Industry Briefing
A single destination for timely, editor-curated robotics news from around the world.
How advanced automation is shaping the future of medical device production
Nigel Smith, CEO of TM Robotics, has highlighted the transformative potential of robotics-led injection moulding in the production of medical devices. In a recent discussion, Smith emphasized that integrating advanced robotics into the manufacturing process could lead to significant improvements in efficiency and precision. This innovation is particularly crucial in the medical sector, where the demand for high-quality, reliable devices is ever-increasing. By adopting robotics, manufacturers can streamline operations, reduce waste, and ultimately deliver better products to healthcare providers. Smith's insights underscore the importance of technological advancements in meeting the evolving needs of the medical industry, particularly as it faces challenges related to scalability and quality assurance.
JAKA Achieves IEC 60601 Medical Safety Certification
JAKA Technology has achieved a significant milestone by obtaining IEC 60601 medical safety certification for its S series collaborative robots (cobots) — the S5, S7, and S12, along with the MiniCab control cabinet. This certification, recognized globally as the benchmark for medical electrical equipment safety, was awarded following rigorous testing that adheres to the stringent requirements of the IEC 60601-1 series, which surpasses typical industrial standards. The certification process involved comprehensive evaluations of electrical safety, ensuring that the cobots maintain patient and operator safety even in the event of a single component failure. This is crucial in medical environments where limits on leakage current and electromagnetic interference are strictly enforced. For instance, certified JAKA robots will not disrupt sensitive medical devices such as ECG monitors or electrosurgical units, even in complex electromagnetic settings. Additionally, the robots underwent thorough assessments of their mechanical safety features, including collision detection and safe speed monitoring. These enhancements allow for smoother and safer interactions between the robots and healthcare personnel or patients. With this certification, JAKA solidifies its position as a trusted entity in the global medical device market, ready to provide compliant and safe automation solutions for healthcare systems worldwide.
Solving hard problems in soft electronics
Camille Cunin, a PhD candidate from the class of 2026, is pioneering advancements in biomedical technology by developing innovative stretchable devices that enhance signal amplification. This groundbreaking work aims to address the limitations of traditional rigid circuitry, making these new devices more adaptable for practical applications in healthcare. Cunin's research, which is ongoing, seeks to improve the integration of technology in medical settings, potentially leading to better patient outcomes. By focusing on the creation of flexible circuitry, Cunin is contributing to a significant shift in how biomedical devices can be utilized in real-world scenarios, ultimately enhancing their functionality and effectiveness in monitoring and treating various health conditions.
School of Engineering DMSE Neuroscience Biomedical engineering Electronics Wearables
Bessemer Technology Secures Angel Funding for Motor Innovations in Robotics
Bessemer (Shanghai) Technology, founded by Assistant Professor Zhu Wenjun from Xi'an Jiaotong-Liverpool University, has successfully raised millions in angel funding from the Pudong AI Seed Fund. Established in 2025 with a registered capital of 2 million yuan, the company holds two patents and aims to optimize motor technology and establish mass production lines with the new funding. This funding is significant as it marks a shift in investment focus towards core components like joint motors, which have been underdeveloped in China. While many domestic motor technologies remain in the experimental phase, Bessemer is building a complete chain from electromagnetic simulation to standardized hardware, addressing the gap between laboratory innovations and industrial production. Looking ahead, Bessemer's product line includes the E series and S series motors, designed for humanoid robots and medical devices, which could disrupt the market by offering lighter, more efficient alternatives to traditional motors. No further timeline was disclosed at the time of publication for upcoming product launches or additional funding rounds.
Motor Technology Robotics Angel Investment High-Tech Startups
BlackBerry CEO Giamatteo Sees QNX Powering Growth
BlackBerry CEO John Giamatteo recently outlined the company's strategic shift towards becoming a leader in software and infrastructure, focusing primarily on its QNX operating system. During an interview with Bloomberg's Dani Burger and Alpine Saxon Woods Chief Market Strategist Sarah Hunt on "Bloomberg Open Interest," Giamatteo revealed that QNX now powers more than 275 million vehicles worldwide. He emphasized the system's expanding applications beyond automotive, noting its increasing use in robotics, medical devices, and industrial automation. This evolution reflects BlackBerry's commitment to diversifying its technology offerings and adapting to the growing demand for advanced software solutions across various industries.
NMS:NVDA TOR:BB
Top Computer Vision Development Company Options for 2026
Selecting the appropriate computer vision development company is crucial for ensuring compatibility with the specific environment in which the model will operate. This could range from camera system-on-chips (SoCs) and cloud-based software as a service (SaaS) products to medical devices and live video systems. Among the available options, SQUAD stands out as a robust choice for edge hardware and smart camera products. Meanwhile, Intellias and Softeq are recognized as strong contenders for embedded AI solutions. As the industry evolves, companies must carefully assess their needs to align with the right technology partner.
Components Computing Technology AI development artificial intelligence automation news
Defining Autonomy for Wellness Robots in Senior Care
A recent examination highlights the potential of socially assistive wellness robots in enhancing senior wellness across seven key dimensions. This analysis, aimed at addressing the escalating senior care crisis, underscores the challenges posed by demographic shifts, workforce shortages, and gaps in daily wellness programming that traditional care models face. The study defines wellness robots distinctly from companion and medical devices, emphasizing their unique features and functions. It introduces a framework for measuring the autonomy of these robots using the Care Robot Autonomy Scale (CRAS), a six-level scale inspired by the SAE J3016 driving standard, which assesses four critical care dimensions. Furthermore, the research outlines a roadmap for achieving full autonomy in wellness robots, detailing necessary technical capabilities, clinical evidence, and a phased approach leading into the early 2030s. This comprehensive analysis aims to inform stakeholders about the transformative role of wellness robots in senior care and the urgent need for innovative solutions in the face of growing demands. A free whitepaper summarizing these findings is available for download.
Type-whitepaper Wellness-robots Autonomous-robots Robotics
Pea-sized liquid-metal pump helps soft robots become lighter, portable, and more agile
Engineers at the University of Bristol have created a groundbreaking pea-sized liquid-metal pump that has the potential to revolutionize various industries. This innovative device, designed to be compact and efficient, could serve as a replacement for traditional pumps in applications ranging from medical devices to robotics. The development was announced recently, showcasing the university's commitment to advancing engineering technology. The motivation behind this invention stems from the need for more versatile and efficient pumping solutions that can operate in tight spaces and under varying conditions. By utilizing liquid metal, the pump offers enhanced performance and adaptability compared to conventional materials. The engineering team achieved this breakthrough through a combination of advanced materials science and innovative design techniques, allowing for the creation of a pump that is not only small but also highly effective. As industries seek to improve efficiency and reduce energy consumption, this new liquid-metal pump could play a crucial role in meeting those demands. With its potential applications still being explored, the University of Bristol's development marks a significant step forward in pump technology, promising to influence a wide range of fields in the near future.
From motion to memory: Researchers create soft machines that amplify movement and remember touch
Researchers have unveiled an innovative mechanical system designed to enhance the capabilities of conventional soft actuators, which typically suffer from limitations such as weak force, minimal displacement, and slow response times. This new system employs a unique interaction between magnets and elastic membranes to amplify motion and enable the actuator to remember external triggers. The development aims to address the shortcomings of existing soft actuators, potentially paving the way for advancements in various applications, including robotics and medical devices. By leveraging the principles of magnetism and elasticity, the researchers have created a more responsive and efficient actuator that could significantly improve performance in practical uses.
Robotics
With a swipe of a magnet, microscopic “magno-bots” perform complex maneuvers
Researchers at the Massachusetts Institute of Technology (MIT) have developed an innovative fabrication technique capable of creating soft, microscopic structures featuring magnetically activated moving components. This breakthrough, announced in October 2023, aims to enhance the functionality of soft robotics and other applications that require precise movement at a small scale. By leveraging magnetic fields, the researchers enable these tiny structures to perform complex tasks, which could revolutionize fields such as medical devices and environmental sensing. The technique involves a novel approach to material design and assembly, allowing for greater control over the movement and behavior of the structures. This advancement not only showcases the potential of soft materials in engineering but also opens new avenues for research in robotics and automation.
Research Robotics 3-D printing Magnets Materials science and engineering Mechanical engineering
Stretchable electronic skin lets robotic hand feel touch and pressure signals
Researchers are making significant strides in the development of stretchable, transparent electronics capable of bending, rolling, and mimicking human skin. This advancement, which has been gaining momentum in recent months, aims to revolutionize various applications, including wearable technology and medical devices. The ongoing research is taking place in laboratories across the globe, with scientists collaborating to enhance the functionality and durability of these innovative materials. The motivation behind this work stems from the increasing demand for flexible electronics that can seamlessly integrate with the human body and adapt to various environments. Through a combination of advanced materials science and engineering techniques, researchers are exploring new methods to create these electronics, which could lead to breakthroughs in health monitoring and interactive devices. As this technology continues to evolve, it holds the potential to transform industries and improve the quality of life for many individuals.
Tiny, knotted robots jump, fly and plant seeds
Researchers at the University of Pennsylvania have developed an innovative soft robot inspired by the mechanics of knots. Rather than viewing knots solely as tools for holding tension, the engineering team explored the potential of designing a knot that can release itself. This groundbreaking approach has resulted in a tiny robot that can perform impressive aerial maneuvers, including leaping several meters into the air, flipping mid-flight, spinning like a propeller, and even gliding back to its original position. The project, which showcases the intersection of engineering and robotics, aims to expand the capabilities of soft robotics and could have significant implications for various applications in fields such as search and rescue, exploration, and medical devices. The research highlights the potential of rethinking traditional concepts to unlock new technological advancements.
Robotics
Light-activated gel could impact wearables, soft robotics, and more
Researchers at the Massachusetts Institute of Technology (MIT) have made significant strides in the field of ionotronics, a burgeoning area of study focused on the transfer of data through ions. This innovative approach aims to create a seamless interface between electronic devices and biological tissues, potentially revolutionizing how data is communicated within and between living organisms. The advancements were reported recently, highlighting the ongoing efforts to enhance the integration of technology with biological systems. By harnessing the unique properties of ions, the team at MIT is exploring new pathways for data transmission that could lead to breakthroughs in medical devices and bioengineering. This work underscores the importance of interdisciplinary research in bridging the gap between traditional electronics and the complexities of biological functions.
Research Robotics Light Materials science and engineering Wearables Materials Research Laboratory
Joule Heating Enables Self-Folding Origami Robots
Researchers have developed innovative liquid crystal elastomer hinges integrated with Joule heating technology, resulting in highly adaptable origami robots. These advanced robots demonstrate exceptional actuation precision and impressive durability over numerous cycles. This breakthrough was achieved through the combination of materials science and engineering techniques, allowing for the creation of reconfigurable structures that can perform complex movements. The development aims to enhance the functionality and versatility of soft robotics, making them suitable for a variety of applications, including medical devices and environmental monitoring. The findings were published in a recent study, showcasing the potential for these robots to revolutionize fields that require flexible and resilient robotic solutions.
A new type of electrically driven artificial muscle fiber
Researchers have developed electrofluidic fibers that replicate the natural bundling of muscle fibers, a breakthrough that could revolutionize the design of compact and silent robotic systems as well as prosthetics. This innovative technology was unveiled in a recent study aimed at enhancing the functionality and efficiency of robotic and prosthetic devices. By mimicking the structure and behavior of biological muscles, these fibers offer the potential for more responsive and adaptable machines. The advancement is particularly significant as it addresses the growing demand for quieter and more efficient robotic solutions in various applications, from medical devices to industrial automation. The research team employed advanced materials and engineering techniques to create these fibers, which could lead to a new generation of devices that are not only more effective but also more closely aligned with human movement. This development marks a promising step forward in the integration of robotics into everyday life, providing users with improved mobility and interaction capabilities.
Research Invention Robotics Bioinspiration Fluid dynamics Media Lab
JAKA đạt chứng nhận an toàn y tế IEC 60601
JAKA has achieved a significant milestone by securing the IEC 60601 medical safety certification for its S series collaborative robots (cobots) – the S5, S7, and S12 – along with the MiniCab control cabinet. This certification, awarded recently, establishes these devices as compliant with the stringent safety standards required for medical electrical equipment, surpassing typical industrial and general electrical standards. The IEC 60601-1 series imposes rigorous requirements for both electrical and mechanical safety, ensuring that in medical environments, such as operating rooms, the robots maintain patient and operator safety even in the event of a fault. To meet these standards, JAKA's robots underwent extensive testing for leakage current, dielectric strength, and electromagnetic compatibility (EMC), confirming that they will not disrupt sensitive medical devices like ECG monitors or electrosurgical units. Additionally, the mechanical safety of the robots was thoroughly assessed, focusing on their safety logic, which includes features like collision detection and speed monitoring. This ensures safer interactions between the robots and healthcare personnel or patients. With this certification, JAKA positions itself as a reliable contributor to the global medical device market, ready to provide safe and compliant automation solutions for healthcare settings worldwide.
This tiny implant sends secret messages to the brain
A team of researchers has developed a fully implantable device capable of transmitting light-based messages directly to the brain. This innovative system, which utilizes up to 64 micro-LEDs to generate intricate neural patterns mimicking natural sensory activity, has been tested on mice. Remarkably, the animals were able to learn and interpret these artificial signals as meaningful information without relying on touch, sight, or sound. Conducted recently, this groundbreaking research could significantly advance the fields of prosthetics and therapeutic interventions, offering new possibilities for individuals with sensory impairments. The findings highlight the potential of light-based communication in enhancing neural function and could lead to the development of next-generation medical devices.
Can Modern Welding Keep Up with the Demands of Flexible Manufacturing?
Precision welding is increasingly becoming a vital technology across various sectors, including shipbuilding, infrastructure development, and the production of medical devices. This advanced welding technique enhances the quality and reliability of complex components, which are essential for these industries. As of October 2023, the integration of modern automation in precision welding processes has significantly improved manufacturing capabilities. This automation allows for high-quality output while maintaining flexibility, enabling manufacturers to adapt to the intricate demands of contemporary production. The growing reliance on precision welding is driven by the need for enhanced safety, durability, and efficiency in critical applications. By employing sophisticated welding techniques, industries can ensure that their products meet stringent regulatory standards and performance expectations. Overall, the advancements in precision welding technology not only support the operational needs of key sectors but also contribute to innovation and competitiveness in the global market.
Medicaroid Achieves CE Marking for hinotori Surgical Robot System in Europe
Medicaroid has obtained CE marking for its hinotori Surgical Robot System under the EU's Medical Device Regulation, allowing it to market the system across EU member states and select non-EU countries. This approval is a crucial part of Medicaroid's strategy to expand internationally beyond Japan and the Asia-Pacific region. The hinotori Surgical Robot System was initially approved for manufacture and sale in Japan in 2020 and has since gained regulatory approvals in Singapore, Malaysia, and Vietnam. The recent CE marking enables Medicaroid to enter the European, Middle Eastern, and African markets, which is vital for the company's growth and the global adoption of medical robotics. Looking ahead, Medicaroid aims to leverage its new certification to enhance its presence in the EMEA region. The company established Medicaroid Europe GmbH in Germany in 2020 to facilitate its commercial operations. No further timeline was disclosed at the time of publication.
Health News automation CE marking europe healthcare robotics
Diana Grass Explores Body Communication Through Soft Bioelectronic Devices
Diana Grass, a PhD candidate in the Harvard-MIT Program in Health Sciences and Technology, is developing soft bioelectronic devices to study physiological signals that facilitate communication between the brain and body. Her journey from studying philology and education to neuroscience was sparked by her experiences as a medical interpreter, where she observed the interactions between physicians and patients with neurological disorders. Grass's work aims to bridge the gap in understanding how the body communicates continuously, despite the reliance on isolated biological snapshots in current medical practices. Her research emphasizes the interconnectedness of the nervous system with the immune system and other peripheral organs, highlighting the importance of these interactions in maintaining physiological balance. As she pursues her PhD in medical engineering and medical physics, Grass is part of the Bioelectronics Group at MIT, where she collaborates on innovative projects that could revolutionize our understanding of health and disease. No further timeline was disclosed at the time of publication.
Profile Students Graduate, postdoctoral Materials science and engineering Medicine Electronics
MIT and Samsung Enhance Quantum Dot LED Lifespan for Energy-Efficient Displays
MIT researchers, in collaboration with Samsung, have developed a method to improve the lifespan and efficiency of quantum dot LEDs (QD-LEDs) used in digital displays. By encapsulating QD-LEDs in an acrylate-based resin, the team achieved a remarkable 5,000-fold increase in lifespan, addressing previous limitations that hindered commercial applications. This advancement could significantly impact various devices, including TVs, smartphones, and medical imaging equipment. The significance of this research lies in its potential to transform digital display technology. Quantum dots, known for emitting pure colors, are already utilized in high-quality displays. The new encapsulation technique not only enhances the stability of QD-LEDs but also simplifies their manufacturing process, paving the way for broader adoption in consumer electronics. This could lead to displays that are not only brighter and more energy-efficient but also capable of producing a wider range of colors. Looking ahead, the insights gained from this study may facilitate further innovations in display technology. The researchers aim to address the challenges that have limited the commercialization of QD-LEDs, potentially revolutionizing how displays and ambient lighting are produced. No further timeline was disclosed at the time of publication.
Research Electronics Chemistry Materials science and engineering Nanoscience and nanotechnology Light
Light-activated gel could impact wearables, soft robotics, and more
Researchers at the Massachusetts Institute of Technology (MIT) have made significant strides in the field of ionotronics, a burgeoning area of study focused on the transfer of data via ions. This innovative approach aims to create a connection between traditional electronics and biological tissues, potentially revolutionizing the way information is processed and transmitted in various applications. The advancements were announced in October 2023, highlighting the ongoing efforts to enhance the integration of electronic systems with biological environments. By harnessing the unique properties of ions, the team at MIT is exploring new methods to facilitate communication between electronic devices and living organisms, paving the way for future developments in medical technology and bioengineering.
Pea-size liquid-metal pump runs robot butterfly on under 0.1 V
Engineers at the University of Bristol have developed a groundbreaking liquid-metal pump that promises to enhance the portability and agility of future soft robotics and wearable devices. This innovative technology, detailed in a recent publication in the journal Nature Communications, utilizes a low-voltage power source, which could revolutionize robotic systems across various applications, including robotic legs and haptic gloves utilized in medical and industrial environments. The advancement aims to address the growing demand for more efficient and versatile robotic solutions in diverse fields.
Robotics
Neuralink Advances Brain-Computer Interface with Specialized Surgical Robot and Fully Automated Implantation
Neuralink has introduced a cutting-edge surgical robot designed to automate the implantation of brain-computer interfaces, a significant advancement in neurosurgery. This innovative technology addresses the complex challenge of implanting devices without the need to remove the dura mater, the protective layer surrounding the brain. The company aims to achieve mass production of this robotic system by 2026, with the goal of improving the precision and safety of surgeries for individuals suffering from paralysis and vision impairments. This development marks a crucial step forward in the integration of advanced robotics in medical procedures, potentially transforming the treatment landscape for patients with neurological conditions.
Brain-Computer Interfaces Surgical Robotics Neurotechnology Medical Devices
New heat-pressed silk material outperforms wood, rivals Kevlar and carbon fiber
A team of researchers from Tufts University, Imperial College London, and the University of Michigan has unveiled a groundbreaking development in the field of biomedical engineering. This innovation, announced on October 15, 2023, focuses on creating a new type of biodegradable material that could significantly enhance medical implants and devices. The research aims to address the growing concern over the environmental impact of traditional plastic implants, which can take centuries to decompose. By utilizing advanced materials science, the team has engineered a substance that not only meets the necessary medical standards for safety and efficacy but also naturally breaks down in the body over time, reducing the need for surgical removal. This advancement is expected to revolutionize the way medical professionals approach implantable devices, offering a sustainable alternative that aligns with the increasing emphasis on eco-friendly practices in healthcare. The findings were published in a peer-reviewed journal, highlighting the collaborative efforts of the researchers and their commitment to addressing both health and environmental challenges. As the medical community continues to seek innovative solutions, this new biodegradable material stands out as a promising step towards more sustainable healthcare practices. The research team plans to conduct further studies to explore the full potential and applications of this material in various medical fields.
MIT engineers develop 3D-printed micro-robots that can be controlled by magnets
A team of engineers has successfully developed an innovative soft magnetic hydrogel that can be 3D-printed into intricate microscopic structures. This breakthrough, announced in October 2023, opens new avenues for applications in various fields, including biomedical engineering and robotics. The hydrogel's unique properties allow it to respond to magnetic fields, making it particularly useful for creating responsive materials and devices. By utilizing advanced 3D printing techniques, the engineers demonstrated the ability to fabricate complex shapes that were previously difficult to achieve with traditional materials. This advancement not only enhances the versatility of hydrogels but also paves the way for future research and development in smart materials.
Robotics needs a service framework.
RSF defines a common language for robot service capability, lifecycle operations, certification pathways, and service-provider networks.
