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The 39 pages that link to Quantum computing, each with the reason it gives.

• Quantum mechanicsRelated: It engineers superposition and entanglement as resources for computation.

• SuperconductivityNarrower topic: Superconducting circuits are one leading platform for implementing controllable quantum bits.

• Quantum entanglementNarrower topic: Entanglement is a resource in many quantum algorithms and quantum information-processing tasks.

• Richard FeynmanRelated: Feynman argued that quantum systems could be simulated efficiently by quantum machines.

• Quantum decoherenceRelated: Uncontrolled decoherence corrupts the superpositions and entanglement needed for quantum algorithms.

• Josephson effectRelated: Superconducting quantum circuits use junctions to create and control nonlinear qubits.

• Energy levelRelated: Engineered energy levels help define and control qubit states.

• SpinNarrower topic: Spin states can serve as controllable qubits in several quantum-computing platforms.

• High-performance computingCompared with: It is a distinct computational paradigm, not simply a faster version of classical HPC.

• Density matrixRelated: Density matrices model noisy qubits and their evolution in quantum circuits.

• Scientific computingCompared with: It offers a distinct computational model from conventional high-performance systems.

• Quantum dotNarrower topic: Spin states in some quantum dots are investigated as physical qubits.

• Quantum coherenceNarrower topic: Quantum algorithms use coherent evolution to combine amplitudes and produce useful interference.

• Quantum confinementRelated: Semiconductor quantum dots can confine spins proposed as quantum-computing qubits.

• Quantum information scienceBroader topic: It is the most visible computational branch of quantum information science.

• SpintronicsCompared with: Spintronic devices can use spin without necessarily implementing quantum computation.

• QubitNarrower topic: Qubits are the information units manipulated by quantum computers.

• Quantum theoryRelated: It exploits superposition and entanglement for tasks with potential advantages over classical methods.

• Shor's algorithmNarrower topic: Shor's algorithm became a landmark demonstration of a practical quantum computational advantage.

• Pauli matricesNarrower topic: Single-qubit operations are commonly expressed using Pauli matrices and their exponentials.

• Quantum DarwinismRelated: Controlled qubits and engineered noise offer settings for studying decoherence and information leakage.

• Digital electronicsCompared with: Its information model and operations differ from conventional binary digital circuits.

• Quantum contextualityRelated: Contextuality has been identified as a resource in particular models of quantum computation.

• Information and communications technologyRelated: Its possible uses and security consequences could alter future ICT systems.

• Low-temperature physicsRelated: Many superconducting quantum processors require dilution-refrigerator temperatures.

• Cryogenic coolingRelated: Many superconducting quantum processors require millikelvin environments to limit thermal excitations.

• Horst Ludwig StörmerRelated: Non-Abelian anyons in related Hall states motivate proposals for fault-tolerant topological quantum computation.

• Theoretical computer scienceRelated: Its complexity theory compares quantum resources with classical computational limits.

• Endohedral fullereneNarrower topic: Long-lived spins of encapsulated atoms are studied as possible quantum information carriers.

• Mesoscopic physicsRelated: Mesoscopic superconducting circuits and semiconductor devices provide platforms for quantum bits.

• History of quantum mechanicsBroader topic: Its development draws on the theory's distinctive principles of superposition and interference.

• Theory of computationCompared with: It tests how changing the computational model alters efficient solvability.

• David J. WinelandRelated: Wineland’s trapped-ion work demonstrated a practical route toward quantum computation.

• Emerging technologiesBroader topic: Its potential advantages remain under development, making it a prominent emerging technology.

• No-deleting theoremNarrower topic: Quantum algorithms must respect the restrictions on copying and deleting arbitrary unknown states.

• Optical computingCompared with: Using photons does not by itself make a system quantum; the computational principles differ.

• QuantumRelated: Quantum computers manipulate discrete state outcomes and energy-controlled quantum systems.

• Quantum speed limit theoremsNarrower topic: Speed limits help characterize how quickly physical quantum processors can perform operations.

• Superconducting detectorRelated: Superconducting circuits and sensors enable readout of microwave signals from quantum devices.