Physics:Quantum Eigenstates and eigenvalues - Revision history

Maintenance script: Normalize quantum page header order

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	'''Eigenstates and eigenvalues''' ~~is a Book I topic in the Quantum Collection. Quantum~~ eigenstates and eigenvalues describe the states of a quantum system that yield definite results when a physical observable is measured. Each observable is represented by an operator, whose eigenvalues correspond to measurable quantities. Quantum eigenstates and eigenvalues describe the states of a quantum system that yield definite results when a physical observable is measured. Each observable is represented by an operator, whose eigenvalues correspond to measurable quantities. In quantum mechanics, observables are represented by operators acting on wavefunctions. ~~An eigenstate \psi satisfies:~~ This equation means that applying the operator does not change the form of the state, only its magnitude. Eigenstates correspond to states with definite measurement outcomes: * Measuring observable A in eigenstate \psi yields a with certainty * After measurement, the system remains in that eigenstate * General states can be expressed as superpositions of eigenstates This is a central postulate of quantum mechanics.		'''Eigenstates and eigenvalues''' quantum eigenstates and eigenvalues describe the states of a quantum system that yield definite results when a physical observable is measured. Each observable is represented by an operator, whose eigenvalues correspond to measurable quantities. Quantum eigenstates and eigenvalues describe the states of a quantum system that yield definite results when a physical observable is measured. Each observable is represented by an operator, whose eigenvalues correspond to measurable quantities. In quantum mechanics, observables are represented by operators acting on wavefunctions. This equation means that applying the operator does not change the form of the state, only its magnitude. Eigenstates correspond to states with definite measurement outcomes:
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	'''~~Quantum eigenstates~~ and eigenvalues''' describe the states of a quantum system that yield definite results when a physical observable is measured. Each observable is represented by an operator, whose eigenvalues correspond to measurable quantities.~~<ref>[https~~:~~//www~~.~~britannica~~.~~com/science/eigenvalue Eigenvalue – Britannica]</ref>~~		'''Eigenstates and eigenvalues''' is a Book I topic in the Quantum Collection. Quantum eigenstates and eigenvalues describe the states of a quantum system that yield definite results when a physical observable is measured. Each observable is represented by an operator, whose eigenvalues correspond to measurable quantities. Quantum eigenstates and eigenvalues describe the states of a quantum system that yield definite results when a physical observable is measured. Each observable is represented by an operator, whose eigenvalues correspond to measurable quantities. In quantum mechanics, observables are represented by operators acting on wavefunctions. An eigenstate \psi satisfies: This equation means that applying the operator does not change the form of the state, only its magnitude. Eigenstates correspond to states with definite measurement outcomes: * Measuring observable A in eigenstate \psi yields a with certainty * After measurement, the system remains in that eigenstate * General states can be expressed as superpositions of eigenstates This is a central postulate of quantum mechanics.
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 {{Quantum book backlink|Wavefunctions and modes}}
 '''Quantum eigenstates and eigenvalues''' describe the states of a quantum system that yield definite results when a physical observable is measured. Each observable is represented by an operator, whose eigenvalues correspond to measurable quantities.<ref>[https://www.britannica.com/science/eigenvalue Eigenvalue – Britannica]</ref>
-[[File:Quantum_eigenstates.svg|thumb|400px|Eigenstates of a quantum system correspond to definite measurement outcomes, with eigenvalues representing observable quantities such as energy.]]
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 == Mathematical formulation ==

imported>WikiHarold: Repair Quantum Collection B backlink template

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Repair Quantum Collection B backlink template

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