Image credits: K. Kundu, W. J. Evans, S. Hill, et al. A 9.2-GHz clock transition in a Lu (II) molecular spin qubit arising from a 3,467-MHz hyperfine interaction. Nature Chemistry 14, 392 (2022).
Qubit Design and Measurements (QDM)
Irinel Chiorescu | Łukasz Dusanowski | Kenneth Hanson | Stephen Hill | Bryan Kudisch | Michael Shatruk | Komalavalli Thirunavukkuarasu
This research theme focuses on the bottom-up synthesis of molecular spin qubits, as well as linking them to form dimers, trimers, etc., that can mimic simple quantum logic gates. These efforts are complemented by studies of coherence in diluted spin systems and advanced measurements, such as X-ray diffraction, electron paramagnetic resonance, optical spectroscopy, and on-chip detection both to provide feedback for the synthetic effort and to demonstrate key quantum properties such as entanglement.
Image credits: A. Moon, C. McKeever, L. Balicas, et al. Writing and detecting topological charges in exfoliated Fe5–xGeTe2. ACS Nano 18, 4216 (2024).
Quantum and Topological Materials (QTM)
Luis Balicas | Christianne Beekman | Rong Cong | Guangxin Ni | Laura Greene | Dragana Popovic | Geoffrey Strouse | Kaya Wei | Peng Xiong | Wan Kyu Park | Dmitry Smirnov
This research theme encompasses studies of materials and devices exhibiting novel quantum electronic and magnetic properties that result from dimensional confinement, electronic correlation, spatial symmetry, and nontrivial band topology. The goals are both to elucidate the fundamental physics underlying the unusual quantum phenomena and to harness them for quantum sensing, memory, and computation applications.
Image credit: T. Kanai, D. Jin, W. Guo. Single-electron qubits based on ring-shaped surface states on solid neon. arXiv:2311.02501 (2023).
Quantum Hardware and Periphery (QHP)
This research theme focuses on the integration of optimized quantum hardware, including qubits and control circuits, with supporting technologies such as cryogenic systems for cooling and superconducting materials for minimizing energy loss, to enable the precise manipulation and measurement of quantum information and quantum devices.
Image credits: Y. Tan, P. K. H. Tsang, V. Dobrosavljevic. Disorder-dominated quantum criticality in moiré bilayers. Nature Communications 13, 7469 (2022).
Quantum Theory (QT)
Nicholas Bonesteel | Hitesh Changlani | Eugene DePrince | Vladimir Dobrosavljevic | Alexander Volya | Kun Yang | Kevin Fossez
This research theme aims to advance and apply theoretical and computational models within all areas of quantum science and engineering, including quantum computation and error correction / mitigation, strong correlations among electrons or between matter and light, quantum phase transitions, and mesoscopic quantum systems.
Image credits: W. S. Oates, H. Wang, R. L. Sierakowski. Unusual field-coupled nonlinear continuum mechanics of smart materials. J. Intelligent Material Systems and Structures 23, 487 (2012).
Quantum Algorithms (QA)
Mike Burmester | Yanzhu Chen | Xiuwen Liu | William Oates
This research theme aims to accelerate our ability to solve computational science and engineering problems using quantum hardware and algorithms for applications such as large scale cyber-physical system optimization, quantum-to-continuum scale multi-physics material properties, and aerodynamic vehicle control in turbulent flow fields.