proposition A.262 Spectral theorem for an unbounded self-adjoint operator

open in the book · appendices/A-long-proofs.tex:13022 · p. 2919

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proposition A.262: Spectral theorem for an unbounded self-adjoint operatorA.262lemma A.260: Cayley transform of a self-adjoint operatorA.260proposition A.246: Bounded Borel functional calculusA.246proposition A.261: Spectral theorem for a unitary operatorA.261proposition A.280: Direct-integral form of the spectral theoremA.280proof : app:A-long-proofs@proof-165proofdefinition 12.72: Symmetric; self-adjoint12.72proposition A.259: The generator is self-adjointA.259proposition 12.73: The adjoint is always closed12.73proof : app:A-long-proofs@proof-163proofproposition A.243: Continuous functional calculusA.243proposition A.245: The measures μ_x,yA.245theorem 12.46: Riesz representation12.46proof : app:A-long-proofs@proof-150proofproposition 12.52: Neumann series; the spectrum is bounded12.52theorem A.238: Spectral theorem, both formsA.238proof : app:A-long-proofs@proof-164prooflemma A.250: Decomposition into cyclic subspacesA.250proposition A.282: The fibre maps are continuous on \PhiA.282proof : app:A-long-proofs@proof-177proof

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typedirectionnode provenancewhere
depends_on Cayley transform of a self-adjoint operator declared appendices/A-long-proofs.tex:13036
depends_on Bounded Borel functional calculus declared appendices/A-long-proofs.tex:13036
depends_on Spectral theorem for a unitary operator declared appendices/A-long-proofs.tex:13036
depends_on Direct-integral form of the spectral theorem declared appendices/A-long-proofs.tex:13962
proves app:A-long-proofs@proof-165 declared appendices/A-long-proofs.tex:13040