Quantum computers today are fragile: they lose their quantum state to noise and decoherence faster than a useful algorithm completes. Quantum error correction (QEC) makes longer computations possible by encoding each logical qubit across …
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Practical quantum computing is hybrid: a quantum processing unit (QPU) executes a classically hard subroutine whose problem structure is amenable to quantum methods, while classical resources handle the surrounding computation. What varies …
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Quantum computers promise to solve problems beyond the reach of classical machines, but they share a stubborn adversary: noise. Quantum bits (qubits) are exquisitely sensitive to their environment, gates are imperfect, measurements …
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This post was contributed by Federico Hernán Holik, Andrés Camilo Granda Arango, Carlo Cuccu, Roberto Giuntini, Giuseppe Sergioli, Peter Komar, and Ishaan Pakrasi. Quantum physics produces correlations that no classical theory can …
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This post was contributed by Martin Schuetz and Ruben Andrist from the Amazon Advanced Solutions Lab, and Romina Yalovetzky and Atithi Acharya from Global Technology Applied Research at JPMorganChase. Quantum researchers at JPMorganChase …
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This post was contributed by Mao Lin, Bruno Camino, John Buckeridge and Scott M. Woodley Many advanced materials — from battery electrodes to semiconductor alloys — owe their useful properties to atomic-scale disorder. But predicting how …
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This post was contributed by Dimitar Trenev, Sebastian Stern, Tyler Takeshita, Cedric Lin, Peter Komar, Pooja Rao, Jerome Gonthier, and Elica Kyoseva. As quantum computing matures toward fault tolerance, a pressing question faces the …
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Amazon Braket managed notebook instances (NBIs) now include NVIDIA CUDA-Q Applications Hub and CUDA-Q Academic Library launch notebooks, bringing peer-reviewed quantum research examples and structured learning resources directly into your …
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