New materials could boost the energy efficiency of microelectronics
By stacking multiple active components based on new materials on the back end of a computer chip, this new approach reduces the amount of energy wasted during computation.
By stacking multiple active components based on new materials on the back end of a computer chip, this new approach reduces the amount of energy wasted during computation.
Acting as a “virtual spectrometer,” SpectroGen generates spectroscopic data in any modality, such as X-ray or infrared, to quickly assess a material’s quality.
Incorporating machine learning, MIT engineers developed a way to 3D print alloys that are much stronger than conventionally manufactured versions.
The new “CRESt” platform could help find solutions to real-world energy problems that have plagued the materials science and engineering community for decades.
With SCIGEN, researchers can steer AI models to create materials with exotic properties for applications like quantum computing.
Developed to analyze new semiconductors, the system could streamline the development of more powerful solar panels.
With demand for cement alternatives rising, an MIT team uses machine learning to hunt for new ingredients across the scientific literature.
With their recently-developed neural network architecture, MIT researchers can wring more information out of electronic structure calculations.
An electronic stacking technique could exponentially increase the number of transistors on chips, enabling more efficient AI hardware.
An AI method developed by Professor Markus Buehler finds hidden links between science and art to suggest novel materials.