2020/21
Course image ES3B2:Digital Systems Design 2020/21
 
Course image ES3B5:Engines and Heat Pumps 2020/21
 
Course image ES3B6:Geotechnical Engineering 2020/21
 
Course image ES3C2:Advanced Mechanical Engineering Design 2020/21
 
Course image ES3C5:Signal Processing 2020/21
 
Course image ES3C8:Systems Modelling and Control 2020/21
 
Course image ES3D1:Concrete Structures 2020/21
 
Course image ES3D2:Steel Structures 2020/21
 
Course image ES3D5:Water Engineering for Civil Engineers 2020/21
 
Course image ES3D6: Fluid Mechanics for Mechanical Engineers 2020/21
 
Course image ES3D8:Fundamentals of Modern VLSI Design 2020/21
 
Course image ES3D9:Applied Control - Instruments, Measurement and Electrical Machines 2020/21
 
Course image ES3E0:Power Electronics 2020/21
 
Course image ES3E1:Design Project with Construction Management (Civil Engineering, BEng) 2020/21
 
Course image ES3E2:Civil Engineering Design II 2020/21
 
Course image ES3E4:Life Cycle Engineering of Manufacturing Systems 2020/21
 
Course image ES3E5:Finite Element Methods 2020/21

Please note this module will start in term 2 and the module information can be found from the link: https://courses.warwick.ac.uk/modules/2020/ES3E5-15


 
Course image ES3E6:Microwave Engineering and RF Circuits 2020/21
 
Course image ES3E7:Power Systems and Electrical Machines 2020/21
 
Course image ES3E8:Precision, Measurement and Control 2020/21

Module Outline


Principal Module Aims

The module will provide engineers with an opportunity to develop their understanding of the important cross-disciplinary factors in measurement, instrumentation, and control that underpin modern machine functionality. 

 Both instrumentation and control are perceived as important topics for engineers to have some theoretical foundation in, along with an ability to translate that theory into practical applications. 

 The module provides mechanically biased engineers with an opportunity to develop their measurement knowledge, and couple this to deliver control in practical engineering systems.

Principal Learning Outcomes

By the end of the module the student will be able to:

·        Recognize measurement limitations imposed by instruments and physical conditions, and interactions between the test system and the thing being measured.

·        Discriminate between different sensor types and strategies for taking effective measurements in demanding conditions.

·        Understand the need for rigorous metrology concepts in design and use of measurement systems.  Understand and demonstrate the importance and use of gauging and mastering, and traceability to national standards.

·        Analyse and communicate uncertainty.  Analysis of uncertainty reduction methods.

·        Consolidate learning by demonstrating understanding of a systems approach to control, and further demonstrate comprehensive understanding of complex control mechanisms.

·        Evaluate practical alternatives and enhanced methods of system identification and control above simple methods such as PID.  Understand ‘the Control Frontier’.

 

Illustrative Bibliography

1.     Leach, R.K., Smith, S.T., Basics of Precision Engineering, Taylor Francis (ISBN 978-1-4987-6085-0).  (New book - expected June 2017):

2.     Morris, A.S., Langari, R., Measurement and Instrumentation: Theory and Application, 2012, Butterworth-Heinemann.

3.     Bentley, J.P., 2005, Principles of Measurement Systems (4th Ed.), Longman Scientific & Technical.  (Print book and e-book).

4.     Dally, J., Riley, W.F., McConnell, K.G.,2006, Instrumentation for Engineering Measurements (2nd Ed.), Wiley.

5.     Holman, J.P., 2012, Experimental Methods for Engineers (8th Ed.), McGraw Hill.

6.     Beckwith, T.G., Marangon, R.D., Lienhard, J.H., 2009, Mechanical Measurement (6th Ed.), Addison Wesley.

7.     Nise, N.S., 2015, Control Systems Engineering (7th Ed.), Wiley.