4- Course Content :-
| Topic | No. of hours | Lecture | Tutorial/Practical | 
| Basic Linear Algebra :- Vector Spaces,Subspaces,Direct Sums,Spanning Sets and Linear Independence. The Dimension of a Vector Space,Ordered Bases and Coordinate Matrices. The Row and Column Spaces of a Matrix. The Complexification of a Real Vector Space. | 3 | 3 | - | 
| Linear Transformations :- The Kernel and Image of a Linear Transformation,Isomorphisms. The Rank Plus Nullity Theorem,Change of Basis Matrices. The Matrix of a Linear Transformation. Change of Bases for Linear Transformations. Equivalence of Matrices. Similarity of Matrices. Similarity of Operators. Invariant Subspaces and Reducing Pairs. Projection Operators. | 3 | 3 | - | 
| The Isomorphism Theorems :- Quotient Spaces. The Universal Property of Quotients and the First Isomorphism Theorem, Quotient Spaces, Complements and Codimension. Additional Isomorphism Theorems. Linear Functional,Dual Bases,Reflexivity,Annihilators,Operator Adjoints. | 3 | 3 | - | 
| The Structure of a Linear Operator :- The Module Associated with a Linear Operator. The Primary Cyclic Decomposition. The Characteristic Polynomial. Cyclic and Indecomposable Modules. The Big Picture. The Rational Canonical Form. | 3 | 3 | - | 
| Eigenvalues and Eigenvectors :- Geometric and Algebraic Multiplicities. The Jordan Canonical Form. Triangularizability and Schur's Theorem. Diagonalizable Operators. | 3 | 3 | - | 
| Real and Complex Inner Product Spaces,Norm and Distance,Isometries, Orthogonality,Orthogonal and Orthonormal Sets. The Projection Theorem and Best Approximations. The Riesz RepresentationTheorem. | 3 | 3 | - | 
| Structure Theory for Normal Operators :- The Adjoint of a Linear Operator,Orthogonal ProjectionsUnitary Diagonalizability, Normal Operators. Special Types of Normal Operators. Self-Adjoint Operators. Unitary Operators and Isometries. The Structure of Normal Operators. Functional Calculus,Positive Operators. The Polar Decomposition of an Operator. | 3 | 3 | - | 
| The Theory of Bilinear Forms :- Symmetric, Skew-Symmetric and Alternate Forms. The Matrix of a Bilinear Form. Quadratic Forms,Orthogonality,Linear Functionals. Orthogonal Complements and Orthogonal Direct Sums. Isometries,Hyperbolic Spaces, Nonsingular Completions of a Subspace. The Witt Theorems: A Preview. The Classification Problem for Metric Vector Spaces. | 3 | 3 | - | 
| Symplectic Geometry. The Structure of Orthogonal Geometries: Orthogonal Bases. The Classification of Orthogonal Geometries :- Canonical Forms. The Orthogonal Group. The Witt Theorems for Orthogonal Geometries. Maximal Hyperbolic Subspaces of an Orthogonal Geometry. | 3 | 3 | - | 
| Metric Spaces :- The Definition Open and Closed Sets, Convergence in a Metric Space. The Closure of a Set, Dense Subsets, Continuity, Completeness, Isometries. The Completion of a Metric Space. | 3 | 3 | - | 
| Hilbert Spaces :- A Brief Review,Hilbert Spaces,Infinite Series,An Approximation Problem, Hilbert Bases,Fourier Expansions. A Characterization of Hilbert Bases, Hilbert Dimension. A Characterization of Hilbert Spaces. The Riesz Representation Theorem. | 3 | 3 | - | 
| Tensor Products :- Universality,Bilinear Maps,Tensor Products. When Is a Tensor Product Zero? Coordinate Matrices and Rank. Characterizing Vectors in a Tensor Product. Defining Linear Transformations on a Tensor Product. The Tensor Product of Linear Transformations. Change of Base Field. Multilinear Maps and Iterated Tensor Products. Tensor Spaces,Special Multilinear Maps,Graded Algebras. The Symmetric and Antisymmetric. The Determinant. | 3 | 3 | - | 
| Positive Solutions to Linear Systems :- Convexity and Separation,Convex, Closed and Compact Sets,Convex Hulls, Linear and Affine Hyperplanes,Separation. | 3 | 3 | - | 
| Affine Geometry :- Affine Combinations,Affine Hulls. The Lattice of Flats. Affine Independence,Affine Transformations. Projective Geometry. | 3 | 3 | - | 
