CM3110: Transport/Unit Operations I
Instructor: Prof. Faith A. Morrison
Office: Chemi Sci 304A, 906-487-2050
Required: Faith A. Morrison, An Introduction to Fluid Mechanics, Cambridge University Press, New York (2013), ($108 on the Cambridge website)
Faith A. Morrison, An Introduction to Heat Transfer, unpublished notes, 2013.
Christie J. Geankoplis, Transport Processes and Unit Operations, 4th Edition, Prentice Hall, New York (2003).
Richard Felder and Ronald Rouseau, Elementary Principles of Chemical Processes, 3rd Edition, Wiley, New York, 2005.
Additional supplemental reading materials are given on the class website at this link: www.chem.mtu.edu/~fmorriso/cm310/handouts.html
I strongly recommend that you print and use the unit conversion and physical property sheet I have prepared. It is available on the handout page.
Prerequisites: Differential Equations (MA3520 or MA3521) and Chemical Engineering Fundamentals II CM2120 and Physics II PH2100. This course will make intensive use of all of your math background (units, algebra, calculus, differential equations, vectors, partial derivatives), your physics background (Newton's laws, forces, torques, angular rotation), and your chemical engineering background (mass and energy balances, macroscopic energy balances, heat exchangers, friction in flow, pumps).
Class hours: MW 3:05-4:20pm, Fisher 139
Dr. Morrison's office hours: posted on web; other times by arrangement - request by email.
TA: Zhichao Wang, email@example.com, office hours: Fridays by appointment. Evening homework discussion sessions with the TA are scheduled before each exam.
Master the principles governing the transport of momentum (fluid flow) and energy (heat transfer) in chemical engineering systems. Master the application of momentum and energy balances to simple systems, master the application of the general differential balance equations to steady problems, and become familiar with the solutions of unsteady-state problems. Introduction to dimensional analysis and empirical methods. Become familiar with techniques to apply these subjects to areas such as pump analysis, sedimentation, fluid meters, heat-exchanger design, or evaporator design.
*SYLLABUS The subjects to be covered are indicated in the syllabus: http://www.chem.mtu.edu/~fmorriso/cm310/schedule.html. The timing of the subjects is approximate and is subject to change.
List of Topics: (CM Department ABET accreditation outcomes addressed as indicated)
(a) Intro to transport phenomena, turbulence
(a,b) Fundamentals viscosity
(a) Velocity distributions in laminar flow
(a,e) Control volume
(a,e) Non-Newtonian fluids
(a,e,k) Navier-Stokes equation
(a,b,e,i) Dimensional analysis of the Navier-Stokes equation
(a,e) Macroscopic momentum balances
(a,e) Compressible fluid flow
(a,e) Flow past immersed bodies
(a,b,e) Flow through packed beds
(a) Fans, blowers, compressors
(a) Agitation and mixing
(a,e) Introduction to heat transport
(a,b,e) Fourier's law/calculating temperature profiles
(a,e) Calculating temperature profiles/flux/boundary conditions
(a,b,e) Overall heat transfer coefficients
(a,c,e) Introduction to heat exchangers; derive DTlm
(a,e) Calculate temperature profiles with heat generation
(a,e) Energy equation
(a,e,i,k) Dimensional Analysis of the energy equation/heat transfer coefficients
(a,e) Heat transfer coefficients natural convection
(a,e) Heat transfer coefficients phase change
(a,e) Heat exchanger Design/fouling
(a,e) Unsteady state heat transport
(k) Comsol FEM software
The reading assignments are listed on the syllabus. The selected sections of each indicated chapter are detailed in the Readings Handout, which is also on the web: ReadingsMorrisonFluidMechanics.pdf. It is expected that this material will be read prior to class time. In the Readings Handout there are also "Week 0" readings to assist you in reviewing the prerequisite material (mechanical energybalance, fluid statics, and pumps).
There will be four 1.5 hour (90 minute) evening exams plus a two-hour final exam. The exams will be closed book, closed notes with one 8.5 by 11 sheet, both sides, allowed for formulas. An exam may include any topic covered in the course up to the section indicated in the syllabus for that exam. Prerequisite material may appear on any of the exams. Make-up exams will not be given except under extraordinary circumstances. Check your final exam schedule early and report any conflicts as soon as possible. Check the syllabus for any conflicts with the scheduled exams and inform the instructor the first week of the term.
The Department has the software Comsol Multiphysics 4.2 (www.comsol.com), which is a state-of-the art program for solving differential equations. It is designed to calculate solutions to the equations of motion and energy that we study in CM3110 and CM3120. We introduce a computer project midway through the term.
First exam: 15%; Second exam: 20%; Third exam: 20%; Fourth exam 20%; Final exam: 25%; Computer Project (Comsol): 5% Scale: 90-105 %A; 86-89 AB; 80-85 B; 76-79 BC; 70-75 C; 66-69 CD; 60-65 D; Less than 60% F
Homeworks will be assigned regularly (see syllabus). The homeworks are designed to focus your attention on the types of calculations that will improve your comprehension of fluid mechanics and heat transfer. Answers to homeworks will be provided; solutions to homeworks will not be provided. You may work on homeworks with your classmates. You may ask for homework help from the TA or from the instructor or from anyone else. The TA will hold evening homework discussion sessions as scheduled on the syllabus.
Basic homework problem are assigned for all students to be able to solve. Additionally, "stretch" homework problems are provided for students who aspire to top comprehension and class performance.
You are encouraged to work together in study groups to trade ideas on how to solve problems and to help to teach each other the subject.
Cheating of any form will not be tolerated. Any student found to be cheating would be reported to the Dean of Students. The punishment for plagiarism ranges from an F in the course to expulsion.
CM3110 only covers the most basic aspects of fluid mechanics and heat transfer. If you are at all interested in pursuing graduate school upon graduating from Michigan Tech, I encourage you to pursue additional readings on fluid mechanics and heat transport while taking this course. I recommend that you read the unassigned chapters of our text; for heat transfer you may find the following text to be useful:
Frank P. Incropera, David P. DeWitt, Theodore L. Bergman, Adrienne S. Lavinem, Fundamentals of Heat and Mass Transfer, Wiley, New York (2006).
I would also encourage you to take the graduate transport course CM5300, if possible. If you are interested in learning more about non-Newtonian fluids, consider taking CM4650 Polymer Rheology (www.chem.mtu.edu/~fmorriso/cm4650/cm4650.html); which I teach in the sprin. CM4650 also gives additional background on Newtonian fluid mechanics.