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Catalog Data :
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GID 402 Food Engineering Design II
(1-4) 3
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Selecting an
industrial food product. The
production technology and flow diagram of food product. Gathering essential statistical data for
process calculations and determination of capacity. Calculations of mass and energy balances,
fluid mechanics, heat and mass transfer for the selected process. Designing
of a food plant by selecting or designing proper equipments, calculation of
the costs of equipments, operational, and the product.
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Prerequisites:
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GID 411E ( A minimum of
FF)
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Language:
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Turkish
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Textbook:
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None
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Reference Books:
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Toledo,
R.T. 1991. Fundamentals of Food
Process Engineering. Avi Publ. Co.,
NY.
Singh, R.P. and D.R. Heldman. 1993.
Introduction to Food Engineering. 2nd Ed. Academic Press, Inc.
Thorne, S. 1992. Mathematical Modeling of
Food Processing Operations. Elsevier, London,
England.
Peters, M.S. and K.D. Timmerhaus. 1991. Plant
Design and Economics for Chemical Engineers. 4th Ed. McGraw-Hill
Book Company, NY.
Ozilgen, M. 1998. Food Process Modelling and
Control: Chemical Engineering Applications. Gordon & Breach Science
Publisher, Australia.
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Course Objectives :
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Demonstrate an ability to
apply the basic engineering principles that have been learned in the past
years to design an equipment, component or system. Demonstrate an ability to
work in teams and to apply modern engineering tools necessary for engineering
practice. Develop an ability of written & oral communication. Demonstrate
a basic understanding on the impact of engineering solutions in a global and
society context and an ethical and professional responsibility. Encourage
students to broaden their knowledge in contemporary issues.
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Topics :
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week
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Introduction: Forming teams
and assignment of roles, selection of design projects
What is cooperative learning? A
presentation given by faculty
Effective presentation techniques-A
presentation given by faculty
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1
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Presentation of flow
diagrams and production technology
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1
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Gathering and presentation
of essential statistical data for process calculations and determination of
capacity (Raw materials and formulations, national and international
standards, process conditions, physical, chemical, thermal properties of raw
materials, intermediate and end products)
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1
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Field trip to a selected food company
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1
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Calculations of mass and energy balances
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2
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Submission and presentation of mid-reports
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1
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Process calculations
(i.e., head loss, selection of pump, selection of heat exchanger, calculation
of heat transfer area etc.)
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4
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Calculations of costs
Presenting the information on the
equipments
Comparison of equipment costs
Calculating operational costs
Product cost
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1
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Preparation of design
reports
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1
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Presentation of design
reports & General discussions
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1
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Class Schedule :
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Classes are held in one
session per week; 1 class hours and 4 recitation hours in one session.
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Contribution of course to meeting the professional component:
This course contributes to the engineering design requirement of departmental
topics.
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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.
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Apply their knowledge in unit operations,
mathematics, mass and energy balances, heat and mass transfer, fluid
mechanics, and food science and technology to design a food plant by
considering its impact on society and environment and ethical
responsibilities as well.
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a,
b, c, e, f, j, k
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1,
2, 3
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Instruments
G, J
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A presentation is given by the instructor on
cooperative learning & team work and effective presentation techniques in
the first week.
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Develop an understanding of the importance of
sharing information and success with others.
Develop a basic knowledge how to apply presentation
tools such as multimedia applications effectively when delivering oral
presentations.
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d,
g, j
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2
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Instruments
G
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Students are formed into teams of 3-4. Team members evaluate each other’s
contribution critically and evaluate their working attitudes and professional
and ethical responsibility.
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Share credit for success with others.
Assess one’s performance critically and accurately.
Demonstrate an ability to make informed ethical
choices.
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c,
d, f, k
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1,
2, 4
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Instruments
N, O, P
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Each team is provided a list of food products to
select. Each team then prepares a plant design project. |
Demonstrate a basic understanding of the design
process from the concept to prototyping.
Demonstrate a basic knowledge of manufacturing
processes.
Demonstrate an ability to apply theoretical concepts
to practical problem solving.
Apply basic knowledge of management and economic
theory to problem solving.
Apply appropriate engineering tools and methods to
solve problems.
Challenge the ways things are being done.
Meet project milestones and deadlines. |
a, b, c, d, e, f, h,
j, k
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1, 2,
3 |
Instruments
G, L |
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A
field trip is organized to a food plant. |
Demonstrate
an awareness of how and what is learned in the classroom applied to industry. |
h, j |
3 |
Instruments
G |
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Team
performance is evaluated by instructors twice based on oral presentations and
written reports: as a progress report and final report. |
Take corrective action based on feedback from others.
Plan and deliver oral and written materials
effectively. |
a, c,
d, g, k |
2, 4 |
Instruments
G, N, O |
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Individual
performance is evaluated on the basis of final examination |
Demonstrate
an ability to learn independently. |
a, i |
4 |
Instruments
G, J |
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Typical Evaluation:
Progress report and
presentation: 20%
Final project report and
presentation: 40%
Final examination: 40%
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Prepared By: Prof. Dr. Dilek Boyacıoğlu, Ass. Prof. Dr. Gürbüz Güneş
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Date : February
1, 2002
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