Course Catalogue

Course Code: ENG 442
Course Name:
Teaching Comprehension and Reading
Credit Hours:
3.00
Detailed Syllabus:

This course will emphasize on reading and comprehension and on vocabulary expansion. The course will explore reasons for teaching reading to students. Students will be encouraged to assess their own comprehension, actively test comprehension using questionnaires, and by improving metacognition. Teaching conceptual and linguistic knowledge is also advantageous.

Course Code: ENG 443
Course Name:
Teaching Young Learners
Credit Hours:
3.00
Detailed Syllabus:

The course recognises the fact that Teaching English to Young Learners is a specific skill which needs specific training to be performed effectively. The TEYL course aims at providing recently graduated EFL teachers or practicing teachers with the necessary skills, confidence and ability to be able to teach Young Learners to maximum effect.

Course Code: ENG 444
Course Name:
Testing and Assessment
Credit Hours:
3.00
Detailed Syllabus:

The purpose of this course is to introduce the concepts of testing competence and performance; the aims and objectives of language test; the validity and reliability of tests; techniques of developing and administering different types of tests, developing marking criteria and an understanding of the normative and formative value of testing and assessment.

Course Code: ENG 445
Course Name:
Teaching Practicum
Credit Hours:
3.00
Detailed Syllabus:

This is a practical course on classroom teaching. Students will be required to use the theoretical knowledge acquired in their previous courses. The course will examine how theory can be transferred to practice in real life classroom teaching situations. Students will maintain a portfolio which will trace their personal and professional development.

Course Code: ENG 446
Course Name:
Computer Assisted Learning Methods
Credit Hours:
3.00
Detailed Syllabus:

Both the practical and theoretical aspects of using computer-assisted learning methods will be explored. The course includes word-processing, data base and spread sheet programs. The internet will be used extensively.

Course Code: ETE 101
Course Name:
Electrical Circuits
Credit Hours:
3.00
Detailed Syllabus:

Direct current, voltage, power and energy. Resistance, Ohm’s law, Kirchoff’s law, Voltage and Current law ; Series parallel circuits, voltage and current division, wye-delta transformation. Nodal and mesh analysis. Source transformation, Thevenin’s, Norton’s and superposition theorems. Maximum power transfer condition and reciprocity theorem. Inductors and capacitors, series parallel combination of inductors and capacitors. Responses of RL and RC circuits. Alternating current, sinusoidal waveforms, phasors and complex quantities. Impedance, real and reactive power, power factors. Series and parallel RC, RL and RLC circuits. Nodal and mesh analysis. Network theorems. Series and parallel resonance and Q-factors. Balanced and unbalanced Polyphase systems. Coupled circuits and transformers. Passive filters. The course includes lab works based on theory taught.

Course Code: ETE 202
Course Name:
Electronics Devices and Circuits-I
Credit Hours:
3.00
Detailed Syllabus:

Semiconductor, P-N junction diode, rectifiers, clipping and clamping circuits, regulated power supply. Bipolar Junction transistors (BJT): characteristics, DC and AC load line, BJT biasing, frequency response. Field effect transistor (FET): characteristics, biasing of FETs. Switching circuits, OpAmp: inverting, non-inverting, differential amplifiers, integrators, differentiators, comparators, summing amplifiers. Feedback: characteristics, effect of feedback. Active filter, frequency response and noise. Introduction to IC fabrication process. The course includes lab works based on theory taught.

Course Code: ETE 202
Course Name:
Electronic Devices and Circuits I
Credit Hours:
4.00
Detailed Syllabus:

Theory of Semiconductor: Electronic structure of elements, energy level, energy band theory of crystals, energy band diagram of- insulator, semiconductor and metal, free electron theory, intrinsic and extrinsic semiconductor, Fermi level, concept of hole, carrier densities, generation and recombination of excess carriers, earner life time, carrier movement by diffusion rind drift, continuity equation.

Semiconductor diodes: The P-N junction, biasing conditions, V-I characteristics, half \vave and full wave rectification with filtering, clipping and clamping circuit, zener diode, tunnel diode, varactor diode.

Bipolar transistor: Junction transistors, PNP and NPN transistors, principles of operation, biasing, characteristics in different configurations, transistor switching time, DC and AC load line, Q factor, transistor equivalent circuit, small signal low frequency h-parameter model.

Field effect transistor (FET): Construction of JFET, characteristic.’, and principles of operation, FET biasing.

MOSFET: Different types, operation, characteristics curve, DC biasing of depletion and enhancement type MOSFET

Other types of semiconductor device: Thermistor, SCR, UJT, DIAC, TRIAC, photo diodes.

Course Code: ETE 204
Course Name:
Digital Electronics
Credit Hours:
3.00
Detailed Syllabus:

Number systems. BCD, ASCII codes. Logic gates and Boolean algebra, Combinational circuit design. NAND and NOR latches. Flip-flop. Frequency division and counting. Arithmetic circuits. Adder, 2’s complement addition and subtraction. The BCD adder, Counter: Asynchronous and Synchronous counters, MOD numbers, Decoding a counter. Cascading counters. Register: Shift registers, Frequency counter, digital clock .Encoders. Multiplexers, De-multiplexers. Analog-to-digital conversion (ADC), Digital-to-analog conversion (DAC), Integrated Circuit (IC) logic families: TTL logic family, Memory Devices: ROM architecture. EPROM, EEPROM, ROM applications. RAM architecture, static and dynamic RAM, DRAM structure operation and refreshing. The course includes lab works based on theory taught.

Course Code: ETE 204 / ETE 205 (LAB)
Course Name:
Digital Electronics
Prerequisite:
Credit Hours:
3.00
Detailed Syllabus:

Introductory concepts: Binary, octal and hexadecimal number system. BCD, ASCII codes. Logic gates and Boolean algebra, Combinational circuit design using NAND or NOR gates only, trouble shooting case studies. Minimization of switching functions, algebraic and graphical simplification of Boolean expression, Quine Mcluskcy method.

NAND and NOR latches: Clocked SR, JK, D and T flip-flop applications. Frequency division and counting, troubleshooting case studies. Arithmetic circuits. The half-adder and full-adder. Parallel adders, 1C parallel adders. 2’s complement addition and subtraction. The BCD adder. Binary multiplier, troubleshooting case studies.

Counter: Asynchronous ripple up and down counters, counters with any MOD numbers, asynchronous 1C counters, propagation delay. Parallel up, down and up/down counters. Presentable counters. Decoding a counter. Cascading counters.
Register: Shift registers, 1C shift registers, shift-register counters. Frequency counter, digital clock, trouble shooting case studies.

MSI Logic circuits: BCD-to-decimal decoders, BCD-to-7-segment decoder/drivers. Encoders. Multiplexers and their applications. Demultiplexers. Troubleshooting case studies. Analog-to-digital conversion (ADC), digital-ramp ADC, successive approximation ADC, flash ADC. Digital-to-analog conversion (DAC): circuits, specifications, applications. Sample and hold circuits.

Integrated Circuit (1C) logic families: TTL logic family, standard TTL series characteristics, other TTL series, TTL loading rules, TTL open-collector outputs, tristate TTL. The ECL family. Digital MOSFET circuits, characteristics. CMOS arcuits, CMOS tristate logic TTL driving CMOS, driving TTL.

Memory Devices: Semiconductor memory technologies. ROM architecture timing and types of ROM. EPROM, EEPROM, ROM applications. RAM architecture, static and dynamic. RAM, DRAM structure operation and refreshing. Expanding word size and capacity. Magnetic bubble and CCD memories trouble shooting case studies. Introduction to sequential circuits, formal representation of sequential circuits.

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