Engineering

This course introduces important mathematical methods required in engineering, such as manipulating vector differential operators, computing multiple integrals, and using integral theorems. A range of ordinary and partial differential equations are solved by a variety of methods and their solution behavior is interpreted. It also introduces sequences and series, including the concepts of convergence and divergence. Topics explored include vector calculus, including Gauss’ and Stokes’ Theorems, sequences and series, Fourier series, Laplace transforms, systems of homogeneous ordinary differential equations, including phase plane and linearization for nonlinear systems, second order partial differential equations, and separation of variables.

Topics covered in this course include polymer matrix, metal matrix, and ceramic matrix composites; nanocomposites; mechanical behaviour of composites; physico-chemical characterisation; fabrication techniques; design with composites; applications; fundamentals of semiconductor physics; material processes used in the fabrication of electronic devices such as single crystal growth, implantation, lithography, etching, and thin film growth; sources of failure and methods of fault diagnosis in devices; and application of dielectric materials in semiconductor devices.

The course provides students with understanding and knowledge of the mechanisms of heat transfer and the methods, analytical and empirical, being used to analyze and predict heat transfer and temperature distributions. Students are also trained to apply the theory on engineering problems. The course covers heat conduction, convection, thermal radiation, condensation, evaporation/boiling, and heat exchangers. The heat conduction part includes general theory, fins as well as transient heating and cooling processes. Convective heat transfer presents the governing equations, similarity laws, forced and free (natural) convection. Laminar as well as turbulent cases are considered for ducts and immersed bodies. The chapter on thermal radiation includes general theory of radiation, black and non-black bodies, grey bodies, view factors, radiative heat exchange between non-black surfaces and gas radiation (participating media). Basic theory of film condensation is presented and influence of various parameters on the condensation process is described. A brief description of dropwise condensation is included. Evaporation and boiling cover pool boiling, forced convective boiling, two-phase flow and heat transfer in ducts and tubes. Empirical correlations are presented. Various types of heat exchangers in engineering applications and their classifications are presented. Theory and methods for design (sizing) and performance evaluation as well as analysis of heat transfer equipment are provided.

Algorithms and data structures are fundamental in computer science. Data structures are used to model reality and the choice of data structures affects the efficiency of algorithms. This course gives students knowledge of advanced data structures for abstract models and advanced graphs. Students also obtain improved knowledge of algorithms, particularly graph algorithms. The course also gives students knowledge of: techniques for analyzing algorithms with respect to performance; graphs and graph algorithms; data structures for graphs; problem solving strategies such as divide and conquer, greedy algorithms and brute force; techniques for analyzing the time complexity of algorithms; introduction to the complexity classes P and NP, computability and the Church-Turing thesis.

This course introduces python programming, software engineering and design techniques to engineering students. It also introduces the use of libraries like SciPy, NumPy and Matplotlib for solving equations (using appropriate numerical methods) and the use of JuPyter Lab notebooks to present calculations.

 

This course provides an overview of supply chain management for engineers from a business and managerial perspective, enabling students to understand what a supply chain is, why it is important, and the challenges in managing the supply chain.

This course provides knowledge of methods for the manufacturing of prototypes from computer-based models. It increases students' understanding of the entire process of direct manufacturing from the creation of computer-based models to their physical realization. The instruction consists of lectures, demonstrations, exercises, and study visits. The theoretical portion of the course covers freeform production and its potential use, and the practical portion provides students with training in the skills involved in freeform production and consists of supervised exercises of gradually increasing complexity.

This course introduces students to instrumentation and data systems for engineers covering error analysis, signal acquisition, and processing.