New work suggests the ability to create fractionalized electrons known as non-Abelian anyons without a magnetic field, opening new possibilities for basic research and future applications.
By emulating a magnetic field on a superconducting quantum computer, researchers can probe complex properties of materials.
Building on a landmark algorithm, researchers propose a way to make a smaller and more noise-tolerant quantum factoring circuit for cryptography.
The work on excitons, originating from ultrathin materials, could impact future electronics and establishes a new way to study these particles through a powerful instrument at the Brookhaven National Laboratory.
A quantum computing research collaboration connects MIT with the University of Copenhagen.
A new quantum-system-on-chip enables the efficient control of a large array of qubits, moving toward practical quantum computing.
The technique opens possibilities for exploring exotic states of matter and building new quantum materials.
The advance offers a way to characterize a fundamental resource needed for quantum computing.
The Engine Accelerator offers “tough tech” startups space, support, and a network to help them scale up.
A CSAIL study highlights why it is so challenging to program a quantum computer to run a quantum algorithm, and offers a conceptual model for a more user-friendly quantum computer.
At the MIT Quantum Hackathon, a community tackles quantum computing challenges.
An exotic electronic state observed by MIT physicists could enable more robust forms of quantum computing.
The method lets researchers identify and control larger numbers of atomic-scale defects, to build a bigger system of qubits.
The advanced fabrication tools will enable the next generation of microelectronics and microsystems while bridging the gap from the lab to commercialization.
More stable clocks could measure quantum phenomena, including the presence of dark matter.