Electromagnetic Fields & Waves

This course provides an introduction to Maxwell’s equations and their applications to engineering problems. Topics include the physical meaning of Curl, Gradient and Divergence; physical meaning of Maxwell’s point relations along with Maxwell’s integral relations, Electrostatics, magnetostatics, time-varying fields, waves and propagation, force, energy, oblique incidence of light, boundary conditions, Poynting vector, cavity, different co-ordinate systems and antennas.

Power Systems

Phasors, complex power, voltage regulation; balanced/unbalanced three-phase operation, short circuit capacity, circuit breakers; transmission lines, series/shunt impedance, short, medium, and long line models; symmetrical components, sequence networks.

Electrical Circuits II

Formulation and solution of circuit equations, network theorems, sinusoidal steady-state analysis. Topics include loop and nodal analysis, superposition and Thevenin’s theorem, properties of sinusoids, phasor representation and vector diagrams. AC Power concepts and Applications, Power Factor Correction, Three Phase Circuits, Power in Three Phase Circuits, Mutual Inductance, Transformers, Usc of MATLAB and PSpice for AC Circuit Analysis. This course has mandatory laboratory sessions every week. This course has separate mandatory laboratory sessions every week in a separate course EEE241L/ETE241L.

Signals and Systems

This course provides an introduction to the analysis techniques for different signals and systems. It includes signal representations including Fourier and Laplace transforms. System definitions and properties, such as linearity, causality, time invariance, and stability are covered. This course also includes convolution, delta function, transfer functions and frequency response to determine system characteristics. This course has separate mandatory laboratory session every week as EEE 221L. Lab classes cover the operations with different signals and their distinct representations by using the simulation tool MATLAB. 

Electrical Machines

Electrical Machines are devices that convert electrical energy into mechanical energy, or vice versa, through electromagnetic principles. They include motors, which convert electrical energy into mechanical motion, and generators, which convert mechanical energy into electrical power. Electrical machines are essential in numerous applications, from household appliances and industrial machinery to power generation and transportation systems. These machines operate on principles like electromagnetic induction, making them vital components in the electrical power industry and various automation processes.

Digital Logic Design

Digital Logic Design is the foundation of modern digital systems, including computers and digital circuits. It involves the study and creation of logic circuits that process binary information (0s and 1s). These circuits use basic logic gates (AND, OR, NOT, etc.) to perform logical operations, enabling devices to carry out tasks like arithmetic, data processing, and decision-making. Digital logic design is essential in designing microprocessors, memory chips, and other digital hardware components, ensuring efficient and reliable functioning of electronic systems.

Analog Electronics -2

Analog electronics is the branch of electronics that deals with continuously varying signals, as opposed to digital electronics, which operates with discrete levels. It involves the design and analysis of circuits that process signals in their natural analog form, such as voltage or current that changes smoothly over time. Common components used in analog electronics include resistors, capacitors, inductors, diodes, and transistors. Applications of analog electronics range from amplifiers and oscillators to filters and power supplies, playing a crucial role in audio, communication, and control systems.

Engineering Economics

Engineering economics is a field of study that focuses on the application of economic principles to engineering projects and decisions. It involves evaluating the financial aspects of engineering projects, such as cost estimation, investment analysis, and cost-benefit analysis. The goal is to make informed decisions that balance economic efficiency with technical feasibility. Key concepts include time value of money, depreciation, project evaluation methods (like Net Present Value and Internal Rate of Return), and risk analysis. By integrating economic principles with engineering practices, professionals can optimize resource use, manage budgets, and enhance the overall value of engineering projects.

Electric Circuit 1

An electric circuit is a closed loop or pathway that allows electric current to flow. It typically consists of a power source (such as a battery), conductive wires, and various components like resistors, capacitors, and switches. When the circuit is complete, electrons flow from the negative terminal to the positive terminal of the power source, enabling devices connected to the circuit to operate. Electric circuits are fundamental in powering electronic devices and systems, and they form the basis for understanding more complex electrical and electronic concepts.