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The 87 pages that link to Quantum state, each with the reason it gives.

• Schrödinger equationNarrower topic: The equation describes how this broader object changes under a system’s dynamics.

• Pauli exclusion principleNarrower topic: Exclusion forbids identical fermions from sharing a complete state.

• Quantum entanglementNarrower topic: Entanglement is a property of a joint quantum state, rather than a force between separated objects.

• Selection ruleNarrower topic: Selection rules compare pairs of these states.

• Born ruleNarrower topic: The rule extracts measurement probabilities from a system's state.

• Bose–Einstein condensateNarrower topic: Condensation means many particles occupy the same lowest-energy state.

• Quantum numberNarrower topic: Quantum numbers distinguish possible states of a system.

• Quantum superpositionNarrower topic: Superposition is a property of quantum states, expressed through combinations of their possible components.

• Copenhagen interpretationNarrower topic: The interpretation treats the state as a predictive description rather than a directly observed classical condition.

• Density of statesNarrower topic: Density of states counts distinct quantum states rather than classical trajectories.

• Stimulated emissionNarrower topic: An excited quantum state provides the energy from which emission occurs.

• WavefunctionNarrower topic: The wavefunction is one representation of a quantum state.

• Energy levelNarrower topic: An energy level is a possible value of energy associated with a quantum state.

• SpinNarrower topic: Spin is represented by quantum states whose components predict measurement results.

• BosonNarrower topic: Bosons can share the same state, unlike identical fermions.

• Ground stateNarrower topic: A ground state is one particular quantum state, distinguished by its energy.

• Quantum simulationNarrower topic: Simulation encodes target-system states in the simulator’s controllable degrees of freedom.

• Fermi surfaceNarrower topic: Each point in momentum space labels electronic states whose occupancy defines the surface.

• Density matrixNarrower topic: Density matrices are one general representation of quantum states.

• Population inversionNarrower topic: Population counts depend on which states are grouped as energy levels.

• Quantum opticsNarrower topic: Quantum optics describes both light and matter through their quantum states.

• Excited stateNarrower topic: An excited state is one member of the broader set of quantum states.

• Wave functionNarrower topic: A wave function represents a quantum state in a particular basis.

• Atomic energy levelNarrower topic: An energy level is an allowed energy value associated with one or more quantum states.

• Band theoryNarrower topic: Each allowed electron state contributes to the spectrum that forms solid-state bands.

• Spontaneous emissionNarrower topic: The emitting system begins in an excited state and ends in a lower-energy state.

• Quantum coherenceNarrower topic: Coherence is a property of a quantum state relative to a chosen basis.

• Spin quantum numberNarrower topic: Spin and projection numbers label states within quantum descriptions.

• Classical limitNarrower topic: Classical behavior concerns how quantum states produce classical-like predictions.

• Probability amplitudeNarrower topic: Amplitudes are components of a quantum state or coefficients for its possible outcomes.

• Quantum fluctuationNarrower topic: Fluctuations depend on the probabilities encoded by the system’s state.

• Quantum statisticsNarrower topic: Statistics count how many particles can occupy each possible state.

• Quantum teleportationNarrower topic: Teleportation transfers this description rather than a particle or physical object.

• QubitNarrower topic: A qubit is a two-dimensional quantum system described by a quantum state.

• Satyendra Nath BoseNarrower topic: Bose’s counting assigned occupation numbers to quantum states rather than labeled particles.

• Scattering amplitudeNarrower topic: Amplitudes connect particular initial and final quantum states.

• Slater determinantNarrower topic: A Slater determinant is one particular representation of a many-fermion quantum state.

• Electronic spectroscopyNarrower topic: Electronic spectroscopy compares the energies and populations of quantum states.

• Indistinguishable particlesNarrower topic: Indistinguishability concerns whether exchanging particles changes this physical description.

• Quantum DarwinismNarrower topic: The framework concerns which state properties become robustly represented in environmental records.

• Bohr–Einstein debatesNarrower topic: Whether this state fully describes reality was the central question at stake.

• Quantum Zeno effectNarrower topic: Repeated measurements constrain the state’s evolution.

• Degenerate energy levelsNarrower topic: Distinct quantum states can share the same energy.

• Molecular physicsNarrower topic: Molecular properties and spectra are determined by the states molecules occupy.

• No-cloning theoremNarrower topic: The theorem concerns copying states, not copying classical descriptions of them.

• Quantum indeterminacyNarrower topic: Its amplitudes determine which outcomes are possible and how likely they are.

• Roy J. GlauberNarrower topic: Optical coherence is specified through quantum states and their field correlations.

• QuantizationNarrower topic: Quantization specifies which states and outcomes the description permits.

• Wigner's theoremNarrower topic: The theorem acts on pure states, which are rays rather than individual state vectors.

• No-communication theoremNarrower topic: The theorem constrains what local state descriptions can reveal about distant actions.