Linked from

The 35 pages that link to Many-worlds interpretation, each with the reason it gives.

• Quantum mechanicsCompared with: It rejects fundamental measurement collapse while retaining the standard quantum formalism.

• Quantum measurementCompared with: It rejects fundamental collapse while explaining why observers experience definite records.

• Born ruleCompared with: Its account of observed probabilities must explain why branch weights follow the rule.

• Quantum decoherenceRelated: Decoherence explains why branches cease to interfere, though it does not alone establish this interpretation.

• Quantum superpositionRelated: It treats superposed alternatives as components of a state that continues to evolve.

• Copenhagen interpretationCompared with: It avoids collapse by treating every possible outcome as realized in a different branch.

• WavefunctionCompared with: It takes wavefunction evolution as universal and rejects measurement collapse.

• Wave–particle dualityCompared with: It explains measurement outcomes without treating duality as a physical switch between two behaviors.

• Hidden-variable theoryCompared with: It addresses measurement outcomes through branching rather than additional variables.

• Measurement problemCompared with: It rejects collapse and treats each possible outcome as realized in a different branch.

• Objective-collapse theoryCompared with: It explains apparent definiteness through branching rather than physical collapse.

• ComplementarityCompared with: It explains apparent measurement alternatives through branching rather than Bohr's framework of complementary descriptions.

• Pilot-wave theoryCompared with: It keeps wavefunction evolution universal rather than adding particle trajectories.

• Wave functionCompared with: It denies that measurement fundamentally collapses the wave function.

• MultiverseRelated: It describes quantum branches as distinct worlds rather than distant cosmic regions.

• Double-slit experimentCompared with: It accounts for the alternatives without selecting one path as uniquely real before detection.

• Aspect's experimentCompared with: Aspect’s correlations constrain local hidden-variable accounts but do not select among quantum interpretations.

• Quantum theoryCompared with: It rejects collapse as a fundamental process while retaining standard quantum predictions.

• Local hidden-variable theoryCompared with: It preserves unitary quantum evolution rather than explaining correlations with local hidden variables.

• Quantum DarwinismCompared with: Both address outcomes, but quantum Darwinism focuses on environmental records rather than branching worlds.

• Wigner’s friendCompared with: It treats the friend’s distinct outcomes as branches rather than selecting one observer-independent result.

• Schrödinger’s catCompared with: It treats the alternatives as branching outcomes rather than one state selected by collapse.

• Wave function collapseCompared with: It retains the full superposition rather than selecting a single outcome by collapse.

• Quantum BayesianismCompared with: Unlike QBism, it treats the quantum state as describing an objective, universal physical reality.

• Quantum indeterminacyCompared with: It retains deterministic evolution while explaining observed probabilities through branching.

• Simulation hypothesisCompared with: It offers a physical account of multiple observed histories without invoking an external computer.

• Einstein–Podolsky–Rosen paradoxCompared with: It retains universal quantum evolution without selecting a single outcome through collapse.

• Hugh Everett IIIBroader topic: This later name popularized the implications of Everett’s relative-state theory.

• De Broglie–Bohm theoryCompared with: It keeps unitary wave-function evolution but rejects Bohmian particle positions as additional ontology.

• Free Will TheoremCompared with: It offers a deterministic quantum account without treating the theorem as proof of human agency.

• History of quantum mechanicsCompared with: Everett proposed it as an alternative to collapse-centered accounts.

• Interpretations of quantum mechanicsCompared with: It removes collapse by treating every possible outcome as realized in a different branch.

• Foundations of quantum mechanicsCompared with: It rejects fundamental collapse while retaining the standard quantum dynamics.

• List of unsolved problems in physicsCompared with: It treats measurement without collapse, unlike other approaches to quantum foundations.

• Mathematical formulation of quantum mechanicsCompared with: It keeps unitary evolution but gives measurement a different interpretation.