Multi-university effort will advance materials, define the future of mobility
With support from the Toyota Research Institute, MIT faculty will focus on next-generation energy storage.
With support from the Toyota Research Institute, MIT faculty will focus on next-generation energy storage.
Rubbery, multifunctional fibers could be used to study spinal cord neurons and potentially restore function.
Graduate engineering and economics programs are No. 1 in the nation; MIT Sloan is No. 4.
Novel laminated nanostructure gives steel bone-like resistance to fracturing under repeated stress.
MIT, Carnegie Mellon researchers explore “self-healing” batteries with new metal-halide solid electrolyte material.
MIT ranked within the top 5 for 19 of 46 subject areas.
New method could enable pinpoint diagnostics on individual blood cells.
New sensor could reveal the neurotransmitter’s role in learning and habit formation.
Three-in-one design allows genetic, chemical, optical, and electrical inputs and outputs.
New iron oxide nanoparticles could help avoid a rare side effect caused by current contrast agents.
MIT's newest faculty bring a wide array of energy interests and developments to the Institute.
Researchers investigate mechanics of lithium sulfides, which show promise as solid electrolytes.
Innovators from a range of fields discuss their pioneering work and their founders’ journey.
Finding may help researchers fine-tune metal-oxide catalysts to enhance energy storage technology.