Core Viewpoint - The article discusses the development and significance of a new soft-bodied underwater robot that utilizes innovative electro-hydraulic actuation technology, enabling it to operate effectively in extreme deep-sea environments, overcoming the limitations of traditional rigid robots [4][10][22]. Group 1: Technology and Innovation - The soft-bodied robot measures 32 cm in length, has an 18 cm wingspan, and weighs only 670 grams, showcasing exceptional adaptability to deep-sea conditions [1][7]. - Traditional rigid robots struggle in the deep sea due to high pressure and complex environments, making soft-bodied robots a more suitable solution due to their flexible structure and minimal environmental interference [3][4]. - The research team led by Professor Li Guorui from Harbin Engineering University has pioneered the use of electro-hydraulic actuators (EHA) for deep-sea soft-bodied robots, which do not rely on external pumps, thus allowing for a more compact and flexible design [4][10]. Group 2: Design Features - The robot features a wave-shaped tail for propulsion, buoyancy modules for stability, and an integrated optical sensing module for height adjustment, enabling it to monitor its distance from the seabed continuously [7][9]. - It incorporates a micro deep-sea optical sensing system that allows real-time perception of its motion and environmental targets, enhancing its operational capabilities in extreme conditions [9][10]. Group 3: Performance and Testing - The research team successfully tested the robot in various depths, including a deployment at 3176 meters in the South China Sea, where it demonstrated reliable maneuverability and sensing capabilities under extreme pressure and complex flow conditions [17][21]. - The robot's innovative design allows it to perform complex trajectory movements and low-disturbance detection, marking a significant advancement in deep-sea exploration technology [22][24]. Group 4: Future Implications - The development of this soft-bodied robot represents a breakthrough in deep-sea exploration, providing a powerful tool for marine scientific research, resource exploration, and environmental monitoring [22][10]. - The integration of artificial intelligence and robotics is expected to drive significant advancements in ocean development, making the ocean economy a vital growth point for coastal regions [22].

Core Viewpoint - The article highlights the innovative design and capabilities of the new wheel-legged robot FLORES developed by Hong Kong University of Science and Technology (Guangzhou), emphasizing its versatility in navigating various terrains and its energy efficiency compared to traditional robots [1][9]. Group 1: Robot Design and Capabilities - FLORES is capable of running on flat surfaces and climbing stairs, making it a unique addition to the field of robotic technology [1][6]. - The robot can traverse different terrains, including smooth roads, cobblestones, and grass, while maintaining stability and speed, showcasing its multi-terrain adaptability [6][12]. - Experimental results indicate that FLORES consumes only 30% of the energy of traditional wheel-legged robots during straight-line movement and 35% during turns, marking it as an energy-efficient option in the robotics sector [9][12]. Group 2: Technical Specifications - The hardware components of FLORES include an Intel i7-1165G7 CPU, various motors for joint movement, and a lithium battery with a capacity of 44.4V 8AH, which contribute to its performance [11]. - The innovative design features a unique front leg configuration that allows for seamless transitions between wheel and leg movements, enhancing navigation efficiency [15][18]. Group 3: Future Developments - The research team plans to enhance FLORES with a lightweight robotic arm for object manipulation and to enable more complex bipedal movements through advanced simulation techniques [20]. - FLORES is particularly suited for environments where flat surfaces and stairs coexist, making it ideal for tasks such as material transport and patrolling in office buildings and shopping malls [20].

Group 1 - Serve Robotics acquires Vayu Robotics to enhance delivery robots, leveraging large-scale AI models for urban deployment [1][3] - The acquisition aims to improve physical AI capabilities and includes a scalable multi-year contract to deploy up to 2,000 delivery robots on the Uber Eats platform across multiple U.S. markets [3] - Serve Robotics, spun off from Uber in 2021, has completed thousands of deliveries for partners like Uber Eats and 7-Eleven [3] Group 2 - Korean Air receives its first wearable robot, the X-ble Shoulder, from Hyundai and Kia, designed to enhance upper arm strength and reduce shoulder load during repetitive overhead tasks [4][6] - The X-ble Shoulder can reduce shoulder load by up to 60% and decrease anterior/lateral deltoid activity by up to 30%, improving productivity and comfort [6] Group 3 - Researchers at the Italian Dalle Molle Institute teach a robot to play drums using a machine learning algorithm, enabling the robot to learn human-like strategies for performing music [7][9] - This development could pave the way for robots to accompany live bands and provide a framework for teaching precise timing skills in other fields [9] Group 4 - A humanoid robot from KOID brand engages in promotional activities at a Hoka store, trying on shoes and participating in a campaign for a new AI and robotics ETF [10][12] - The KOID robot, manufactured by Unitree and powered by Stanford's OpenMind software, signifies potential future applications in customer service and retail assistance [12] Group 5 - Reports of a "pregnancy robot" being developed in China sparked significant online discussion, but the creator clarified that there are currently no such products or research plans [13][16] - The topic gained traction on social media, leading to widespread speculation despite the official denial from the company involved [16]

Core Viewpoint - The XbotMan—2025 Mingyue Lake Hard Technology Entrepreneur Competition is a significant opportunity for innovators in robotics and smart hardware, providing not only substantial prizes but also comprehensive support for project development and funding access [1][5][9]. Group 1: Competition Structure - The competition features a dual-track system: the "Seed Innovation Group" for early-stage projects and the "Innovative Enterprise Group" for established companies seeking funding [3][4]. - Participants in the Seed Innovation Group can include startups or individuals, while the Innovative Enterprise Group requires a core team of at least three members and existing technology or product prototypes [3][4]. Group 2: Resources and Support - Winning projects will share a total prize pool of 330,000 yuan and gain access to the Mingyue Lake International Smart Industry Innovation Base, which offers free office space and entrepreneurial funding ranging from 500,000 to 3.5 million yuan [5][19]. - The XbotPark ecosystem, initiated by Professor Li Zexiang from Hong Kong University of Science and Technology, has nurtured over 140 hard technology companies with an 80% survival rate and a 15% unicorn conversion rate, collectively valued at over 80 billion yuan [7][19]. Group 3: Industry and Financing Support - The competition will provide industry support through a Shared Factory and the Mingyue Lake Hard Technology Supply Chain Alliance, aimed at assisting projects in overcoming production challenges [8][10]. - Notable investment firms such as Sequoia Capital and Kexing Capital will participate in the event, offering direct financing opportunities to winning projects [9][19]. Group 4: Policy and Timeline - Outstanding projects will receive priority recommendations for provincial and municipal talent policies and technology project applications, with special channels for high-level talent and overseas returnees [12]. - The competition timeline includes registration from now until August 31, 2025, with preliminary rounds in September and finals in October [12][17].

Core Viewpoint - The 2025 World Humanoid Robot Games successfully concluded on August 17, featuring 280 teams from 16 countries competing in 26 events over three days, marking the first comprehensive competition for humanoid robots globally [1]. Group 1: Competition Overview - The event included a total of 487 matches across various categories such as competitive events, performance events, scenario events, and peripheral events [1]. - Notable performances included the championship in the 100 meters by the team "Tian Gong" with the robot "Tian Gong Ultra" achieving a time of over 21.50 seconds [1]. Group 2: Event Results - In the 400 meters, "Ling Yi Technology" with the robot "Yu Shu H1" secured the championship with a time of 6 minutes and 34 seconds [2]. - The 1500 meters saw "Yu Shu Technology" win the championship with a time of 1 minute and 48.78 seconds [2]. - The 4x100 meters relay was won by "Gao Yi Technology" with a time of 33.71 seconds using the robot "Yu Shu G1" [2]. Group 3: Special Awards and Recognitions - The "Best Robot" award was given to the "Wolf Pack Team" [4]. - The "Popularity Award" was awarded to "Chiweng" with the robot "Yu Shu G1" [4]. - The "Best Interaction Award" in the table tennis category went to the "Exploration Extreme Team" [5]. Group 4: Industry Participants - Various companies participated in the event, including "Yu Shu," "Tian Gong," and "Ling Yi Technology," showcasing advancements in humanoid robotics [12][13]. - The event highlighted the growing interest and investment in humanoid robotics, with numerous teams representing educational institutions and tech companies [12][13].

Core Viewpoint - Humanoid robots and embodied intelligence are at the forefront of the current era, with significant events showcasing advancements in these technologies, such as the recent World Humanoid Robot Games and the upcoming Second Zhongguancun Embodied Intelligent Robot Application Competition [1][3]. Group 1: Event Overview - The World Humanoid Robot Games featured 280 teams from 16 countries, showcasing over 500 humanoid robots and resulting in multiple world records [1]. - The upcoming Second Zhongguancun Embodied Intelligent Robot Application Competition will focus on practical applications of humanoid robots and embodied intelligence, aiming to demonstrate real-world scenarios where these technologies can assist human production and life [1][3]. Group 2: Industry Ecosystem - Haidian District has become a core area for the development of embodied intelligence, housing 186 companies in this sector, including 24 humanoid robot firms, and 21 educational institutions offering relevant programs [3]. - The district aims to enhance innovation and industry collaboration through the competition, fostering a robust ecosystem for embodied intelligence [3]. Group 3: Competition Highlights - The competition will feature three main tracks: Embodied Intelligence Model Capability Challenge, Embodied Intelligence Scene Application, and Embodied Intelligence Academic Frontiers and Industry Ecosystem [9][12]. - Each track will have specific focus areas, such as household services, commercial services, industrial manufacturing, and safety emergency applications, showcasing the practical skills of participating robots [8][15]. Group 4: Awards and Incentives - Each competition track will offer substantial prizes, with first prizes set at 50,000 yuan, second at 30,000 yuan, and third at 20,000 yuan, to encourage participation from top global teams [9][27]. - An additional innovation incentive of 5,000 yuan will be awarded to outstanding teams, along with certificates recognizing their innovative capabilities [27]. Group 5: Significance of Participation - Participation in the competition provides teams with opportunities to showcase cutting-edge technologies, enhance team collaboration, and engage in academic exchanges with industry experts [30][31]. - The event serves as a platform for accelerating market promotion and transforming technological achievements into practical applications [31].

Core Viewpoint - Yinglian Technology has launched the "External Axis Module," redefining the flexibility of robots and enhancing automation lines' intelligence, efficiency, and adaptability, serving as the "seventh axis" for complex tasks like grinding, welding, spraying, and inspection [1]. Group 1: External Axis Module Features - The External Axis Module integrates an industrial-grade RV reducer and a high-performance servo motor, overcoming traditional external axis limitations and seamlessly extending six-axis robots [1][2]. - The module features high-precision RV reducers with a unique compound transmission structure, ensuring ultra-low backlash and high rigidity, while the servo motor provides rapid response and precise motion control [2]. - The design allows for direct connection to the robot's control cabinet via the ECAT bus, reducing command transmission delays to microseconds and eliminating compatibility risks [4]. Group 2: Advantages of the External Axis Module - The module offers ±0.01mm ultra-high precision, ensuring accurate compensation for cumulative errors during motion, thus maintaining high fidelity in command execution [13]. - It boasts a rapid response time of 0.1 seconds, allowing for quick adjustments to sudden load changes, enhancing processing quality and equipment lifespan [14]. - The compact design enables high torque output in limited spaces, suitable for various high-load applications [15]. - The system's lifespan is extended to 30,000 hours, significantly reducing maintenance costs due to its durable design [16]. - The native compatibility with Yinglian's ecosystem optimizes performance and simplifies wiring, leading to cost savings and reduced failure points [15]. Group 3: Application Scenarios - The External Axis Module excels in grinding and polishing, enabling precise positioning and continuous rotation for complex surfaces, ensuring consistent surface treatment quality [19]. - In welding applications, it enhances the positioning of large workpieces, improving welding quality and efficiency while ensuring consistent welding paths [20]. - For spraying and inspection, the module guarantees uniform rotation and height adjustments, facilitating efficient and thorough coverage of large structures [21].

Core Viewpoint - The 2025 World Humanoid Robot Games successfully concluded in Beijing, showcasing the capabilities of humanoid robots in various competitive events, with a notable performance by Youliqi Robotics' Wanda series robots, which won multiple medals and demonstrated their potential for commercial applications [1][10]. Group 1: Event Overview - The event attracted 280 teams and over 500 humanoid robots from 16 countries, featuring 487 matches across four main categories: competitive events, performance events, scenario events, and peripheral events [1]. - Youliqi Robotics' team excelled in the scenario events, winning gold in the "Hotel Reception Service" and securing both gold and silver in the "Hotel Cleaning Service" [1]. Group 2: Technical Capabilities - The Wanda series robots were evaluated under a rigorous judging system that assessed their movement, timing, stability, and adaptability in a fully autonomous manner, akin to an "Olympic" standard for the industry [2]. - The robots demonstrated advanced capabilities in tasks such as luggage transport and waste collection, highlighting their proficiency in mobility, path planning, environmental perception, and precise manipulation [2][10]. Group 3: Algorithm and Hardware Innovations - The Wanda series is powered by Youliqi's proprietary three-in-one algorithm, which includes UniFlex, UniTouch, and UniCortex, enabling the robots to perform complex tasks in dynamic environments [4][5]. - The hardware features a world-first mass-produced eight-degree-of-freedom bionic arm, enhancing the robots' ability to execute intricate spatial maneuvers and precise control [7][9]. Group 4: Commercial Viability - The successful performance of the Wanda series robots in the competition indicates significant commercial potential, particularly in hotel services where they can enhance operational efficiency without requiring additional hardware modifications [10][11]. - Youliqi Robotics is actively pursuing partnerships with hotel groups, property management companies, and elder care communities to facilitate the large-scale deployment of humanoid robots in various scenarios [13][14]. Group 5: Future Prospects - The ongoing advancements in humanoid robot technology are expected to expand their applications beyond hospitality and elder care into sectors like retail, education, healthcare, and industrial operations, driven by continuous algorithm optimization and hardware upgrades [14].

1、 美国2025年上半年机器人售出17635台机器人 2025年上半年，北美机器人行业继续保持强劲发展势头。美国 自动化促进会（A3）的最新数据 显示，与 2024年上半年相比，机器人订单增长了4.3%，收入增长了7.5%，这表明在复杂的经济形势下，自动化投 资将继续保持强劲增长势头。其中，汽车行业领涨上半年，生命科学和塑料行业也贡献了增长。2025年上 半年，北美公司订购了17,635台机器人，总价值10.94亿美元。汽车原始设备制造商订单量同比增长34%， 其他表现优异的领域包括塑料和橡胶（+9%）以及生命科学/制药/生物医学（+8%），这反映了诸如产业 回流、劳动力短缺以及提高运营效率等更广泛的趋势。此外就品类而言，协作机器人 (cobot) 的市场份额 不断增长，2025 年上半年订单量达 3,085 台，价值 1.14 亿美元。仅在第二季度，协作机器人就占总订单 量的 23.7%，占总收入的 14.7%。 2、 361度与机器人企业合作 8月18日，361度国际有限公司在港交所公告，其全资附属三六一度（厦门）体育科技有限公司与工业机器 人企业斯坦德机器人（无锡）科技股份有限公司签订战略合作协议，双 ...

Core Viewpoint - The article highlights the innovative advancements of QianYue Technology in the field of multi-legged robots, showcasing their ability to combine heavy load capacity with precise control, marking a shift from robots as mere tools to collaborative partners in various industries [1][3]. Company Overview and Technological Breakthroughs - QianYue Technology, established in October 2015, focuses on the development and industrialization of multi-legged mobile robot systems, aiming to overcome the long-standing industry challenge of "heavy loads must be cumbersome" [4]. - The core product, the "Iron Horse Multi-Legged Robot," can carry up to 300 kg and features an innovative multi-joint torque feedback algorithm for precise collaboration with human operators [4][6]. - Key technological innovations include: - **Bionic Mechanism Design**: Inspired by the efficient movement of arthropods, enhancing adaptability and stability in rugged terrains [6]. - **Intelligent Motion Control**: Utilizing advanced algorithms for real-time sensing and response to external forces, ensuring safe and smooth collaboration [6]. - **Edge Intelligent Decision-Making**: Equipping robots with FPGA+GPU heterogeneous computing platforms for localized perception and decision-making in extreme environments [6][8]. - **Distributed Intelligent Perception and Power System**: Achieving a balance between high torque output for heavy loads and precise control for flexible operations [8]. Market Potential and Capital Interest - The capital market's enthusiasm for QianYue Technology stems from its recognized technological direction and alignment with national trends promoting smart mining construction [9]. - The Chinese government has made significant strides in smart mining, approving the establishment of key laboratories and implementing standards that facilitate the integration of smart equipment like QianYue's robots [9][12]. - The smart mining market is projected to reach over 2.3 trillion yuan by 2030, providing substantial growth opportunities for QianYue Technology [12]. Challenges to Scaling - Despite its technological advancements, QianYue Technology faces challenges in scaling its operations, including: - **Cost Control and Production Capacity**: The complexity of multi-legged robots leads to high production costs, necessitating design optimization and supply chain integration to reduce expenses [13]. - **Endurance and Reliability in Extreme Environments**: Current battery technologies limit operational time in harsh conditions, and the robots must meet stringent safety and durability standards for deployment in high-risk industries [13][14]. - Building trust with mining operators for large-scale deployment requires robust operational data and successful case studies [14]. Conclusion - QianYue Technology is poised for accelerated growth following its recent angel round financing, leveraging its core technologies and market recognition to establish a competitive edge in the evolving landscape of industrial robotics [15].