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Engineering (BE)
Sep’24 month certification
FAQ – Sep’24 Month Certification Drive
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SE EXTC SEM 3 – ELECTRONIC INSTRUMENTATION & CONTROL SYSTEMS

Course Content

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Module 1 – Principle of Measurement, Testing and Measuring instruments 14 Topics

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1.1 – Introduction to Basic instruments:

1.1.a – Components of generalized measurement system

1.1.b – Concept of accuracy and precision

1.1.c – Linearity

1.1.d – Sensitivity

1.1.e – Resolution

1.1.f – Hysteresis

1.1.g – Calibration

1.2.a.1 – Kelvin’s double bridge

1.2.a.2 – Wheatstone bridge

1.2.a.3 – Mega ohm bridge

1.2.b.1 – Maxwell bridge

1.2.b.2 – Hey bridge

1.2.c.1 – Schering bridge

Module 2 – Sensors and Transducers 11 Topics

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2.1 – Basics of sensors and Transducers-

2.1.a – Active and passive transducers

2.1.b – Characteristics and selection criteria of transducers

2.2.a – Potentiometers

2.2.b – Pressure gauges

2.2.c – Linear Variable differential transformers (LVDT) for measurements of pressure

2.2.d – Displacement strain gauges

2.3 – Temperature Transducers-

2.3.a – Resistance temperature detectors(RTD)

2.3.b – Thermistors and thermocouples

2.3.c – Their ranges and applications

Module 3 – Introduction to Control System Analysis 7 Topics

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3.1 – Introduction:

3.1.a – Open and closed loop systems

3.1.b – Example of control systems

3.2.a – Modelling

3.2.b – Transfer function model

3.3.a – Block diagram reduction techniques

3.3.b – Signal flow graph

Module 4 – Response of Control System 5 Topics

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4.1 – Dynamic Response:

4.1.a – Standard test signals

4.1.b – Transient and steady state behavior of first and second order systems

4.1.c – Steady state errors in feedback control systems and their types

4.2 – Concept of lag and lead compensator

Module 5 – Stability Analysis in Time Domain 6 Topics

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5.1 – Concept of stability:

5.1.a – Routh stability criterion

5.1.b – Hurwitz stability criterion

5.2.a – Root locus concept

5.2.b – General rules for constructing root-locus

5.2.c – Root locus analysis of control system

Module 6 – Stability Analysis in Frequency Domain 13 Topics

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6.1.a – Frequency domain specification

6.1.b – Relationship between time and frequency domain specification of system

6.1.c – Stability margins

6.2 – Bode Plot:

6.2.a – Magnitude and phase plot

6.2.b – Method of plotting Bode plot

6.2.c – Stability margins and analysis using bode plot

6.2.d – Frequency response analysis of RC circuits

6.2.e – Frequency response analysis of RL circuits

6.2.f – Frequency response analysis of RLC circuits

6.3.a – Concept of Polar plot and Nyquist plot

6.3.b – Nyquist stability criterion

6.3.c – gain and phase margin

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