AWS and QuEra will bring the first fault-tolerant quantum computers to the cloud, enabling scientifically relevant applications starting in 2028. Since launching Amazon Braket in 2020, AWS has provided customers access to quantum computing …
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This post was contributed by Lingnan Shen, Mao Lin, Cedric Yen-Yu Lin, Di Xiao, and Ting Cao Quantum computing is beginning to simulate forms of matter that are difficult to study in the lab or compute classically. In this work, researchers …
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This post was contributed to by Zia Mohammad, Scott Smart, Yuvraj Mohan, Mike Piech, and Rebecca Malamud Figure 1: A Rigetti quantum processing unit (QPU) inside a dilution refrigerator. Photo by Drew Bird. Amazon Braket enables customers …
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Fault-tolerant quantum computing requires quantum error correction (QEC): Encoding one logical qubit into many physical qubits so that, below a threshold error rate, the logical error rate falls rapidly as the code grows. The practical …
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To get the most out of today’s noisy quantum computers, quantum computational experiments commonly utilize quantum error mitigation (QEM) techniques. These methods include discarding known noisy results (post selection), modifying …
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With current noisy quantum hardware, every quantum circuit evaluation is precious. Variational quantum algorithms like the Variational Quantum Eigensolver (VQE) require repeated estimation of expectation values of quantum observables—each …
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Quantum computing promises breakthroughs in chemistry simulations. However, building scalable calculations on today’s noisy quantum hardware remains challenging. This blog introduces Kvantify Qrunch software on Amazon Braket. It enables …
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We recently released v0.11 of the Qiskit-Braket provider, which brings more Qiskit features to Amazon Braket users, improves access to Braket backends through Qiskit, and also enables compilation on the Braket SDK or with OpenQASM Programs. …
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