<?xml version="1.0" encoding="UTF-8"?><toc><section id="foreword.nat"><title>Foreword</title></section><section id="introduction.nat"><title>Introduction</title></section><section id="sub-1"><label>1</label><title>Scope</title></section><section id="sub-2"><label>2</label><title>Normative references</title></section><section id="sub-3"><label>3</label><title>Terms and definitions</title><section id="sub-3.1"><label>3.1</label><title>Background</title><section id="sub-3.1.1"><label>3.1.1</label><title>model</title></section><section id="sub-3.1.2"><label>3.1.2</label><title>parametermodel parameter</title></section></section><section id="sub-3.2"><label>3.2</label><title>Quantum physics background</title><section id="sub-3.2.1"><label>3.2.1</label><title>Hilbert space</title></section><section id="sub-3.2.2"><label>3.2.2</label><title>operator</title></section><section id="sub-3.2.3"><label>3.2.3</label><title>quantum physicsquantum mechanics</title></section><section id="sub-3.2.4"><label>3.2.4</label><title>quantum, adjective</title></section><section id="sub-3.2.5"><label>3.2.5</label><title>quantum, noun</title></section><section id="sub-3.2.6"><label>3.2.6</label><title>quantum system</title></section><section id="sub-3.2.7"><label>3.2.7</label><title>quantum state</title></section><section id="sub-3.2.8"><label>3.2.8</label><title>quantum entanglement</title></section><section id="sub-3.2.9"><label>3.2.9</label><title>quantum operator</title></section><section id="sub-3.2.10"><label>3.2.10</label><title>Hamiltonian</title></section><section id="sub-3.2.11"><label>3.2.11</label><title>quantum measurement</title></section><section id="sub-3.2.12"><label>3.2.12</label><title>quantum coherence</title></section><section id="sub-3.2.13"><label>3.2.13</label><title>decoherence</title></section><section id="sub-3.2.14"><label>3.2.14</label><title>quantum noise</title></section></section><section id="sub-3.3"><label>3.3</label><title>Quantum Information</title><section id="sub-3.3.1"><label>3.3.1</label><title>quantum encoding</title></section><section id="sub-3.3.2"><label>3.3.2</label><title>qubit</title></section><section id="sub-3.3.3"><label>3.3.3</label><title>physical qubit</title></section><section id="sub-3.3.4"><label>3.3.4</label><title>logical qubit</title></section><section id="sub-3.3.5"><label>3.3.5</label><title>logical operator</title></section><section id="sub-3.3.6"><label>3.3.6</label><title>state fidelity</title></section><section id="sub-3.3.7"><label>3.3.7</label><title>fidelity</title></section><section id="sub-3.3.8"><label>3.3.8</label><title>process fidelity</title></section></section><section id="sub-3.4"><label>3.4</label><title>Quantum processing</title><section id="sub-3.4.1"><label>3.4.1</label><title>quantum information processingquantum processing</title></section><section id="sub-3.4.2"><label>3.4.2</label><title>quantum gate</title></section><section id="sub-3.4.3"><label>3.4.3</label><title>gate fidelity</title></section><section id="sub-3.4.4"><label>3.4.4</label><title>quantum circuit</title></section><section id="sub-3.4.5"><label>3.4.5</label><title>quantum error correction</title></section><section id="sub-3.4.6"><label>3.4.6</label><title>quantum error mitigation</title></section><section id="sub-3.4.7"><label>3.4.7</label><title>quantum processor</title></section><section id="sub-3.4.8"><label>3.4.8</label><title>quantum algorithm</title></section><section id="sub-3.4.9"><label>3.4.9</label><title>quantum computer</title></section><section id="sub-3.4.10"><label>3.4.10</label><title>quantum computing</title></section><section id="sub-3.4.11"><label>3.4.11</label><title>fault-tolerant quantum computing</title></section><section id="sub-3.4.12"><label>3.4.12</label><title>circuit-based quantum computinggate-based quantum computing</title></section><section id="sub-3.4.13"><label>3.4.13</label><title>adiabatic quantum computing</title></section><section id="sub-3.4.14"><label>3.4.14</label><title>quantum computing stack</title></section><section id="sub-3.4.15"><label>3.4.15</label><title>calibration</title></section><section id="sub-3.4.16"><label>3.4.16</label><title>quantum tomographyquantum state tomography</title></section><section id="sub-3.4.17"><label>3.4.17</label><title>quantum memory</title></section><section id="sub-3.4.18"><label>3.4.18</label><title>quantum annealer</title></section></section><section id="sub-3.5"><label>3.5</label><title>Quantum programming</title><section id="sub-3.5.1"><label>3.5.1</label><title>quantum simulatorquantum emulator</title></section></section></section><section id="sub-4"><label>4</label><title>Symbols</title></section><section id="sub-5"><label>5</label><title>Benchmarking methodology</title><section id="sub-5.1"><label>5.1</label><title>Assessment criteria</title><section id="sub-5.1.1"><label>5.1.1</label><title>General</title></section><section id="sub-5.1.2"><label>5.1.2</label><title>Relevance</title></section><section id="sub-5.1.3"><label>5.1.3</label><title>Reproducibility</title></section><section id="sub-5.1.4"><label>5.1.4</label><title>Fairness</title></section><section id="sub-5.1.5"><label>5.1.5</label><title>Verifiability</title></section><section id="sub-5.1.6"><label>5.1.6</label><title>Scalability</title></section><section id="sub-5.1.7"><label>5.1.7</label><title>Usability</title></section></section><section id="sub-5.2"><label>5.2</label><title>Benchmarking Setup</title></section><section id="sub-5.3"><label>5.3</label><title>Categorization</title></section></section><section id="sub-6"><label>6</label><title>Benchmarking Frameworks</title><section id="sub-6.1"><label>6.1</label><title>Volumetric Benchmarking</title></section><section id="sub-6.2"><label>6.2</label><title>Mirror Benchmarking</title></section></section><section id="sub-7"><label>7</label><title>High-Level Benchmarks</title><section id="sub-7.1"><label>7.1</label><title>Application Benchmarks</title><section id="sub-7.1.1"><label>7.1.1</label><title>Q-score</title></section><section id="sub-7.1.2"><label>7.1.2</label><title>Algorithmic Qubit Benchmark</title></section><section id="sub-7.1.3"><label>7.1.3</label><title>Variational Quantum Eigensolver (VQE)</title></section><section id="sub-7.1.4"><label>7.1.4</label><title>Generative Quantum Machine Learning</title></section><section id="sub-7.1.5"><label>7.1.5</label><title>Quantum phase estimation</title></section><section id="sub-7.1.6"><label>7.1.6</label><title>Linear Systems of Equations</title></section></section><section id="sub-7.2"><label>7.2</label><title>Algorithmic Building Blocks</title><section id="sub-7.2.1"><label>7.2.1</label><title>General</title></section><section id="sub-7.2.2"><label>7.2.2</label><title>Distribution Initialization</title></section><section id="sub-7.2.3"><label>7.2.3</label><title>Quantum Fourier Transform</title></section><section id="sub-7.2.4"><label>7.2.4</label><title>Grover Diffusion Operator</title></section><section id="sub-7.2.5"><label>7.2.5</label><title>Multiqubit-Operators for Error Correction</title></section><section id="sub-7.2.6"><label>7.2.6</label><title>Multiqubit-Operators for Quantum Optimization</title></section><section id="sub-7.2.7"><label>7.2.7</label><title>Post-circuit/Pre-measurement basis transformation</title></section><section id="sub-7.2.8"><label>7.2.8</label><title>Mid-circuit measurement</title></section><section id="sub-7.2.9"><label>7.2.9</label><title>Multi-Controlled X Gates</title></section></section></section><section id="sub-8"><label>8</label><title>Low-level benchmarks</title><section id="sub-8.1"><label>8.1</label><title>Randomized Benchmarking (gate error characterization):</title></section><section id="sub-8.2"><label>8.2</label><title>Coherence time characterization</title></section><section id="sub-8.3"><label>8.3</label><title>Entanglement Characterization</title></section></section><section id="sub-9"><label>9</label><title>Outlook: Paving the way to standardized KPIs for quantum computing benchmarking</title></section><section id="sub-annex.bibliography.nat"><title>Bibliography</title></section></toc>