Syllabus
Unit 1
Formation of PDEs, Classification of First order PDEs, Complete, general and Singular integrals, Lagrange’s or quasi linear equations, Integral surfaces through a given curve, Orthogonal surfaces to a given system of surfaces, Characteristic curves.
Unit 2
Pfaffian differential equations, Compatible systems, Charpit’s method, Jacobi’s method, Linear equations with constant coefficients, Reduction to canonical forms.
Unit 3
Classification of second order PDEs, Method of separation of variables: Laplace, Diffusion and Wave equations in Cartesian, Cylindrical and Spherical polar coordinates.
Unit 4
Boundary value problems for transverse vibrations in a string of finite length and heat diffusion in a finite rod, Maximum and Minimum Principles, Integral equations: Fredholm and Volterra integral equations of first, second and third kind, conversion of ODEs into integral equations.
Unit 5
Fredholm equations of second kind with separable kernels, Fredholm alternative theorem, eigen values and eigen functions, Method of successive approximation for Fredholm and Volterra equations, Resolvent kernel.
Course outcomes
Course outcomes
CO1: Develops an understanding for the construction of proofs and an appreciation for deductive logic.
CO2: Explore the already familiar properties of the derivative and the Riemann Integral, set on a more rigorous and formal footing which is central to avoiding inconsistencies in engineering applications.
CO3: Explore new theoretical dimensions of uniform convergence, completeness and important consequences as interchange of limit operations.
CO4: Develop an intuition for analyzing sets of higher dimension (mostly of the Rn type) space.
CO5: Solve the most common PDEs, recurrent in engineering using standard techniques and understanding of an appreciation for the need of numerical techniques.