Exam Details
Subject | Control System | |
Paper | ||
Exam / Course | B.Tech. VIEP- Electrical Engineering III (BTCSVI/BTECVI/BTELVI) | |
Department | School of Engineering & Technology (SOET) | |
Organization | indira gandhi national open university | |
Position | ||
Exam Date | June, 2016 | |
City, State | new delhi, |
Question Paper
1. Derive the transfer function of the system shown in Figure k being the amplifier gain. <img src='./qimages/11536-1.jpg'>
2. Determine the transfer functions C1 R1, C2 R2, C1 R2 and C2 R1 from the block diagram shown in Figure using block diagram reduction technique. <img src='./qimages/11536-2.jpg'> <br><br>
3. Write short notes on any four of the following: Potentiometer
Synchros
AC Servomotor
Tachogenerators
Pneumatic Controller
4. A unity feedback system is characterized by the open-loop transfer function
G(s) /s(0·5s (0·2s
Determine the steady-state errors for unit step, unit ramp and unit acceleration inputs. Also determine the damping ratio and natural frequency of the dominant roots.
5. The open-loop transfer function of a unity feedback system is given by 1)
Sketch the polar plot and determine the gain margin and phase margin.
6. The open-loop transfer function of a unity feedback system is given by
G(s) 10)
Determine the value of k so that the system is stable with a phase margin> and gain crossover frequency as large as possible.
7. Sketch the root-loci for the system shown in Figure 3. <img src='./qimages/11536-7.jpg'> Construct a state model for the following transfer function
5 Derive the transfer function corresponding to the following state model <img src='./qimages/11536-8b.jpg'>
2. Determine the transfer functions C1 R1, C2 R2, C1 R2 and C2 R1 from the block diagram shown in Figure using block diagram reduction technique. <img src='./qimages/11536-2.jpg'> <br><br>
3. Write short notes on any four of the following: Potentiometer
Synchros
AC Servomotor
Tachogenerators
Pneumatic Controller
4. A unity feedback system is characterized by the open-loop transfer function
G(s) /s(0·5s (0·2s
Determine the steady-state errors for unit step, unit ramp and unit acceleration inputs. Also determine the damping ratio and natural frequency of the dominant roots.
5. The open-loop transfer function of a unity feedback system is given by 1)
Sketch the polar plot and determine the gain margin and phase margin.
6. The open-loop transfer function of a unity feedback system is given by
G(s) 10)
Determine the value of k so that the system is stable with a phase margin> and gain crossover frequency as large as possible.
7. Sketch the root-loci for the system shown in Figure 3. <img src='./qimages/11536-7.jpg'> Construct a state model for the following transfer function
5 Derive the transfer function corresponding to the following state model <img src='./qimages/11536-8b.jpg'>
Other Question Papers
Departments
- Centre for Corporate Education, Training & Consultancy (CCETC)
- Centre for Corporate Education, Training & Consultancy (CCETC)
- National Centre for Disability Studies (NCDS)
- School of Agriculture (SOA)
- School of Computer and Information Sciences (SOCIS)
- School of Continuing Education (SOCE)
- School of Education (SOE)
- School of Engineering & Technology (SOET)
- School of Extension and Development Studies (SOEDS)
- School of Foreign Languages (SOFL)
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- School of Health Science (SOHS)
- School of Humanities (SOH)
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- School of Law (SOL)
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- School of Performing Arts and Visual Arts(SOPVA)
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- School of Translation Studies and Training (SOTST)
- School of Vocational Education and Training (SOVET)
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Subjects
- Active Filter Design
- Advanced Control System
- Advanced Power Electronics
- Applied Electromagnetics
- Basics Of Electrical Engineering
- Computer Process Control
- Control System
- Digital Electronics
- Electric Energy Utilization
- Electrical And Electronics Engineering Materials
- Electrical Instrumentation
- Electrical Machine - I
- Electrical Machines - Ii
- Electrical Machines And Electronics
- Electrical Measurements And Measuring Instruments
- Electro Mechanical Energy Conversion - I
- Electro-Mechanical Energy Conversion - Ii
- Electro-Mechanical Energy Conversion-Iii
- Electromagnetic Theory
- Energy Auditing And Analysis
- High Voltage Engineering
- Industrial Drives
- Micro Controllers
- Microprocessor And Applications
- Network Theory
- Power Quality Issues And Remedial Measures
- Power System
- Power System - I
- Stochastic Control Systems
- Switchgear And Protection