EE2820 Applied Electronics
Course Code
EE2820
Course Title
Applied Electronics
Credits
3
Course Type
Core
Course Content
Operational Amplifiers (OPAMP)
The ideal OPAMP, open-loop gain, input resistance and output resistance. Characteristics of real
Op-Amps: open-loop transfer function, voltage gain, bandwidth, slew rate, power bandwidth,
clipping, offset voltages and currents, rejection ratios.
OPAMP Applications
Linear applications: (Inverting and Non- Inverting amplifiers, Differential and Summing amplifiers,
Integrators and Differentiators), Nonlinear applications (precision rectifiers, peak detectors,
Schmitt-trigger comparator and logarithmic amplifiers).
Active Filters
Low-pass, high-pass, band-pass and band-stop sections, Butterworth, Chebyshev, Elliptic and
Bessel functions, circuit realization of single pole and two-pole transfer functions; frequency and
impedance scaling. Implementation of filters using OPAMPs.
Data conversion circuits
Analog to Digital converters: definitions, codes, LSB, MSB, linearity, differential linearity, offset
and gain errors, missing codes; Counting converters: successive approximations, single-and-dual
slope converters, flash converters, delta-sigma converters; Sample-and-hold circuits, sampling rate
selection and setting, integrating an analog signal to a digital system.Digital to Analog converters: definitions, codes, LSB, MSB, linearity, differential linearity, offset
and gain errors; weighted resistor D/A converter; R/2R ladders and D/A converters; weighted
current source converters; integrating a digital signal to an analog system.
Clock synchronizing the Analog to Digital and Digital to Analog conversion operations using
system clock signals.
Oscillators
Basic concepts and definitions; Wien-bridge oscillator
Circuit modeling and simulation
Introduction to electronic Computer Aided Design (CAD) tools, dc analysis, ac analysis, transient
analysis; simulation control options, built-in-solid-state device models, device parameter control
libraries, Designing electronic circuits.
Logic Circuits
SOP and POS representation for logic functions, K-map representation, simplification of logic
functions using K-map, minimization of logical functions, don’t care conditions.
Flip flops, latches, edge triggered flip flops, master slave flip flops. Flip flop applications in data
storage, shift registers and counters.
Timing diagrams
Textbooks and References
- ● Robert F. Coughlin, Frederick F. Driscoll, (2001) “Operational Amplifiers and Linear Integrated Circuits”, 6th Edition, Prentice Hall ● Maurizio Di Paolo Emilio, (2013) “Data Acquisition Systems – From Fundamentals to Applied Design”, Springer
Course Modules:
Time Allocation details not available for this course
Marks allocation:
Practicals
15%
Tutorials
25%
End_exam
60%
Last Update:
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