Schrödinger picture

E508534

The Schrödinger picture is a formulation of quantum mechanics in which states evolve in time according to the Schrödinger equation while observables remain fixed.

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Statements (49)

Predicate Object
instanceOf formulation of quantum mechanics
representation in quantum mechanics
appliesTo non-relativistic quantum mechanics
quantum field theory
assumes Born rule for probabilities NERFINISHED
Hilbert space structure of quantum states
linearity of quantum evolution
contrastedWith Heisenberg picture where operators carry time dependence
differsFrom Heisenberg picture by distribution of time dependence
interaction picture by treatment of free and interaction parts of Hamiltonian
energyEigenstatesSatisfy H|Eₙ⟩ = Eₙ|Eₙ⟩
equivalentTo Heisenberg picture
interaction picture
path integral formulation under suitable conditions
formalismUses kets |ψ(t)⟩ for states
time-independent operators  for observables
hasAdvantage convenient for solving time-dependent potentials
intuitive wavefunction description in configuration space
natural connection to classical limit via wave packets
hasCharacteristic observables are time-independent in the Heisenberg sense
operators representing observables are fixed in time
states evolve in time
time dependence carried by state vectors
hasCoreConcept Hamiltonian operator NERFINISHED
state vector in Hilbert space
wavefunction
hasGeneralization Schrödinger picture in quantum field theory NERFINISHED
hasHistoricalContext developed in the 1920s
introduced after matrix mechanics of Heisenberg
hasInterpretation wavefunction as probability amplitude
hasMeasurementPostulate projection postulate on eigenstates of observables
isUsedIn atomic physics
condensed matter physics
quantum chemistry
quantum information theory NERFINISHED
namedAfter Erwin Schrödinger NERFINISHED
probabilityDensityGivenBy |ψ(x,t)|² in position representation
relatedConcept Dirac bra–ket notation NERFINISHED
Schrödinger equation NERFINISHED
state vector formalism
wave mechanics
timeEvolutionOfEnergyEigenstate |Eₙ(t)⟩ = e^{−iEₙt/ħ}|Eₙ(0)⟩
timeEvolutionOfStatesGivenBy unitary time-evolution operator
timeEvolutionOperator U(t,t₀) = exp[-(i/ħ)H(t−t₀)] for time-independent H
usesEquation iħ ∂|ψ(t)⟩/∂t = H|ψ(t)⟩
time-dependent Schrödinger equation
usesMathematicalStructure complex Hilbert space
self-adjoint operators for observables
unitary operators for time evolution

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