Control and Instrumentation
Instance: 2005/2006 - 2S
Cycles of Study/Courses
Teaching language
Portuguese
Objectives
This Unit aims at giving the students the necessary theory and practice for the design and operation of process control systems. This means:
Process control philosophies; Concepts about process control instrumentation; Concepts of theory and design feedback, feedforward and combined feedback-feedforward linear control systems; concepts of computer-aided process operation; ability for simulation of process operation; concepts of inferential and adaptive control; Plant automation design: phases and P&I diagrams
Program
1. Motivation and Methods; overview of the theory and practice of process control 2. Process dynamics (review); 3. Industrial instrumentation; 4. Feedback control: analysis of a control loop; Closed-loop behaviour; 5. Elements of system stability; 6. Controller design and tuning: criteria; model based methods; experimental methods; 7. Feedforward control: concepts and design; 8. Enhanced control strategies: cascade control; inferential monitoring and control; introduction to adaptive control; 9. Computer-aided process operation – concepts; structure of a digital control system; data acquisition and control by computer; analysis if discrete systems; digital controller design; 10. Distributed control systems – architectures; communications; 11. Plant automation: phasing and planning; P&I diagrams; main process variables; operation problems; system maintenance
Mandatory literature
Seborg, D. E., Edgar, T. F. and Mellichamp, D. A.; Process Dynamics and Control, 2004. ISBN: 0-471-45246-7
Complementary Bibliography
R. Oliveira, P. Georgieva and S. Feyo de Azevedo; Instrumentation and Process Control I - Instrumentation, Encyclopedia of Dairy Sciences, p. 1392-1401, Academic Press, UK, 2002
S. Feyo de Azevedo, F. Oliveira and A. Capelo Cardoso; TEACON - A Simulator fpr Computer-aided Teaching of Process Control, Comp. Applic. in Engng. Education, Vol 1 307-319, 1994
Ogunnaike, Babatunde A.;
Process dynamics, modeling, and control. ISBN: 0-19-509119-1
Martins, F. G..; Prontuário do MATLAB, FEUP Edições, 2003
Artigos e Catálogos Técnicos a fornecer
P. Georgieva, R. Oliveira and S. Feyo de Azevedo; P. Georgieva, R. Oliveira and S. Feyo de Azevedo; Instrumentation and Process Control II-Process Control, Encyclopedia of Dairy Sciences, p. 1401-1410, Academic Press, UK, 2002
Teaching methods and learning activities
Lectures and tutorials; use of software packages for computer-aided learning; co-ordination with laboratory classes for experimental teaching; support to teaching/learning through the subject web site.
Software
Matlab, Simulink, Toolbox de controlo, TEACON
keywords
Technological sciences > Engineering > Process engineering > Process control
Evaluation Type
Distributed evaluation with final exam
Assessment Components
Description |
Type |
Time (hours) |
Weight (%) |
End date |
Subject Classes |
Participação presencial |
52,00 |
|
|
|
Exame |
3,00 |
|
|
|
Trabalho escrito |
5,00 |
|
2006-05-19 |
|
Total: |
- |
0,00 |
|
Eligibility for exams
Homework (25% of final classification)
Calculation formula of final grade
Final mark as the combination of partial marks for Classroom Work + HomeWork + Final Examination Paper
Observations
1. Acquisition of specific competences
- After this module the student is expected to:
- Understand the different control philosophies
- Know industrial instrumentation
- Know how to choose industrial control equipment
- Know how to tune feedback and feedforward control systems
- Understand and know how to choose and programme computer control systems and have knowledge of industrial instrumentation
- Be able to simulate control systems
- Understand inferential and adaptive control
- Be able to participate in the design of an industrial distributed control system
2. CDIO competences
1.2. Core engineering fundamental knowledge - control
1.3. Advanced engineering fundamental knowledge – digital systems
2.1. Engineering reasoning and problem solving
2.3. System thinking – definition and system interaction
2.4. Personal skills and attitudes – critical thinking
3.1. Teamwork
3.2. Communications – written and multimedia communication
4.3. Conceiving an engineering system