MET 2104 Numerical Methods in Meteorology (3CU) Description This course looks at numerical techniques and their applications to solving different problems including interpolation, differentiation, integration and their application to numerical weather prediction. Objectives The course will help the students to achieve the following objectives Describe the different errors used in measurements Understand the concept of finite differences and its applications in numerical techniques Describe the different differential equations and their applications to numerical weather prediction Learning outcomes By the end of the course students should be able to: Calculate the different errors involved in numerical problems and their propagation interpolate different polynomials using numerical techniques Use numerical techniques in differentiation and integration. Use numerical techniques to solve ordinary and partial differential equations Intellectual, Practical and transferable skills Problem solving Analytical communication Teaching and learning patterns The mode of learning involves direct contact with students in form of lectures, Tutorials and assignments Indicative content Errors: Errors and their comparatives, absolute, relative and percentage errors. Finite and Divided Differences: Finite difference operators, tables and interpolating polynomials. Divided differences and divided difference interpolating polynomials. Numerical Differentiation and Integration: Taylor series and finite difference differentiation. Numerical Solution of ordinary differential Equations: Taylor Series, Euler’s and Runge Kutta Methods. Numerical techniques for partial differential Equations: Classification of P.D.Es. Finite difference techniques for parabolic, hyperbolic and elliptic problems. The Crank Nicolson method. Applications to Numerical weather prediction Assessment Method The assessment method is structured to include course work, and final examination. Course work consists of assignments, reports and tests and accounts for 30% of the final grade. The final examination will account for 70% of the final grading Core Reference materials Sastry S.S (2002): Introductory Methods of Numerical Analysis, 3rd Edition Prentice – Hall. Richard L. Burden and J. Douglas Faires (2008): Numerical Analysis 8th Edition., Thomson Brooks/Cole