Making catalytic surfaces more active to help decarbonize fuels and chemicals
A new approach increases the efficiency of chemical reactions that are key to many industrial processes.
A new approach increases the efficiency of chemical reactions that are key to many industrial processes.
MIT researchers find a new way to quantify the uncertainty in molecular energies predicted by neural networks.
Public-private partnership aims to advance development and production of medical treatments.
SensiCut, a smart material-sensing platform for laser cutters, can differentiate between 30 materials commonly found in makerspaces and workshops.
MIT team produces practical guidelines for generating hydrogen using scrap aluminum.
The School of Engineering recognizes the materials scientist's outstanding contributions to education.
MIT researchers employ machine learning to find powerful peptides that could improve a gene therapy drug for Duchenne muscular dystrophy.
Two research projects on the design of state-of-the-art hardware could one day power next-generation 5G and 6G mobile networks.
MIT-led research team fashions graphene foam into device that can extract uranium and other heavy metals from tap water.
MIT spinoff Via Separations aims for industrial decarbonization with its durable graphene oxide membranes.
A longstanding interest in radiation’s effects on metals has drawn Michael Short into new areas such as nuclear security and microreactors.
A passion for biomaterials inspires PhD candidate Eesha Khare to tackle climate change.
New findings might help inform the design of more powerful MRI machines or robust quantum computers.
The alumni-founded startup Uncountable has developed a digital workbook to help scientists get more out of experimental data.
The design could lead to conformable wearable monitors to track skin cancer and other conditions.