Engineering proteins to treat cancer
PhD student Oscar Molina seeks new ways to assemble proteins into targeted cancer therapies, while also encouraging his fellow first-generation graduate students.
PhD student Oscar Molina seeks new ways to assemble proteins into targeted cancer therapies, while also encouraging his fellow first-generation graduate students.
Fasting helps intestinal stem cells regenerate and heal injuries but also leads to a higher risk of cancer in mice, MIT researchers report.
The model could help clinicians assess breast cancer stage and ultimately help in reducing overtreatment.
A chip the size of a pack of cards uses fewer resources and a smaller footprint than existing automated manufacturing platforms and could lead to more affordable cell therapy manufacturing.
By designing new tools that can analyze huge libraries of immune cells and their targets, Michael Birnbaum hopes to generate better T cell therapies for cancer and other diseases.
Leuko, founded by a research team at MIT, is giving doctors a noninvasive way to monitor cancer patients’ health during chemotherapy — no blood tests needed.
By capturing short-lived RNA molecules, scientists can map relationships between genes and the regulatory elements that control them.
An atlas of human protein kinases enables scientists to map cell signaling pathways with unprecedented speed and detail.
Senior Hanjun Lee planned to pursue chemistry at MIT. A course in genetics changed that.
Ashutosh Kumar, a materials science and engineering PhD student and MathWorks Fellow, applies his eclectic skills to studying the relationship between bacteria and cancer.
New CLAUDIA system could continuously monitor patients during an infusion and adjust dosage to maintain optimal drug levels.
Immunai’s founders were researchers at MIT when they launched their company to help predict how patients will respond to new treatments.
In MIT’s 2024 Killian Lecture, chemical engineer Paula Hammond described her groundbreaking work on nanoparticles designed to attack tumor cells.
MIT spinout Strand Therapeutics has developed a new class of mRNA molecules that can sense where they are in the body, for more targeted and powerful treatments.
Joining three teams backed by a total of $75 million, MIT researchers will tackle some of cancer’s toughest challenges.