The Center for Quantum Information and Control (CQuIC) is a research center co-located at the University of New Mexico in Albuquerque and the University of Arizona in Tucson. Research at CQuIC is focused on the control of complex quantum systems: we aim to make quantum systems march to our orders, instead of doing what comes naturally. Our research is organized as quantum information and computation, quantum control and measurement, quantum metrology, and quantum optics and communication, and we have extensive theoretical and experimental research programs in all these areas.

The Center’s Director is Ivan Deutsch. CQuIC works closely with two local partners, Sandia National Laboratories and Los Alamos National Laboratory.

CQuIC is supported by a center-wide grant from the National Science Foundation.

Looking to join us as a postdoc or a research student? Find out about those opportunities here.

Featured Videos

Watch What is quantum supremacy and did Google do it? (November 21, 2019), ECE / P&A Asst Prof Tameem Albash and P&A Asst Prof Elizabeth Crosson

Watch Controlling the Quantum World, a 2014 video about the Center for Quantum Information and Control.

Newsletter

Our latest Newsletter, Focus: CQuIC Year In Review featuring program and faculty profiles, research grants, and donation information available online

Publication Highlight

Measurement-based feedback control enables quantum simulation of the chaotic quantum-to-classical transition

In classical mechanics chaos in a dynamical system is related to the unpredictability arising from high sensitivity to the initial ...
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Becerra Chavez publishes Low Power Light article in Nature Partner Journals

Elohim Becerra Chavez recently published Quantum measurements: surpassing conventional sensitivity limits at low powers in Nature Partner Journals Light has ...
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Classical Simulation of High Temperature Quantum Ising Models

Elizabeth Crosson and Sam Slezak have published a preprint demonstrating the efficiency of a classical algorithm for simulating high temperature ...
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Subsystem symmetry enabling quantum computation

Austin Daniel, Rafael Alexander, and Akimasa Miyake have published a paper in the journal Quantum demonstrating that certain many-body quantum ...
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Generating universal resource states for measurement-based quantum computation out of laser light

Of the many ways of making a quantum computer, the measurement-based approach is perhaps the best suited to quantum optics ...
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Optimized communication strategies with binary coherent states over phase noise channels

The total amount of information that two parties can share is determined by the physical properties of the channel they ...
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Optimal Pure-State Qubit Tomography via Sequential Weak Measurements

A sequence of weak isotropic measurements can yield the optimal measurement of a collection of identical qubits — a POVM ...
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Becerra’s group publishes article on robust measurements at low powers by counting photons

Dr. Elohim Becerra Chavez’s research group recently published Robust Measurement for the Discrimination of Binary Coherent States in Physical Review ...
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Symmetric Phases of Universal Quantum Computation

Jacob Miller and Akimasa Miyake have recently published a paper in Physical Review Letters giving strong evidence that certain forms ...
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Becerra’s group publishes article on multiple coherent states in Journal of Optical Society of America B

Dr. Elohim Becerra Chavez’s research group recently published Implementation of a single-shot receiver for quaternary phase-shift keyed coherent states in ...
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Enhance atom-light coupling with a “weaker” local field

Strong atom-light coupling is the key to quantum information processing with atoms and photons. It is a common belief that ...
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Becerra’s group publishes Low Power Light article in Nature Partner Journals

Dr. Elohim Becerra Chavez’s research group recently published Quantum measurements: surpassing conventional sensitivity limits at low powers in Nature Partner ...
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Topological quantum matters are useful for sensing

Akimasa Miyake has recently published in a new journal Quantum Science and Technology in collaboration with Stephen Bartlett (University of ...
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How can one verify the performance of a near-term quantum device?

Jacob Miller, Keith Sanders, and Akimasa Miyake have recently published a paper in Physical Review A presenting a distinctive means ...
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Demonstration of the Jaynes-Cummings ladder with Rydberg-dressed atoms

THIS PAPER WAS CHOSEN AS AN “EDITORS’ SUGGESTION” IN PHYSICAL REVIEW A, Vol. 95, Iss. 4 — April 2017. Demonstration ...
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Quantum Computation from Symmetric Quantum Matter

Jacob Miller and Akimasa Miyake have recently published a paper in Nature Partner Journal Quantum Information showing that quantum computers ...
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Integrated quantum information processing in the dispersive regime with fewer atoms

The integration of nanophotonics with ultracold atoms opens the door to new protocols in quantum information processing. Strong entangling interactions ...
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Thermodynamics with Correlations: Enhancing the Performance of Quantum Maxwell Demons

Adrian Chapman and Akimasa Miyake have recently published their paper in Physical Review E, demonstrating that a Maxwell demon can ...
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Doing More with Quantum Phases of Spin Chains

Jacob Miller and Akimasa Miyake have recently published a paper in Physical Review Letters showing that a particular class of ...
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“Quanta Magazine” Interviews Ivan Deutsch

Ivan Deutsch Q&A in “Quanta Magazine” The Ivan Deutsch group at CQuIC received a welcome surprise with the publication of ...
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What is “High Impact Factor Syndrome”? Find out now

Prof. Caves’s commentary at APS News on “High-impact-factor Syndrome” ...
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