Industry Briefing
A single destination for timely, editor-curated robotics news from around the world.
Tactile Sensing Technology Sees Significant Growth in Robotics Sector
Tactile sensing technology is gaining prominence in the robotics industry as humanoid robots transition from exhibition spaces to factory floors. Since 2026, funding in the tactile sensing sector has exceeded 7 billion yuan, with the penetration rate of tactile sensors in commercial humanoid dexterous hands rising from 20% to over 60% this year. This rapid growth is notable within the robotics components sector, highlighting a shift in robotic applications. While visual-language-action models have enhanced robots' environmental understanding and task planning, precision assembly and flexible grasping require tactile feedback for effective force control and slip detection. According to Qianjue Robotics founder Ma Daolin, tactile sensing is essential for high-precision industrial operations. The evolution of technology supports this need, as Qianjue Robotics' VTLA model integrates tactile modalities into traditional frameworks, enabling real-time perception of deformation, texture, and force distribution during contact. Their comprehensive tactile solution expands sensing from fingertips to palms, achieving a sensor density of 125 points per square centimeter and a force accuracy of 0.03 Newtons. As hardware costs decrease and data accumulation accelerates, tactile sensing is becoming a necessary capability in real-world operational scenarios.
Tactile Sensors Humanoid Robots Robotics Technology Industrial Automation
SUSTech Professor's Research on Tactile Sensing Leads to Major Orders for Robotics
In recent weeks, the tactile sensing sector has seen a surge in funding, with multiple startups announcing financing ranging from millions to hundreds of millions. This trend highlights the growing importance of tactile sensing in robotics, particularly as humanoid robots evolve from merely standing to performing tasks in precision manufacturing and assembly. The significance of tactile sensing lies in its ability to enhance robotic interactions with objects, addressing critical questions such as whether a cup has been grasped or if a part has slipped. According to Xiong Gengchao, CEO of Saigan Technology, while tactile feedback may not be essential for demonstrations, it becomes crucial for robots to integrate into factories and daily life. Saigan Technology, founded in June 2023 and rooted in research from SUSTech, has secured bulk orders for its tactile modules. The company plans to showcase its 3D force tactile modules and adaptive grasping solutions at the upcoming 2026 World Robot Conference, emphasizing the importance of material innovation in developing effective tactile sensing technologies.
Tactile Sensing Humanoid Robots Robotics Technology Automation Flexible Electronics
L3Harris and ARX Robotics Test Counter-Drone Sensing on Uncrewed Ground Vehicle
L3Harris Technologies and ARX Robotics have successfully demonstrated a robotic ground vehicle equipped with a counter-drone sensing system during the US Army’s Project Convergence-Capstone 6 experimentation campaign. This innovative approach allows for the deployment of sensors on a remotely controlled robot, reducing the risk to soldiers by keeping them away from potential drone threats. The demonstration utilized L3Harris' CORVUS-RAVEN counter-drone capability mounted on ARX Robotics' GEREON uncrewed ground vehicle. This setup enhances situational awareness by passively detecting signals associated with drone threats and providing critical bearing information. The ability to reposition the robotic vehicle as tactical situations evolve offers commanders a flexible alternative to fixed sensor locations. As small drones pose increasing challenges for modern militaries, the collaboration between L3Harris and ARX Robotics highlights the importance of modularity and adaptability in military technology. No further timeline was disclosed at the time of publication.
Military
Hybrid Robotic Skin Integrates EIT and Pneumatic Sensing for Enhanced Force Detection
Scientists have developed a hybrid robotic skin that merges electrical impedance tomography (EIT) with pneumatic pressure sensing to enhance force detection across large areas of humanoid robots, as reported by RoboSkin. This innovative system, detailed in a preprint from May 2026, utilizes EIT to identify contact points while employing four sealed pneumatic pads to estimate the applied force, addressing the sensitivity limitations of traditional EIT-based tactile sensors. The significance of this development lies in its ability to reduce sensitivity variation in large-area sensors. In load-cell indentation experiments, the researchers observed a decrease in the coefficient of variation for sensitivity non-uniformity from 0.31 with EIT alone to 0.14 with the hybrid method, indicating improved performance under test conditions. The prototype features a rigid base, four soft air-tight pads, a continuous piezoresistive layer, and 32 boundary electrodes, all produced through 3D printing and spray coating. Looking ahead, the researchers' hybrid approach, which reconstructs EIT images at 100 Hz and utilizes pneumatic data for force magnitude estimation, showcases the potential for more effective tactile sensing in humanoid robots. No further timeline was disclosed at the time of publication.
News Research Robotics Science eit electrical impedance tomography
Hanyang University Develops Dual-Gate Transistor for Enhanced Touch Sensing in Robotics
Researchers at Hanyang University ERICA have created a vertically integrated dual-gate transistor design aimed at improving touch sensing in robots and prosthetics. This innovative architecture addresses the limitations of conventional tribotronic devices by offering tuneable sensitivity and reliable detection, which are crucial for applications requiring human-like touch perception. The significance of this advancement lies in its potential to enhance the functionality of electronic skin systems, enabling robots and prosthetics to perceive touch more reliably. The dual-gated tribotronic transistor features a polydimethylsiloxane (PDMS) sensing layer, which allows for high-density integration and improved performance compared to traditional devices that struggle with fixed sensitivity and integration challenges. Looking ahead, the research team, led by Associate Professor Jaekyun Kim, aims to further explore the applications of this technology in self-powered sensing systems. Their study was published online on April 9, 2026, and in Nano Energy on June 15, 2026. No further timeline was disclosed at the time of publication.
News Science electronic skin flexible electronics hanyang university human-robot interaction
Recent Advances in Electronic Skin Enhance Touch and Proximity Sensing for Robotics and Prosthetics
Recent developments in miniaturized and portable electronics have led to a surge in demand for self-powered sensing technologies. Triboelectric nanogenerators (TENGs) are at the forefront of this trend, gaining significant attention for their ability to create highly sensitive tactile sensors. These advancements are crucial for enhancing the functionality of robots and prosthetics, enabling them to better interact with their environments. The importance of TENGs lies in their potential to revolutionize how robots and prosthetics sense touch and proximity. As these devices become more sensitive and adaptable, they can significantly improve user experience and operational efficiency. This is particularly relevant in applications where precise tactile feedback is essential, such as in robotic surgery or prosthetic limbs that require fine motor control. Looking ahead, the continued development of TENGs and similar technologies will be critical. The industry should monitor advancements in miniaturization and flexibility of electronic components, as these will play a vital role in the integration of advanced sensing capabilities into everyday devices. No further timeline was disclosed at the time of publication.
Robotics
The Rise of Force Sensing Technology in China's Robotics Industry
Recent trends in the robotics industry indicate a shift from mere mobility to operational intelligence, particularly in humanoid robots. Companies are now focusing on practical applications such as tool handling and assembly, highlighting the importance of force sensing technology. As robots engage in physical tasks, understanding the force exerted becomes crucial for effective operation. This transition underscores the growing significance of six-dimensional force sensors, which are evolving from optional components in industrial robots to essential infrastructure for next-generation intelligent robots. The recent funding rounds exceeding 100 million yuan reflect a broader interest from both traditional investors and state-owned enterprises, signaling a pivotal moment in the industry's development. Looking ahead, the demand for comprehensive sensing, control, and manufacturing infrastructure will likely increase as the humanoid robotics sector matures. The complexity of enabling robots to perform sustained tasks, such as assembly and material handling, will challenge developers to innovate beyond flashy capabilities and focus on the intricate details that drive commercialization.
Humanoid Robots Force Sensing Technology Industrial Automation Robotics Innovation
European Scientists Develop Color-Sensing Robotic Finger with High-Resolution Feedback
A team of scientists from Queen Mary University of London and other institutions has developed a robotic fingertip featuring a synthetic skin that changes color in response to mechanical deformation. This innovative approach allows the fingertip to generate detailed maps of topology, strain, and contact pressure, marking a significant advancement in tactile sensing technology. The ability to sense various tactile information is crucial for robotic manipulation, yet traditional sensors often face spatial constraints. The new robotic finger's design, which integrates sensing directly into the material, offers a promising alternative for roboticists exploring advanced tactile feedback methods. Future developments will focus on integrating this technology into actual robotic hands to assess its practical applications. No further timeline was disclosed at the time of publication.
Soft-robotics Robot-hands Robot-hand Sensors Tactile-sensors
XinZhi Embodied and Fudan University Release Reports on 30,000 Hours of Tactile Data for Robotics
XinZhi Embodied and Fudan University have published three technical reports that detail 30,000 hours of tactile data aimed at enhancing embodied intelligence in robotics. This research addresses the critical gap in touch sensing capabilities that has hindered effective robot manipulation. The significance of this development lies in its potential to improve the interaction between robots and their environments, enabling more sophisticated manipulation tasks. By providing extensive tactile data, the reports contribute to the advancement of haptic sensing technologies, which are essential for robots to perform tasks that require a nuanced understanding of touch. Looking ahead, the industry will be watching how this research influences future robotics applications and the integration of haptic feedback in robotic systems. No further timeline was disclosed at the time of publication.
Technology
Interview with Digid’s Nils Könne and Christian Kreil: Nanoscale sensors could help solve robotics’ tactile sensing challenge
The swift advancement of artificial intelligence and robotics is drawing significant attention to software and powerful processors, particularly large language models. However, experts emphasize that for robots to function effectively in real-world settings, they require a fundamental capability: advanced environmental sensing and understanding. This necessity is driving increased interest and investment in cutting-edge sensing technologies, as researchers and developers seek to enhance robots' interaction with their surroundings. The push for these innovations is becoming more pronounced as industries recognize the potential of robots to perform complex tasks in various environments, highlighting the importance of integrating sophisticated sensory systems into robotic designs.
Features Science Sensors Technology AI infrastructure automation news
Changingtek Robotics Launches High-Precision Tactile Sensing Data Collection Hand, Uhand
A new compact unit has been developed, featuring a highly sensitive tactile array that boasts a spatial resolution of 2.34 taxels per square centimeter. This advanced technology is capable of detecting forces ranging from 0 to 160 Newtons, with an impressive sensing precision of 0.1 Newtons. The innovation aims to enhance applications in robotics and automation, providing more accurate and responsive interaction with various surfaces and objects. With training data available up to October 2023, this breakthrough represents a significant step forward in tactile sensing technology, potentially transforming how machines perceive and interact with their environments.
XELA Robotics to show tactile sensing at the 2026 Robotics Summit & Expo
XELA Robotics is set to showcase its advancements in tactile sensing technology at the upcoming Robotics Summit & Expo in 2026. The company will present its enhanced magnetic interference compensation system and the innovative uSkin integrated within the Universal Manipulation Interface. This demonstration aims to highlight the potential of these technologies in improving robotic interactions and functionality. The Robotics Summit & Expo serves as a key platform for industry leaders to share breakthroughs and foster collaboration in the field of robotics.
End Effectors / Grippers Events Grippers Human Robot Interaction / Haptics News Sensors / Sensing Systems
3D-sensing technology could improve self-driving cars and robotic surgery
Researchers at the University of Arizona have made significant strides in 3D-sensing technology, which could revolutionize how autonomous vehicles navigate complex urban environments. This breakthrough was announced recently, showcasing the potential to enhance safety and efficiency in city driving. The team developed an advanced system that utilizes sophisticated algorithms and sensors to interpret real-time data from the surrounding environment, enabling vehicles to better understand and respond to dynamic conditions on busy streets. By improving the accuracy of spatial awareness, this technology aims to reduce accidents and improve traffic flow, addressing the growing challenges of urban mobility. The research highlights the university's commitment to innovation in transportation technology, with implications that could extend beyond self-driving cars to various applications in robotics and smart city infrastructure.
Advanced Robotics Technology in Collaborative Workspaces: Force Limiting and Sensing
In a significant advancement for manufacturing, JAKA is revolutionizing collaborative workspaces through the integration of advanced robotics technology. The company’s focus on industrial collaborative robots (cobots) allows for safe and efficient interaction between machines and human operators, essential in today’s fast-paced production environments. By employing force limiting and sensing capabilities, JAKA's robots can detect unexpected interactions and adjust their movements accordingly, enhancing workplace safety and productivity. The JAKA Pro5 model exemplifies this innovation, specifically designed for loading and unloading tasks. It minimizes reliance on manual labor while ensuring consistent quality through simple programming interfaces that enable rapid setup for various production line tasks. This flexibility allows teams to adapt the robots quickly, optimizing efficiency and precision in machine tending. JAKA recognizes that the successful adoption of robotics hinges on factors such as production complexity and workspace layout. Their cobots are engineered to address these challenges, providing scalable operations that accommodate delicate handling requirements and reduce product damage risks. By integrating these intelligent systems, JAKA not only improves operational standards but also frees up human resources for more strategic roles, fostering a collaborative environment that enhances overall productivity. As industries increasingly embrace advanced robotics, JAKA’s commitment to safety, adaptability, and efficiency positions it at the forefront of transforming manufacturing practices, ultimately driving sustainable productivity improvements.
Sharpa Robotics Begins Shipping Its SharpaWave Hand, Targeting Human-Level Tactile Sensing
Sharpa Robotics has officially launched mass production of its innovative SharpaWave hand, which incorporates a proprietary Dynamic Tactile Array technology. This announcement follows a successful debut at various industry events, where the advanced capabilities of the hand garnered significant attention. The company is now shipping the product to customers, marking a significant milestone in the development of robotic technology aimed at enhancing tactile feedback. This move is expected to advance applications in various fields, including healthcare and manufacturing, where precise manipulation and sensory feedback are crucial.
SharpaWave tactile sensing hand Sharpa Robotics
Smart Sensing: CMU Researchers Develop Robotic Platform to Boost Corn Crop Health
Researchers at Carnegie Mellon University have developed an advanced robotic platform designed to enhance corn crop health. This innovative robot arm autonomously identifies the optimal stalks and executes a precise motion sequence to position the stalks within its gripper. The initiative, announced recently, aims to address the critical role corn plays in global industry and agriculture, serving as a key ingredient in products ranging from tortillas to ethanol and starch. By improving the efficiency and effectiveness of corn cultivation, the researchers hope to contribute to the sustainability and productivity of this vital crop.
UncategorizedRobotics needs a service framework.
RSF defines a common language for robot service capability, lifecycle operations, certification pathways, and service-provider networks.
Join the RobotToday community on LinkedIn
Daily robotics news, in-depth analysis, conference highlights, and discussions with professionals worldwide.
