Science ❯ Physics ❯ Quantum Physics
Qubits Applications of Quantum Computing Superconducting Circuits Josephson Junctions Nobel Prize Superconducting Qubits Nobel Prize in Physics Quantum Networking Quantum Internet Nuclear-Spin Dark State Bolometers Room-Temperature Quantum Computing Artificial Intelligence Quantum Annealing Quantum Information Encoding Topological Quantum Computers Quantum Information Processing Measurement Techniques Qubit Measurements Single-Shot Fidelity Research Groups Measurement Devices Experimental Research Entangled States Quantum Entanglement Probabilistic Computers Error Correction Silicon-28 Enrichment Quantum Sensors Magic State Distillation Topological Superconductors Quantum Materials Quantum Error Correction Quantum Bits Parameter Discovery Antimatter Qubits Quantum Memory Quantum Simulation Topological Quantum Computing Quantum Networks Cryogenic Technologies Macroscopic Quantum Tunneling Tunneling Effect Quantum Bits (Qubits) Time Crystals Quantum Communication Error Correction Techniques Superconducting Technologies Experimental Physics Optical Cavities Qubit Formation Quantum Circuits Thermoelectric Conversion Optical Fibers Cold Atoms Trapped Ions Multiverse Theory Quantum States
The committee spotlighted decades-old experiments whose insights underpin today’s superconducting qubits.
