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Leaders in quantum computing technologies



Our researchers and engineers worked directly with NASA's Quantum Artificial Intelligence Laboratory (QuAIL), which hosts a 2,048-qubit D-Wave 2000Q™ quantum computer. The QuAIL project is a collaborative effort among NASA, Google, and Universities Space Research Association (USRA) to explore the potential for quantum computers to tackle optimization problems that are difficult or impossible for traditional supercomputers to handle.


Working closely with our partner teams and Wave, we helped design the power, cooling, and network infrastructure technology required to maintain the Wave system at its optimal near-absolute-zero operating temperature. Our engineers also developed technology to protect the quantum computer system from vibration and electromagnetic noise. The system performs quantum annealing—a process that takes advantage of quantum effects such as superposition and tunneling to solve combinatorial optimization problems.


The Wave 2000Q is the largest quantum annealer in the world. It was upgraded in the summer of 2017, which more than doubled the number of qubits in the 1,115-qubit D-Wave 2X system installed in 2015, increasing it in size. This upgrade quadrupled the amount of qubits in the original 509-qubit D-Wave system which was installed in 2013.



Sandia Labs partner up on The QSCOUT



A quintillion calculations a second. That's one with 18 zeros after it. It's the speed at which an exascale supercomputer will process information. The Department of Energy (DOE) is preparing for the first exascale computer to be deployed in 2021. Our engineers provided critically important research and development for this large scale quantum computing project across industries.


Calculating the benefits of exascale and quantum computers

Rare open-access quantum computer now operational


According to Sandia Labs, The QSCOUT hardware will be realized as a trapped ion system. A chain of ytterbium ions will be stored in a Sandia surface ion trap, which offers excellent optical access for state preparation, detection and qubit manipulations. Qubits are encoded in the hyperfine clock states of each ytterbium-171 ion and a chain of ions serves as the qubit register. Single- and multi-qubit operations are implemented with optical Raman transitions using a 355nm pulsed laser. Imaging of an acousto-optical modulator (AOM) array onto the ion chain is used to realize individual addressing of qubits in the register. At the end of a computation, the quantum state of each qubit in the register will be read out and reported for each qubit and each detection event. This is achieved with standard fluorescence detection by imaging the chain of ions on an array of multi-mode fibers connected to an array of individual photomultiplier tubes.


https://www.sandia.gov/quantum/Projects/QSCOUT.html



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