Category:Linear Transformations on Hilbert Spaces
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This page contains results about linear transformations on Hilbert spaces.
Definitions specific to this category can be found in Definitions/Linear Transformations on Hilbert Spaces.
Subcategories
This category has the following 4 subcategories, out of 4 total.
A
E
P
R
Pages in category "Linear Transformations on Hilbert Spaces"
The following 64 pages are in this category, out of 64 total.
B
C
- Characterization of Finite Rank Operators
- Characterization of Invariant Subspaces
- Characterization of Normal Operators
- Characterization of Projections
- Characterization of Reducing Subspaces
- Characterization of Unitary Operators
- Classification of Bounded Sesquilinear Forms
- Closure of Range of Compact Linear Transformation is Separable
- Compact Idempotent is of Finite Rank
- Compact Linear Transformation is Bounded
- Compact Linear Transformations Composed with Bounded Linear Operator
- Compact Operator on Hilbert Space Direct Sum
- Compact Self-Adjoint Operator has Countable Point Spectrum
- Complementary Idempotent is Idempotent
- Complementary Projection is Projection
- Condition for Nonzero Eigenvalue of Compact Operator
- Condition for Nonzero Eigenvalue of Compact Operator/Corollary
- Continuity of Linear Functionals
- Continuity of Linear Transformations
D
E
- Eigenspace for Normal Operator is Reducing Subspace
- Eigenvalues of Normal Operator have Orthogonal Eigenspaces
- Eigenvalues of Self-Adjoint Operator are Real
- Equivalence of Definitions of Norm of Linear Functional
- Equivalence of Definitions of Norm of Linear Functional/Corollary
- Equivalence of Definitions of Norm of Linear Transformation
F
K
- Kernel of Linear Transformation is Orthocomplement of Range of Adjoint
- Kernel of Linear Transformation is Orthocomplement of Range of Adjoint/Corollary
- Kernel of Normal Operator is Kernel of Adjoint
- Kernel of Normal Operator is Orthocomplement of Range
- Kernel of Orthogonal Projection on Closed Linear Subspace of Hilbert Space
L
O
- Operator Commuting with Diagonalizable Operator
- Operator Diagonalizable iff Basis of Eigenvectors
- Operator Zero iff Inner Product Zero
- Orthogonal Projection on Closed Linear Subspace of Hilbert Space is Bounded
- Orthogonal Projection on Closed Linear Subspace of Hilbert Space is Linear Transformation
- Orthogonal Projection on Closed Linear Subspace of Hilbert Space is Projection
- Orthogonal Projection onto Closed Linear Span