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The 33 pages that link to Quantum superposition, each with the reason it gives.

• Quantum stateRelated: A state can combine alternatives whose amplitudes interfere before measurement.

• Molecular orbital theoryRelated: Molecular orbitals arise as combinations of atomic orbital states.

• Quantum entanglementRelated: Entangled states often combine alternatives that cannot be assigned independently to each subsystem.

• Neutrino oscillationNarrower topic: A flavor state is a superposition of mass states that evolve differently.

• Superposition principleCompared with: It uses linear combination in quantum theory, but combines states rather than ordinary source effects.

• Quantum computingRelated: It allows a qubit to encode amplitudes for multiple basis states before measurement.

• Many-worlds interpretationNarrower topic: Branching preserves the components of superpositions instead of selecting one outcome.

• Born ruleRelated: Interference between amplitudes in a superposition changes outcome probabilities.

• Quantum decoherenceNarrower topic: Interference can occur only while alternatives in a superposition retain suitable phase relations.

• Erwin SchrödingerRelated: The cat paradox dramatizes the apparent persistence of superposition before measurement.

• Wave–particle dualityRelated: A particle can occupy alternatives whose amplitudes produce wave-like interference.

• Path integral formulationRelated: Contributions from alternative histories combine by superposition.

• Measurement problemNarrower topic: The measurement problem begins when a superposition appears to yield only one observed result.

• Quantum error correctionRelated: Correction must protect superpositions, not merely classical bit values.

• Atom interferometryNarrower topic: A split atom occupies a superposition of paths until the alternatives are recombined or measured.

• Quantum coherenceRelated: Coherent superpositions retain phase relationships that allow their components to interfere.

• Double-slit experimentNarrower topic: A particle can have contributions from both slit paths before detection.

• Matter waveRelated: Overlapping matter-wave amplitudes combine to produce interference.

• Probability amplitudeRelated: Superposition adds amplitudes, not probabilities, for the component states.

• QubitNarrower topic: A qubit’s defining state can combine its two computational basis states.

• Quantum theoryRelated: Superposed alternatives can interfere, producing outcomes unlike ordinary classical mixtures.

• Wigner’s friendNarrower topic: The outside observer can describe the friend and measured system as a superposition of outcome branches.

• Schrödinger’s catNarrower topic: The cat’s alive and dead alternatives represent the superposed possibilities in the experiment.

• Wave function collapseBroader topic: Collapse replaces a superposition of outcome states with one outcome state.

• Degenerate energy levelsCompared with: Superposition concerns combining states; degeneracy concerns their shared energy.

• No-cloning theoremRelated: Linearity requires a copier to preserve superpositions, which defeats copying two distinct basis states.

• Quantum indeterminacyRelated: Superposed alternatives can yield probabilistic outcomes when measured.

• Bell stateRelated: Bell states combine two-qubit basis states with precise relative phases.

• Hugh Everett IIIRelated: Everett retains superpositions rather than eliminating alternatives through collapse.

• Wigner's theoremRelated: The theorem constrains symmetries through the overlaps between superposed states.

• Interpretations of quantum mechanicsBroader topic: Measurement turns this mathematical combination into the focal point of interpretive disagreement.

• Neutral particle oscillationNarrower topic: An oscillating particle propagates as a superposition of states with different evolution phases.

• No-deleting theoremRelated: Linearity forces a proposed deletion operation to work consistently across superpositions.