Advanced Electronics

Course Title: Advanced Electronics

Course No: ENEX 202

Nature of the Course: Theory + Lab

Semester: 3

Full Marks: 40 + 60 + 25

Pass Marks: 16 + 24 + 10

Credit Hours: 3

Course Description

Advanced Electronics provides fundamental understanding of operational amplifiers including their performance, limitations, and suitability for specific applications. Students learn to devise efficient techniques for energy transformation and regulation in power electronic circuits, and explore the principles and components of data conversion using DAC and ADC systems.

Course Objectives

The objective of this course is to provide fundamental understanding of operational amplifiers, including their performance, limitations, and suitability for specific applications. Students will also learn to devise efficient techniques for energy transformation and regulation in power electronic circuits, and explore the principles and components of data conversion using DAC and ADC systems.

Course Contents

1. Operational Amplifier Characterization

9 hrs12 marks

1.1. Input offset voltage

1.2. Input bias and input offset currents

1.3. Output impedance

1.4. Differential and common-mode input impedance

1.5. DC gain, bandwidth, gain-bandwidth product

1.6. Common-mode and power supply rejection ratio

1.7. Higher frequency poles settling time

1.8. Slew rate

1.9. Noise in operational amplifier circuits

2. Digital-to-Analog and Analog-to-Digital Conversion

7 hrs9 marks

2.1. Performance parameters of DAC and ADC

2.2. Binary weighted resistor DAC

2.3. The R-2R ladder DAC

2.4. Unipolar and bipolar D/A converters

2.5. Count-up and tracking A/D's based on D/A's

2.6. Successive approximation A/D converters

2.7. Integrating voltage-to-time conversion A/D converters, dual and quad slope types

2.8. Sigma delta A/D converters

2.9. Flash A/D converters

3. Instrumentation and Isolation Amplifiers

4 hrs5 marks

3.1. One and two operational amplifier instrumentation amplifiers

3.2. The three operational amplifier instrumentation amplifier

3.3. Consideration of non-ideal properties

3.4. Isolation amplifier principles and realization

3.5. Consideration of non-ideal properties

4. Operational Amplifier-Bipolar Transistor Logarithmic Amplifier

4 hrs5 marks

4.1. The basic logarithmic amplifier

4.2. Non-ideal effects

4.3. Stability consideration

4.4. Anti-logarithmic operations

5. Log-Antilog Circuit Application

4 hrs6 marks

5.1. Analog multiplier based on log-antilog principles

5.2. The multifunction converter circuit

5.3. Proportional to absolute temperature (PTAT) devices

5.4. RMS to DC conversion

6. Power Electronics

11 hrs15 marks

6.1. Power diodes, power MOSFET V-I characteristics

6.2. Thyristor: V-I, turn on-off mechanism, protection schemes, firing circuits, series/parallel combination, self and forced commutation

6.3. Members of thyristor family: DIAC, TRIAC

6.4. Controlled rectifier circuits: single phase half wave and full wave with RLE load

6.5. Inverters: Fixed voltage variable frequency (half and full), variable voltage variable frequency (PWM inverters)

6.6. Choppers: Principle of operation, control strategies, step up chopper, classification of chopper circuits

7. Switched Mode Power Supplies and Drives

6 hrs8 marks

7.1. Switch mode power supply

7.2. Buck, boost, buck-boost regulator

7.3. DC drives: classification and choice of selection

7.4. Review of characteristics and operating modes of DC motors

7.5. Half wave and full wave single phase converters drives

7.6. Stepper motor and drives

Laboratory Works

Practical sessions of 22.5 hours covering operational amplifier characteristics, D to A converter, differential and instrumentation amplifiers, logarithmic amplifiers and multipliers, switched voltage regulator design, SCR circuit design, and stepper motor control.

1.Characteristics of Operational Amplifier
2.4-Bit D to A Converter
3.Differential and Instrumentation Amplifiers
4.Logarithmic Amplifiers, Multipliers, RMS to DC Conversion
5.Switched Voltage Regulator Design
6.Silicon-Controlled-Rectifier (SCR) Circuit Design
7.Stepper Motor Control with Driver Module and Arduino

Reference Books

1.Sedra, A. S., Smith, K. C. (2010). Microelectronic Circuits. United Kingdom: Oxford University Press.
2.Stanely W. (1987). Operational Amplifiers with Linear Integrated Circuits. Charles E. Merrill Publishing Company. Toronto.
3.Gayakwad, R. A. (2004). Op-amps and linear integrated circuits. 4th Edition. New Delhi: Prentice Hall.
4.P.S. Bimbhra. (2002). Power Electronics. 3rd Edition, India: Khanna Publishers.
5.Lander C.W. (1987). Power Electronics. 2nd Edition. New York: McGraw-Hill Book Company.
6.Graeme J.G. (1973). Application of Operational Amplifiers: Third Generation Techniques. New York: McGraw-Hill. The Burr-Brown Electronics Series.
7.Mohan N., Undeland T. M., Robbins W. P. (1989). Power Electronics: Converters, Applications and Design. New York: John Willey and Sons.

Notes:

This syllabus follows the official BEI curriculum of Tribhuwan University. In case of any doubt or revision, the university's published syllabus shall be considered authoritative. https://ioe.tu.edu.np/pages/electronics-engineering-curriculum-structure-2660

Appropriate assignment problems are given to students after the completion of each chapter.

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