This course introduces students to an in-depth study of the function and structural moiety of organic macromolecules of biological relevance. Topics to be discussed in this course will revolve around classification of carbohydrates, stereoisomerism in carbohydrates, polyfunctional chemistry of simple sugars, cellulose and its derivatives, enzymatic glycogen hydrolysis, conversion of ATP to ADP, and proteins (Classification, amino acids, peptides, determination of protein structure), nucleic acids, nucleosides, nucleotides, and synthetic polymers.
This course focuses on partial differential equation (PDE) models, which will be developed in the context of modelling heat and mass transport and, in particular, wave phenomena, such as sound and water waves. This course develops students' skills in the formulation, solution, understanding and interpretation of PDE models. Topics include classical theory of partial differential equations together with the modern theory based on functional analysis; systems of partial differential equations, boundary value problems, stability and convergence; applications to the classical problems of mathematical physics.
The course will expose students to preparation of standard reagents and inorganic complexes. Other experiments will focus on determination of heat of combustion, phase rules and concepts related to chemical kinetics. The use of other analytical methods such gravimetric methods, complexometric titrations, electrochemical and spectroscopic methods will be performed.
This course is intended to give students an insight into the principles governing how and why organic chemical reactions take place, as well as, the survey of preparative methods in organic chemistry and their application to the synthesis of complex molecules. It will largely focus on the development of novel synthetic methods and applications of these in target synthesis, most often either natural products or biologically active compounds of pharmaceutical or agrochemical significance. Nucleophilic, electrophilic, elimination and addition reactions will also be covered
This course provides advanced topics in complex analysis such as conformal mappings, and physical applications of conformal mapping. Further topics include analytic continuation and Riemann surfaces, Rouches’s theorem and principle of the argument, mapping properties of analytic functions, inverse function theory, maximum modulus theory, infinite products and gamma function, Sterling’s formula and Bessel’s functions, homotopy and homology theory, and analytic properties of holomorphic functions.
This course serves as an introduction to the field of operations research. It will quip students with scientific approaches to decision-making and mathematical modelling techniques required to design, improve and operate complex systems in the best possible way. Topics include the formulation of linear programming models: goal programming, transportation problem, case study. Further topics are mathematical programming: project planning and control, dynamic programming, integer programming, probabilistic models: application of queuing theory, forecasting and simulation, decision analysis (making hard decisions), and multi-criteria decision making.
Physical Optics shifts the treatment of propagation of light energy along straight-line segments (Geometrical Optics) to that which propagates as a wave and the consequences of the behavior this helps to account for important phenomena such as interference, diffraction and polarization. The course also lays the foundation for an understanding of such devices and concepts as interferometer, thin-film interference, antireflection (AR) coatings. Polarizes, quarter-wave plates. A laboratory component will run concurrently with the theory to provide hands-on experience with handling optical instruments.
This course introduces students to the construction of Green’s functions for boundary value problems. Topics include boundary condition functions for self-adjoint and non-self-adjoint boundary value problems, construction of Green’s functions in terms of boundary condition functions, aymptotic behaviour of boundary condition functions and Green’s functions, and singular self-adjoint boundary value problem.
This course is concerned with the set of physical laws describing the motion of bodies under the action of a system of forces. It describes the motion of macroscopic objects as well as astronomical objects. It enables the student to make tangible connections between classical and modern physics – an indispensable part of a physicist’s education.
This course focuses on traditional algebra topics that have found greatest application in science and engineering as well as in mathematics. Topics include direct product of groups, finite abelian groups, sylow theorem, finite simple groups, polynomial rings, ordered integral domain, extension fields, algebraic extensions, bilinear and quadratic forms, real and complex inner product spaces, the spectral theory and normal operators.