How light can vaporize water without the need for heat
Surprising “photomolecular effect” discovered by MIT researchers could affect calculations of climate change and may lead to improved desalination and drying processes.
Surprising “photomolecular effect” discovered by MIT researchers could affect calculations of climate change and may lead to improved desalination and drying processes.
In research that may lead to next-generation airplanes and spacecraft, MIT engineers used carbon nanotubes to prevent cracking in multilayered composites.
In MIT’s 2024 Killian Lecture, chemical engineer Paula Hammond described her groundbreaking work on nanoparticles designed to attack tumor cells.
MIT scientists have tackled key obstacles to bringing 2D magnetic materials into practical use, setting the stage for the next generation of energy-efficient computers.
Seron Electronics, founded by Mo Mirvakili PhD ’17, makes research equipment with applications including microelectronics, clean energy, optics, biomedicine, and beyond.
Study shows neutrons can bind to nanoscale atomic clusters known as quantum dots. The finding may provide insights into material properties and quantum effects.
New research by a team of MIT engineers offers a guide for fine-tuning specific material properties.
International technology company becomes sustaining member of industry group.
Global Semiconductor Alliance’s Women’s Leadership Initiative provides inspiration and guidance to MIT students.
A collaboration between ACT and MIT.nano, the class 4.373/4.374 (Creating Art, Thinking Science) asks what it really takes to cultivate dialogue between disciplines.
Associate Professor Jeehwan Kim is exploring systems that could take over where silicon leaves off.
Study shows metal-organic particles can both deliver vaccines and act as an adjuvant to generate a strong immune response at a lower dose.
The work will help researchers tune surface properties of perovskites, a promising alternative and supplement to silicon, for more efficient photovoltaics.
An MIT team precisely controlled an ultrathin magnet at room temperature, which could enable faster, more efficient processors and computer memories.
The method lets researchers identify and control larger numbers of atomic-scale defects, to build a bigger system of qubits.