Technique enables adaptable 3-D printing
Once fabricated, objects can be altered by adding new polymers.
Once fabricated, objects can be altered by adding new polymers.
MIT chemist constructs nanoparticle-based crystals by programming interactions of synthetic polymers and biopolymers at the molecular level.
New design of large-scale microparticle arrays can make materials science and bioengineering applications more scalable, precise, and versatile.
Technique for calculating elasticity could aid design of new materials.
Color-changing materials could be used to detect structural failure in energy-related equipment.
Inexpensive sensors could be worn by soldiers to detect hazardous chemical agents.
New materials could be tuned for applications including drug delivery and water filtration.
Living Proof, a hair care corporation based on research emerging from the Langer Lab at MIT, has won 80 awards and counting.
Materials seen as promising for optoelectronics and thermoelectric devices finally yield their secrets.
Service to faculty, collaboration with industry are hallmarks of campus-based Materials Processing Center at MIT.
Implanted into the brain or spinal column, they can transmit drugs, light, and electrical signals.
GVD’s vapor-deposited polymer coatings improve performance efficiency in critical applications across industries.
Materials scientist Mike Rubner’s collaboration with chemical engineer Robert Cohen yields anti-fog coatings, synthetic "backpacks" for living cells.
Flexible polymer probes and magnetic nanoparticles promise breakthroughs for treating paralysis and brain disease.