男女羞羞视频在线观看,国产精品黄色免费,麻豆91在线视频,美女被羞羞免费软件下载,国产的一级片,亚洲熟色妇,天天操夜夜摸,一区二区三区在线电影
Global EditionASIA 中文雙語Fran?ais
Opinion
Home / Opinion / Chinese Perspectives

From humanoids to parallel intelligence

By WANG FEIYUE | China Daily | Updated: 2025-08-23 09:20
Share
Share - WeChat
Visitors interact with a robot dog at the 2025 World AI Conference (WAIC) in East China's Shanghai, July 29, 2025. [Photo/Xinhua]

Shanghai hosted the 2025 World Artificial Intelligence Conference and the High-Level Meeting on Global AI Governance last month. Earlier this month, Beijing played host to the World Robot Conference and the World Humanoid Robot Games — a dazzling display of China's technological energy, innovation and ambition in the era of "AIR", that is, AI plus robotics.

From AI to embodied intelligence, these technologies are not just tools but also engines set to transform our world. Open, collaborative global development is one of the best ways intelligent science and technology can benefit humanity and help countries achieve sustainable growth.

Tesla and SpaceX founder Elon Musk recently said: "The path to solving hunger, disease, and poverty is AI and robotics." But he was only half-right, because AIR represents only a new paradigm for human survival, a kind of "intelligent air" that sentient life cannot do without.

The real showstopper is the humanoid robot. This was reflected at the World Humanoid Robot Games, which featured 26 events and 487 matches, with more than 500 humanoid robots from 127 brands.

Teams from 16 countries across five continents, including 192 university squads and 88 corporate teams, competed in the games. According to the International Federation of Robotics' Aug 14, 2025, report, "Vision and Reality", humanoid robots are on track to become "the next big thing in robotics".

China, as the world's largest industrial robotics market, has laid out concrete plans and targets, and begun large-scale production and application. The goals are clear: transformation of manufacturing, embedding robotic intelligence in society, and accelerating the rise of a knowledge-driven, intelligent industrial ecosystem.

But behind the glittering spectacle lies serious engineering. Participants tested hardware platforms, multimodal perceptions, decision-making, execution control, communications and energy management. The arena featured a mix of jaw-dropping leaps, awkward tumbles and occasionally comical missteps. They reminded us that humanoid robotics remains a frontier field, full of experimentation and rapid evolution.

The competition highlighted both the performance limits of individual machines and the immense promise of collaboration. To fully realize this potential, open, shared data and model coordination, cross-platform interaction and multi-robot collective intelligence are essential. And with the end of the games, these skills must migrate from the stadium to the real world — factories, hospitals and homes — where robots can continuously improve safety, adaptability and intelligence.

The games were more than a tournament; they were parallel experiments in motion, bringing together AI computational experiments and embodied agents' prescriptive intelligence. The goal was not merely winning medals but also practical, scenario-driven deployment. Robotics divorced from real-world application risks stagnating in low-level, repetitive development.

By testing humanoids under extremely challenging situations, the games publicly assessed motion control, environmental perception and autonomous navigation, embodying the ACP methodology of parallel intelligence: artificial societies plus computational experiments plus parallel execution. Every physical robot has a digital twin in the virtual world. Pre-game algorithm optimization counts as computational experiment; each graceful jump — or spectacular fall — feeds priceless real-world data. This feedback is prescriptive intelligence, guiding the next iteration toward smarter decisions and more effective actions.

The games also acted as a prism, reflecting the broader ecosystem, economic dynamics and social impact of humanoid robotics. First, they showed that intense competition can expose the industry's Achilles' heel. When a robot falters due to the limit of a gearbox or servo motor, the failure is far more visceral than any report.

Second, the games helped reassure investors, redirecting capital from abstract hype to tangible applications, and making sure that enterprises clear core technical bottlenecks and increase real-world deployment.

Third, they proved that robots on the field are athletes, not sci-fi villains. They assuaged the fear that "machines would replace humans" and instead helped many realize the fact that robots will liberate humans from repetitive or dangerous tasks while creating new value and employment opportunities. One minute a robot nails a flawless kick, the next, it trips spectacularly — both moments teach us the importance of persistence, learning and continuous technological development.

And fourth, the games raised a fundamental question: What does AIR really stand for? As scientists like Geoffrey Hinton caution, without careful guidance, AIR could serve capital rather than humanity. Beyond showcasing the "hard power" of robotics, the games provoke reflection on its soft power — policies, ethics and rules shaping its development. True intelligence is not measured by how fast a robot runs but by our ability to craft a safe, inclusive, and sustainable path through the parallel interaction of virtual and physical worlds.

In this sense, the World Humanoid Robot Games are far more than a competition. They are a thought experiment in action, blending spectacle, strategy and social insight. They demonstrate China's leadership in shaping an AIR era that is not only technologically advanced but also ethically grounded, economically rational and socially beneficial — a world where robots will not replace humans but empower them, and where intelligent machines become a true extension of human capability.

The author is director of the State Key Laboratory of Management and Control for Complex Systems, Institute of Automation, Chinese Academy of Sciences.

The views don't necessarily represent those of China Daily.

If you have a specific expertise, or would like to share your thought about our stories, then send us your writings at opinion@chinadaily.com.cn, and comment@chinadaily.com.cn.

Most Viewed in 24 Hours
Top
BACK TO THE TOP
English
Copyright 1995 - . All rights reserved. The content (including but not limited to text, photo, multimedia information, etc) published in this site belongs to China Daily Information Co (CDIC). Without written authorization from CDIC, such content shall not be republished or used in any form. Note: Browsers with 1024*768 or higher resolution are suggested for this site.
License for publishing multimedia online 0108263

Registration Number: 130349
FOLLOW US
主站蜘蛛池模板: 孝感市| 建阳市| 波密县| 盖州市| 陆良县| 石林| 且末县| 新巴尔虎右旗| 平武县| 大足县| 沭阳县| 呼和浩特市| 长汀县| 彭山县| 平遥县| 贵州省| 洛南县| 久治县| 井研县| 怀柔区| 汉寿县| 剑川县| 建始县| 景宁| 肥城市| 聂荣县| 锡林浩特市| 秦皇岛市| 罗甸县| 珠海市| 台南县| 济宁市| 鞍山市| 宁德市| 贵定县| 二手房| 平和县| 临泽县| 田林县| 涟源市| 兴山县| 游戏| 吴桥县| 环江| 伊川县| 泾川县| 高尔夫| 咸丰县| 东海县| 乌海市| 边坝县| 三河市| 抚顺市| 增城市| 梁河县| 利川市| 黄石市| 喀什市| 师宗县| 龙南县| 奉贤区| 安塞县| 准格尔旗| 建昌县| 西华县| 抚远县| 凉城县| 瓦房店市| 沐川县| 门源| 明水县| 黔东| 波密县| 绥滨县| 庄浪县| 阿拉善右旗| 兴化市| 陇南市| 措美县| 乐东| 光山县| 宣威市|