Improving the reliability of circuits for quantum computers
A new technique helps scientists measure a phenomenon that can cause quantum circuits to perform differently than expected, increasing the error in computations.
A new technique helps scientists measure a phenomenon that can cause quantum circuits to perform differently than expected, increasing the error in computations.
Faculty members and researchers were honored in recognition of their scholarship, service, and overall excellence.
Founded by Peter Godart ’15, SM ’19, PhD ’21, the company has developed technologies for extracting critical metals and making fuel out of aluminum.
MIT Energy Initiative symposium maps a path to tap the planet’s heat-rich rocks for clean power at scale.
MIT physicists have discovered 3D “moiré crystals” that simulate four-dimensional quantum materials to a T.
A new model measures defects that can be leveraged to improve materials’ mechanical strength, heat transfer, and energy-conversion efficiency.
Light-emitting structures that curl off the chip surface could enable advanced displays, high-speed optical communications, and larger-scale quantum computers.
Through research with MIT D-Lab, MIT engineering student Kiyoko “Kik” Hayano worked with Keo Fish Farms to build a model for regenerative water systems.
The flexible material could enable on-demand heat dissipation for electronics, fabrics, and buildings.
For the first time, the new scope allowed physicists to observe terahertz “jiggles” in a superconducting fluid.
MIT physicists observed the first clear evidence that quarks create a wake as they speed through quark-gluon plasma, confirming the plasma behaves like a liquid.
New technique could improve the scalability of trapped-ion quantum computers, an essential step toward making them practically useful.
Nuclear waste continues to be a bottleneck in the widespread use of nuclear energy, so doctoral student Dauren Sarsenbayev is developing models to address the problem.
MIT researchers found a way to predict how efficiently materials can transport protons in clean energy devices and other advanced technologies.
Because it’s nearly impermeable to gases, the polymer coating developed by MIT engineers could be used to protect solar panels, machinery, infrastructure, and more.