In this video, Mashable highlights a new method developed by MIT researchers to 3-D print soft robots that can crawl, fold and carry a pill. The team hopes the structures, which can be controlled with a magnet, could eventually be used as a medical device to take tissue samples or deliver treatments.
Lara Lewington reports for BBC Click on how MIT researchers have developed a technique to create 3-D printed soft structures that can be controlled with a magnet. Lewington explains that the structures could eventually be used in biomedical devices to “take images, extract samples, deliver drugs or even surround a blood vessel to control the pumping of blood.”
Researchers at MIT have created 3D-printed structures that can be controlled by a magnet. The structures included a tube that could squeeze shut, a sheet that could fold, and “a spider-like ‘grabber’ that could crawl, roll, jump, and snap together fast enough to catch a passing ball,” reports Mu Xuequan for Xinhua.
Using magnetic nanoparticles that have been mixed into rubber, Associate Prof. Xuanhe Zhao has created “3D printed shapes that fold, morph, and move in the presence of a magnetic field,” reports Leah Crane for New Scientist. In the future, Zhao believes this work could have medical applications, “like assisting minimally invasive surgeries,” notes Crane.
NBC Mach reporter Tom Metcalfe writes that MIT researchers are developing autonomous boats that could be used to ferry goods and people and could help ease traffic congestion. “We believe that with fleets of very agile autonomous boats we can offload some street traffic onto the waterways,” explains Prof. Daniela Rus.
Co.Design reporter Jesus Diaz writes that MIT researchers have developed a new technique to 3-D print photorealistic representations of objects. Diaz explains that this could have significant potential in education and scientific visualization: “While you can look at a 3D representation of data in virtual or augmented reality, looking at a real physical model is an experience that is hard to beat.”
Researchers from MIT's CSAIL and Senseable City Lab “have designed a fleet of 3-D printed autonomous boats [that] could eventually taxi people and deliver goods,” reports CNBC’s Erin Black. The boats “can also be equipped to monitor a city's water quality,” Black explains.
Wired reporter Jack Stewart highlights how MIT researchers have developed a 3-D printed autonomous boat that could be used to ferry goods or people. The boats could eventually, “use their onboard GPS sensors and inertial measurement units to precisely position themselves in packs, forming instant floating bridges, or stages, or platforms for pop-up food markets on the water.”
Researchers at MIT’s Self-Assembly Lab are developing an inflatable, stretchy, 3-D printed material that could be used in cars, writes Laura Yan for Popular Mechanics. “Inflatable materials could mean fully customizable car interiors: seats that can merge and inflate into different orientations and configurations, the ability to program the hardness or softness of your seats, redesigned airbags (of course), and perhaps much more,” explains Yan.
In this Bloomberg radio segment, Prof. Daniela Rus discusses her work developing a fleet of autonomous 3-D printed boats that could not only transport goods and people, but also self-assemble into bridges and other structures. Rus explains that she is, “very excited about the idea of taking the autonomy technologies we have in driverless cars and applying them to other vehicles.”
Researchers from the Self-Assembly Lab are collaborating with BMW to develop inflatable objects that could potentially be used in car design, writes Katharine Schwab for Co.Design. Prof. Skylar Tibbits explains that the technology could be used to create adjustable car interiors that, “could be different every time you got in, or for every person who got in.”
Researchers at MIT have developed a “kirigami” film, based off of the ancient paper-folding technique of the same name, that can be used for bandaging tricky areas like the knee or elbow, writes David Grossman for Popular Mechanics. “We are the first group to find, with a systematic mechanism study, that a kirigami design can improve a material’s adhesion,” says postdoc and lead researcher Ruike Zhao.
Sarah Toy of The Wall Street Journal writes that CSAIL researchers have developed a soft robotic fish that can capture images and video of aquatic life. “The key here is that the robot is very quiet as it moves in the water and the undulating motion of the tail does not create too much water disturbance,” says Prof. Daniela Rus.
Associate Prof. John Hart speaks with Miles O’Brien on PBS NewsHour about the future of 3-D printing and how the true extent of its application is “in some part beyond our imagination.” “There’s few things that you can 3-D print and then use right away,” says Prof. Hart. “But we’re getting there.”
SoFi, or “soft robot fish”, was developed by researchers in CSAIL to better observe marine life without disturbance. “…it's specially designed to look realistic and move super-quietly through the waves,” writes BBC News, whose brief also features a video of the fish in action.