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Catalog Data :
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GID 441 Process Control (3-0) 3
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Basic concepts related to process control;
Importance and application of control parameters and systems in food
industry; Open and close loop controls; Mathematical modeling; Temperature
control- A case study; Feedback control and performance criteria; Measuring
devices; Digital computer control loops.
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Prerequisites:
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None
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Language:
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Turkish
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Textbook:
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Lecture
material
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Reference Books:
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Stephanopoulos,
G. 1984. Chemical Process Control: An Introduction to Theory and Practice. Prentice-Hall, Englewood Cliffs, N.J.
http://www.devres.net
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Course Objectives :
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In food industry,
temperature, pressure, level, flow, humidity, viscosity, etc. are the
parameters to be controlled during processing. The errors in the control of
the process affect the quality of the final product. The fundamental
knowledge and procedures taught in the process control course is aimed to
create a common ground between food engineer and instrumentation engineer. The
objectives of the course are as follows;
1. Demonstrate a basic
knowledge on process control,
2. Demonstrate a basic
understanding of the types of feedback control
3. Develop an awareness of
various processing procedures used in the food industry,
4. Develop an understanding
of the use of computers in control systems,
5. Develop an awareness of a
need for a common ground created between a food engineer and an
instrumentation engineer in optimization of food processes.
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Topics :
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week
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Basic concepts and application areas; introduction
to control systems and definitions
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1
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Open and closed loop control
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1
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Applications of control systems in practice
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1.5
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Mathematical modeling in food industry
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1
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Case study : Temperature control in a tank and its
modeling
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1
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Feedback control : P, PI and PID control
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2
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Performance criteria of feedback control
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1.5
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Measuring devices (sensors)
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1
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Digital computer control loops
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1
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Seminar
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1
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Term study presentations
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2
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Class Schedule :
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Classes are held in one
session per week; 3 class hours in one session.
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Contribution of course to meeting the professional component:
This course contributes to the engineering design requirements of the topics
of the departments.
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Relation of course to program objectives:
Strategies and Actions
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Student Learning Outcomes
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ABET Criterion 3 (a-k) & FdE (l)
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Program Objectives
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Assessment Methods / Metrics
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A course syllabus is prepared and followed
throughout the semester.
Reference book and web based sources are presented
to the students in the beginning of the semester.
Lectures are based on syllabus.
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Demonstrate an ability to apply their unit
operations, mathematical modeling, food science and technology knowledge to
control processes in the food industry.
Develop an understanding of the relationship between
process control and product quality in the food industry.
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a,
c, e, j, k
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1,
2, 3
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Instruments
G,
J
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Term project is assigned based on their practical
summer practice.
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Develop an
awareness of the application of process control in the food industry to
optimize processing conditions.
Bring in
information from "outside" sources to help make decisions.
Demonstrate a basic
knowledge of manufacturing processes.
Demonstrate an
ability to "think on one's feet".
Understand
importance of learning what has already been done to solve a given problem.
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a,
b, c, e, i, j, k
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1,
2, 3
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Instruments
G,
L
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Open-ended problems are provided and in-class
discussions are performed.
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Handle unknowns or
open-ended questions effectively.
Generate many
potential solutions to a given problem.
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a,
b, c, e, k
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1,
3, 4
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Instruments
G
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Term projects are presented in class.
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Plan and deliver
oral presentations effectively.
Apply multimedia
applications effectively when delivering oral presentation.
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a,
c, e, g, i, j, k
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1,
2, 3, 4
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Instruments
G,
N, O
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A seminar given by an expert from the industry is
organized.
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Demonstrate an awareness of how what is learned in
the classroom applies to industry
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h,
j
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3
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Instruments
G
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Individual performance is evaluated by written
examinations and term project.
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Demonstrate ability to learn independently.
Apply appropriate engineering tools and methods to
solve problems.
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i,
k
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4
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Instruments
G,
J
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Typical
Evaluation:
Term project:
30%
Midterm
examination: 30%
Final examination: 40%
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Prepared By : Prof. Dr. Y. Onur Devres
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Date : September
20, 2001
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