NCCR Robotics publishes open source software and datasets, please see below for a list and links to where they can be downloaded. Robogen RoboGen™ is an open source platform… Read more
Talks, Lectures & Weblinks
NCCR Robotics supports and promotes seminars and talks by invited speakers in the partner institutions. addd Diego Pardos talk from Feb 2017 RI Seminar: Davide Scaramuzza : Micro… Read more
CYBATHLON 2020 Team Registration is open!
The date of CYBATHLON 2020 is fixed! From 2–3 May 2020 the gates will be opened for the continuation of the CYBATHLON at the SWISS Arena in Kloten near Zurich. Prepare yourself for an arena charged with passion and an emotion-filled audience that is inspired by the exciting races and challenging tasks in the six …
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Professor Stéphanie Lacour, NCCR Robotics PI, appointed as New Director of the Center for Neuroprosthetics
Professor Stephanie Lacour, Bertarelli Foundation Chair in Neuroprosthetic Technology, and NCCR Robotics PI, to succeed Professor Olaf Blanke as Director of the Center for Neuroprosthetics. Professor Olaf Blanke has been at the helm of the Center for Neuroprosthetics (CNP) since 2012. He hands over the Direction of the Center to Professor Stéphanie Lacour on February …
Three NCCR Robotics Spin Offs selected in the IMD Start-up Competition 2017/2018
Feeltronix, Fotokite and TWIICE have been selected in this competition. For more info, visit IMD webpage. The Feeltronix breakthrough technology platform stretches the mechanical limits of electronics and provides solutions for robust and ultra-compliant rubber-based systems. Applications include smart bands for the next generation of wearables in sports, healthcare, AR/VR and fashion. feeltronix.com Fotokite is a spin-off from ETHZürich’s Flying Machine Arena with patented technology that fundamentally solves …
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New NCCR Robotics Spin Fund
The NCCR Robotics Spin Fund committee has granted Hadrien Michaud the Spin Fund for Feeltronix, hosted at Lacour lab. Feeltronix recently received Venturekick stage 2. Read more
New soft robots really suck!
Recent advances in soft robotics have seen the development of soft pneumatic actuators (SPAs) to ensure that all parts of the robot are soft, including the functional parts. These SPAs have traditionally used increased pressure in parts of the actuator to initiate movement, but today a team from NCCR Robotics and RRL, EPFL publish a …
Meet the Paik Lab
Welcome to the second of our Lab videos section where we introduce the NCCR Robotics lab, PI, NCCR Robotics members and their work. On this occasion we present Paik Lab.
Post-Doc open position at Paik Lab
Post-Doc open position at Paik lab (EPFL).
Stéphanie Lacour appointed Full Professor
12.12.16 – Congratulations to Prof. Stéphanie Lacour who has been appointed Full Professor of Microtechnology and Bioengineering in the School of Engineering (STI), EPFL.Prof. Lacour has recently made news with her work in NCCR Robotics with both the e-dura implant and the stretchable solid-liquid electrical film. Read more.
Primates Regain Control of Paralyzed Limb
09.11.16 – Non-human primates regain control of their paralyzed leg – as early as six days after spinal cord injury – thanks to a neuroprosthetic interface that acts as a wireless bridge between the brain and spine, bypassing the injury. A feasibility clinical study has begun in Switzerland to test the therapeutic effects of the spine-part of …
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A Composite Thread that Varies in Rigidity
27.10.16 – Soft “hardware” components are becoming more and more popular solutions within the field of robotics. In fact, softness, compliance and foldability bring significant advantages to devices, by allowing conformability and safe interactions with users, objects and unstructured environments. However, for some applications the softness of components adversely reduces the range of forces that …
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Past Events
Date/Time | Event | Description |
---|---|---|
28 Mar 2017 2:30 pm – 4:30 pm |
Talks: By Professor Fumiya Iida & By Professor Robert J. Full
EPFL, Lausanne Suisse |
Talks: Model-free design optimization of soft robots: Any hope? By Professor Fumiya Iida (Cambridge Univ.), (14:30 – 15:30). BioMotion Science: Leapin’ Lizards, Compressed Cockroaches and Smart Squirrels Inspire Robots By... |
30 Sep – 7 Jan 2016 All Day |
The origami robot Tribot from Paik lab is currently at the exhibition in +Ultra Knowledge & Gestaltung in Berlin |
RRL Activities – Summary 2017
New soft robots really suck!
Primates Regain Control of Paralyzed Limb
A composite thread that varies in rigidity
Soft robots that mimic human muscles
Innovative Textilien
Stretchable electronics that quadruple in length
A new versatile gripper
4-gram “origami” robot that crawls and jumps
A folding drone that’s ready for takeoff in a snap
Design and Computational Modeling of a Modular, Compliant Robotic Assembly for Human Lumbar Unit and Spinal Cord Assistance
Voici le premier robot qui bouge par aspiration d’air
Dal Poli di Losanna il serpente robot
This modular soft robot can be slotted together as easily as Lego
Bewegt dank Vakuum: Weicher Roboter “saugt” sich vorwärts
Vacuum-powered modular robot sucks it up to get the job done
Lego-like vacuum robot climbs walls and sorts your Tupperware
This vacuum-activated modular robot is equally nasty and neat
A World of “Soft Robots” Could Actually Be the Gross Future We Need
New soft robots really suck: Vacuum-powered systems empower diverse capabilities











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"Ultra-stretchable strain sensors using carbon black-filled elastomer composites and comparison of capacitive versus resistive sensors
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A Foldable Antagonistic Actuator
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We report on an actuator based on dielectric elastomers that is capable of antagonistic actuation and passive folding. This actuator enables foldability in robots with simple structures. Unlike other antagonistic dielectric elastomer devices, our concept uses elastic hinges to allow the folding of the structure, which also provides an additional design parameter. To validate the actuator concept through a specific application test, a foldable elevon actuator with outline size of 70 mm × 130 mm is developed with angular displacement range and torque specifications matched to a 400-mm wingspan micro-air vehicle (MAV) of mass 130 g. A closed-form analytical model of the actuator is constructed, which was used to guide the actuator design. The actuator consists of 125-μm-thick silicone membranes as the dielectric elastomers, 0.2mm-thick fiberglass plate as the frame structure, and 50-μm-thick polyimide as the elastic hinge. We measured voltage-controllable angular displacement up to ±26° and torque of 2720 mN · mm at 5 kV, with good agreement between the model and the measured data. Two elevon actuators are integrated into the MAV, which was successfully flown, with the foldable actuators providing stable and well-controlled flight. The controllability was quantitatively evaluated by calculating the correlation between the control signal and the MAV motion, with a correlation in roll axis of over 0.7 measured during the flights, illustrating the high performance of this foldable actuator.
A Perching Mechanism for Flying Robots Using a Fibre-Based Adhesive
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Robots capable of hover flight in constrained indoor environments have many applications, however their range is constrained by the high energetic cost of airborne locomotion. Perching allows flying robots to scan their environment without the need to remain aloft. This paper presents the design of a mechanism that allows indoor flying robots to attach to vertical surfaces. To date, solutions that enable flying robot with perching capabilities either require high precision control of the dynamics of the robot or a mechanism robust to high energy impacts. We propose in this article a perching mechanism comprising a compliant deployable pad and a passive self-alignment system, that does not require any active control during the attachment procedure. More specifically, a perching mechanism using fibre-based dry adhesives was implemented on a 300 g flying platform. An adhesive pad was first modeled and optimized in shape for maximum attachment force at the low pre-load forces inherent to hovering platforms. It was then mounted on a deployable mechanism that stays within the structure of the robot during flight and can be deployed when a perching maneuver is initiated. Finally, the perching mechanism is integrated onto a real flying robot and successful perching maneuvers are demonstrated as a proof of concept.
A Soft Robot for Random Exploration of Terrestrial Environments
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A soft robotic actuator using dielectric minimum energy structures
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Dielectric minimum energy structures are capable of large actuation stroke, and consist of a pre-stretched dielectric elastomer actuator (DEA) laminated onto a flexible frame, which makes it easy to obtain both simple and complex shapes. We report here on the fabrication and characterization of a prototype capable of one-dimensional bending actuation. For the DEA, several combinations of ion-implanted PDMS membranes and uniaxial pre-stretch ratio were used. The actuator was characterized by measuring the deformation and output force vs. applied voltage. The results showed that the prototype is able to exhibit bending actuation in the range of around 60 deg. Additionally the initial deformation depends on fabrication parameters such as thickness of the materials, pre-stretch ratio as well as dose of implanted ions.
A Variable Stiffness Catheter Controlled with an External Magnetic Field
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Adaptive Morphology: A Design Principle for Multimodal and Multifunctional Robots
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Morphology plays an important role in behavioral and locomotion strategies of living and artificial systems. There is biological evidence that adaptive morphological changes can not only extend dynamic performances by reducing tradeoffs during locomotion but also provide new functionalities. In this article, we show that adaptive morphology is an emerging design principle in robotics that benefits from a new generation of soft, variable-stiffness, and functional materials and structures. When moving within a given environment or when transitioning between different substrates, adaptive morphology allows accommodation of opposing dynamic requirements (e.g., maneuverability, stability, efficiency, and speed). Adaptive morphology is also a viable solution to endow robots with additional functionalities, such as transportability, protection, and variable gearing. We identify important research and technological questions, such as variable-stiffness structures, in silico design tools, and adaptive control systems to fully leverage adaptive morphology in robotic systems.
An Active Connection Mechanism for Soft Modular Robots
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To date, most modular robotic systems lack flexibility when increasing the number of modules due to their hard building blocks and rigid connection mechanisms. In order to improve adaptation to environmental changes, softness on the module level might be beneficial. However, coping with softness requires fundamental rethinking the way modules are built. A major challenge is to develop a connection mechanism that does not limit the softness of the modules, does not require precise alignment and allows for easy detachment. In this paper, we propose a soft active connection mechanism based on electroadhesion. The mechanism uses electrostatic forces to connect modules. The method is easy to implement and can be integrated in a wide range of soft module types. Based on our experimental results, we conclude that the mechanism is suitable as a connection principle for light-weight modules when efficiency in a wide range of softness, tolerance to alignment and easy detachment are desired. The main contributions of this article are (i) the qualitative comparison of different connector principles for soft modular robots, (ii) the integration of electroadhesion, featuring a novel electrode pattern design, into soft modules, and (iii) the demonstration and characterization of the performance of functional soft module mockups including the connection mechanism.
Artificial muscles for soft robots
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Recent work on soft gripper using an artificial muscle technology was shown at Festival de robotique in EPFL.
Bi-Modal Control of Vacuum-Powered Soft Pneumatic Actuators with Embedded Liquid Metal-Based Strain Sensitive Skin
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