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Linear Algebra
• 1°­ Basic Concepts and Algebraic operations for Matrices 
• 2°­ Linear Systems of Equations. Gauss Elimination 
• 3°­ Applications 
• 4°­ Vector Space. Linear Independence 
• 5°­ Rank of a Matrix 
• 6°­ Fundamental Theorem for linear systems 
• 7°­ Determinants 
• 8°­ Rank in terms of determinants. Cramer's Rule 
• 9°­ Inverse of a matrix. Gauss-Jordan Elimination 
• 10°­ Eigenvalues and Eigenvectors ¥° 
• 11°­ Eigenvalues and Eigenvectors ¥± 
• 12°­ Some Application of Eigenvalue Problems 
• 13°­ Inner Product Space 
• 14°­ Special Real matrices :
Symmetric, Skew-symmetric and Orthogonal matrices 
• 15°­ Special Complex matrices :
Hermitian, Skew-Hermitian and Unitary matrices 
• 16°­ Quadratic Form. Hermitian Form 
• 17°­ Similarity of Matrices. Basis of Eigenvectors 
• 18°­ Diagonalization. Principal Axes Theoremdf 
• 19°­ Marcov Chain 
Vector Calculus
• 1°­ Vector Algebra in Space. Inner Product 
• 2°­ Cross Product. Scalar and Vector functions and Fields 
• 3°­ Vector Calculus 
• 4°­ Curves. Tangents. Arc length 
• 5°­ Gradient of a Scalar Field, Directional Derivative 
• 6°­ Divergence and Curl of a Vector Field 
• 7°­ Line Integral 
• 8°­ Line Integrals Independent of Path 
• 9°­ Exactness and Independence of Path 
• 10°­ Double Integrals 
• 11°­ Green's Theorem in the plane 
• 12°­ Green's Theorem: Applications 
• 13°­ Surfaces 
• 14°­ Surface Integral of Scalar Functions 
• 15°­ Surface Integrals of Vector Functions 
• 16°­ Triple Integrals. Divergence Theorem of Gauss 
• 17°­ Divergence Theorem: Applications 
• 18°­ Potential theory: The theory of solutions of Laplace¡¯s equation 
• 19°­ Stokes' Theorem