly attempting to make humanoid and quadruped robots commercially accessible. Unitree, one of China’s best-known robotics manufacturers, has marketed its G1 humanoid robot at a price of roughly US$16,000, significantly below the cost of many advanced humanoid systems being developed in the United States and Europe.
Unitree’s quadruped robots have also gained international attention. China’s combination of low-cost manufacturing, an extensive electronics supply chain and large-scale industrial production has created a formidable competitive advantage.
This model is similar to the strategy that helped Chinese companies expand rapidly in electric vehicles, batteries and solar technology: reduce production costs, scale manufacturing quickly and compete aggressively in international markets.
The implications extend beyond humanoid robots. China’s robotics manufacturers are producing warehouse robots, industrial machines, robotic dogs and autonomous systems for customers around the world.
In Britain, for example, thousands of mobile floor robots developed by Chinese company Geek+ have reportedly been deployed in logistics and warehouse operations associated with major retailers. Such systems can move goods, transport shelves and automate repetitive warehouse tasks, helping companies address labour shortages while increasing operational efficiency.
The foundation for much of this development was built through China’s electric-vehicle ecosystem. Advanced batteries, electric motors, sensors, semiconductor components and sophisticated manufacturing processes developed for EVs can also be adapted for robotics.
That convergence could fundamentally change the future of manufacturing.
Xpeng chairman and CEO He Xiaopeng has argued that automobile manufacturers may eventually evolve beyond conventional vehicle production and become robotics companies as well. The distinction between an automobile factory and a robotics factory could therefore become increasingly blurred.
From factories to the battlefield
The implications of the robotics race go well beyond commercial applications.
Military analysts have increasingly examined the possibility that advances in autonomous systems, drones, robotic vehicles and AI-controlled machines could transform warfare. China has already demonstrated unmanned and robotic systems in military exercises.
Footage broadcast by Chinese state television has shown military exercises involving drones, quadruped robotic dogs equipped for combat-related roles and unmanned ground vehicles operating alongside Chinese soldiers.
Some defence experts have gone further, suggesting that China’s rapid development of civilian robotics could eventually contribute to military applications. Australian military specialist and former brigadier Ian Langford has reportedly argued that robotics competitions and demonstrations could provide useful testing environments for technologies that might later have military applications.
Such claims remain matters of expert assessment rather than established evidence that civilian robotics competitions are deliberately being used as secret military trials.
Nevertheless, the strategic possibilities are difficult to ignore.
Robotic systems could potentially be used for reconnaissance, logistics, surveillance, bomb disposal, battlefield transportation and other dangerous tasks. More advanced autonomous systems could eventually operate with decreasing levels of direct human control.
Some experts believe that the character of warfare could change significantly by 2030 as artificial intelligence, drones and autonomous machines become more capable.
For India, this development carries particular significance because of the long-running strategic competition along the China-India border. If autonomous surveillance systems, unmanned vehicles or armed robotic platforms become a major component of future military deployments, maintaining technological parity could become another important dimension of national security.
Where does India stand?
The gap between China and India is particularly visible in industrial robotics.
According to International Federation of Robotics data cited in the supplied analysis, Chinese factories had more than 2.027 million industrial robots in operation in 2024, while India’s installed base was approximately 52,000.
The disparity is enormous. China has also encouraged the rapid expansion of companies working on humanoid robotics through government support, investment and industrial policy. More than 150 companies are reported to be working in the country’s humanoid robotics ecosystem. India, by comparison, has a much smaller domestic manufacturing base for advanced robotic hardware.
One of the major challenges is access to components. Indian robotics startups often depend heavily on imported microcontrollers, sensors, actuators, cameras, circuit boards, motors and other precision components.
Mohammad Azhar, co-founder of Indian robotics company Autonix, has pointed to the country’s dependence on imported components as a major obstacle. According to the assessment cited in the supplied material, as much as 99 per cent of components required by some Indian robotics manufacturers may be sourced from China, Japan, Germany or other overseas markets.
This dependence makes it difficult for Indian companies to compete on price and scale.
India has attracted substantial investment in electronics and automobile manufacturing through initiatives such as the Production Linked Incentive scheme. But robotics requires a much broader deep-tech ecosystem, including long-term research funding, specialist manufacturing, venture capital and access to advanced components.
China’s advantage is that companies can experiment repeatedly while operating within a huge manufacturing ecosystem supported by substantial public and private investment. Indian startups often cannot afford the same level of experimentation.
India does not necessarily have to duplicate China’s entire model. But it needs to build domestic capabilities in the most strategically important areas.
Rather than focusing only on assembling complete robots, India could prioritise the manufacture of high-value components such as advanced sensors, actuators, circuit boards, precision motors, controllers and other essential hardware.
Indian Institutes of Technology and leading universities could play a much larger role in robotics research, particularly in artificial intelligence, machine vision, mechanical engineering, control systems and human-machine interaction.
Robotics should also be treated as a strategic deep-tech sector rather than merely another software industry.
That would require long-term government grants, tax incentives, research partnerships, specialised testing facilities and greater access to venture capital for hardware startups.
India’s objective should perhaps be to become a fast follower rather than attempting to immediately overtake China. If China has established a technological lead today, India should aim to close a significant part of that gap within the next few years while simultaneously developing technologies suited to its own industrial and strategic requirements.
AI is the brain; robotics is the body
The central lesson from China’s rapid progress is relatively simple: artificial intelligence alone cannot transform the physical economy.
AI provides the intelligence, while robotics provides the physical ability to act.
The combination of the two could reshape factories, warehouses, healthcare, agriculture, transport, defence and domestic services. Countries that control both the software and hardware layers of this technology will possess a major economic advantage.
China appears to have recognised this connection early and is investing accordingly.
For India, the challenge is therefore larger than simply producing humanoid robots. It is about building an entire technological ecosystem capable of designing, manufacturing and improving the machines that will increasingly operate alongside humans.
The global robotics race is only beginning. China’s rapid advances suggest that the next phase of competition will not be fought solely over who develops the smartest AI system, but also over who can give that intelligence a physical form—and manufacture it at scale. For India, the window to build that capability is narrowing.
