1. Measurement and Instrumentation (EEE 421)
(3 credit course, with 2 sections)

• Some important terminologies of measurement systems; Applications of measurement systems; Functional elements of a generalized measurement system; Classifications of instruments

• Measurement of electrical quantities; Galvanometer: D’Arsonval type, Its construction, Torque equation, Dynamic behavior and Equation of motion underdamped, undamped, the critically damped, and overdamped motion of galvanometer

• Damping mechanisms, Sensitivities

• Analog meter types, PMMC meter, Temperature compensation, DC ammeter, and voltmeter

• Rectifier-based AC meters, Electro-dynamometer type meter

• Electronic analog meters.

• Power measurement: Electro-dynamometer type, Energy measurement: Induction type

• Instrument transformers: Introduction, uses, advantages, design considerations, the effect of a secondary open circuit in a CT

• Transducers: Introduction, Electric transducers, and their advantages and types, Strain gauges

• Resistance thermometers, thermistors, Variable inductance type transducers: variation of self-inductance

• Transducers working on a variation of mutual inductance and production of eddy current; linear variable differential transformer

• Capacitive transducers, change in overlapping area and change in distance between plates, differential arrangement; Variation of dielectric constant for measurement of distance and liquid level, advantages, disadvantages, and uses of capacitive transducers

• Optical transducers: photo-multiplier tubes, photodiodes, and photovoltaic cell

2. Electromagnetic Fields and Waves (EEE 225)
(3 credit course, with 2 sections)

• Vector Algebra: Scalar and vector field, Unit vector, position and distance-vector, vector addition, subtraction, and multiplications.

• Coordinate Systems: Concepts of Cartesian, Cylindrical, and Spherical system, Conversion from one system to another.

• Vector Calculus: Line, surface and volume integration, Gradient, Divergence and Curl of a vector, Divergence and Stokes theorem.

• Electrostatic Field: Coulomb's Law and applications, Electric field intensity and flux density, Gauss's law and applications, Electric potential, Maxwell's equation, and applications.

• Electric Field in Material Space: Current and Current Density, Convection and Conduction current, Polarization and dipoles, Continuity equation, Boundary condition in electrostatics for the various time-varying system.

• Electrostatic Boundary Value Problem: Poisson's and Laplace equation, Examples of solutions of Poisson's and Laplace equation, Resistors and Capacitors and their calculations.

• Magnetostatic Fields: Biot-Savart's law, Ampere's Circuit law and application, Magnetic flux and flux density, Maxwell's equation for a magnetic field, Displacement current.

3. Basic Electrical Technology (EEE 101)
(3 credit course, with 3 sections)

• Ohm's Law, Series and Parallel Circuits

• Kirchhoff's Voltage and Current Laws

• Mesh Analysis and Nodal Analysis

• Wye-Delta Conversion

• Source Transformation, Superposition Theorem

• Thevenin's Theorem and Maximum Power Transfer Theorem

• Multi-range Voltmeter and Ammeter

• Watt-meter and energy meter

• Average and RMS values of alternating current and voltage

• Phasor Algebra

• RLC Circuits

• AC Power Analysis

• Balanced Three-phase circuits

• Electrical Wiring for residential and commercial loads

• Transformers, Motors, Generators

• Power Plants

• Basic Electronics

Spring 2020 Courses

1. Electrical Machine Lab (EEE 314)
(1 credit course, with 1 section)

• Experiment 1: Study of a single-phase transformer and determination of turn ratio.

• Experiment 2: Determining voltage regulation and efficiency.

• Experiment 3: Study of open circuit test and short circuit test of a single-phase transformer.

• Experiment 4: Determination of polarity and parallel operation of a single-phase transformer.

• Experiment 5: Determination of circuit parameters of a 3 phase Induction Motor.

• Experiment 6: Study of Speed Control of a Three Phase Induction Motor by using Variable Frequency Drive (VFD).

• Experiment 7: Determination of starting torque and loading characteristics of a capacitor start motor.

• Experiment 8: No-load and loading characteristics of the three-phase alternator.

• Experiment 9: Alternator Synchronization with an infinite bus.

• Experiment 10: Determination of Voltage Regulation of Synchronous Generator with Different Power Factor.

• Experiment 11: Determination of V Curve of a Synchronous Motor.

• Experiment 12: No-load and loading Characteristics of a self-excited DC Shunt Generator.

• Experiment 13: Speed control of a DC shunt motor and observation of the existence of back EMF.

2. Electrical Circuit Lab (EEE 212)
(1 credit course, with 1 section)

• Experiment 1: Verification of KCL and Current Divider Rule.

• Experiment 2: Verification of KVL and Voltage Divider Rule.

• Experiment 3: Use of Galvanometer as Ammeter and Voltmeter.

• Experiment 4: Verification of superposition theorem.

• Experiment 5: Verification of Thevenin’s Theorem.

• Experiment 6: Verification of Maximum Power Transfer Theorem.

• Experiment 7: Familiarization with alternating current (AC) waves.

• Experiment 8: Verification of KVL and KCL in ac Circuits.

• Experiment 9: Study of Series Resonance.

• Experiment 10: Study the frequency response of RC filters.

• Experiment 11: Measurement of AC Power using watt-meter.

• Experiment 12: Power factor correction

• Experiment 13: Study of three-phase system with a balanced load.

• Experiment 14: Measurement of three-phase power by the two-watt-meter method.

3. Engineering Drawing and Service Design (EEE 336)
(1 credit course, with 2 sections)

• Experiment 1: Drawing Pentagon, Hexagon, and Heptagon using semi-circle method.

• Experiment 2: Projections.

• Experiment 3: Building Drawing.

• Experiment 4: Conduit Layout.

• Experiment 5: Basic Electrical Appliances and Earthing.

• Experiment 6: Protective Devices.

• Experiment 7: Residential and Industrial Security System.

4. Basic Electrical Technology (EEE 101)
(3 credit course, with 3 sections)

• Ohm's Law, Series and Parallel Circuits

• Kirchhoff's Voltage and Current Laws

• Mesh Analysis and Nodal Analysis

• Wye-Delta Conversion

• Source Transformation, Superposition Theorem

• Thevenin's Theorem and Maximum Power Transfer Theorem

• Multi-range Voltmeter and Ammeter

• Watt-meter and energy meter

• Average and RMS values of alternating current and voltage

• Phasor Algebra

• RLC Circuits

• AC Power Analysis

• Balanced Three-phase circuits

• Electrical Wiring for residential and commercial loads

• Transformers, Motors, Generators

• Power Plants

• Basic Electronics

5. Computer Programming Lab (CSE 122)
(1 credit course, with 2 sections)

• Experiment 1: Introduction to a compiler (CODE BLOCKS)

• Experiment 2: Getting familiarized with Data type and Variable

• Experiment 3: Getting familiarized with Input, Output Functions

• Experiment 4: Conditional Statements

• Experiment 5: 'For' Loops

• Experiment 6: Nested 'For' Loops

• Experiment 7: 'While' Loops

• Experiment 8: Single dimension array

• Experiment 9: 2D array