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A Vector Space is called finite dimensional if or has a basis . The dimension of is the number of elements in a basis, and is written If , then .
Continuous-time Gaussian process motion planning via probabilistic inference
Invertibility
Diagonalizable
Matrix of Linear Map
Rank
Existence of Eigenvalues on Complex Spaces
Injectivity, surjectivity, and isomorphism are equivalent when Dimension is the Same
Rank Nullity Theorem
Conditions for Diagonalizability
Enough Diagonal Elements Imply Diagonalizability
Linear Maps are Isomorphic to their Matrices
Linearity Properties of Matrices
Criterion for Invertibility using Upper Triangular
Criterion for Upper Triangular Matrix
Eigenvalues are Diagonal Elements of Upper Triangular
Linearly Independent Sets Generate Bases
Complement of Subspace Generates Direct Sum
Double Complement Returns the Original Subspace
The Orthogonal Complement is a Complementary Subspace
Isomorphic Vector Spaces have the Same Dimension
Four Hypotheses
Stationary Conditions for Team Optimality
Radner Krainak Theorem
Characteristic of F
Min poly. dividing poly. of same root
Same Finite-Dimensional Distribution