Core Viewpoint - The collaboration between the company and Southeast University on the development of six-dimensional force sensing and tactile sensing technology in the field of embodied intelligence is progressing smoothly and according to the established plan [1] Group 1 - The company confirmed that the research and development collaboration with Southeast University is advancing as scheduled [1] - The teams are focusing on joint efforts in the field of embodied intelligence, specifically on six-dimensional force sensing and tactile sensing technology [1] - The collaboration adheres to the technical specifications and project management requirements of industry-academia-research cooperation [1]

Core Insights - The research team at Xinjiang Institute of Physics and Chemistry has developed a high-sensitivity ultra-thin temperature sensor with a thickness of only 40 micrometers, which is expected to support next-generation electronic skin and wearable devices [1][2]. Group 1: Technology Development - The ultra-thin flexible temperature sensor addresses the challenge of achieving high sensitivity while maintaining excellent flexibility and long-term stability, which is crucial for smart medical and robotic sensing applications [1]. - The team utilized a "water-soluble sacrificial layer-assisted transfer" strategy to overcome the compatibility issues between high-performance sensitive materials and flexible substrates, resulting in a sensor with a total thickness of 40 micrometers [1]. Group 2: Performance Metrics - The sensor exhibits an impressive temperature coefficient of resistance of -4.1%/°C and a response time of only 192 milliseconds, demonstrating its robust performance even under repeated bending and thermal shock [2]. - The design of the heterostructure interface using germanium oxide, tantalum oxide, and manganese cobalt oxide effectively suppresses element diffusion and thermal stress mismatch, enhancing the device's reliability and structural integrity [2].

Core Insights - Northeastern University scientists have developed a topologically guided acoustic wave sensor capable of high-precision detection of micron-sized targets without reducing the sensor's size [1] - This advancement is expected to propel the development of nanoscale and quantum-scale sensing technologies, significantly impacting fields such as quantum computing and precision medicine [1] Group 1: Technology Development - The sensor is designed to detect smaller objects without decreasing the pixel size, addressing the common issue where performance and sensitivity decline as sensor size decreases [1] - The topologically guided acoustic wave sensor is comparable in size to a belt buckle and utilizes guided acoustic waves and a special state of matter known as topological interface states to detect minute targets like individual proteins or cancer cells [1] Group 2: Experimental Validation - In proof-of-concept experiments, the sensor successfully detected a low-power infrared laser target with a diameter of only 5 micrometers, which is approximately one-tenth the diameter of a human hair [1] - The experiments demonstrated the sensor's ability to clearly distinguish extremely weak signals from highly localized parameters [1]

Core Viewpoint - The company emphasizes the importance of research and innovation, focusing on flexible sensors as a strategic core direction, with a significant increase in R&D investment [1] R&D Investment - R&D expenses in the first three quarters have shown a significant year-on-year increase, with investments directed towards robotic touch, industrial detection sensor systems, and consumer electronics [1] Team Expansion - The flexible sensor R&D team has rapidly expanded, doubling in size and attracting experts in the sensor field and AI algorithm models, ensuring a strong technical foundation and practical experience [1] Technical Achievements - The team has successfully overcome multiple technical challenges in the sensor domain, showcasing their deep technical accumulation and rich practical experience [1]

Core Viewpoint - The company is actively advancing the research and development of quartz resonant six-dimensional force sensors and MEMS piezoresistive six-dimensional force sensors, focusing on the application of MEMS technology in force/torque sensors to enhance product performance, stability, and reliability [1] Group 1 - The company's subsidiary, Kaiwei Li, is leading the R&D efforts in the specified sensor technologies [1] - The development process emphasizes the need for thorough preparation and improvement in product performance, stability, and reliability [1]