此主题的部分內容可能由机器翻译。 消除警报 版本 Q# Python Libraries (Latest) azure.quantum 概述 argument_types cirq 作业(job) qiskit 概述 AzureQuantumJob AzureQuantumProvider 目标 工作区 qsharp 下载PDF 使用英语阅读 保存 添加到集合 添加到计划 ...
パッケージを使用して Qiskit 量子回路を送信する azure-quantumPython 方法について説明します。 組み込みのパッケージを持つ Azure Quantum ノートブックを使用するか、ローカル コンピューターから、Qiskit 回線を Azure Quantum に azure-quantumPython 送信できます。 詳細については、量子回路に...
Build, refine, and execute workloads at scale with Qiskit, the open-source toolkit for useful quantum.
在Azure Quantum 中開啟 Qiskit 範例 找出預設後端 建立Azure Quantum 後端 顯示其他 2 個 如果您有量子運算或剛開始的一些經驗,您可能會使用來自 Qiskit.org的一些範例。本文說明如何調整任何 Qiskit 範例,以針對任何 Azure Quantum 後端執行。 您可以下載範例,或將程式代碼複製到新的筆記本。
Build, refine, and execute workloads at scale with Qiskit, the open-source toolkit for useful quantum.
Qiskit is an open-source SDK for working with quantum computers at the level of extended quantum circuits, operators, and primitives. This library is the core component of Qiskit, which contains the building blocks for creating and working with quantum circuits, quantum operators, and primitive fun...
To install it along with dependencies, we provide the list of required packages in the “requirements” field of the decorator as @hybrid_jobs(..., requirements=["mitiq","pennylane_qiskit", "ply”]. Alternatively, the user can create a custom container as described in Hybrid Jobs...
Qiskit is an open-source framework for quantum computing whose goal is to be accessible to people with many backgrounds: quantum researchers, other scientists, teachers, developers, and general tech enthusiasts. The vision for Qiskit consists of four foundational elements: Terra (the code foundation,...
introduction lastupdated the ibm quantum qiskit runtime api allows you to run quantum programs near the quantum hardware being used, reducing the round trip and generating an efficient execution. these quantum programs, based in variational iterative algorithms (computational iterations between a classical...
from qiskit importQuantumProgram"""QP_program =QuantumProgram(specs=QPS_SPECS) qc = QP_program.get_circuit("circuitName") qr = QP_program.get_quantum_register("qname") cr = QP_program.get_classical_register("cname") qc.u1(0.3, qr[0]) ...