The main aim of this course is the study of the properties and relations of special functions such as gamma, beta, hypergeometric, confluent hypergeometric functions, Bessel functions and generalized hypergeometric functions. Furthermore, the properties, relations and applications of these special functions are also discussed.
Learning Outcomes:
1. Learn basic concepts of special functions.
2. Define gamma, beta and hypergeometric functions and prove some properties involving these functions.
3. Discuss some applications of the gamma, beta function and hypergeometric functions.
4. Define normalization, Bessel's inequality, generating functions, differential equations, recurrence relations.
Course Outlines:
1. The gamma function: definition, relations satisfied by gamma function,
2. Euler's constant, the order symbol o and O, asymptotic representations of the gamma function for large O(z),
3. The beta function: properties, relations,
4. Hypergeometric functions F(a,b:c:z), F(a,b:c:1), the hgypergeometric differential equation,
5. Simple transformations, a Theorem due Kummer,
6. Orthogonal polynomials: simple set of polynomials, orthogonality, the term recurrence relation, the Christofell-Darboux formula, normalization,
7. Bessel's inequality, Legendere polynomials: generating function, differential equation,the Rodrigues formula, recurrence relations, hypergeometric form of Pn (x), orthogonality.
8. Hermite Polynomials: generating function, differential equation, the Rodrigues formula, recurrence relations, orthoganality, definition of Hn(x).
9. Laguerre Polynomials: The polynomials Ln(x), generating functions, Rodrigues formula, the differential equation, orthogonality.
Recommended Books
Suggested Books
Assessment Criteria
Sessional: 20 (Presentation / Assignment 04, Attendance 08, Result Mid-Term 04, Quiz 04
Mid-Term Exam (Term Paper): 30
Final-Term Exam: 50
Monday 11:00am-12:30pm
Wednesday 12:30p.m-2:00p.m