proposition 12.95 The tensor inner product is well defined and positive definite
open in the book ·
parts/02-mathematical-methods/10-hilbert-spaces.tex:2600
· p. 441
Rests on
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depends_on
definition 12.94
Tensor product of Hilbert spaces
¶
-
depends_on
definition 12.2
Hilbert space
¶
-
depends_on
definition 5.18
Inner product
¶
- depends_on definition 4.33 Vector space ¶
- depends_on definition 6.27 Convergence; Cauchy sequence; completeness ¶
- depends_on equation 5.44 eq:lin-norm-assoc ¶
-
depends_on
definition 5.18
Inner product
¶
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depends_on
definition 5.110
Bilinear map
¶
-
depends_on
definition 5.37
Linear transformation
¶
- depends_on definition 4.33 Vector space ¶ ↺
-
depends_on
definition 5.37
Linear transformation
¶
- depends_on definition 5.18 Inner product ¶ ↺
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depends_on
definition 12.2
Hilbert space
¶
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depends_on
proposition 12.23
Gram–Schmidt in a Hilbert space
¶
-
depends_on
definition 5.27
Orthonormal basis
¶
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depends_on
definition 5.26
Orthogonal basis
¶
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depends_on
definition 5.15
Basis
¶
- depends_on definition 5.12 Subspace generated by a set of vectors ¶
- depends_on definition 5.14 Linear independence ¶
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depends_on
definition 5.24
Orthogonal vectors
¶
- depends_on definition 5.18 Inner product ¶ ↺
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depends_on
definition 5.15
Basis
¶
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depends_on
definition 5.25
Unit vector
¶
-
depends_on
definition 5.19
Norm
¶
- depends_on definition 4.33 Vector space ¶ ↺
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depends_on
definition 5.19
Norm
¶
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depends_on
definition 5.26
Orthogonal basis
¶
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depends_on
proposition 5.28
Gram–Schmidt
¶
- depends_on definition 5.14 Linear independence ¶ ↺
- depends_on definition 5.18 Inner product ¶ ↺
- depends_on definition 5.27 Orthonormal basis ¶ ↺
- depends_on equation 5.44 eq:lin-norm-assoc ¶ ↺
- proves proof ch:03-linear-algebra-representations@proof-5 ¶
- proves proof ch:10-hilbert-spaces@proof-12 ¶
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depends_on
definition 5.27
Orthonormal basis
¶
-
depends_on
theorem 12.30
Completeness, expansion, Parseval
¶
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depends_on
corollary 12.19
Double complement; the density criterion
¶
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depends_on
proposition 12.17
The complement is always a closed subspace
¶
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depends_on
corollary 12.5
Continuity of the norm and of orthogonality
¶
- depends_on definition 5.24 Orthogonal vectors ¶ ↺
- depends_on proposition 12.4 Cauchy–Schwarz and continuity of the inner product ¶
- proves proof ch:10-hilbert-spaces@proof-2 ¶
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depends_on
definition 12.16
Orthogonal complement
¶
- depends_on definition 5.24 Orthogonal vectors ¶ ↺
- depends_on equation 5.52 eq:lin-orthogonal-complement ¶
- proves proof ch:10-hilbert-spaces@proof-8 ¶
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depends_on
corollary 12.5
Continuity of the norm and of orthogonality
¶
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depends_on
theorem 12.18
Projection theorem
¶
- depends_on proposition 12.17 The complement is always a closed subspace ¶ ↺
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depends_on
theorem 12.14
Closest point in a closed convex set
¶
- depends_on definition 12.13 Convex set ¶
- depends_on definition 12.2 Hilbert space ¶ ↺
- depends_on proposition 12.6 Parallelogram law and polarization ¶
- proves proof ch:10-hilbert-spaces@proof-7 ¶
- proves proof ch:10-hilbert-spaces@proof-9 ¶
- proves proof ch:10-hilbert-spaces@proof-10 ¶
-
depends_on
proposition 12.17
The complement is always a closed subspace
¶
-
depends_on
proposition 12.27
Best approximation and Bessel's inequality
¶
-
depends_on
definition 12.26
Orthonormal system; Fourier coefficients
¶
- depends_on definition 5.27 Orthonormal basis ¶ ↺
- depends_on equation 5.49 eq:lin-orthonormality ¶
- depends_on theorem 12.18 Projection theorem ¶ ↺
- proves proof ch:10-hilbert-spaces@proof-14 ¶
-
depends_on
definition 12.26
Orthonormal system; Fourier coefficients
¶
-
depends_on
proposition 12.28
Convergence criterion for orthogonal series
¶
- depends_on definition 12.26 Orthonormal system; Fourier coefficients ¶ ↺
- depends_on definition 12.2 Hilbert space ¶ ↺
- proves proof ch:10-hilbert-spaces@proof-15 ¶
- proves proof ch:10-hilbert-spaces@proof-16 ¶
-
depends_on
corollary 12.19
Double complement; the density criterion
¶
- proves proof ch:10-hilbert-spaces@proof-45 ¶
Supports
- depends_on example 12.100 Entangled vectors exist ¶
- depends_on proposition 12.96 Operators on a tensor product ¶
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 |
→ | Tensor product of Hilbert spaces | declared | parts/02-mathematical-methods/10-hilbert-spaces.tex:2608 |
depends_on |
→ | Gram–Schmidt in a Hilbert space | declared | parts/02-mathematical-methods/10-hilbert-spaces.tex:2608 |
depends_on |
→ | Completeness, expansion, Parseval | declared | parts/02-mathematical-methods/10-hilbert-spaces.tex:2608 |
depends_on |
← | Entangled vectors exist | declared | parts/02-mathematical-methods/10-hilbert-spaces.tex:2739 |
depends_on |
← | Operators on a tensor product | declared | parts/02-mathematical-methods/10-hilbert-spaces.tex:2653 |
proves |
← | ch:10-hilbert-spaces@proof-45 | declared | parts/02-mathematical-methods/10-hilbert-spaces.tex:2612 |