In the evolving landscape of quantum computing and quantum information science, quantum research metrics serve as essential tools for evaluating progress, validating breakthroughs, and guiding policy and investment. Unlike classical….
Quantum devices are at the heart of quantum computing, sensing, and communication technologies. To ensure their performance, accuracy, and reliability, quantum device characterization is essential. This process involves assessing various….
As quantum computing rapidly evolves, various technology platforms have emerged, each employing different methods to realize qubits, gates, and system control. A comparative analysis of quantum processors helps us understand….
NISQ (Noisy Intermediate-Scale Quantum) devices represent the current generation of quantum processors, typically containing 50 to a few hundred qubits, but without full error correction. While they hold great promise….
Fidelity in quantum computing refers to how accurately a quantum operation (or quantum process) matches its intended behavior. Since quantum systems are inherently prone to noise, fidelity is a key….
In quantum computing, quantum circuits are used to represent algorithms as sequences of quantum gates applied to qubits. Two fundamental parameters used to evaluate the complexity and feasibility of these….
Quantum Volume (QV) is a single-number metric developed by IBM to measure the performance and computational power of a quantum computer. Unlike classical computers, where performance is largely measured in….
