Jane-Jane Chen: A model scientist who inspires the next generation
A research scientist and internationally recognized authority in the field of blood cell development reflects on 45 years at MIT.
A research scientist and internationally recognized authority in the field of blood cell development reflects on 45 years at MIT.
Study reveals the drug, 5-fluorouracil, acts differently in different types of cancer — a finding that could help researchers design better drug combinations.
The scientists, who worked together as postdocs at MIT, are honored for their discovery of microRNA — a class of molecules that are critical for gene regulation.
The innovations map the ocean floor and the brain, prevent heat stroke and cognitive injury, expand AI processing and quantum system capabilities, and introduce new fabrication approaches.
Custom plates display expressions of scholarship, creativity, and MIT pride among Institute affiliates.
With their “T-REX” method, DNA embedded in the polymer could be used for long-term storage of genomes or digital data such as photos and music.
By capturing short-lived RNA molecules, scientists can map relationships between genes and the regulatory elements that control them.
MIT researchers plan to search for proteins that could be used to measure electrical activity in the brain.
A catalyst tethered by DNA boosts the efficiency of the electrochemical conversion of CO2 to CO, a building block for many chemical compounds.
With the new technique, MIT researchers hope to identify mutations that could be targeted with new cancer therapies.
Using a DNA-based scaffold carrying viral proteins, researchers created a vaccine that provokes a strong antibody response against SARS-CoV-2.
The advance makes it easier to detect circulating tumor DNA in blood samples, which could enable earlier cancer diagnosis and help guide treatment.
MIT researchers can now track a cell’s RNA expression to investigate long-term processes like cancer progression or embryonic development.
By analyzing bacterial data, researchers have discovered thousands of rare new CRISPR systems that have a range of functions and could enable gene editing, diagnostics, and more.
MIT study suggests 3D folding of the genome is key to cells’ ability to store and pass on “memories” of which genes they should express.