Bachelor of Applied
Engineering Units Curriculum
Bachelor of Applied
Engineering (Electrical & Electronics)
Curriculum
BAE 401 Advanced
Engineering Mathematics
(9 pt)
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Subject Objective |
This subject provides knowledge of mathematical methods needed for engineering problem solving |
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Learning outcome |
The students develop both their thinking and problem solving skills. Topics covered are: vector, functions of a complex variable; algebra, differential equations, mathematical distribution, and applications of mathematics in engineering calculations. |
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Credit Point |
9 |
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Hours |
216 Hrs |
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Assessment |
Assignment/ Final Examination/Online MCQ Test |
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Contents |
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An Introduction to theory of complex variables |
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Complex numbers |
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Functions |
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Differentiability |
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Integration in the complex plane |
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Integral theorems |
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Power series |
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Introduction of rational functions of trigonometric functions. |
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Continuous distribution |
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Exponential distribution |
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Normal distribution |
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Gamma distribution |
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Convergence in distribution |
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F distribution |
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Discrete distribution |
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Binomial distribution |
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Poisson distribution |
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Elementary linear algebra |
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Algebra in Fn Example problems |
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Geometric meaning of vectors |
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Geometric meaning of vector addition |
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Distance between points in Rn
Length of vector |
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Geometric meaning of scalar multiplication |
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Dot product |
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Cross product |
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System of equation geometry |
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System of equation – Algebric operation |
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Matrice arithmetic |
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Determinants –Basic technique & properties |
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Integration and differential equations |
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List of integrals |
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Introduction to background |
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Theorem of integration |
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Improper integrals |
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Improper integral problems |
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Integration of rational functions |
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Differential equations |
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First order ordinary differential equations |
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Homogenous equations |
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The general linear equations |
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Random variables |
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Simple introduction examples |
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Problems |
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Frequency and distribution functions in 1 dimension |
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Mathematical modelling preliminary |
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Introduction |
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Discrete time model |
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Maths 301 Introduction to Complex Variables |
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The residue Theorem |
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Fourier Transform |
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Integral theorem of complex analysis with applications to the
evaluation of real integral |
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Introduction |
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Integral theorems – The green Theorem |
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Cauchy’s integral theorem |
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Cauchy’s residue theorem |
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Maths 302 Elementary Linear Algebra |
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A formula for the inverse |
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Cramer’s rule |
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Example 6.2.3 , 6.2.4 , 6.2.6, 6.2.7 |
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Rank of a matrix |
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Example 8.2.9 , 8.2.10, 8.3.3 , 8.3.5, 8.3.6, 8.3.7, 8.3.8 |
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Linear independence and bases |
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Linear transformation |
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Constructing the matrix of a linear transformation |
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Linear programming |
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Maths 401 Continuous Distribution |
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X2 Distribution |
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F Distribution |
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F Distribution & “ t “
Distribution |
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Estimation of parameters |
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Maths 402 Discrete Distribution |
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Geometric distribution |
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Pascal distribution |
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Negative binomial distribution |
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Hyper geometric distribution |
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Maths 303 Essential Engineering Mathematics |
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Vectors and matrices |
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Functions and limits , Example problems |
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Calculation of one variable ( Part 1) Differentiation, |
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Calculation of one variable ( Part 1) Integration, |
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Calculus of many variables, |
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Ordinary differential equations, |
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Complex function theory |
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Maths 501 Introduction to probability |
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Theoretical background |
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Playing card |
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Binomial distribution |
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Lotto Example |
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Conditional probabilities –Baye’s formula |
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Maths 501 Linear algebra and matrices |
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Linear transformation matrices |
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Definition 2.1.1 to 2.1.3 |
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i j Entry of product Definition 2.1.8 |
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Rank of matrices |
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Row operations |
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Maths 502 Introductory Finite Difference Method for PDE |
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Partial differential equations. Example problems |
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Taylor theorem |
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Iterative solution methods |
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Jacobi Iteration |
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Gauss Seidel Iteration |
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Successive Relaxation method |
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Maths 601 Random Variables |
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Theoretical results |
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Frequencies and distribution ( 1 dimension ) |
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Function of random variables |
BAE 402 Calculus ( 3 pt)
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Subject Objective |
This subject
provides knowledge of calculus methods needed for engineering applications. |
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Learning outcome |
The students develop both their thinking and problem solving skills. Topics covered are: vector calculus; functions of a complex variable; partial differential equations and boundary value problems; the concepts of quantum mechanics and Schrödinger's equation; and applications of mathematics in engineering calculations. |
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Credit Point |
3 |
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Hours |
72 |
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Assessment |
Assignment/ Test/ Online MCQ Test |
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Contents |
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Calculus 1 a .pdf |
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Differentiation, Example problems |
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Integration, Example problems |
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Simple differential equations, Example problems |
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Calculus 2 a .pdf |
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Integration of trigonometric polynomials |
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Complex decomposition of a fraction between two polynomials |
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Chain rule |
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Calculation of the directional derivatives |
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An overview of integration in the plane and in the space |
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Line integrals |
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Surface integral |
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Green’s theorem in the plane |
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Calculus 2b 1.pdf |
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The range of functions in several variables |
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Line integral |
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Space integral |
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Line integral |
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Calculus 3b. pdf |
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Power series method in solution of problems, Example problems |
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Calculus 3C 1. pdf |
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Sequence in general |
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Calculus 4C 1. pdf |
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Sum function of Fourier series |
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Maths 303 Engineering Mathematics |
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Introduction and background |
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Integration of rational functions |
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Integration of trigonometric functions |
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Differential equations |
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Maths 403 Second Order Differential Equations |
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Power series solutions |
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Bessel equations and Bessel functions |
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Legendre polynomials |
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Differential equations |
BAE 403 Engineering
Mechanics ( 1 pt)
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Subject Objective |
This
subject builds on and brings together the concepts introduced in the
Mathematical and Physical Modelling subjects and in Introduction to
Mechanical and Mechatronics Engineering. |
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Learning outcome |
It is
intended to provide students with a comprehensive overview of elementary
mechanics, and lay the basis for further work in this area in later subjects.
In particular, material discussed in this subject is taken further in Machine
Dynamics and Mechanics of Solids subjects in subsequent stages. |
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Credit Point |
1 |
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Hours |
24 Hr of Lecture+ 48 Hr of Tutorials |
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Assessment |
Assignment/ Test/ Online MCQ Test |
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Contents |
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Stress Example |
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Stress lectures |
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Strain All examples |
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Strain lessons |
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Mechanical properties of materials |
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Mechanical properties of materials |
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Axial members |
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Axial members |
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Torsion of shaft |
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Torsion of shaft |
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Symmetric bending of beams |
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Symmetric bending of beams |
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Deflection of symmetric beams |
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Deflection of symmetric beams |
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Stress transformation |
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Stress transformation |
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Strain transformation |
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Strain transformation |
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Design and failure |
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Design and failure |
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Stability of columns |
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Stability of columns |
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Newton motion One dimensional motion Simple harmonic motion Damped oscillation X (t) = Ar e- rt/l cos (wt –δr) Rotating reference frame equations |
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Modern Mechanics Part 1 |
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Modern Mechanics Part 2 |
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Modern Mechanics Part 3 |
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Modern Mechanics Part 4 |
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Modern Mechanics Part A |
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Modern Mechanics Part B |
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Modern Mechanics Part C |
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ME 301 Applied Mathematics |
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Kinematics |
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Projectiles |
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Forces |
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Resistance forces |
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Resolving forces |
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Rigid bodies |
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Centre of gravity |
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Momentum |
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Energy |
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Circular motion |
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Gravitation and planetary motion |
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The language of vectors |
BAE 404 Engineering
Materials & Thermodynamics ( 3 pt )
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Subject Objective |
Thermodynamics The objectives of this subject are to develop a fundamental
understanding of applied thermodynamics in an engineering perspective,
Strength of materials Strength of materials This subject draws on, and brings together, the knowledge and skills developed in earlier subjects such as Fundamentals of Mechanical Engineering, Chemistry and Materials Science, and Mechanics of Solids. |
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Learning outcome |
Thermodynamics Use thermodynamics effectively in the practice of
engineering, lay the groundwork for subsequent studies in the fields related
to energy systems and increase an awareness and emphasis on energy resources
and environmental issues. Strength of Materials It also prepares students for the more dedicated design subjects to come and exposes them to practical aspects of mechanical engineering design. The objectives are that students should be able to: understand, describe and use the methodology of modelling material properties and behaviour; understand and describe the fundamental differences in the behaviour of different types of materials; understand and describe how and why things fail; realise the importance of material selection in engineering design; predict, or design to avoid, failure given the material, environment and loading conditions; and use analytical skills in stress analysis and knowledge of material properties in mechanical design.. |
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Credit Point |
3 |
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Hours |
72 Hrs |
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Assessment |
Assignment/ Test/ Online MCQ Test |
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Contents |
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Heat Transfer. pdf |
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(1) Heat transfer mode Example
problems |
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(2) Conduction Example problems |
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(3) Convection Example problems |
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(4) Radiation Example problems |
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(5) Heat Exchanger Example problems |
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Theory of waves in materials.pdf |
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Materials-Preliminary |
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Materials- Basic mechanical properties |
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Basic wave phenomena |
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Harmonic waves |
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Elastic volume and shear waves |
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Rayleigh Elastic waves |
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Engineering Thermodynamics |
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General definition |
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Thermodynamics-Working fluids |
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Laws of Thermodynamics |
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Worked Example 3.1 to 3.25 |
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ME434 Wind Turbines |
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Wind Energy |
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Theory of wind energy |
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Wind turbine types and components |
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Wind energy measurement, Wheel encoder
Worked |
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ME634 Pnuematics |
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Principle of pneumatics |
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Linear actuators |
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Flow control |
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Pnuematics sensors |
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Pnuematics symbols |
BAE 405 Advanced
Circuit Analysis ( 3 pt )
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Subject Objective |
In this subject students are assumed to have knowledge of basic devices such as ideal and real voltage and current sources and loads; resistors; capacitors, inductors and coupled coils; diodes and operational amplifiers. |
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Learning outcome |
To have basic circuit analysis skills such as Kirchhoff's current and voltage laws, Thevenin's and Norton's theorems, mesh and nodal analysis, symmetry, circuit transformation and superposition. Using this understanding as a starting point, the subject introduces the basic theoretical models that underpin signals and system analysis |
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Credit Point |
3 |
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Hours |
72 |
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Assessment |
Assignment/ Test/ Online MCQ Test/ Online Simulated Practical |
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Contents |
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DC Circuit Analysis |
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Circuit Theory |
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Modulators |
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Analog, digital signals , electric current, power summary |
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Circuit analysis, electric potential, electric power, sign convection,
electric source, Kirchoffs’ law |
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Circult elements, characteristics KCL, KVL |
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Resistor (Series, parallel, wheatstone bridge, Nodal analysis |
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Nodal analysis, mesh analysis |
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Superposition theorem, Thevenin’s theorem, Norton theorem, Maximum
power transfer theorem, |
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Operational amplifier |
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Inverting amplifier circuit, Summing amplifier, Differential amplifier |
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Capacitor, Op-amp integrator, stored energy |
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Mutual inductance, time constant, transient |
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Transient response of 1 st order circuit, RL transient analysis,
sequential switching |
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RC/RL Circuit , Propogation, Delay, DRAM |
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Semi conductor |
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PN Junction diode |
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Light emitting diode |
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MOSFET |
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Digital signal |
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CMOS Digital circuit |
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Combinational logic circuits |
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Flip flops |
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Propagation delay in timing diagram |
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Integrated circuit fabrication |
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Device isolation methods |
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Interconnected resistance and capacitance |
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Transistor scaling |
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Integrated circuit design for application in communications |
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Small signal amplifiers |
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Network noise intermodulation distortion |
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CAD for noise analysis |
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Snsors & Detectors |
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Low noise design methodology |
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Oscillators |
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Modulators and demodulators |
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Concepts in Electrical Circuit |
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Circuit theorem |
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Sinusoids & phasors |
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Frequency response EE303 Engineering Circuit Analysis Basic circuits Basic Nodal and Mesh analysis Linear and Superposition/ Source Transformation RL/ RC Circuits RLC Circuits Sinusoidal steady state analysis AC Power Circuit Analysis Polyphase Circuits Magnetically coupled circuits Complex Frequency / Laplace Transform Laplace Transform Circuit analysis in “ S “ domain Pole/ Zero constellation Frequency Response Two ports network Fourier Circuit Analysis Use of symmetry theory |
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EE404 Electrical Measurement ( 1 pt ) |
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Measurement of inductance and capacitance |
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Measurement of resistance |
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Magnetic measurement |
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High voltage measurement and tesating |
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Location of cable fault |
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Measurement of power |
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Measurement of energy |
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BAE 406
Electro-mechanics ( 2 pt )
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Subject Objective |
The objectives of this subject are to consolidate fundamental knowledge of electric and magnetic fields; electric and magnetic circuits; how electric, magnetic and electromagnetic energy are interchanged; |
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Learning outcome |
To model an electromechanical automation system using DC and AC motors and simulate its performance in open-loop and closed-loop control. Students also acquire skills in working with machines and equipment at normal mains supply voltage, in power instrumentation and control, PLCs and in experimental design and recording. Technical and theoretical content is expected to be acquired by students to the levels of 'know' (essential), 'familiar' (can solve problems if required) and 'aware' (have read/seen). Laboratory skills, ranging from electrical safety, measurements, design validation and experimental verification are an important focus of this subject. |
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Credit Point |
2 |
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Hours |
48 |
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Assessment |
Assignment/ Test/ Online MCQ Test/ Online simulated Practical |
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Contents |
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Electro-mechanic -1.0.1 Scope of application 1.1 Electro-magnetic
theory 1.1.1a Magnetic field system, Table 1.1 1.1.1.b Electric field system
Table 1.2 |
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Lumped electro-mechanical elements |
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Lumped parameter-electro-mechanic |
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Rotating machines |
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Lumped parameter-electro mechanical dynamics EE 502 Electrical Machines
ME 301 Machine Principle
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BAE 407 Advanced
Electro-magnetics Field & Materials ( 1 pt)
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Subject Objective |
The objectives of this subject are to consolidate fundamental knowledge of electric and magnetic fields; electric and magnetic materials |
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Learning outcome |
To understand how electric, magnetic and electromagnetic energy are interchanged. |
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Credit Point |
1 |
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Hours |
24 + Tutorial 2 hr/ week |
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Assessment |
Assignment/ Test/ Online MCQ Test |
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Contents |
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Electric field |
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Electrostatic potential |
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Dipole and quadrature pole movements |
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Batteries, resistors, ohm laws |
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Capacitors |
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Magnetic effect of an electric
current |
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Force on current in a magnetic field |
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Electro-dynamics of moving bodies |
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Magnetic potential |
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Electro-magnetic Induction |
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Dimensions |
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Properties of magnetic materials |
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Alternating current |
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Laplace transform |
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Maxwell Equation |
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CGS Electricity & Magnetism |
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Magnetic dipole movement |
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Outlines |
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Electric field |
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Electrostatic Energy |
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Laplace’s equation (1) |
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Laplace’s equation (2) |
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Remarks on units |
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Green’s functions |
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Multipole expansion |
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Electro-static in matter |
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Boundary condition |
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Magneto statics (1) |
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Magneto statics (2) |
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Macroscopic magneto statics |
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Maxwell’s equation |
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DISC movement |
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Electro-magnetic plane waves |
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Reflection & refraction |
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Casual relation between D & E |
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Wave guides and load cavities |
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Electromagnetic radiation and
scattering (1) |
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Electromagnetic radiation and
scattering (2) |
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Scattering by small di-electric
sphere |
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Electro-magnetism |
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Electro magnetic fields and moving
charges |
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Multipole expansion |
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Magnetic constants and materials |
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Ampere law |
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Brief history of electro magnetism |
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Gauss’s law |
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Numerical solutions to Laplace’s
equation |
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Small current loop |
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Curvilinear co-ordinate system |
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Problems |
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Dielectric tensors and constants |
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Analytic solution to Laplace equation |
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Magnetostatic boundary condition |
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Electrostatic boundary condition |
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Electromagnetic field |
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The gradient vector |
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Maxwell’s equation |
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Electro-magnetic wave propagation |
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BAE 407 Advanced Electro-magnetic Field
& Materials |
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Electro dynamics |
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Introduction to electro statics |
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Boundary value problems in electro
statics (1) |
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Boundary value problems in electro
statics (2) |
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Multi-poles Macroscopic media
–Dielectrics |
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Static and stationary magnetic fields |
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Maxwell’s equations |
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Plane wave and wave propogation |
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Wave guides and cavities |
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Radiation |
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The special theory of relativity |
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Particles and field dynamics |
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Charged particle collisions-Energy
loss, Scattering |
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Radiation by moving charges |
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BAE 407 Advanced Electro-magnetic
Field& Materials
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EMFT book.pdf |
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Summary of electro statics |
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Potential |
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Electro-magnetics waves |
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Classical optics |
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Conservation Law |
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Conservation Law |
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Conservation Law |
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Generic wave |
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Electromagnetic waves in vacuum |
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Electromagnetic waves in matter |
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Electromagnetic waves in conductor |
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Electromagnetic waves propagation |
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Electromagnetic waves field |
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Wave guides |
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Electromagnetic waves radiation |
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Electro-dynamics |
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Frequency |
EE407
Electro-magnetism
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Di-electric materials and capacitance |
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Transmission Lines |
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Maxwell’s equations and
electro-magnetic waves |
Electrostatics
Di-electric
Transmission Line
Maxwell Equation
BAE 408 Analogue &
Digital Electronics ( 5 pt )
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Subject Objective |
Analogue The main objective of this subject is to familiarise
students with basic electronic circuits, mainly with op-amps as active
elements, and their applications. Digital The objectives of this subject are to enable students to master the fundamentals of digital and programmable electronic circuits and their engineering applications; master the hardware architecture of a typical small computer system; and understand the principles of low-level programming and gain an ability to write simple assembly code. |
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Learning outcome |
Analogue By the end of the subject, students should have acquired
reasonable proficiency in the analysis of basic electronic circuits and be
able to build and test circuits in the laboratory. Particular emphasis is
placed on the practical, hands-on aspect of electronics to provide a solid
foundation of working knowledge for basic analog electronic circuits using
op-amps. Laboratory work is a significant proportion of in-class delivery so
as to make students proficient in circuit construction, testing,
troubleshooting and to give them a sound knowledge of the use of test
instruments. Another objective is to show that practical electronic
applications are relevant to other engineering and technical disciplines and
may often be placed within a wider social or commercial context. Digital Students are introduced to the basics of concurrent and real-time application programming. Topics include digital sequential circuits; state diagram and its application in the design of digital circuits; basic hardware architectures of the digital computer in terms of its building blocks; how hardware integrates with software at the machine level; low-level language programming; internal architecture and design of a typical register-based central processing unit and a main memory subsystem, and their interdependence; concepts of computer system buses, as well as different types of input and output devices; interrupts; input and output; micro-controller theory; and hardware interfacing design techniques. |
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Credit Point |
5 |
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Hours |
120 |
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Assessment |
Assignment/ Test/ Online MCQ Test/ Online Simulated Practicals |
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Contents |
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Semi conductor devices |
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Digital circuits |
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Power Electronics Converters
Introduction
to Electronic Engineering
Power Electronics &
Applied Electronics
Digital
System
Digital
Signal Processing
Digital
Image Processing
Electronics Circuits
Power Electronics Control
Digital
System
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Number system basics |
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Introduction to logic gates |
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Combinational logic |
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Karnaugh map |
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Arithmetic circuit |
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Coders/ Multiplexers |
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Counters |
Digital Signal Processing
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Signal system representation |
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Fourier/ Z Transform |
|
Discrete Fourier Transform |
|
Principle of filter design |
|
FIR filter design |
Digital Image Processing
|
Introduction |
|
Intensity transformation &
spatial filtering |
|
Filtering in frequency domain |
|
Discrete Fourier Transform |
|
Butterworth Low Pass Filter |
|
Butterworth High Pass Filter |
|
Image restoration / Noise analysis |
Digital Image Processing
|
Introduction |
|
Intensity transformation &
spatial filtering |
|
Filtering in frequency domain |
|
Discrete Fourier Transform |
|
Butterworth Low Pass Filter |
|
Butterworth High Pass Filter |
|
Image restoration / Noise analysis |
BAE 501 Advanced Power
Systems & Power Transmission Networks ( 3pt)
|
Subject Objective |
The subject introduces the basic methods used in the analysis and design of electric power networks. |
|
Learning outcome |
Its purpose is to give students a working knowledge of modern power system theory and practice. Techniques introduced in earlier circuit analysis subjects are further developed and applied to power system problems. |
|
Credit Point |
3 |
|
Hours |
72 |
|
Assessment |
Assignment/ Test/ Online MCQ Test/Online simulated practicals |
|
Contents |
|
Principle of Power System
|
Source of energy |
|
Steam power station |
|
Hydro power station |
|
Diesel power station |
|
Nuclear power station |
|
Gas turbine power station |
|
Variable load on power station |
|
Interconnected grid system |
|
Economic of power generation |
|
Importance of high load factor |
|
Tariffs |
|
PF improvement |
|
Supply system |
|
Mechanical design of OH line |
|
Corona |
|
Sag |
|
Electrical design of OH line |
|
Performance of transmission line |
|
Line generalised constants |
|
UG cable |
|
Capacitance in 3 core cable |
|
Distribution system |
|
DC Distribution |
|
DC System |
|
AC Distribution |
|
Voltage control |
|
Introduction to switch gear |
|
Circuit breaker |
|
Fuse |
|
Relays |
|
Protection transformers |
|
Substation |
Advanced Power System –Power
Transmission Network
|
Consequence of power quality |
|
Power quality & applications |
|
Power quality analysis |
|
Power quality monitoring |
|
Management, control and automation of
power quality improvement |
Electrical generation and
distribution system and power quality disturbances
|
Integration of hybrid distribution
units in power grid |
|
Optimal location and control of multi
hybrid model based wind shunt facts to enhance power quality |
|
Power quality and voltage sags indices in electrical power
systems. |
Power Transmission Line
|
AASR Conductors |
|
ARC Fault |
|
Circuit breaker rating |
|
Current transformer |
|
Electrical bushing |
|
Electrical fuse |
|
Induction motor model |
|
IP rating |
|
Load factor |
|
Load redundancy |
|
Over current protection |
|
Partial discharge |
|
Per unit system |
|
Phase conversion |
|
Resonance |
|
RL Switching |
|
Sequence network |
|
Short circuit calculation |
|
Symmetrical component |
|
Transformer impedance |
Power Transmission Line 2
|
AC Power Transmission |
|
Insulation Resistance test |
|
Dry type transformer |
|
Electrical software |
|
Insulation resistance test |
Electrical Power Generation System
|
Designing for high temperature and
pressure |
|
Turbine components |
|
Burning of fuel |
|
Facts about fuel |
|
Burning gas and oil |
|
Selecting fuel |
|
Water treatment |
|
Heat exchanger |
|
Computer control |
|
System economics |
Power System
|
Transmission & distribution
system |
|
Control of power and frequency |
|
Control of voltage and reactive power |
|
Load flow |
|
Faults |
|
System stability |
|
Over voltage and insulation
requirement |
|
Substations and protection |
Electrical Power
|
Power line |
|
Neutral earthing |
|
Switch gear |
|
Instrument |
|
Protection |
|
Power system |
|
Generator response to system faults |
|
Calculation of fault current |
|
Symmetrical components |
|
Commissioning electrical plant |
Power System Technology
|
Power system fundamental |
|
Modern power system |
|
Power control devices |
|
Operational control system |
|
Power conversion |
|
Specialised testing & measurement
devices |
Generation , Transmission and
Distribution of Electric Power
|
Voltage transient and line surge |
|
Transmission of electrical energy |
|
Corona |
|
UG Cable |
|
Voltage drop in distribution |
|
Regulation |
|
Line and machine chart |
|
Voltage regulation stability |
|
Fault calculation in line |
Electrical Power Distribution in
Industry & Transmission (Electrical Distribution Engineering)
|
Planning & design |
|
Electrical design |
|
Mechanical design (Over head) |
|
Mechanical design (Under ground) |
|
Metering |
|
Conductor inductance &
capacitance |
Power Transmission and Practical
Power Distribution
|
Electric power system |
|
Percentage and per unit quantities |
|
Circuit constants |
|
Assemblies of power system components |
|
Power circuit stability |
BAE 502 Linear System ( 1 pt )
|
Subject Objective |
This subject presents the theoretical basis for system analysis and gives students skills in using the techniques to design components of linear control systems.. |
|
|
|
Learning outcome |
To do the design and
implementation of part of a control/communication system To apply their knowledge to a real-life problem. Topics include signal types and their representation in the time and frequency domains; modelling systems with differential or difference equations and transforms of the equations; signal operations and processing; the relationship between discrete and continuous quantities and the mathematical techniques applicable to each; the effects of feedback; time and frequency domain performance of systems; system stability; and control design techniques and simple communication systems. Through learning activities students also gain study skills, including academic literacy skills, and an appreciation of the different fields of practice of engineering and the interdisciplinary nature of engineering. |
|
|
|
Credit Point |
1 |
|
|
|
Hours |
24 |
|
|
|
Assessment |
Assignment/ Test/ Online MCQ Test |
|
|
|
Contents |
|
|
|
|
Controllability of linear control
system |
|
||
|
Finite dimensional linear control
system |
|
||
|
Linear partial differential equations |
|
||
|
Introduction to intelligent control
system with high degrees of autonomy |
|||
|
Overview of field |
|||
Control system
|
System identification |
|
Digital and analog |
|
System metrics |
|
System modelling |
|
Classical control |
|
Transform |
|
Transfer functions |
|
Sampled data system |
|
System delays |
|
Poles and zeros |
|
Modern control |
|
State space equation |
|
Linear system solution |
BAE 503 Control System ( 4 pt )
|
Subject Objective |
The objective of this subject is to enable students to model with validation control systems and to analyse, design and implement both analog and digital controllers so that the controlled systems conform with given specifications |
|
|
Learning outcome |
Emphasis is placed on laboratory work, the theoretical
content of the subject being only that required to produce successful
designs. To work on reduced
scale models of actual industrial processes. The equipment is based upon
experience gained with authentic control applications and is suitably
modified for student use. To follow the usual sequence adopted in industry, i start with the calibration of transducers and actuators leading on to dynamic response testing, physical modelling, model verification and finally to controller design, implementation and testing. |
|
|
Credit Point |
4 |
|
|
Hours |
96 |
|
|
Assessment |
Assignment/ Test/ Online MCQ Test/ Programmable Control Program software applications |
|
|
|
Topics include linear and nonlinear modelling of control systems using Newton's rules, analogous networks or Lagrangian techniques; linearisation and development of linear, time-invariant transfer functions; development of lead-lag compensators or PID controllers using classical control design techniques such as root locus, Bode gain and phase diagrams, Nyquist plots and Nichols chart; development of state-variable equations from differential equations; development of state-variable feedback controllers and state observers; open-loop pulse transfer functions and discrete-time state models; discretisation using backward difference, bilinear, step-invariance or pole-zero mapping; development of digital PID controllers, deadbeat controllers and discrete-time state-variable feedback controllers; describing functions and limit cycles for nonlinear control systems; and the development of linear controllers for nonlinear systems using describing function techniques. |
|
|
Contents |
|
|
|
Gain |
|
|
|
Block diagram |
|
|
|
Feedback control loop |
|
|
|
Bode plot |
|
|
|
Nichol chart |
|
|
|
Stability |
|
|
|
Stability |
|
|
|
Routh Hurwitz Criterion, Root Locus |
|
|
|
Nyquist Criterion |
|
|
|
State Space Stability |
|
|
|
Controllers & Compensators |
|
|
|
Controllability & Observability |
|
|
|
System Specifications |
|
|
|
Controllers, Compensators |
|
|
|
Z -
Transform |
|
|
Non Linear Control Applications
|
Application of input/ output
linearization |
|
Non linear control for 2 stages PF
correction converter |
|
Non linear observer based control
allocation |
Control Engineering MATLAB
|
Transfer functions and their
responses |
|
Frequency response/ Plotting |
|
Closed loop control |
|
Controller design |
Feedback and Control System
|
Introduction to linearized dynamic
model |
|
Transfer function model of physical
systems |
|
Transient performance / S- Plane |
|
Feedback system modelling /
Performance |
|
Dynamic compensation of feedback system |
PID Control
Application of PID controllers in motor drive system
Applications of Non Linear Control
|
Introduction |
|
Phase plane method |
Process Control
|
Analog Signal Conditioning |
|
Digital Signal Conditioning |
|
Final Control |
|
Discrete State Control |
|
Controller Principle |
|
Analog Controller |
|
Digital Controller |
|
Control Loop Characteristics |
Numerical Control
|
Introduction to numerical control
machinery |
|
Numerical control system |
|
Programming co-ordinates |
|
Two axis programming |
|
Three axis programming |
|
Maths for numerical control
programming |
BAE 504 Power System
Analysis ( 1 pt )
|
Subject Objective |
The primary objective of this subject is the development of a working knowledge of power systems analysis and design. |
|
|
Learning outcome |
Emphasis is placed on the derivation of equivalent circuits, mathematical models of devices and the system, and on methods of analysis and measurement. Material covered includes electricity supply chain building blocks, system analysis, real/reactive power and load flow analysis, dynamic and transient stability. |
|
|
Credit Point |
1 |
|
|
Hours |
24 |
|
|
Assessment |
Assignment/ Test/ Online MCQ Test |
|
|
Contents |
|
|
|
Overview |
||
|
Real & Reactive power injected
bus |
||
|
Classification of buses |
||
|
Classification of buses |
||
|
Preparation of data for load flow |
||
|
Load flow by Gauss Seidel method |
||
|
Updating load bus voltage |
||
|
Updating PV bus voltage |
||
|
Convergence of the algorithm |
||
|
Solution of a set of non linear
equation by Newton Raphson method |
||
|
Load flow by Newton Raphson method |
||
|
Load flow algorithm |
||
|
Formation of Jacobian matrix |
||
|
Formation of Jacobian matrix |
||
|
Solution of Newton Raphson load flow |
||
|
Load flow results |
||
|
Load flow results |
||
|
Load flow programs in MATHLAB |
||
|
Forming Y bus matrix |
||
|
Gauss Seidel Load Flow |
||
|
Solving non linear equation using
Newton Raphson method |
||
|
Newton Raphson load flow |
||
Power System Analysis
|
Transformer |
|
Transmission line model |
|
Gauss Seidel Algorithm |
|
Newton Raphson Iteration |
|
DC Power Flow Algorithm |
|
Modelling |
|
Transient Stability |
Power System Analysis
|
Power Apps Transient Stability
validiation document for single pole open/ close simulation |
|
(Power flow analysis + FAULT ANALYSIS +
Power system dynamics and Stability) |
|
Static Analysis |
|
Introduction |
|
Network model |
|
Active & reactive power flow |
|
Nodal formation of power flow problem |
|
Basic power flow problem |
|
Solution of power flow problems |
|
Fault analysis |
|
Power system dynamics and stability |
|
Synchronous machine model |
|
The swing equation |
|
Power swing in simple system |
|
Oscillation in multi machine system |
|
Voltage stability |
|
Control of reactive power voltage |
BAE 505 Power System
Optimization ( 1 pt )
|
Subject Objective |
The primary objective of this subject is the development of a working knowledge of optimal power systems operation. |
|
|
Learning outcome |
The subject aims to provide students with a knowledge and understanding of elements of the supply chain and how they function in the National Electricity Market; demand-side management options including smart meters; load forecasting and optimal load scheduling for secure energy supply and use; protection schemes for transmission and distribution networks; communications in power systems, including communication media, architectures, automation, standards, protocols and security; and basic design, connection and standards of current and voltage instrument transformers for protection and metering applications. |
|
|
Credit Point |
1 |
|
|
Hours |
24 |
|
|
Assessment |
Assignment/ Test/ Online MCQ Test |
|
|
Contents |
|
|
|
Introduction |
||
|
Power Flow Analysis |
||
|
Classic Economic Dispatch |
||
|
Linear programming method |
||
|
Mathematical model of economic dispatch |
||
|
Linear programming model |
||
|
Optimization of power system
performance using facts devices |
||
|
Optimization of dynamical system Matrix Eigen Value Method |
||
BAE 506 Power System
Stability & Protection ( 2 pt)
|
Subject Objective |
The primary objective of this subject is the development of a working knowledge of power systems operation and protection. The subject aims to provide students with a knowledge and |
|
|
|
Learning outcome |
To provide the understanding of elements of the supply chain and how they function in transmission and distribution networks; communications in power systems, basic design, connection and standards of current and voltage instrument transformers for protection and metering applications. |
|
|
|
Credit Point |
2 |
|
|
|
Hours |
48 |
|
|
|
Assessment |
Assignment/ Test/ Online MCQ Test/ Simulated Online Practical |
|
|
|
Contents |
|
|
|
|
Transient in RL circuit |
|||
|
Symmetrical fault |
|||
|
Transient in RL circuit |
|||
|
DC Source |
|||
|
AC Source |
|||
|
Faults in AC Circuit |
|||
|
Short circuit in unloaded synchronous
generator |
|||
|
Symmetrical faults in power system |
|||
|
Calculation of fault current using Z
bus matrix |
|||
|
Circuit breaker selection |
|||
|
Symmetrical components &
representation of faulted network |
|||
|
Overview |
|||
|
Overview |
|||
|
Real & reactive power |
|||
|
Real & reactive power |
|||
|
Orthogonal Transformation |
|||
|
Sequence circuit for star load |
|||
|
Sequence circuit for delta load |
|||
|
Sequence circuit for synchronous
generator |
|||
|
Sequence circuit for symmetrical
transmission line |
|||
|
Sequence circuit for transformer |
|||
|
Star/ Star Connected Transformer |
|||
|
Delta/Delta Connected Transformer |
|||
|
Star/ Delta Connected Transformer |
|||
|
Sequence Network |
|||
|
Un- symmetrical Faults |
|||
|
Introduction |
|||
|
Single line to ground fault |
|||
|
Line to line fault |
|||
|
Two lines to ground fault |
|||
|
Fault current computation using
sequence network |
|||
|
Transient Stability |
|||
|
Introduction |
|
||
|
Power angle relationship |
|
||
|
Swing equation |
|
||
|
Equal area criterion |
|
||
|
Equal area criterion |
|
||
|
Multi machine stability |
|
||
|
Oscillation in “ S “ Two areas System |
|
||
|
Compensation of power transmission |
|
||
|
Introduction |
|
||
|
Ideal shunt compensator |
|
||
|
Improving voltage profile |
|
||
|
Improving power angle characteristics |
|
||
|
Improving stability margin |
|
||
|
Improving damping power oscillations |
|
||
|
Ideal series compensator |
|
||
|
Impact of series compensator for
voltage profile |
|
||
|
Improving power angle characteristics |
|
||
|
Improving power angle characteristics |
|
||
|
Alternate mode to voltage injection |
|
||
|
Alternate mode to voltage injection |
|
||
|
Comparison of two modes of operation |
|
||
|
Power flow control and power swing
damping |
|
||
Power System Protection
|
Different types of relays and
settings |
||||||||||||||
|
·
Technical
feasibility of various options ·
Cost of
options ·
Type of
transmission AC/DC ·
Number
of circuits ·
Conductor
type ·
Transmission
loss ·
Reactive
power support requirements ·
Reliability
·
Quality
of power supply ·
Stability
aspects of the interconnected system ·
Operational
planning ·
Short
circuit levels and breaker requirements ·
over
voltages and control ·
Insulation
coordination at substations ·
Substation
arrangements at the end of line, including switching arrangements. ·
Insulation
requirements. ·
Protection,
monitoring, control and automation requirements ·
Study
of harmonics where needed [as in case of HVDC or when a terminating station
is close to sources of harmonics] ·
Basic
and Detailed engineering related to transmission towers, routes, substations
Power system stability |
||||||||||||||
|
Power system stability Guidelines |
||||||||||||||
|
Power system stability guidelines for
determination and report |
||||||||||||||
|
Direct stability analysis of electric
power system using energy functions |
||||||||||||||
|
Power system stability –New
opportunity for control |
||||||||||||||
|
Typical power quality and harmonic
measurement plots |
||||||||||||||
|
Robust power system stabilizer design
using particle swarm optimisation techniques |
||||||||||||||
|
Harmonic analysis |
Power Quality
|
Power quality |
|
|
Electrical protection for power system |
|
|
Substation automation |
|
|
Introduction to power quality |
|
|
Harmonic model of transformer |
|
|
Substation automation |
|
|
Modelling analysis of synchronous
machines |
|
|
Life time reduction |
|
|
Power system modelling under non
sinusoidal condition |
|
|
Impact of power quality on
reliability |
|
|
Role of filters in power system |
|
BAE 507
Electro-mechanical Energy Conversion ( 2 pt )
|
Subject Objective |
The objectives of this subject are to enable students to: acquire an understanding of the nature of power semiconductor devices and their control and use in switch-mode; |
|
|
Learning outcome |
To understand the arrangement and topology of the circuits in which switch-mode devices are used; appreciate the use of power electronic circuits in high-power applications such as motor drives; be aware of the electromagnetic interference problems associated with power electronic systems; use commercial software for the rigorous circuit analysis of real power electronic systems; analysis and design circuits to meet specific specifications; and fabricate basic power electronic circuits such as a chopper. |
|
|
Credit Point |
2 |
|
|
Hours |
48 |
|
|
Assessment |
Assignment/ Test/ Online MCQ Test/ Simulated online practical |
|
|
Contents |
|
|
|
Basic semiconductor physics |
|
|
|
PN Junction semiconductor |
|
|
|
Power switching devices |
|
|
|
Electrical rating of switching
devices |
|
|
|
Cooling |
|
|
|
Load/ switch communication |
|
|
|
Driving semiconductor & thyristor |
|
|
|
Protecting diode / Thyristor/
Transistors |
|
|
|
Switching circuit energy recovery |
|
|
|
Series , parallel devices operation
protection |
|
|
|
Naturally commutating converter |
|
|
|
AC Voltage Regulator |
|
|
|
DC choppers |
|
|
|
Power inverters |
|
|
|
Switched mode & resonant DC-DC
power supplies |
|
|
|
Capacitors |
|
|
|
Soft magnetic materials |
|
|
|
Resistors |
|
|
Motor Control Electronics
|
AC Induction motor control |
|
Motor control MCU |
|
Networking for motor control system |
|
DC motor control design |
|
Motor control electronic devices |
|
Power semi conductors |
Mechatronics/ Robotics
|
Robotics Application |
|
Robotic Gears |
|
Interfacing |
|
Robotic Sensors |
|
Communication |
BAE 508 Industrial
Engineering & Industrial Management (1 pt )
|
Subject Objective |
To work effectively in industry as middle level managers |
|
Learning outcome |
To acquire the introductory skills in business information system, engineering management, supervision, quality control, manufacturing management , human resources management, budgeting, operation and managerial decision making. |
|
Credit Point |
1 |
|
Hours |
24 |
|
Assessment |
Assignment/ Test/ Online MCQ Test |
|
Contents |
|
Effective management
decision making
Introduction
Business Information
System
Defining Information System
Acquiring Information System
Developing Information System
Managing Human
Resources in 21 Century
Human resources Management
Management Basics
The Manager’s Job
Planning in Organization
Operation Management
Operation Strategy
Work System Design
Project Management
Inventory Management
Quality Management
Leadership in Quality Management
Strategic Quality Management
Implementing Quality Management
Strategic Financial
Management
Finance An Overview
Capital Budgeting
Equity Valuation & Cost of Capital
Strategic Management
The Basic of Strategy
The Levels of formulation of strategy
External analysis
Internal analysis
Strategy implementation
Understanding
organization part 1
Organization structure
Organization culture
Managing behaviour
Effective leadership
Part (2) Competency
Units
Mgt 501
Basic Management & Communication
Skills ( 1 pt)
Textbook
– Mgt 501 Management Basics
Chapter
(1) Management basics
Chapter
(3) Planning
Chapter
(5) Organizing
Chapter
(6) Organizing the organization
Chapter
(7) Leading
Textbook—Mgt501
Management Briefs
Chapter
(2) Leadership
Chapter
(5) Motivation
BAE
601 Computer Programming ( 3 pt )
|
Subject Objective |
This subject provides basic skills in Java/ C/C++/C# programming and software design, |
|
Learning outcome |
To acquire the skill practice in object-oriented (OO) programming concepts,
data flow, control flow, arrays, and the basics of sorting and searching
algorithms. To illustrate a design process using a set of design notations and design rules, and shows how to develop a correct, readable and reusable solution from a problem specification. |
|
Credit Point |
3 |
|
Hours |
72 |
|
Assessment |
Assignment/ Test/ Online MCQ Test/ Programming software application |
|
Contents |
|
Part (1) Overview
Knowledge of the subject
Select any of the following textbooks
IT 401
Object Oriented Programming ( 1 pt)
IT 402
Structured Programming ( 1 pt)
IT 403 Visual Basic Programming ( 1 pt)
BAE
602 Computer Network ( 1 pt )
|
Subject Objective |
The objectives of this subject are to introduce students to the basic concepts and terminology used in telecommunication networks and a system-level view of network operation. |
||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
|
Learning outcome |
To understand the evolution of telecommunication networks; services and applications (voice, video, data, location-based services, multimedia, gaming, etc.); network protocols (TCP/IP, OSI); transmission and switching basics; transmission media; access networks; PSTN; internet (dial up, broadband, ISP); network security; mobile networks (2G, 2.5G, 3G, 4G); data networks (LANs, wireless LANs, WANs, SANs, PANs, enterprise networks); VoIP networks; and convergence in telecommunication networks, next generation networks (NGN) and digital identity in networks. |
||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
|
Credit Point |
1 |
||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
|
Hours |
24 |
||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
|
Assessment |
Assignment/ Test/ Online MCQ Test |
||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
|
Contents |
|
||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
|
Computer Network |
|
||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
|
Peer to peer networking |
|
||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
|
Client server networking |
|
||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
|
Network hardware |
|
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Network cable |
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Hub |
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Wired network |
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Wireless network card |
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Firewall |
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Wiring the network |
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Wiring the network |
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Running the network program |
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Viewing network connection |
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Network set up on additional
computers |
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Viewing network connection
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BAE 603 Software
Engineering ( 2 pt )
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Subject Objective |
This subject introduces students to the fundamentals of contemporary software engineering. |
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Learning outcome |
To overview of the agile and non-agile software
engineering principles, methods, tools and techniques is presented. Current
trends and challenges in the practice of software engineering are explored. To apply contemporary agile requirements analysis, planning, architecture, design, implementation and testing practices to software engineering project work in small teams. |
|
|
Credit Point |
2 |
|
|
Hours |
48 |
|
|
Assessment |
Assignment/ Test/ Online MCQ Test/ Software Design Practice |
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Contents |
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Introduction |
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Software process |
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Feasibility study |
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Project management |
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Documentation, Requirement analysis |
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Requirement specification |
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Business/ Legal aspect |
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Source code management |
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Formal specification |
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Object oriented design 1 |
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Object oriented design 2 |
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Object oriented design 3 |
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System Architecture 1 |
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System Architecture 2 |
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System Architecture 3 |
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Design for utility |
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Performance of computer system |
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Coding standard/ Tools for designing
1 |
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Dependable system 1 Reliability |
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Dependable system 2 Validation |
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Law aspect |
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Risks in software engineering |
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Software engineering as engineering |
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Nano Technology
|
What is Nano technology? |
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Motivation for Nano technology |
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Scaling laws |
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Nano technology |
BAE
604 Telecommunication Engineering ( 2 pt )
|
Subject Objective |
On completion of this subject, students have learned the skills to systematically analyse network operations and performance, and also have the ability to appreciate approaches in designing communication and computer networks. |
|||
|
Learning outcome |
To understand the communication architecture. To provide the necessary background in understanding operations of TCP/IP, the mostly widely implemented protocol stack in computer networks, on a layer-by-layer basis. |
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|
Credit Point |
2 |
|||
|
Hours |
48 |
|||
|
Assessment |
Assignment/ Test/ Online MCQ Test |
|||
|
Contents |
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|
Communication fundamental |
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Information & bandwidth |
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Amplitude modulation transmission |
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Amplitude modulation reception |
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Single side banded communication |
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Frequency modulation –Transmission |
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Frequency modulation –Reception |
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Communication Techniques |
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Communication Receivers |
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Pulse Modulation |
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Code transmission |
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ISDN |
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Transmission lines |
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Wave propagation |
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Antenna |
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Fibre optics |
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Data Communication
|
Overview of data communication |
|
Data terminals |
|
Massage and transmission channels |
|
Asynchronous modems and interfaces |
|
Synchronous modem and digital transmission |
|
Protocol and error control |
Electronics Telecommunication
|
RF Transmission |
|
Transmission Lines & Antennas, Video signals |
|
|
BAE 605 Engineering
Management ( 5 pt )
|
Subject Objective |
To work effectively in industry as middle level managers |
|
Learning outcome |
To acquire the advanced skills in business information system, engineering management, supervision, quality control, manufacturing management , human resources management, budgeting, operation and managerial decision making. |
|
Credit Point |
5 |
|
Hours |
120 |
|
Assessment |
Assignment/ Test/ Online MCQ Test+ Submission of engineering design project ( Minor thesis) |
Part (1) Overview
Knowledge of the subject
Completion of BAE 508 Overview also
completes BAE 605 Overview
Part (2) Competency
Units
Mgt 502
Operation Management ( 1 pt)
Mgt 503
Production & Operation Management ( 1 pt)
Mgt 504
Project Management ( 1 pt)
Mgt 505
Quality Management and Manufacturing Engineering ( 1 pt)
Mgt 506 Strategic Financial Management ( 1 pt)
Mgt 502 Operation Management ( 1
pt)
Product
design and process selection
Total
quality management
JIT &
Lean System
Capacity
planning
Mgt 503 Production &
Operation Management ( 1 pt)
Planning
production
Managing
inventories-Material requirement planning
Manufacturing
Dealing
with technology and design
Operation
strategy
Mgt 504 Project Management ( 1
pt)
Project
management
Project
organization
Project
plan
Progress&
performance measurement
Risk
management
Documentation/
Audit/ Closure
Mgt 505 Quality Management and
Manufacturing Engineering ( 1 pt)
Background
Why
quality management
Standards
and models
Progress&
performance measurement
Strategic
quality management
Documentation/
Audit/ Closure
Mgt 506 Strategic Financial
Management ( 1 pt)
Capital
budgeting
Treatment
of uncertainty
Debt
valuation and cost of capital
Capital
gathering & cost of capital
BAE 606 Building
Service Electrical & Mechanical Engineering
(
2 pt )
|
Subject Objective |
To work effectively in M & E Engineer in building construction & building service industry |
|
Learning outcome |
To understand the methods of building construction To understand aircondition & refrigeration systems. To design the water supply system for building To design fire protection, building automation systems |
|
Credit Point |
2 |
|
Hours |
48 |
|
Assessment |
Assignment/ Test/ Online MCQ Test/ Building service design project. |
|
Contents |
|
Building Construction 1
|
Making building |
|
Foundations |
|
Wood |
|
Interior finish for wood light frame
construction |
|
Wall types |
|
Concrete construction |
Air-conditioning & Refrigeration
|
Controlling the temperature of mass |
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|
Electric heat |
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|
Humidification |
||||||||||||||
|
Air-conditioning –Cooling / Comfort |
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|
Air-distribution & Balance |
||||||||||||||
|
Reference Tables Sanitation & Water Supply
Building Electrical &
Mechanical System Part 1
|
Airconditioning and
Refrigeration
|
Theory of heat |
|
Solar heat |
|
Humidification |
|
Air-conditioning-Cooling |
|
Air-distribution & Balance |
|
Air-conditioning Calculation
worksheets |
BAE
607 Radio Wave Propagation & Microwave Techniques ( 2 pt )
|
Subject Objective |
This subject presents the theoretical basis for system
analysis and gives students skills in using the techniques to design
components of communication systems. |
|
Learning outcome |
io understand radio & microwave signal types and their representation in the time and frequency domains; modelling systems with differential or difference equations and transforms of the equations; design of antenna, propagation principle |
|
Credit Point |
2 |
|
Hours |
48 |
|
Assessment |
Assignment/ Test/ Online MCQ Test |
|
Contents |
|
Radio Wave Propagation
|
Introduction to radio wave
propagation |
|
Propagation features/ Overviews |
|
Electromagnetic waves, Prpagation
through atmosphere |
|
Antenna |
|
Radio wave propagation fundamentals |
|
Antennas and propagation |
|
Mobile radio propagation |
|
Propagation |
|
Wave propagation |
|
Radio navigation |
|
Wireless communication |
Microwave Technique
|
Microwave antenna and radio wave
propagation |
|
|
Distributed element circuit analysis
techniques |
|
|
Matching networks |
|
|
Couplers, combiners, dividers |
|
|
Mixers |
|
|
Gain and stability |
|
|
Noise |
|
|
Electromagnetism and RF Propagation |
|
|
Antenna Fundamental |
|
|
Communication system |
|
|
RF Safety |
|
Rain attenuation of microwave and
milli-meter wave signals
|
Design of microwave filters (Vol 1) |
|
|
Mechanically & magnetically tunable microwave filters |
|
|
Design of microwave filters (Vol 1) |
|
|
General applications of filter structure in microwave engineering |
|
|
Properties of some common microwave filter elements |
|
BAE
608 Professional Engineer Competency Demonstration Report