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.

An MIT team precisely controlled an ultrathin magnet at room temperature, which could enable faster, more efficient processors and computer memories.

State-of-the-art toolset will bridge academic innovations and industry pathways to scale for semiconductors, microelectronics, and other critical technologies.

The advance opens a path to next-generation devices with unique optical and electronic properties.

The work demonstrates control over key properties leading to better performance.

Researchers discover how to control the anomalous Hall effect and Berry curvature to create flexible quantum magnets for use in computers, robotics, and sensors.

The disorganized arrangement of the proteins in light-harvesting complexes is the key to their extreme efficiency.

A new low-temperature growth and fabrication technology allows the integration of 2D materials directly onto a silicon circuit, which could lead to denser and more powerful chips.

Project will develop new materials characterization tools and technologies to assign unique identifiers to individual pearls.

The second annual student-industry conference was held in-person for the first time.