Prof. Katharina Ribbeck speaks with New York Times reporter Nina Agrawal about her research studying the health and medical benefits of mucus. “Ribbeck’s research has shown that the sugars on mucins can effectively switch off mechanisms that the bacteria involved in strep throat or cholera, for example, or fungus in a yeast infection, use to go from innocuous to harmful,” explains Agrawal.
New Yorker reporter Dhruv Khullar spotlights how researchers from across MIT are using AI to advance drug development. Khullar highlights the MIT Jameel Clinic, the Broad Institute and various faculty members for their efforts in bridging the gap between AI and drug research. “With AI, we’re getting that much more efficient at finding molecules—and in some cases creating them,” says Prof. James Collins. “The cost of the search is going down. Now we really don’t have an excuse.”
Sonia Vallabh and Eric Minikel, senior group leaders from the Broad Institute have created a gene-editing tool to combat prion diseases, reports Karen Weintraub for USA Today. The approach “should also work against diseases such as Huntington's, Parkinson's, ALS and even Alzheimer's, which result from the accumulation of toxic proteins,” Weintraub writes.
MIT scientists have shown a simple paper-strip test can detect the flu and identify the specific strain, which could prove useful in improving outbreak response and infection care, writes Dennis Thompson for HealthDay. Jon Arizti-Sanz PhD ’24 says “being able to tease apart what strain or subtype of influenza is infecting a patient has repercussions both for treating them and public health interventions.”
Writing for the Boston Globe, graduate student Sophie Hartley spotlights researchers and arborists battling beech leaf disease a highly infectious disease caused by microscopic roundworms that “can disrupt a tree’s ability to photosynthesize and therefore survive." “Over the past decade, federal, state, and private agencies have shown up en masse to learn all they can about beech leaf disease, resulting in an extensive body of knowledge to inform policy,” explains Hartley. “By matching the worms’ seemingly unstoppable push with equally relentless research, experimentation, and community support, the hope is that all is not lost. Not yet.”
MIT researchers have developed microneedle patches that are capable of restoring hair growth in alopecia areata patients, reports Ernie Mundell for HealthDay. The team’s approach includes a, “patch containing myriad microneedles that is applied to the scalp,” writes Mundell. “It releases drugs to reset the immune system so it stops attacking follicles.”
MIT researchers have discovered a protein found in human sweat that holds antimicrobial properties and can “inhibit the growth of the bacteria that causes Lyme disease,” reports Matt Fortin for NENC. The team believes this “type of protein could be put into a topical cream to make something called ‘Lyme Block’ – like sunblock, but for preventing Lyme.” "Ideally what we would love to do is give people more control over their own risk," says Principal Research Scientist Michal Tal. "And really try to develop this into a possible preventative that you could put on repellant or sunblock to protect against other elements of the outdoors that you could also protect yourself against Lyme."
Prof. Katharina Ribbeck speaks with Christopher Intagliata of Scientific American’s “Science Quickly” podcast about her research exploring how mucus can treat and prevent disease. “The basic building blocks of mucus that give mucus its gooey nature are these threadlike molecules—they look like tiny bottlebrushes—that display lots and lots of sugar molecules on their backbone,” explains Ribbeck. “And these sugar molecules—we call them glycans—interact with molecules from the immune system and microbes directly. And the exact configuration and density of these sugar molecules is really important for health.”
Researchers from MIT and elsewhere have isolated a “protein in human sweat that protects against Lyme disease,” reports Matthew Rozsa for Salon. The researchers believe that if “properly harnessed the protein could form the basis of skin creams that either prevent the disease or treat especially persistent infections,” writes Rosza.
Researchers from MIT and elsewhere are investigating the “pathways, risk factors, and molecules” involved in the development of colorectal cancer, reports Rick Sobey for The Boston Herald. “The research team has uncovered contributing causes to this rise in early-onset cases, including: overweight/obesity, physical inactivity, poor diet, and alterations in the gut microbiome,” writes Sobey.
MIT scientists have found that a potential treatment for Alzheimer’s disease involving flickering lights and low-pitched sound could also help prevent cognitive problems after cancer treatment, reports Clare Wilson for New Scientist. The treatment is aimed at stimulating 40 Hz brainwaves, which are linked to memory processing. The results suggest targeting such “brainwaves may result in broader benefits for the brain, including increasing the activity of immune cells and, most recently, boosting its drainage system, which could help clear a toxic protein called beta-amyloid.”
Researchers from MIT and elsewhere are studying how T-cell receptors recognize antigens, reports Michael T. Nietzel for Forbes. The team “hopes to develop antigen-specific immunotherapies which could also have treatment implications for infectious diseases and allergies,” writes Nietzel.
BioBot - a public health research, data and analytics firm co-founded by Mariana Matus PhD '18 and Newsha Ghaeli PhD '17 - is using wastewater testing to provide insights into growing infection rates and diseases across the country, reports Soledad O’Brien for WCVB-TV.
Research scientist Beth Pollack speaks with the New York Times’ Pam Belluck about her work studying the mechanisms of long Covid-19 and myalgic encephalomyelitis/chronic fatigue syndrome (ME/CFS). “Experts said the study, which is the N.I.H’s first detailed look at ME/CFS, should be considered only one step in understanding the condition, its severity and potential remedies,” explains Belluck. “We must advance the field towards research on treatment,” says Pollack.
Prof. Jonathan Weissman and his colleagues have developed a new tool for monitoring changes in human blood cells, which could one day help researchers predict disease risk, reports Megan Molteni for STAT. “The technology paves the way for a day in the not too distant future where it is conceivable that from a simple blood draw, a doctor could get a sense of what’s going on in that patient’s bone marrow,” writes Molteni, “picking up perturbations there that could help predict a diverse range of diseases.”