Advanced Mathematical Physics-WithoutTensors

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    Advanced mathematical Physics

    Introduction Complex Numbers ,Vector Analysis Solution of second order differential

    equation with constant coefficients, power series solutions Frobenius method.

    Generating function for Hermite polynomials. Hermite differential equation and

    polynomials, Integral formula for Hermite polynomial, recurrence formula, Rodrigues

    formula, orthogonality of Hermite polynomials. Laguerre differential equations and

    polynomials, Generating function for Laguerre polynomials, recurrence relation, Rodriguesformula for Laguerre polynomials, orthogonality property. Beta and gamma functions:

    symmetry property, evaluation and transformation of Beta function, evaluation of gamma

    function, transformation of gamma function, relation between beta and gamma functions.

    Evaluation of integrals using Beta & gamma functions. Hypergeometric equation,

    Hypergeometric function: Differentiation of hypergeometric function and its integral

    representation , Linear transformations, Representation of various functions in terms of

    hypergeometric functions, confluent hypergeometric functions, representation of various

    functions in terms of hypergeometric functions. Integral transforms, Fourier transforms

    and their properties, convolution theorem for Fourier transforms, Parsevals theorem,

    simple applications of Fourier transforms. Evaluation of integrals, solution of boundary

    value problems. Laplace transforms and their properties, Laplace transform of derivatives

    and integrals. Laplace transform of periodic functions, initial and final value theorem,

    Laplace transform of some special functions, inverse Laplace transforms, Convolution

    theorem

    Text and Reference Books: Mathematical Methods for Physics by George B. Arfken

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    MATHEMATICAL PHYSICS

    Part-I Co-ordinate System and Vectors

    The Co-ordinate system : Orthogonal and non-orthogonal, Right handed and Left Handed Cartesian system,

    Necessity for curvilinear co-ordinate system. Polar, cylindrical and general curvilinear coordinate system.

    Length, area and volume elements in all these systems.

    Vectors : Vector triple product, polar and axial vectors and their examples from Physics. Vectorial equation of

    straight line, plane and circle. Base vector, vector transformations. Scalar and vector fields with illustrations from

    Physics, directional derivative of a scalar field, gradient of a scalar field, divergence and curl of vector fields and

    their physical meaning, Expression for gradient, divergence and curl in curvilinear co-ordinates. Integration,

    important identities. Gauss, Green and Stokes theorems and their applications.

    Part-II Matrices , special functions and Fourier series

    Matrices : Addition law of matrices, matrix multiplication, properties of matrices, special square matrices,

    inverse of matrices, Elementary transformation of matrices similarity, orthogonal and unitary transformation.

    Eigen value, Eigen vector. Solution of simultaneous linear equations. Diagonalisation of matrix.

    Special functions: Beta and Gamma functions, relation between them, recurrence relation for

    gamma function.

    Fourier Series: Fouriers Theorem

    Part-III Differential Equations

    Differential equations and special functions : Ordinary differential equations, Homogeneous equations,

    solutions in power series, series solution of second order, differential equation by the Froebenius method.

    Legendres differential equation, Legendre polynomial, Rodrigues formula, Generating function of Legendre

    polynomial, orthogonal properties of Legendre polynomial, Recurrence relation for Pn(X). Bessels Differential

    Equation and its solution, Bessels function of first kind. Recurrence relation, spherical Bessels function,

    Generating function in connection with Bessells function.

    Part-IV Complex Numbers

    Complex Variables:- Introduction to complex numbers. Algebra of complex numbers. Argand diagram, algebra

    of complex numbers using Argand diagram. Rectangular, polar and exponential forms of complex numbers. De-

    Moivres Theorem (statement only). Trigonometric, hyperbolic and exponential functions. Powers, roots and log

    of complex numbers. Applications of complex numbers to determine velocity and acceleration in curved motion.Cauchy-Rieman conditions and their applications.