Linear Algebra Index
(alphabetized)- Injective, Surjective, Invertible equivalences
- A Linear Transformation Is Determined By How It Acts On A Basis
- A Matrix Is Diagonalizable If And Only If There Is An Eigenvector Basis
- Augmented Matrix
- Basis Change
- Basis For A Direct Sum
- Basis Of Product Of Basis Change Matrix And Vector
- Basis
- Cayley Hamilton Theorem
- Characteristic Polynomial
- Column And Row Space
- Combination Of Basis Change
- Condition For Bijective Matrix Transformation
- Condition For Diagonalizable
- Condition For Row Equivalence
- Conditions For Injective Transformation
- Coordinate Vector
- Determinant
- Diagonalizable
- Dimension Of Row And Column Space
- Dimension Of Subspace
- Dimensions
- Direct Sum
- Direct Sums Decomposes Into Families Of Projections
- Eigenspace
- Eigenvalue
- Eigenvector
- Eigenvectors And Determinants
- Elementary
- Elements Of A Span
- Equivalent Systems Have The Same Solution
- Equivalent
- Every Linear Transformation Can Be Represented By A Matrix
- Every Matrix Is Row Equivalent To A Row Reduced Matrix
- Every Vector Space Has A Basis
- Existance Of Basis
- Existance Of Minimal Polynomial
- Free Variables
- Homogeneous
- Ideal
- Idenpotent
- If A Has A Left And Right Inverse Then It Is Invertible With A Unique Inverse
- Condition for Square Matrices to have an Unique Solution
- If E Is An Elementary Matrix Then Ea Is The Matrix Obtained By Applying The Elementary Row Op That Defies E To A
- If T Has N Distinct Eigenvalues Then It Is Diagonalizable
- If V And W Are Finite Dimensional Vector Spaces Then Space Of Linear Transformations Is A Vector Space
- If M Is Greater Then N For A Mxn Matrix Then Ax Equals 0 Has A Nontrivial Solution
- Independent
- Injective And Surjective Conditions
- Intersection Of Subspaces
- Invarient
- Inverse Matrix
- Invertible Equivalences
- Invertible
- Isomorphism
- Linear Combination
- Linear Dependent And Independent
- Linear Transformation
- Matrix Multiplication Is Associative
- Matrix Multiplication
- Matrix Of A Linear Transformation
- Matrix Representation
- Minimal Polynomial
- Non Trivial Solutions For A Mxn Matrix
- Nonhomgenous
- Number Of Elements In A Linearly Independent Set
- Over Algebraically Compete Fields The Determineant Is Product Of Eigenvalues And Trace Is The Sum Of Eigenvalues
- Properties Of Invertible Matrices
- Rank Nullity Theorem
- Rank Of A Matrix And Its Transpose
- Roots Of Minimal Polynomials Are Eigenvalues
- Row Equivalent Matrices Have The Same Solution
- Row Equivalent
- Row Reduced Echelon
- Row Reduced
- Similar
- Size Of Basis
- Skew Symmetric
- Space Of Linear Transformations
- Span
- Squares And Square Roots
- Subsets With More Or Less Vectors Than Dimensions
- Subspace
- Sum Of Subspaces
- Symmetric
- The Determinant Is Multiplicative
- The Determinant Is Well Defined
- The Determinant Is Zero If And Only If The Set Is Linearly Dependent
- The Determinant Of A Matrix Times An Elementary Matrix Is The Product Of The Determinants
- The Matrix Representation Of A Transformation In Different Basis Are Similar
- The Set Of Matrices With Addition And Multiplication Form A Ring
- There Exists A Basis Such That A Matrix Is Upper Triangular
- Transpose
- Unipotent
- Upper Triangular
- Vector Space
- Vector