75 Results for 'Harvard SEAS'
Soft artificial muscles for soft robots
Soft robots, similar to living organisms, are made from compliant materials that allow them great flexibility and adaptability for tasks at the human-robot interface and elsewhere. To enable soft robotic missions in different industrial, exploratory, and medical settings, engineers are trying to equip them with artificial muscles that could enable them to move smoothly, efficiently...
Flexible embedded liquid sensors
As we shift from carrying electronic devices in our pockets and purses to wearing them on our bodies, those devices need to be able to move and stretch with us, and to sense our movements in order to better do so. Such sensors must remain functional when stretched to several times their resting length, resist...
Millimeter-scale Delta robot (milliDelta)
Delta robots are deployed in many industrial processes, including pick-and-place assemblies, machining, welding, and food packaging. Three individually controlled lightweight arms enable fast and accurate motion of an output platform in three directions. Roboticists have reduced the size of Delta robots for tasks in limited workspaces, but so far, using conventional manufacturing techniques and components,...
Versatile Ambulatory Microrobots
Small or difficult-to-access spaces such as areas covered with rubble, or narrow pipes and engines can pose obstacles to search-and-rescue missions, repair works, or environmental and industrial monitoring. One solution for these problems could be small-sized robots that are able to navigate such spaces, transport payload, sense, and communicate. Wyss Institute researchers have developed a...
Autonomous Flying Microrobots (RoboBees)
Inspired by the biology of a bee, researchers at the Wyss Institute are developing RoboBees, manmade systems that could perform myriad roles in agriculture or disaster relief. A RoboBee measures about half the size of a paper clip, weighs less that one-tenth of a gram, and flies using “artificial muscles” compromised of materials that contract when...
Mar 14, 2019, 4:30pm
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Harvard John A. Paulson School of Engineering and Applied Sciences Topics in Bioengineering presents this lecture by Georg Duda, Wyss Institute Associate Faculty Member. Conceptually, our research aims at understanding endogenous cascades of tissue formation, cytokine signaling and cellular self-organization especially in bone. Mechanical straining and adaptation due to mechanical cues plays a central role... Free and open to public
Video/AnimationKidney Organiods: Flow-Enhanced Vascularization and Maturation In VitroThis video explains how the collaborative project created vascularized kidney organoids and how they advance the field of tissue engineering. Credit: Wyss Institute at Harvard University.
Video/AnimationHAMR-E: Inverted and Vertical Climbing MicrorobotHAMR-E, created in collaboration with Rolls-Royce, is a micro-robot that uses electroadhesion to scale vertical, inverted, and curved surfaces, allowing it to explore spaces that are too small for humans. HAMR-E could one day be used to inspect jet engines and other complicated machines without requiring them to be taken apart. Credit: Wyss Institute at...
Video/AnimationLight-driven fine chemical production in yeast biohybridsWyss Institute Core Faculty member Neel Joshi explains the concept of yeast biohybrids and how they can be used to harvest energy from light to drive the production of fine chemicals. Credit: Wyss Institute at Harvard University
Video/AnimationSoft Robotic Arms: Giving Biologists a Delicate, Deep-sea ReachWhat good is a soft robotic hand without a soft robotic arm to move it? Wyss researchers have now created a soft, modular underwater arm that can help marine biologists study hard-to-reach organisms in the deep sea. Credit: Wyss Institute at Harvard University
Video/AnimationMulti-joint Personalized Soft Exosuit Breaks New GroundA multidisciplinary team at Harvard’s Wyss Institute and Harvard SEAS has developed a mobile multi-joint soft exosuit using an automatic tuning strategy that could reduce fatigue in soldiers, firefighters or other rescue workers. Credit: Wyss Institute at Harvard University
Video/AnimationAcoustophoretic PrintingHavard researchers have developed acoustophoretic printing, a method that uses 3D printing technology and highly localized sound waves to generate of droplets with defined sizes and a wide range of viscosities.