proposition 12.53 The resolvent set is open, the resolvent analytic
open in the book ·
parts/02-mathematical-methods/10-hilbert-spaces.tex:1386
· p. 428
Rests on
- depends_on definition 8.5 Complex derivative ¶
-
depends_on
proposition 12.52
Neumann series; the spectrum is bounded
¶
-
depends_on
definition 12.49
Resolvent set; spectrum
¶
-
depends_on
definition 12.35
Bounded operator; operator norm
¶
-
depends_on
definition 5.37
Linear transformation
¶
- depends_on definition 4.33 Vector space ¶
-
depends_on
definition 5.19
Norm
¶
- depends_on definition 4.33 Vector space ¶ ↺
-
depends_on
definition 5.37
Linear transformation
¶
-
depends_on
definition 5.47
Inverse of a linear transformation
¶
- depends_on definition 5.37 Linear transformation ¶ ↺
-
depends_on
definition 12.35
Bounded operator; operator norm
¶
-
depends_on
proposition 12.37
$\mathcal{B}(\mathcal{H})$ is a Banach algebra
¶
- depends_on definition 12.35 Bounded operator; operator norm ¶ ↺
-
depends_on
proposition 12.8
Absolutely convergent series test
¶
- depends_on definition 5.19 Norm ¶ ↺
- depends_on definition 6.27 Convergence; Cauchy sequence; completeness ¶
- proves proof ch:10-hilbert-spaces@proof-4 ¶
- proves proof ch:10-hilbert-spaces@proof-19 ¶
- proves proof ch:10-hilbert-spaces@proof-27 ¶
-
depends_on
definition 12.49
Resolvent set; spectrum
¶
- proves proof ch:10-hilbert-spaces@proof-28 ¶
Supports
-
depends_on
theorem 12.54
The spectrum is compact and non-empty
¶
-
depends_on
theorem 12.55
The spectrum of a self-adjoint operator is real
¶
- depends_on example 12.56 Multiplication by the coordinate: spectrum without eigenvectors ¶
-
depends_on
theorem A.238
Spectral theorem, both forms
¶
-
depends_on
proposition A.280
Direct-integral form of the spectral theorem
¶
- depends_on proposition A.282 The fibre maps are continuous on $\Phi$ ¶
-
depends_on
proposition A.261
Spectral theorem for a unitary operator
¶
- depends_on proposition A.262 Spectral theorem for an unbounded self-adjoint operator ¶
-
depends_on
theorem A.279
Gelfand–Maurin
¶
- depends_on example A.283 Momentum on the line ¶
-
depends_on
theorem A.253
Stone
¶
- depends_on proposition A.263 The two constructions are inverse ¶
-
depends_on
proposition A.280
Direct-integral form of the spectral theorem
¶
-
depends_on
theorem 12.59
Spectral theorem for a bounded self-adjoint operator
¶
-
depends_on
definition 12.60
Functional calculus
¶
- depends_on proposition 12.61 Uniqueness of the continuous functional calculus ¶
- depends_on theorem 12.107 Nuclear spectral theorem ¶
-
depends_on
theorem 12.91
Schur's lemma, commutant form
¶
- depends_on proposition A.591 Any two irreducible Weyl systems are equivalent ¶
- depends_on theorem 12.114 Stone–von Neumann ¶
-
depends_on
theorem 12.66
Stone
¶
- depends_on corollary 12.112 Commutator of the momentum with a function of the position ¶
- depends_on definition 12.109 Weyl system ¶
- depends_on proposition 12.67 The generator is symmetric, and generates the motion ¶
- depends_on proposition 12.111 The Weyl relation is a covariance statement ¶
- depends_on theorem 25.34 Stone–von Neumann ¶
-
depends_on
definition 12.60
Functional calculus
¶
-
depends_on
theorem 12.55
The spectrum of a self-adjoint operator is real
¶
Neighborhood
Every logical edge within two steps of this node.
- declared and complete
- partly declared
- a check failed
- not graded
- declared in the source
- inferred from structure
Edges
| type | direction | node | provenance | where |
|---|---|---|---|---|
depends_on |
→ | Complex derivative | declared | parts/02-mathematical-methods/10-hilbert-spaces.tex:1391 |
depends_on |
→ | Neumann series; the spectrum is bounded | declared | parts/02-mathematical-methods/10-hilbert-spaces.tex:1391 |
depends_on |
← | The spectrum is compact and non-empty | declared | parts/02-mathematical-methods/10-hilbert-spaces.tex:1418 |
proves |
← | ch:10-hilbert-spaces@proof-28 | declared | parts/02-mathematical-methods/10-hilbert-spaces.tex:1394 |