Industry Briefing
A single destination for timely, editor-curated robotics news from around the world.
EPFL and MIT Develop Flapping Robot That Swims and Flies Like Diving Birds
Engineers at EPFL and MIT have created a flapping-wing aerial-aquatic vehicle (FAAV) that mimics the swimming and flying abilities of diving birds. Weighing under 300 grams, the FAAV is designed to help researchers study the mechanics of how these birds transition between air and water. Experiments revealed optimal combinations of wing size, flapping frequency, and tail angle for effective movement in both environments. This innovation is significant as it could lead to a new class of aerial-aquatic drones capable of accessing aquatic regions that are difficult for traditional vessels. The robot's design allows it to dive for samples and return data at a lower cost, making it a valuable tool for oceanographers and marine biologists. The research findings were published in the journal Science, highlighting the potential for enhanced understanding of bird biomechanics. Future developments will focus on improving wing design for better maneuverability and testing the robot in turbulent conditions. The team aims to deploy the FAAV for ocean science research, potentially revolutionizing how data is collected from challenging aquatic environments. No further timeline was disclosed at the time of publication.
Mantis Robotics Extends Potential of Physical AI with New Dual-Arm Fenceless Robot for Industrial and Retail Automation
Mantis Robotics has introduced its latest innovation, the MR-X dual-arm robot, at Automate 2026 in Chicago, showcasing advancements in physical AI for industrial and retail automation. This high-performance robot, capable of lifting up to 70 lbs and operating at speeds of 10.6 m/s, is designed to function without safety fences, allowing for flexible deployment in complex environments. The MR-X is inspired by human biomechanics, enabling it to perform demanding tasks that require both strength and dexterity. Its patented SafetyCore platform provides continuous awareness of its surroundings, allowing the robot to autonomously react to nearby humans without interrupting its operations. This feature eliminates the need for traditional safety infrastructure, enhancing efficiency while maintaining safety standards. Mantis Robotics aims to revolutionize automation with the MR-X, which builds on the success of its predecessor, the MR-1, known for its certified fenceless operation. CEO Gerry Vannuffelen emphasized that the MR-X is not just another humanoid robot, but a first-in-class dual-arm system that surpasses both collaborative robots and humanoids in speed and safety. Visitors to Booth 1261 in the South Hall at Automate 2026 can witness the MR-X's capabilities firsthand, interact with the MR-1, and explore the technology that enables rapid deployment without disruption. Mantis Robotics invites attendees to schedule personalized walkthroughs and learn about priority access for early customers.
Science Robotics: Deep Domain Adaptation Significantly Reduces Exoskeleton Data Annotation Costs
A research team at Georgia Tech has introduced a groundbreaking deep domain adaptation framework that significantly minimizes the reliance on exoskeleton-specific annotated data, cutting the requirement by 95% while ensuring optimal control performance. This innovative method utilizes open-source biomechanics datasets to convert human motion data into training data for exoskeletons. The development aims to tackle the substantial costs associated with data acquisition in the field, thereby enhancing the efficiency and accessibility of exoskeleton technology.
Exoskeleton Technology Data Annotation Biomechanics Machine Learning Robotics
Biomedical jellyfish-inspired robot hits record swim speeds without onboard power
Researchers have developed a groundbreaking jellyfish-inspired soft robot capable of navigating through water at unprecedented speeds. This innovative technology, unveiled in a recent study, showcases the potential for advanced underwater exploration and environmental monitoring. The robot mimics the unique propulsion mechanism of jellyfish, allowing it to move efficiently and swiftly. The development took place in a laboratory setting, where scientists aimed to enhance robotic mobility in aquatic environments. By studying the biomechanics of jellyfish, the team was able to replicate their movement patterns, resulting in a soft robot that not only moves faster than existing models but also carries out tasks such as data collection and monitoring marine ecosystems. This advancement comes at a crucial time as researchers seek sustainable solutions for underwater exploration, driven by the need to better understand and protect marine life. The soft robot's design allows for flexibility and adaptability, making it suitable for various applications, from scientific research to environmental conservation efforts. As the technology progresses, the team envisions further enhancements that could lead to even greater speeds and capabilities, paving the way for a new era of robotic exploration in our oceans.
Interview with Yuquan Biomimetic's Hu Zheqi: Deeply Engaging in the Dexterous Hand Sector to Reshape the Humanoid Robot Industry with Core Technology
In a significant development for the humanoid robot industry, Hu Zheqi of Yuquan Biomimetic has unveiled advancements in dexterous hand technology, which are crucial for the commercial success of robotic systems. During a recent presentation, he highlighted the capabilities of the Y-Hand M2 and W-Bot 2.0, both of which feature cutting-edge designs that closely mimic human biomechanics. These innovations aim to improve the performance and reliability of robots in practical applications, addressing a key challenge in the field. The breakthroughs are expected to enhance the functionality of humanoid robots, making them more adaptable for various tasks in everyday environments.
Humanoid Robots Dexterous Hands Biomimetic Technology Robotics Innovation
30 Years Ago, Robots Learned to Walk Without Falling
Honda's Prototype 2 (P2), a groundbreaking autonomous humanoid robot, will be honored as an IEEE Milestone during a dedication ceremony on April 28 at the Honda Collection Hall in Japan. Developed in 1996, P2 was the first robot capable of walking without falling, marking a significant advancement in robotics. The IEEE Nagoya Section highlighted that P2 demonstrated the feasibility of humanlike locomotion, setting new standards in the field. The journey to create P2 began in 1986 when Honda researchers aimed to develop a "domestic robot" that could assist with household tasks. Through extensive analysis of human movement and numerous prototypes, the team successfully engineered P2 to walk, climb stairs, and perform various tasks autonomously. This innovation shifted the focus of robotics from industrial applications to designs centered on human interaction. P2's influence extends beyond its initial release, inspiring advancements in humanoid robots and contributing to research in biomechanics and artificial intelligence. The recognition as an IEEE Milestone underscores P2's role in propelling the field of humanoid robotics forward, demonstrating the potential for robots to assist humans in meaningful ways. The plaque commemorating this achievement will be installed at the Honda Collection Hall, celebrating the technical benchmarks set by P2 in mobility, autonomy, and human-robot interaction.
Ieee-history Ieee-milestone Honda Robotics Asimo Type-ti
Interview with Jun Wu of GMEX Robotics: ‘We provide an integrated terminal + brain closed-loop system’
As artificial intelligence continues to capture public attention, experts emphasize that the future of robotics hinges on more than just advanced software. While numerous companies are focused on creating sophisticated AI systems and foundation models, there is a growing consensus that the true challenge lies in integrating this intelligence with reliable hardware capable of functioning effectively in the physical environment. This perspective highlights the need for a holistic approach to robotics, where both software and hardware advancements are essential for achieving practical and efficient robotic solutions.
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RSF defines a common language for robot service capability, lifecycle operations, certification pathways, and service-provider networks.
