Pollution Prevention

CH E 471/671
3 credits
Fall 2004
TR 4:00--5:15 P.M.
227 MS


Instructor:

Prof. W. B. Whiting; 309 LME; 1-775-784-4307; wwhiting@unr.edu

Prerequisite: Upper division standing in engineering

Required Text:

Allen, D. T., and D. R. Shonnard, Green Engineering:  Environmentally Conscious Design of Chemical Processes, Prentice-Hall, Upper Saddle River, NJ, 2002.  See errata sheet.

Course Objectives:

Chemical engineers constantly face issues in the design, modification, and operation of process plants while protecting the natural environment. The federal Pollution Prevention Act of 1990 established a hierarchy of environmental management strategies in which source reduction (also known as waste minimization or pollution prevention) is the ultimate goal. By designing processes and plants that are efficient, we avoid the production of pollutants at the source.

In this course, we study the strategies for designing low-emission chemical plants and case studies of their implementation. Upon successful completion of the course, the student should be able to:
 


Course Schedule: (approximate and tentative)
 

Date Topic Reading Assignment Homework Problems due (watch for updates)
Tuesday, August 24 Introduction to Environmental Issues (Chapter 1)    
Thursday, August 26 Risk Concepts (Chapter 2)
Read Chapters 1and 2
#1.3, 1.4
Tuesday, August 31
Risk Concepts (Chapter 2)   #2.2, 2.4
Thursday, September 2
Environmental Law & Regulations (Chapter 3)
Read Chapters 3 and 4
#2.5
Tuesday, September 7
Ethics (Chapter 4)   #4.3
Thursday, September 9
Environmental Fate (Chapter 5)
Read Chapter 5
 #3.2., #3.4
Tuesday, September 14 Environmental Fate (Chapter 5)
 Sample problem
#5.2
Thursday, September 16
Evaluating Exposures (Chapter 6)
Read Chapter 6
#5.6
Tuesday, September 21 Evaluating Exposures (Chapter 6)   #6.1, #6.2
Thursday, September 23
Recap
   #6.5
Tuesday, September 28
Mid-Term Exam (Chapters 1-6)


Thursday, September 30
MTBE Presentations/Discussions
Read Chapter 7
MTBE
Tuesday, October 5
Sustainability
Green Chemistry (Chapter 7)
 Read Chapter 8 #7.1
Thursday, October 7
RiskShifting, Sustainability, Water Use
   
Tuesday, October 12 Process Synthesis (Chapter 8)


Thursday, October 14
Process Synthesis (Chapter 8)    
Tuesday, October 19  Process Synthesis (Chapter 8) Read Chapter 9 #8.2
Thursday, October 21 Unit Operations (Chapter 9)

Tuesday, October 26
Unit Operations (Chapter 9) Reactors Handout
#9.1, #9.4
Thursday, October 28
(Class meets 4:30--5:45 P.M.)
Unit Operations (Chapter 9)
#9.5
Tuesday, November 2
Flowsheet Analysis (Chapter 10)
Read Chapter 10

Thursday, November 4
Evaluating the Environmental Performance of a Flowsheet (Chapter 11)  Read Chapter 11 #10.1
Tuesday, November 9
trade for take-home final

Tuesday, November 16
Evaluating the Environmental Performance of a Flowsheet (Chapter 11)
#11.1, #11.2
Thursday, November 18
Environmental Cost Accounting (Chapter 12)  Read Chapter 12
Tuesday, November 23
Life-Cycle Concepts (Chapter 13) Read Chapter 13 Develop a methodology for the environmental cost of CO2 emissions in dollars per ton
Tuesday, November 30
Life-Cycle Concepts (Chapter 13)

Thursday, December 2
Industrial Ecology(Chapter 14) Read Chapter 14 #13.1
Tuesday, December 7
Jon Pabico, "Biodiesel"
Josh Nickerson, "A Risk Analysis of Toxic Compounds in Food"

#14.2
Thursday, December 9, 
4:30--6:30 P.M.
Room 231B SEM
Angie Deschutter, "Typical Daily Personal Energy Use"
Final Exam
  Final Exam (comprehensive, link is to 2002 exam)

CH E 471

Class assignments will mainly consist of readings and homework problems.

CH E 671

The graduate component will also be given the CH E 471 assignments. However, an additional project will relate to a topic approved by the instructor. An oral presentation and a final report is required.

Grading:
 


ChE 471
ChE 671
Mid-term examination 
25%
25%
Final examination
Thursday, December 9, 4:30--6:30 P.M.
30
30
Homework
35
15
Classroom Participation (see below)
10
10
Project (graduate only)  
20
 
====
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TOTAL
100%
100%

Attendance is expected at all class meetings.

Workload:

The standard university workload is 3 hours per week (for 16 weeks) per credit hour.

Other requirements: