Quantum Computing | College of Computer, Mathematical, and Natural Sciences | University of Maryland

Nathan Schine

Nathan Schine Twists Photons and Cools Atoms in a Unique Quantum Dance

17 Mar 23

Two UMD Faculty Members Receive 2023 Sloan Research Fellowships

15 Feb 23

photonic microring

Two Light-Trapping Techniques Combine for the Best of Both Worlds

03 Jan 23

trapped ion

UMD Establishes Endowed Professorship in Quantum Computing

20 Dec 22

Ion trap

UMD President Darryll Pines Sticks a Terrapin Pin in ‘Capital of Quantum’ Map at Global Conference

30 Nov 22

Mathematical graphs, which capture the connections between abstract nodes, are being used in a new way to represent and study quantum error correcting codes. (Credit: A. Kollár/JQI)

Graphs May Prove Key in Search for Holy Grail of Quantum Error Correction

24 Oct 22

Current quantum computers, utilizing technologies like the trapped ion device on the left, are beginning to tackle problems theoretical physicists care about, like simulating particle physics models. More than 60 years ago, the physicist Julian Schwinger laid the foundation for describing the relativistic and quantum mechanical behaviors of subatomic particles and the forces among them, and now his namesake model is serving as an early challenge for quantum computers.

Quantum Computers Are Starting to Simulate the World of Subatomic Particles

24 May 22

A curved and stretched sheet of graphene laying over another curved sheet creates a new pattern that impacts how electricity moves through the sheets. A new model suggests that similar physics might emerge if two adjacent universes are able to interact. (Credit: Alireza Parhizkar, JQI)

Bilayer Graphene Inspires Two-Universe Cosmological Model

05 May 22

Nicole Yunger Halpern Ponders Quantum Mechanics, Thermodynamics, and Everything Else

23 Mar 22

Three UMD Faculty Members Receive 2022 Sloan Research Fellowships

15 Feb 22

In new numerical experiments, quantum particles (black dots), which travel upward through time, are subject to random quantum processes (blue, green and yellow blocks). Depending on the likelihood of the different kinds of processes, the quantum particles ultimately end up in different entanglement phases. This figure shows five examples of randomly chosen processes acting on a small number of particles. (Credit: A. Lavasani/JQI)

Tug-of-War Unlocks Menagerie of Quantum Phases of Matter

25 Jan 22

Researchers have demonstrated a new way for atomic ions to host disturbances that do not fade away. (credit: E. Edwards/JQI)

In a Smooth Move, Ions Ditch Disorder and Keep Their Memories

20 Dec 21

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