MIT researchers continue to push the boundaries of two-dimensional (2D) materials, unveiling a series of groundbreaking discoveries that promise to revolutionize electronics, quantum computing, and material science. From terahertz microscopes revealing superconducting electron motion to atom-thin transistors grown directly on silicon chips, these advances highlight the immense potential of 2D materials.
Terahertz Microscope Reveals Superconducting Electron Motion
For the first time, physicists used a novel terahertz microscope to observe the ‘jiggling’ of superconducting electrons in a fluid state. This breakthrough, reported on February 4, 2026, offers unprecedented insights into the dynamics of superconductivity.
FabObscura: Turning Everyday Objects into Animated Displays
On September 10, 2025, MIT introduced FabObscura, a software tool that enables users to design and print barrier-grid animations without electronics. This system transforms household items into dynamic, eye-catching displays, blending creativity with technology.
Unexpected Magnetism in Atomically Thin Materials
Physicists discovered and explained unexpected magnetism in an atomically thin material on January 23, 2025. This finding opens a new platform for studying quantum materials and their exotic properties.
High-Rise 3D Chips: Stacking Transistors for AI Hardware
On December 18, 2024, MIT engineers unveiled a technique to grow ‘high-rise’ 3D chips, exponentially increasing transistor density. This innovation could lead to more efficient AI hardware by stacking electronic components vertically.
Non-Abelian Anyons: Exotic Matter for Quantum Computing
MIT physicists predicted the formation of non-Abelian anyons without a magnetic field on November 18, 2024. These fractionalized electrons could enable robust quantum computing and open new avenues for basic research.
Superlative Transistor Properties for Broad Electronics
On July 26, 2024, researchers demonstrated a new transistor made from an ultrathin material that meets or exceeds industry standards. It offers superfast switching and extreme durability, promising broad applications in electronics.
Superconductivity from Quasicrystals
On October 11, 2023, physicists coaxed superconductivity from quasicrystals, creating a flexible platform for studying exotic phenomena and potentially leading to new materials.
Powerful Tool for Tuning Atomically Thin Materials
An international team reported a powerful tool for studying and tuning atomically thin materials on June 27, 2023. This work could lead to novel electronic applications.
Atomically Thin Transistors Grown on Computer Chips
On April 27, 2023, MIT engineers developed a low-temperature growth technique to integrate 2D materials directly onto silicon circuits, enabling denser and more powerful chips.
Skyrmions: Recipe for Exotic Phenomena
Physicists predicted new phenomena involving skyrmions on March 17, 2023, offering a recipe for realizing them. These could have applications in future computers and beyond.
Superconductivity Switching in Magic-Angle Graphene
On January 30, 2023, a study showed that a quick electric pulse can flip the electronic properties of magic-angle graphene, enabling ultrafast, brain-inspired superconducting electronics.
Perfect Atom-Thin Materials on Industrial Silicon Wafers
MIT engineers grew ‘perfect’ atom-thin materials on industrial silicon wafers on January 18, 2023, allowing chip manufacturers to produce next-generation transistors beyond silicon.
Dresselhaus Lecture on Moiré Quantum Matter
On December 21, 2022, Professor Pablo Jarillo-Herrero delivered the Dresselhaus Lecture, discussing moiré quantum matter and its potential for investigating strongly correlated and topological physics.
Expanding 2D Materials: New Measurement Technique
A new technique reported on November 18, 2022, accurately measures how atom-thin materials expand when heated, aiding the development of faster, more powerful electronic devices.
Family of Robust Superconducting Graphene Structures
On July 8, 2022, physicists discovered a family of robust superconducting graphene structures, which could inform the design of practical superconducting devices.
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