Prabhas Moghe, Associate Professor, Chemical and Biochemical Engineering, Office: C 230
Phone: # 445-4951, Office hours: Wednesdays, 10:15 AM - 11:45 AM.
TA: Natesh Parashurama Email: nparashu@eden.rutgers.edu, Phone: 5-5511
TA Office Hours: Fridays, 2:30 - 4:30 PM
Class Hours & Location: M & W: 2:50-4:10 PM, SEC 117
Index: 61481
Prerequisites: 155:307 (Chemical Engineering Analysis II; Offered in Fall)
Objective:
J. Richard Elliott and Carl T. Lira, Introductory Chemical Engineering Thermodyamics, Prentice Hall, 1999
References (Will be put on reserve in SERC if necessary):
B.G. Kyle, Chemical and Process Thermodynamics, Third Edition, Prentice Hall, 1999.
Course Website (Activated 1/23/2002):
www.rci.rutgers.edu/~moghe/308.html
Contribution of Course to Meeting the Professional Component
This course partially fulfills the requirement of two and half years
of engineering topics (engineering science and design) under professional
components (Criterion 4) as required by the ABET.
Relationship of Course to Program Objectives
In this course, students learn to apply molecular physics to the essential
concepts of energy and entropy balances, which lie at the heart of process
engineering calculations. These tools will be useful to prepare students
for problems widely encountered in the chemical engineering profession.
The course also provides the basis for Process Engineering (155:415), Design
of Separation Processes (155:423), and Chemical Engineering Kinetics (155:441),
all core courses offered at the senior level.
Grading
Homework (Work individually): 20%
Class Participation (5 Quizzes, Attendance, Interaction): 30%
Tests (one mid-term, one end-term): 50%
Revised: April 22, 2002
Note: Subsequent reading and homework assignments will be posted periodically
on the course web-site.
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Date |
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Reading |
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Jan. 23 W | Course
Organization, Requirement
Introduction (Ch. 1) Energy, Basic Concepts -1st and 2nd Laws, Reversibility, PVT Behavior |
1.1- 1.4 |
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Jan. 28 M | Ch. 1 Contd.; The Energy Balance | 2.1- 2.4 |
| Jan. 30 W | The Energy Balance Applied to Process Equipment | 2.5-2.9 | |
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Feb.4 M | The Energy Balance Contd. | 2.10-2.12 |
| Feb. 6 W | Open and Closed System Problems | 2.14,
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Feb. 11 M | Entropy Balance. | 3.1,3.3 |
| Feb. 13 W | Entropy Balances & Entropy Generation | 3.4 | |
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Feb. 18 M | Carnot Heat Engine and Heat Pump | 3.5-3.7 |
| Feb. 20 W | Work Realization in Process Equipment | 3.8-3.9 | |
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Feb. 25 M | Property Charts and Turbine Calculations | 3.11-3.13 |
| Feb. 27 W | Carnot Cycle and Intro to Rankine Cycle | 4.1-4.2 | |
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Mar. 4 M | Rankine Cycles, continued | 4.2-4.3 |
| Mar. 6 W | Refrigeration, continued; Cascade Refrigeration | 4.4 | |
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Mar. 11 M | Review, Problem Solving | |
| Mar. 13 W | MID-TERM TEST (NO LECTURE) | ||
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Mar. 18 M | Spring Recess - No Class | |
| Mar. 20 W | Spring Recess - No Class | ||
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Mar. 25 M | Classical Thermodynamics | 5.1,5.2 |
| Mar. 27 W | Equation of State | 6.2 | |
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April 1 M | Equations of State; Intro to PREOS.xls | 6.5,6.6 |
| April 3 W | Departure Functions | 7.1,7.2 | |
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Apr. 8 M | Departure Functions, continued | 7.3-7.5 |
| Apr. 10 W | Phase Equilibrium in a Pure Fluid; Clayperon Equation | 8.1, 8.2 | |
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Apr. 15 M | Fugacity and Fugacity Coefficient; Fugacity of Liquids; Intro to Multicomponent Systems | 8.4-8.8 |
| Apr. 17 W | Multicomponent
Systems; Phase Diagrams;
Partial Molar Properties; Microscopic Entropy |
9.1-9.2
3.2 |
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Apr. 22 M | Ideal Solution Theory; Lewis-Randall Rule; Henryís Law; Raoultís Law; Ideal Solution Approximation Applied to VLE | 9.3 - 9.4 |
| Apr. 24 W | VLE Calculations; Non-ideal Systems; Activity Models; Gibbs Excess Energy ; Margules Equation | 9.6; 11.1-11.2; 11.3 | |
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Apr. 29 M | Use of UNIQUAC Method for Activity; Reaction Coordinate and Equilibria | 14.1,14.2 |
| May 1 W | Reaction Equilibria for Ideal Solutions; Exam Review | 14.3 | |
| May 9 W | FINAL TEST 8:00 AM -11:00 AM |