Sandia’s Quantum Information Program targets advances in the understanding and mastery of quantum systems for enabling the manipulation of information with greater sensitivity, speed, and security than is possible with classical information processing methods.
Our team leverages Sandia’s engineering facilities and expertise while drawing on our science base to link engineering with basic science. Through theory, computational modeling, and experimentation, our program advances the art of the possible in many facets of quantum information sciences.
Our quantum computing program is focused on developing solutions for some of the most pressing challenges in quantum computing. We aim to understand and address the limitations of basic capabilities for the applications of new quantum computing technologies to help us realize advances in state-of-the-art systems, remove barriers to achieve significant scientific results, and for understanding the fundamental phenomena for creating new modes of operations. Some of our key capabilities and projects can be seen below.
Key Capabilities
Experimental research in full scale trapped ion quantum computing systems, integrated technology needed for scaling, trap fabrication and characterization, control systems, ion clocks, and more
Benchmarking and characterization through mathematical theory, numerical analysis, creation of new algorithms and software, and experimental tests and demonstrations in real-world quantum computing systems
Experimental and theoretical research in multiple material systems, including silicon MOS (SiMOS), gallium arsenide (GaAs), silicon-germanium (SiGe), and germanium (Ge)
Research focused on finding novel solutions to pressing problems through improving quantum gates and exploring the unique possibilities of the neutral atom platform
Research spanning computing on quantum sensed data, control and modeling of qubit technologies, quantum-inspired algorithms, and more
Featured Projects
Quantum Scientific Computing Open User Testbed (QSCOUT)
Quantum Systems Accelerator (QSA)
Quantum Computing Patents
Title
Patent Number
Grant Date
TRAPPED ION PLATFORM WITH OPTICAL INPUT AND OUTPUT
11,150,609
10/19/2021
Microfabricated ion trap chip with in situ radio-frequency sensing
11,056,332
07/06/2021
Microfabricated ion trap chip with an integrated microwave antenna
10,984,976
04/20/2021
Chip-scale phonon-based quantum device
9,928,827
03/27/2018
Light-pulse atom interferometric device
9,291,508
03/22/2016
High data rate atom interferometric device
9,086,429
07/21/2015
Microfabricated linear Paul-Straubel ion trap
7,928,375
04/19/2011
Microfabricated ion frequency standard
7,859,350
12/28/2010
Method for siting detectors within a facility
7,308,374
12/11/2007
Microfabricated ion trap array
7,154,088
12/26/2006