China's robot revolution in motion

更新时间：2026-02-20 01:47 来源：牛马见闻

2025年我国超410万人次取得高级工以上证书,我国有多少高级工程师

好评中国丨超长假期点亮“乐购新春”开门红

赶早场看的《镖人》，直接包场！电影很不错，打戏高潮不断,镖人讲的是什么

亚马逊(AMZN.US)、谷歌(GOOGL.US)、微软(MSFT.US)成最大赢家？Anthropic至2029年或支付超800亿美元云费用

AI是工具，不是智能，这是正确的；但是AI的工作原理…,ai的基本功能

Competing models of innovation The divergence between China and the West is not reducible to technical capability alone;

<section class="f_right detail_article_content"> <ct> <figcaption>A humanoid robot leads a lion dance during a parade along the Champs-Elysees Avenue in Paris, France, blending tradition with technology ahead of the Chinese New Year.[Photo/Xinhua]</figcaption>When Unitree's G1 humanoid robot executed a flawless 720-degree backflip on the stage of the Spring Festival Gala, it was easy to read the moment as spectacle. The somersault was crisp, the landing controlled, the applause immediate. Yet the performance signified something far more consequential than acrobatic novelty. It crystallized a broader transformation: China's deliberate evolution from the world's factory floor into a central architect of next-generation robotics. Western headlines described the event as a "robotic revolution". But revolutions are, by nature, often chaotic. What is unfolding in China is neither spontaneous nor accidental. It is the cumulative result of strategic planning, vertically integrated supply chains, state-backed research ecosystems, and a cultural preference for applied experimentation over isolated theorizing. Machines that think on their feet The most visible expression of this shift is technological. In 2025, humanoid robots on public stages moved stiffly, executing preprogrammed folk dances with mechanical caution. By 2026, the G1 demonstrated fluid martial arts sequences—precise spins, controlled landings, and dynamic recoveries from imbalance. The difference was not merely aesthetic; it reflected a structural leap in embodied intelligence. On paper, the hardware is formidable. The G1's joints deliver peak torques approaching 500 newton-meters, enabling explosive movement and stable recovery. Its carbon-fiber frame keeps total weight under 50 kilograms without sacrificing structural integrity. High-density batteries nearing 400 watt-hours per kilogram extend operational endurance while maintaining agility. These figures matter because they narrow the gap between mechanical output and human biomechanics. But raw power alone does not produce grace. The decisive breakthrough lies in sensor fusion and adaptive control. Inertial measurement units, force sensors embedded in the feet and joints, and visual SLAM systems continuously update the robot's understanding of its posture and surroundings. During the televised backflip, observers noted a subtle knee adjustment on landing—a micro-correction executed in milliseconds. That tiny movement symbolized something larger: the ability of machines to respond autonomously to unpredictable physical conditions. Even more telling was the synchronized choreography of more than fifty robots, operating with latency measured in mere milliseconds. Coordinating multi-agent systems at such speed requires distributed AI architectures capable of balancing centralized planning with decentralized execution. This is not simply about one robot performing well; it is about coordinated fleets acting in concert—an ability with implications that extend far beyond a gala stage. From laboratory prototype to industrial ecosystem Technological sophistication means little without industrial scalability. Here, China's advantage becomes structural. The robotics sector benefits from an integrated supply chain that compresses development cycles and lowers costs. Domestic AI chipmakers, sensor manufacturers, and precision component suppliers operate in dense geographic clusters, particularly in provinces like Zhejiang and Guangdong. This proximity reduces procurement delays, accelerates iteration, and allows rapid refinement from prototype to production. Cost competitiveness is equally critical. By leveraging mature manufacturing infrastructure and economies of scale, Chinese humanoid robots are often produced at significantly lower costs than their Western counterparts. This price differential does more than expand export potential; it accelerates domestic adoption across sectors. China's robotics industry, now measured in the tens of billions of dollars, uses public demonstrations as high-intensity testing environments. Events such as the Spring Festival Gala function as real-world stress tests. Robots must navigate dynamic lighting, complex choreography, crowded backstage logistics, and live broadcasting pressures. Failures are visible; performance must be robust. This approach—testing systems in demanding, unscripted conditions—compresses the gap between research and deployment. The results are visible in expanding applications. Humanoid and semi-humanoid systems are moving into eldercare facilities, logistics centers, and electric vehicle assembly lines. The same dynamic balance algorithms that enable a backflip also allow robots to traverse uneven terrain in disaster response or maintain stability while carrying loads on factory floors. International expansion underscores this transition. Chinese robotics firms are increasingly active in European and Asian markets, supplying both hardware platforms and integrated solutions. As export shares rise, China is no longer merely assembling machines; it is shaping usage norms and technical expectations. Competing models of innovation The divergence between China and the West is not reducible to technical capability alone; it reflects contrasting innovation cultures. Silicon Valley and European research institutions often prioritize incremental validation, extensive peer review, and controlled laboratory testing. This model excels in foundational breakthroughs and rigorous standardization. China, by contrast, has embraced scenario-driven innovation: deploy early, test under pressure, iterate rapidly. High-stakes public applications become catalysts rather than endpoints. This difference has practical consequences. Dynamic balance, multi-agent coordination, and real-world adaptability are strengthened when systems confront messy environments rather than idealized lab conditions. Over time, such exposure compounds into durable capability advantages. There is also a standards dimension. As Chinese robots proliferate in global markets, their communication protocols, operating architectures, and component interfaces may become de facto norms. Standards are not merely technical agreements; they embed influence. Control over ecosystems—software platforms, update pipelines and hardware compatibility—shapes long-term dependency structures. In this sense, robotics becomes a contest of ecosystems. The question is no longer simply who builds better machines, but whose technological frameworks ultimately define the parameters of industrial automation and intelligent systems worldwide. Beyond the stage: A technological civilization The backflip was theater, but its longer arc points toward daily life. Aging demographics, labor shortages, and the demands of disaster resilience create structural incentives for humanoid deployment. Robots capable of navigating human environments—stairs, cluttered rooms, unpredictable surfaces—can complement existing automation beyond controlled settings. China frames this expansion in terms of "human-machine harmony", envisioning robots not as replacements but as collaborators. There is also a philosophical undertone to this vision. Integrating advanced AI with cultural concepts of balance and systemic interdependence suggests an ambition to embed robotics within a broader social narrative, rather than treat it as purely another instrumental technology. Whether that vision materializes remains uncertain. Ethical governance, labor displacement, and international trust will shape the trajectory. But the direction is unmistakable: robotics is no longer peripheral to China's development strategy. It sits at the intersection of industrial upgrading, demographic management, and global technological positioning. The opening move The 720-degree backflip was not an endpoint. It was a signal — a demonstration that China's robotics ecosystem has reached a threshold where power, intelligence and manufacturability converge. The performance condensed years of research, supply-chain coordination, and policy alignment into a few seconds of controlled rotation in midair. If the past decades defined China as the workshop of the world, the coming era will test its capacity to become one of its principal engineers. In that unfolding contest, the choreography of machines on a holiday stage may prove to have been less a moment of entertainment than a quiet prologue.</ct> 来源：chinadaily.com.cn 编辑！：何颖  </section>

编辑：青木悠