Gate
2018 Syllabus for Mathematics (MA)
Linear
Algebra: Finite Dimensional Vector Spaces; Linear Transformations
And Their Matrix Representations, Rank; Systems Of Linear Equations, Eigen
Values And Eigen Vectors, Minimal Polynomial, Cayley-Hamilton Theroem,
Diagonalisation, Hermitian, Skew-Hermitian And Unitary Matrices; Finite Dimensional
Inner Product Spaces, Gram-Schmidt Orthonormalization Process, Self-Adjoint
Operators.
Complex
Analysis: Analytic Functions, Conformal Mappings, Bilinear
Transformations; Complex Integration: Cauchy’s Integral Theorem And Formula; Liouville’s
Theorem, Maximum Modulus Principle; Taylor And Laurent’s Series; Residue
Theorem And Applications For Evaluating Real Integrals.
Real
Analysis: Sequences And Series Of Functions, Uniform
Convergence, Power Series, Fourier Series, Functions Of Several Variables,
Maxima, Minima; Riemann Integration, Multiple Integrals, Line, Surface And
Volume Integrals, Theorems Of Green, Stokes And Gauss; Metric Spaces,
Completeness, Weierstrass Approximation Theorem, Compactness; Lebesgue Measure, Measurable Functions; Lebesgue Integral, Fatou’s Lemma, Dominated Convergence
Theorem.
Ordinary
Differential Equations: First Order Ordinary Differential
Equations, Existence And Uniqueness Theorems, Systems Of Linear First Order
Ordinary Differential Equations, Linear Ordinary Differential Equations Of
Higher Order With Constant Coefficients; Linear Second Order Ordinary Differential
Equations With Variable Coefficients; Method Of Laplace Transforms For Solving
Ordinary Differential Equations, Series Solutions; Legendre And Bessel Functions
And Their Orthogonality.
Algebra: Normal
Subgroups And Homomorphism Theorems, Automorphisms; Group Actions, Sylow’s Theorems
And Their Applications; Euclidean Domains, Principle Ideal Domains And Unique
Factorization Domains. Prime Ideals And Maximal Ideals In Commutative Rings; Fields,
Finite Fields.
Functional
Analysis: Banach Spaces, Hahn-Banach Extension Theorem, Open
Mapping And Closed Graph Theorems, Principle Of Uniform Boundedness; Hilbert Spaces,
Orthonormal Bases, Riesz Representation Theorem, Bounded Linear Operators.
Numerical
Analysis: Numerical Solution Of Algebraic And Transcendental
Equations: Bisection, Secant Method, Newton-Raphson Method, Fixed Point
Iteration; Interpolation: Error Of Polynomial Interpolation, Lagrange, Newton Interpolations;
Numerical Differentiation; Numerical Integration: Trapezoidal And Simpson Rules,
Gauss Legendrequadrature, Method Of Undetermined Parameters; Least Square
Polynomial Approximation; Numerical Solution Of Systems Of Linear Equations:
Direct Methods (Gauss Elimination, LU Decomposition); Iterative Methods (Jacobi
And Gauss-Seidel); Matrix Eigenvalue Problems: Power Method, Numerical Solution
Of Ordinary Differential
Equations:
Initial Value Problems: Taylor Series Methods, Euler’s Method, Runge-Kutta Methods.
Partial
Differential Equations: Linear And Quasilinear First Order
Partial Differential Equations, Method Of Characteristics; Second Order Linear
Equations In Two Variables And Their Classification; Cauchy, Dirichlet And Neumann
Problems; Solutions Of Laplace, Wave And Diffusion Equations In Two Variables; Fourier
Series And Fourier Transform And Laplace Transform Methods Of Solutions For The
Above Equations.
Mechanics: Virtual
Work, Lagrange’s Equations For Holonomic Systems, Hamiltonian Equations.
Topology: Basic
Concepts Of Topology, Product Topology, Connectedness, Compactness,
Countability And Separation Axioms, Urysohn’s Lemma.
Probability
And Statistics: Probability Space, Conditional
Probability, Bayes Theorem, Independence, Random Variables, Joint And
Conditional Distributions, Standard Probability Distributions And Their
Properties, Expectation, Conditional Expectation, Moments; Weak And Strong Law
Of Large Numbers, Central Limit Theorem; Sampling Distributions, UMVU Estimators,
Maximum Likelihood Estimators, Testing Of Hypotheses, Standard Parametric Tests
Based On Normal, X2 , T, F – Distributions; Linear Regression; Interval Estimation.
Linear
Programming: Linear Programming Problem And Its
Formulation, Convex Sets And Their Properties, Graphical Method, Basic Feasible
Solution, Simplex Method, Big-M And Two Phase Methods; Infeasible And Unbounded
LPP’s, Alternate Optima; Dual Problem And Duality Theorems, Dual Simplex Method
And Its Application In Post Optimality Analysis; Balanced And Unbalanced
Transportation Problems, U -U Method For Solving Transportation Problems; Hungarian
Method For Solving Assignment Problems.
Calculus
Of Variation And Integral Equations: Variation Problems With
Fixed Boundaries; Sufficient Conditions For Extremum, Linear Integral Equations
Of Fredholm And Volterra Type, Their Iterative Solutions.
No comments:
Post a Comment