8/27/2007
DEPARTMENT of CHEMICAL ENGINEERING
Course Time
CHE 06201, Principles of Chemical Processes I W 10:50 AM-12:05 PM (ROW 104);
F
09:25 AM – 11:20 PM (ROW 104)
Instructor
Dr. C. Stewart Slater
Professor
Office: Rowan
Hall 336, Office hours as posted
256-5310/5312, slater@rowan.edu
Course
Description
This course presents an
introduction to chemical engineering calculations; processes, process
variables, and design. Material balances for chemically non-reacting and
reacting systems are described.
Single-phase and multi-phase systems; property tables and diagrams are
covered.
Pre-requisite: Freshman Engineering Clinic I, Adv. Chemistry I, Physics I, Calculus II
Co-requisite: Adv. Chemistry II, Math for Engineering Analysis I
Note:
Principles of Chemical Processes II (Spring) will continue the theme of
this course into energy balances
Text
REQUIRED – (SOLD AS A SET) "Elementary
Principles of Chemical Processes," 2005 Rev 3rd Ed., R.M. Felder
and R.W. Rousseau, John Wiley & Sons,
“Elementary Principles of Chemical Processes of
Chemical Processes Student Workbook”, 2005 Ed, R.M. Felder, R.W. Rousseau, G.S.
Huvard, John Wiley & Sons, 2005
“Interactive Chemical Process Principles” CD,
Intellipro, 2005.
Recommended additional texts
that you will use at various times throughout your entire ChE program:
“Perry's Chemical Engineers’
Handbook,” 7th Ed., Perry and Green, McGraw Hill, New York,
1997 -
Perry’s is now available on the Rowan Engineering Computer Network so
you can use this electronic version or buy the handbook for use at home.
“Green Engineering –
Environmentally Conscious Design of Chemical Processes”, D. Allen and D.
Shonnard, Prentice Hall,
Hand-outs, and selected
reading provided by Dr. Slater
Apply basic calculation methods to chemical
processes
Understand various process parameters used in
processes and how to quantify them
Understand and utilize various process parameters in
the solution of a material balance
Perform individual, multiple and complex (recycle)
material balances on non reacting processes
Apply material balances to chemical, petrochemical,
biochemical, food and beverage, consumer products production and other
production processes.
Understand how to perform balances on reacting
processes
Understand and apply the terms: limiting and excess
reactant, fractional conversion, extent of reaction, yield and selectivity.
Understand liquid and solid densities for single
phase systems
Apply the ideal gas law to simple processing
balances
Determine real gas law behavior utilizing virial
eqns of state, cubic eqns of state, and the compressibility factor eqn of
state.
Analyze single component phase equilibrium using a solid-liquid-vapor-gas
phase diagram
Estimate single component vapor pressure using
Clausius-Clapeyron eqn, Cox Charts and Antoine eqn.
Perform material balances on gas-liquid systems with
one condensable component
Understand basic principles of multicomponent
vapor-liquid equil. systems: Raoult’s
and Henry’s law
Provide an introduction to immiscible liquid systems
Utilize graphical and computer methods to solve
process problems
Understand the implication of safety and
environmental issues in chemical processing
Week
Month
- Day
1 9-5 & 7 1,
2, 3 Engineering
Calculations, Processes/Variables
(Note: 1,2,3 will be a covered quickly since you have had this in
Clinic and other science courses)
2 9-12
&14 3, 4 Processes/Variables; Fund
Material Balances
3 9-19
& 21 4 Material Balances: Process Calculations
4 9-26
& 28 4 Material Balances: Multiple Process Units,
Recycle
5 10-3
& 5 Material
Balances: Reactive Systems
Exam
I
6 10-10
& 12 4 Single Phase Systems: Liquid & Solid
Densities
7 10-17
& 19 5 Single Phase Systems: Ideal Gases
8 10-24
& 26 5 Single Phase Systems: Real Gases
9 10-31
& 11-2 5 Single Phase Systems: Processes
Exam
II
10 11-7
& 9 5 Multiphase Systems: Single Comp. Phase Equil
(No class 11-7 & 9 CSS @
AIChE Meeting)
11 11-14
& 16 6 Multiphase Systems: Single Comp. One Comp
12 11-21
& 23 6 Multiphase Sys: Gas-Liquid Sys, One Comp
(
13 11-28
& 30 6 Multiphase Sys: Gas-Liquid Sys, Multi Comp
14 12-5
& 12-7 6 Multiphase Systems: Liquid-Liquid
15 12-12
& 14 6 Distillation Column Experiment
16 12-? Exam III
(specified final exam time TBA
during Final Exam week 12-17 to 12-21)
Topics/Exam times may shift
due to time constraints
Grading Policy
3 Exams: 90%
Homeworks and other assignments:
10% (Ö+, Ö, Ö-, 0)
HW’s done on team basis. One
homework grade will be assigned for the team for the given assignment. At the end of the semester, homework total
points will be distributed among team members using the Felder team peer
evaluation system. This provides a way to give an evaluation of individual team
members based on their level of contribution to the team.
Exam III is held in Final exam
period and represents the last third of course, but the way the course is
organized it is like a cumulative exam
Final course grades may be decreased based on
unprofessional conduct as mentioned below at the discretion of the instructor.
Responsibilities: To succeed
in this class, you should come to class prepared, ask questions on points that
you do not understand, and attempt all homework problems. In this class, if you have not worked
diligently on the homework assignments, don’t follow what is covered in class,
and do not read the book (including the examples/exercises that are in the
book), the tests will be difficult.
Doing only one third of the homework problems and not reading the book while
your teammates do the work is a recipe for disaster in this course. I will lecture on material (that covered in
the book and some not), make myself available for questions both in and out of
class, attempt to answer all serious questions, and administer fair but
demanding exams.
If you have a documented
disability that may have an impact upon your work in this class, please contact
me. Students must provide documentation of their disability to the
Policies:
1. Regular attendance is expected. You are responsible for all material whether you
are in class or not. Attend the section
you are registered for.
2. Late work of any kind will not be graded, you have multiple
team members – one must be able to hand in the work for the group on time.
3. Collaboration in study teams for homework is acceptable and
encouraged, but all tests must be done independently.
4. If you feel that a test problem has been graded improperly
(except for miscalculation of points), you must resubmit the problem within 24
hours along with a written appeal and explanation. Upon receipt of this formal appeal, I will
regrade the problem. This means that
your score may go up or down.
5. Academic dishonesty of any kind will result in failure for
the course. Academic dishonesty
includes, but is not limited to, copying on an exam, submitting work performed
by another as your own, tampering with or in any way altering another persons
work without their knowledge and consent, and misrepresenting your contribution
to a group project.
6. Students are expected to conduct themselves in an acceptable
manner at all times. Students who violate public law or the rights of others
and interfere with the educational process will be referred to the proper
authorities. Course final grade will be reduced for unprofessional conduct in
class, failure to follow proper safety procedures, disruptive activity or other
behavior as deemed not appropriate.