Engineers develop multimaterial fiber “ink” for 3-D-printed devices
Filaments with embedded circuitry can be used to print complex shapes for biomedical and robotic devices.
Filaments with embedded circuitry can be used to print complex shapes for biomedical and robotic devices.
Nearly 30 MIT-affiliated researchers will share in the prize, while David Jay Julius ’77 wins Breakthrough Prize in Life Sciences; assistant professor of physics Max Metlitski shares New Horizons prize with Xie Chen PhD ’12 and Michael Levin PhD ’06.
Deaths of prominent life scientists tend to be followed by a surge in highly cited research by newcomers.
Magnetically controlled device could deliver clot-reducing therapies in response to stroke or other brain blockages.
New approach harnesses the same fabrication processes used for silicon chips, offers key advance toward next-generation computers.
Engineers program human and bacterial cells to keep a record of complex molecular events.
Along the genome, proteins form liquid-like droplets that appear to boost the expression of particular genes.
New method identifies ecologically and medically relevant bacteria groups.
Noninvasive device could benefit patients with kidney disease, congestive heart failure, or dehydration.
Researchers solve how the kava plant produces its pain-relieving and anti-anxiety molecules, demonstrate an extensible method to scale and optimize production.
New MIT system of contracting fibers could be a boon for biomedical devices and robotics.
Carbon dioxide emissions may trigger a reflex in the carbon cycle, with devastating consequences, study finds.
Method for collecting two electrons from each photon could break through theoretical solar-cell efficiency limit.
MIT researchers discover a material that changes electrical resistance only when a magnetic field is applied at a narrowly confined angle.
Techniques could lead to personalized wearable and implantable devices.