TechCrunch reporter Darrell Etherington writes that researchers from MIT and 3M are working on creating a new diagnostic tool for Covid-19 that can be manufactured cheaply and in large volumes for mass distribution. “The goal is to create a test that detects viral antigens,” Etherington explains, adding that the tests “provide results much faster than the molecular PCR-based test.”
MIT researchers have developed a skin patch that could be used to fight melanoma, reports Berkeley Lovelace Jr. for CNBC. “Our patch technology could be used to deliver vaccines to combat different infectious diseases,” explains Prof. Paula Hammond. “But we are excited by the possibility that the patch is another tool in the oncologists’ arsenal against cancer, specifically melanoma.”
Writing for Science, Derek Lowe spotlights how MIT researchers are developing a platform that could be used to automate the production of molecules for use in medicine, solar energy and more. “The eventual hope is to unite the software and the hardware in this area,” reports Lowe, “and come up with a system that can produce new compounds with a minimum of human intervention.”
Dr. Francis Collins, director of the NIH, spotlights a video created by Prof. Kwanghun Chung that takes viewers on a voyage through a region of the brain that controls voluntary movement. Thanks to imaging techniques like Chung’s, “mapping the biocircuitry of the brain just keeps getting better all the time,” Collins explains.
Writing for the Financial Times about how technology is advancing the field of health care, John Browne spotlights Prof. Bob Langer’s work developing new methods of delivering drugs with improved precision. Browne explains that Langer is working on “a device smaller than a grain of rice that he can inject into a tumour to test the efficacy of dozens of chemotherapy agents in parallel.”
Writing for Scientific American, Prof. Bob Langer examines how breakthroughs in biotechnology and materials science are enabling more personalized and effective treatments for patients. Langer highlights how by “engineering polymers that offer smart delivery systems, we can target specific parts of the body. This limits exposure and therefore adverse effects, offering more effective and precise treatment.”
President Emerita Susan Hockfield discusses her new book, “The Age of Living Machines,” her work as a neuroscientist, and the future of science and technology during a curated lunch conversation with HUBweek and Boston.com. Hockfield explains that a revolution spurred by the convergence of biology with engineering will lead to new technologies built by biology.
In an excerpt from her new book published in The Wall Street Journal, President Emerita Susan Hockfield explores how the convergence between biology and engineering is driving the development of new tools to tackle pressing human problems. Hockfield writes that for these world-changing technologies to be realized requires “not only funding and institutional support but, more fundamentally, a commitment to collaboration among unlikely partners.”
President Emerita Susan Hockfield speaks with Jim Braude of WGBH’s Greater Boston about her book, “The Age of Living Machines.” “We are looking at a population of over 9.7 billion by 2050,” explains Hockfield. “We are not going to get there without war or epidemics or starvation if we don’t develop technologies that will allow us to provide energy, food, water, health and health care sustainably.”
Verge reporter Angela Chen spotlights Prof. Michael Strano’s work using nanobionics to engineer plants. “It’s long overdue that we start to look at plants as the starting point of technology,” explains Strano. “As an engineering platform, they have a number of untapped advantages.”
MIT researchers have developed a new drug-releasing coil that could be used to help treat tuberculosis, reports Ruby Prosser Scully for New Scientist. Scully explains that the coil is “too large to leave the stomach, so it stays there, and the medicines threaded onto it leach out at a rate depending on the type of drug and the polymer the developers use to make the pills.”
NIH Director Francis Collins highlights how MIT researchers have developed a new ingestible device, shaped like the shell of an African leopard tortoise, that can inject insulin directly into the stomach wall. Collins writes that, “this fascinating work serves as a reminder that when it comes to biomedical science, inspiration sometimes can come from the most unexpected places.”
MIT researchers have developed a new ingestible capsule that in the future could be used to deliver medication to diabetes patients, reports Dr. Erica Orsini for ABC News. “The oral route is preferred by both patients and health care providers,” explains visiting scientist Giovanni Traverso.
A new ingestible pill developed by MIT researchers positions itself against the walls of the stomach and can deliver insulin directly to the bloodstream, reports Gina Kolata for The New York Times. “It’s a very new concept and a really cool idea,” says Edith Mathiowitz, a professor of medical science and engineering at Brown University.
Financial Times reporter Clive Cookson writes that MIT researchers have developed an ingestible pill that can deliver insulin directly to a patient’s stomach. “This discovery has the potential to transform not only drug delivery but drug discovery as well,” explains Prof. Robert Langer, “since most current drug discovery efforts are aimed at creating small molecule drugs that patients can take orally.”