Rob Scharff's Soft Robotics 3D-printed hand responds to human grip

Dutch Design Week 2015: Delft University of Technology graduate Rob Scharff has created a soft robotic limb that can shake hands with people. The hand was created as part of Scharff's Soft Robotics research project – which focuses on the ways robots can be integrated with more tactile materials, and so improve robot-human interactions.  Cont'd...

Soft Robotics Project Exo-Biote 3D Prints Living Movement

BY HANNAH ROSE MENDOZA for  Soft robotics is a relatively new field of research that aims to create flexible robots that are more easily adaptable to human interaction. Often, the forms of these creations and the mechanics of their movement are inspired by a close study of nature in an effort to ‘go organic’ with machines. 3D printing with flexible filament is one way in which this integration of robot and movement is taking on a flexible aspect. For this particular installation, titled Exo-biote, the National Institute for Research in Computer and Control and the Department of Science and Visual Culture at the Imaginarium worked together, with support from Neuflize Bank, to create a robot organism that embodied the formal typologies and demonstrated the possibilities for movements in soft robots. After all, some of nature’s most amazing machines have nearly entirely soft bodies – think of the octopus, for example, able to lift, carry, walk, swim, shape change, camouflage itself, and fit through a tube no bigger than a quarter!   Cont'd...

Announcing the 2015 Soft Robotics Competitions!

The 2015 Prize for Contributions in Soft Robotics rewards academic researchers for sharing their work and advancing the field. The competitions include $10,000 in prizes!

Records 16 to 18 of 18

First | Previous

Featured Product

Zaber's X-LRQ-DE Series:  High Precision Stages with Built-in Controllers and Linear Encoders

Zaber's X-LRQ-DE Series: High Precision Stages with Built-in Controllers and Linear Encoders

Zaber's X-LRQ-DE Series of linear stages have high stiffness, load, and lifetime capabilities in a compact size. The integrated linear encoder combined with stage calibration provides high accuracy positioning over the full travel of the device. At 36 mm high, these stages are excellent for applications where a low profile is required. The X-LRQ-DE's innovative design allows speeds up to 205 mm/s and loads up to 100 kg. Like all Zaber products, the X-LRQ-DE Series is designed for easy set-up and operation.