Advance may enable “2D” transistors for tinier microchip components
Atomically thin materials are a promising alternative to silicon-based transistors; now researchers can connect them more efficiently to other chip elements.
Atomically thin materials are a promising alternative to silicon-based transistors; now researchers can connect them more efficiently to other chip elements.
Design of miniature optical systems could lead to future cell phones that can detect viruses and more.
MIT researchers develop compact on-chip device for detecting electric-field waveforms with attosecond time resolution.
Crystallizing salts can grow “legs,” then tip over and fall away, potentially helping to prevent fouling of metal surfaces, researchers find.
The membrane’s structure could provide a blueprint for robust artificial tissues.
A collaboration between MIT and CNRS has yielded a cement that conducts electricity and generates heat.
Deterministic lateral displacement assay can rapidly assess host inflammatory response, identifying a potentially life-threatening hyper-aggressive immune response.
MIT research combines machine learning with nanoparticle design for personalized drug delivery.
A new approach to identifying useful formulations could help solve the degradation issue for these promising new lightweight photovoltaics.
Using an ordinary light microscope, researchers can now obtain images with unprecedented accuracy.
Study finds the wettability of porous electrode surfaces is key to making efficient water-splitting or carbon-capturing systems.
The startup Transaera is using a class of materials, advanced by MIT Professor Mircea Dinca for over a decade, to create a more energy-efficient air conditioner.
Use of a novel electrolyte could allow advanced metal electrodes and higher voltages, boosting capacity and cycle life.
Five courses celebrate the nanoscale, highlight technologies in photogrammetry and 360-degree videography.
Student committee delivers interactive conference on microsystems and nanoscience.