Industry Briefing
A single destination for timely, editor-curated robotics news from around the world.
Replacing Grasping with Support: EPFL Team Proposes a New Paradigm for Robot Manipulation
Researchers from the École Polytechnique Fédérale de Lausanne (EPFL) have unveiled a groundbreaking robotic manipulation technique that moves away from conventional grasping methods to a surface-based support system. This new approach enables robots to interact with a wide range of objects without requiring stable grips, significantly improving their dexterity. The development, announced recently, has the potential to transform automation processes across multiple industries, enhancing efficiency and versatility in robotic applications. By allowing robots to manage objects more fluidly and adaptively, this innovation could lead to advancements in fields such as manufacturing, logistics, and service industries.
Robotic Manipulation Automation Technology Surface-Based Handling EPFL Research
MIT and EPFL Unveil 250g Flapping Robot for Dual Aerial and Aquatic Navigation
MIT and EPFL have developed the Flapping-wing Aerial-Aquatic Vehicle (FAAV), weighing just 250 grams. This innovative robot can navigate both air and water, achieving a cruising speed of 6.3 meters per second in the air and 1 meter per second underwater. Remarkably, it can take off from water using only its wings, without any additional propulsion systems. The significance of the FAAV lies in its ability to overcome the challenges of transitioning between air and water, which have historically hindered the development of amphibious robots. The wings of the FAAV passively deform underwater, allowing for efficient movement and reduced motor load. This design enables the robot to exploit the surface tension of water for takeoff, a feat that has been difficult for previous models reliant on complex propulsion mechanisms. Looking ahead, the research team aims to complete the full flight-dive-flight cycle, which is yet to be validated. The FAAV has already demonstrated its capability to breach the water's surface, marking a significant milestone in the evolution of cross-medium robotic systems. No further timeline was disclosed at the time of publication.
Flapping Robots Aerial-Aquatic Vehicles Robotics Marine Technology
MIT and EPFL Develop Flapping Robot for Seamless Water-Air Transition with Advanced Wing Design
Researchers from MIT and EPFL have created a flapping robot capable of transitioning between water and air without legs. Weighing approximately 250 grams, the robot features a streamlined body, two flexible wings, and a controllable tail. It can flap its wings at frequencies of up to 6 Hz underwater and 5.2 to 11 Hz in the air, mimicking the behavior of diving birds, as detailed in a recent Science publication. This innovation is significant as it addresses the complex physical challenges of transitioning from water to air, a feat that most diving birds achieve with the aid of their legs. The robot's flexible wings reduce drag and allow for a higher flapping frequency underwater compared to rigid wings. This design not only enhances its swimming efficiency but also aligns with biological observations of diving birds, providing insights into their locomotion strategies. Looking ahead, the research team is exploring optimal wing configurations and has tested various sizes and stiffnesses. Future experiments will focus on the robot's ability to transition from water to air solely through wing flapping, a critical milestone that could reveal more about the mechanics of avian flight and inspire advancements in robotic design. No further timeline was disclosed at the time of publication.
Flapping Robots Aerial Robotics Aquatic Robotics Bio-inspired Engineering
MIT and EPFL Develop Flapping-Wing Robot for Air and Water Navigation
Engineers from MIT and EPFL have created a flapping-wing aerial-aquatic vehicle (FAAV) inspired by puffins. Weighing under 300 grams, the robot features a central fuselage, flexible wings, and a steerable tail. Field tests in Lake Geneva demonstrated its ability to swim and then take flight, showcasing its dual-medium capabilities. This innovation is significant for oceanography and marine biology, as it allows for cost-effective data collection from both air and water. The FAAV can fly at speeds of 6 meters per second and swim at 1 meter per second, providing a versatile tool for researchers. The design mimics the natural mechanics of birds, which maintain similar physical dynamics in both environments by adjusting their speed. Looking ahead, the team aims to refine the robot's ability to breach the water's surface, a challenging transition requiring a precise 70-degree pitch. No further timeline was disclosed at the time of publication, but the potential applications for environmental monitoring and research are substantial.
AI and Robotics
MIT and EPFL Develop Flapping Robot for Aerial and Aquatic Exploration
Engineers from MIT and EPFL have created a flapping-wing aerial-aquatic vehicle (FAAV) that weighs under 300 grams. This robot can swim underwater and transition to flight, mimicking the behavior of diving birds. The research, published in Science, showcases the robot's ability to adapt its mechanics for both mediums, which differ significantly in density and resistance. The significance of this development lies in its potential applications in oceanography and environmental monitoring. The FAAV can access areas that are typically hazardous for traditional vessels, allowing scientists to collect data from locations such as icebergs or marine habitats. This innovation could reduce operational costs and enhance data collection efficiency in marine research. Looking ahead, the research team aims to refine the FAAV's design and functionality. Future experiments will likely focus on optimizing the robot's performance in various aquatic environments. No further timeline was disclosed at the time of publication.
Bioinspiration Drones Mechanical engineering Oceanography and ocean engineering Research Robotics
MIT and EPFL Develop Aerial-Aquatic Robot for Enhanced Environmental Studies
In a groundbreaking demonstration, two full teams of humanoid robots engaged in an 11-vs-11 soccer match at RoboCup 2026 in Incheon, South Korea, marking a significant milestone in robotic sports. This event showcased the advancements in humanoid robotics, with Tech United competing against IRIS, bringing the vision of robot soccer closer to reality. The significance of this event lies in its potential to drive interest and investment in humanoid robotics and AI technologies. As robots like Boston Dynamics' Atlas perform in front of large audiences, the market for humanoid robots in entertainment and practical applications is expected to grow. Additionally, the introduction of advanced robotic hands by 1X, featuring 25 degrees of freedom, highlights the ongoing evolution in dexterity and manipulation capabilities. Looking ahead, the next major robotics events include the Summer School on Multi-Robot Systems in Prague from July 29 to August 4, 2026, and IROS 2026 in Pittsburgh from September 27 to October 1, 2026. These gatherings will likely showcase further advancements in robotics and provide a platform for collaboration and innovation in the field. No further timeline was disclosed at the time of publication.
Video-friday Humanoids Robotics World-cup
AI brings object-level vision prosthetics closer to reality
Researchers at the NeuroAI Lab, led by Martin Schrimpf at the École Polytechnique Fédérale de Lausanne (EPFL), have developed advanced AI models capable of predicting precise stimulation sites in the brain. This groundbreaking research, which aims to enhance our understanding of brain functions and improve therapeutic interventions, was recently published. By utilizing sophisticated algorithms, the team analyzed neural data to identify optimal stimulation points, potentially revolutionizing treatments for neurological disorders. The findings underscore the intersection of artificial intelligence and neuroscience, highlighting the potential for AI to inform and refine medical practices.
Robot Talk Episode 157 – Generating new robot designs, with Josie Hughes
Claire recently engaged in a discussion with Josie Hughes, an Assistant Professor at École Polytechnique Fédérale de Lausanne (EPFL), regarding the innovative application of artificial intelligence in the design of robotic manipulators. Hughes, who founded the CREATE Lab at EPFL in 2021, shared insights from her extensive academic background, including her PhD work at the University of Cambridge, where she focused on bio-inspired robotics. The conversation highlighted the potential of AI to revolutionize the field by enhancing the functionality and efficiency of robotic systems, reflecting a growing trend in integrating advanced technologies into robotics research.
Swiss Team Develops 'Diffused Orientation Fields' to Enable Robots to Manipulate Curved Objects
Researchers from the École Polytechnique Fédérale de Lausanne (EPFL) and the Idiap Research Institute have developed a groundbreaking method known as 'Diffused Orientation Fields' aimed at improving robotic manipulation of complex, curved objects. This advancement, unveiled recently, leverages point cloud data alongside partial differential equations to establish a flexible and smooth coordinate system. As a result, robots can achieve greater dexterity and precision in real-time tasks such as peeling and slicing. This innovation addresses the challenges faced by robots in handling intricate shapes, potentially revolutionizing their application in food preparation and other industries requiring fine motor skills.
Robotics Machine Learning AI Automation Computer Vision
No-code automation: One video guide instructs three completely different robots
A research team at the Federal Technology Institute of Lausanne (EPFL) in Switzerland has unveiled an innovative robotic system designed to assist in search and rescue operations. This groundbreaking development was announced on October 15, 2023, during a press conference held at the institute's headquarters in Lausanne. The motivation behind creating this advanced robotic technology stems from the increasing need for efficient and effective tools in emergency response situations, particularly in challenging environments where human rescuers may face significant risks. The robotic system is equipped with state-of-the-art sensors and artificial intelligence capabilities, allowing it to navigate complex terrains and identify victims in disaster-stricken areas. By simulating various emergency scenarios, the research team demonstrated the robot's ability to operate autonomously while providing real-time data to human operators. This integration of robotics into search and rescue missions aims to enhance the safety and efficiency of rescue efforts, ultimately saving more lives. The EPFL team emphasizes that this technology could revolutionize the way emergency services respond to crises, particularly in remote or hazardous locations. As the project progresses, further testing and collaboration with emergency response teams are planned to refine the robot's capabilities and ensure its practical application in real-world situations.
Resource-sharing boosts robotic resilience
Researchers at the École Polytechnique Fédérale de Lausanne (EPFL) have developed the Mori3 modular origami robot, a groundbreaking innovation in robotic design aimed at enhancing functionality while reducing the risk of failure. This development highlights a significant challenge in robotics: balancing the complexity of multi-functional systems with reliability. The Mori3 robot employs a unique origami-inspired design that allows it to adapt its shape and capabilities, making it versatile for various tasks. This advancement was unveiled recently, showcasing the potential for modular robots to operate effectively in dynamic environments. The researchers believe that by integrating origami principles, they can create robots that not only perform a wide range of functions but also maintain a high level of operational reliability. This innovative approach could pave the way for future applications in fields such as search and rescue, medical assistance, and environmental monitoring.
Reversible, detachable robotic hand redefines dexterity
Researchers at the École Polytechnique Fédérale de Lausanne (EPFL) are exploring the limitations of human hand design to enhance robotic dexterity. In a study led by Celia Luterbacher, the team highlights that while human hands, with their opposable thumbs and intricate joint structures, are often viewed as the epitome of dexterity, they are not the most efficient design. The research, conducted in 2025, aims to identify the evolutionary constraints that have shaped human hands over time and to apply these insights to develop more advanced robotic hands. By analyzing the mechanics and functionality of human hands, the researchers hope to create robotic systems that can perform tasks with greater precision and adaptability. This innovative approach could significantly impact fields such as robotics, prosthetics, and automation, ultimately leading to more effective and versatile robotic applications.
Robot Talk Episode 143 – Robots for children, with Elmira Yadollahi
In a recent conversation, Claire engaged with Elmira Yadollahi, an Assistant Professor of Computer Science at Lancaster University, to explore the dynamics of children's interactions with robots. Yadollahi, who holds a joint PhD in robotics and computer science from EPFL in Switzerland and Instituto Superior Técnico in Portugal, focuses her research on enhancing explainability in robotics. This discussion sheds light on the growing importance of understanding how young users relate to robotic technology, a field that is becoming increasingly relevant as robotics integrate into everyday life. The insights from Yadollahi's work aim to inform the development of more intuitive and user-friendly robotic systems for children.
Video Friday: Multitasking Robots Smoothly Do the Things Together
IEEE Spectrum robotics has released its weekly roundup of notable robotics videos and upcoming events, including the ICRA 2026 conference scheduled for June 1-5, 2026, in Vienna. Among the highlights, Westwood Robotics unveiled THEMIS Gen2.5, the first commercial full-size humanoid robot capable of walking and manipulating objects simultaneously. This advancement builds on Helix's previous work, which demonstrated a single neural network controlling a humanoid's upper body, now expanded to encompass the entire robot's functions. In a demonstration of practical applications, Kimberly Elenberg from Carnegie Mellon University showcased how data from robotic responders can enhance life-saving efforts during mass casualty incidents. Meanwhile, Sphero continues to thrive in the competitive educational robotics market since its inception in 2011. Innovative flight testing methods were discussed by Zipline, emphasizing the importance of testing drones in extreme conditions. Additionally, researchers from the University of Tokyo introduced a concept of 3D-printing both skin and skeleton, while LimX presented small bipedal robots capable of skiing and resembling dinosaurs. The EPFL Reconfigurable Robotics Lab introduced a novel user-guided control system for modular robots, demonstrating its effectiveness through various tasks. Texas A&M University showcased its Quadrotor Biplane Tailsitter (QBiT) UAVs, which combine the agility of quadrotor drones with the efficiency of fixed-wing aircraft. Lastly, DARPA announced a new challenge aimed at developing drones capable of carrying payloads exceeding four times their weight, promising to transform drone usage across multiple sectors.
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Bio-hybrid robots turn food waste into functional machines
Researchers at the CREATE Lab of the École Polytechnique Fédérale de Lausanne (EPFL) have unveiled a groundbreaking robotic gripper crafted from langoustine tails. This innovative design, showcased in 2025, marks a significant departure from traditional robotic components typically made from metals and plastics. By drawing inspiration from nature, the team aims to enhance the functionality and adaptability of robotic systems. The use of organic materials not only aligns with sustainable practices but also offers unique advantages in terms of flexibility and grip. This development highlights a growing trend in robotics, where natural elements are increasingly influencing technological advancements.
Robot Talk Episode 138 – Robots in the environment, with Stefano Mintchev
Claire recently engaged in a discussion with Stefano Mintchev, an Assistant Professor of Environmental Robotics at ETH Zürich, Switzerland. The conversation centered on the innovative use of robots designed to explore and monitor natural environments. Mintchev, who holds a Ph.D. in Bioinspired Robotics from Scuola Superiore Sant’Anna in Italy and has conducted postdoctoral research at EPFL in Switzerland, shared insights into how these advanced robotic systems can enhance our understanding of ecological systems. The dialogue highlighted the importance of integrating technology with environmental science to address pressing ecological challenges.
Robotics needs a service framework.
RSF defines a common language for robot service capability, lifecycle operations, certification pathways, and service-provider networks.
