MIT researchers have developed a new technique to 3-D print genetically engineered bacteria into a variety of shapes and forms, reports Karen Hao for Quartz. The technique could eventually be used to develop such devices as, “an ingestible living robot that secretes the correct drug when it detects a tumor.”
In a Boston Globe Magazine article about bioelectronic medicine, writer Jessie Scanlon highlights research by Profs. Ed Boyden and Daniela Rus. Boyden notes that by creating light-sensitive molecules, which can be switched on and off and inserted into neurons, “groups in academia and industry are using the tool to discover patterns of neural activity.”
MIT engineers have developed a method to 3-D print living cells into tattoos and 3-D structures, reports Danny Paez for Inverse. Paez explains that the researchers believe the technique, “could possibly be used to create a ‘living computer,’ or a structure made up of living cells that can do the stuff your laptop can.”
Co.Design reporter Katharine Schwab writes that MIT researchers have developed a tattoo made of living cells that activate when exposed to different kinds of stimuli. Schwab explains that in the future the tattoos could be designed, “so that they respond to environmental pollutants or changes in temperature.”
In an article published by The Wall Street Journal about the future of programmable materials, Kelly and Zach Weinersmith highlight Prof. Daniela Rus’ work developing “origami bots that can shape themselves into tools to perform medical procedures or deliver drugs inside the body.”
BBC News reporter James Gallagher writes that MIT researchers have developed a new technology that could eventually enable doctors to administer multiple vaccines in one shot.
Guardian reporter Nicola Davis writes that MIT researchers have developed a new approach that could be used to deliver multiple vaccines in one injection. Davis explains that the technique could prove useful in developing countries, “potentially allowing all childhood vaccines and their boosters to be given in one shot.”
MIT researchers have developed a new way of creating drug-carrying particles that could allow multiple doses of a vaccine to be delivered over an extended period of time, reports Matt Reynolds for New Scientist. “The technology could eventually be used to create ‘omni-vaccines’ that protect against a whole host of diseases in one shot.”
Boston Magazine reporter Rowan Walrath writes that MIT researchers have developed a new technique that could be used to deliver multi-drug vaccines. The researchers developed a new method for “designing customizable, three-dimensional microparticles that resemble minuscule coffee cups. Each cup…contains a drug or vaccine ‘library’ that can be released at multiple points over an extended period of time.”
Boston Herald reporter Lindsay Kalter writes that MIT researchers have developed a hydrogel-based capsule that can slowly release medications over several days and could help patients follow complex treatment regimens. “A lot of people do not take their medication as prescribed,” explains postdoc Jinyao Liu. “With this, you just need a single dose.”
Inverse reporter Dan Robitzski writes that MIT researchers have created a new gel-like coating that can be used to make medical devices feel more natural. The researchers, “developed the hydrogels to manufacture products that feel like the part of the body they contact — say, a catheter that feels like the inside of a urethra.”
Boston Magazine reporter Jamie Ducharme writes that MIT researchers have developed a new gel-like coating that can be used on medical devices like catheters and IV tubes to reduce friction and ease patient discomfort. The substance, “can be moved, stretched, and twisted without breaking, “Ducharme explains, and also, “acts as a lubricant for the objects it coats.”
Timandra Harkness of BBC Radio 4’s FutureProofing series spoke with research affiliate Gio Traverso and postdoc Phillip Nadeau about their ingestible electronic device that uses stomach acid to power tiny sensors. “Once you have the capacity to have a smart system sitting in your stomach that one can communicate with, it opens up the door to homing in on the individual patient,” said Traverso.
Postdoctoral associate Phillip Nadeau speaks with CBC reporter Nora Young about a new ingestible electronic device developed by MIT researchers that could potentially be used to transmit patient data or deliver medications. Young explains that the new device “doesn't require a battery, because it's able to create an electrical current from the acid in your stomach.”
Research affiliate Giovanni Traverso speaks with Ira Flatow of Science Friday about a new ingestible device powered by stomach acid. “When you start thinking about keeping a system inside of the body for a long time,” Traverso explains, “powering that system becomes a challenge, and that’s exactly what we tried to aim to address here with this study.”