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Core Information
Course CEE 756/856 Water Quality Modeling
Lecture 3 hours; 3 credits, Fall Semester, 2023
(offered at ODU Campus and on Online)

Course Website: http://asellus.cee.odu.edu/wqmd/

CALL No.: 17206 CEE 756 - ODU Main Campus (ODU) GORNTO 217
CALL No.: 17207 CEE 756 - WC2_Hampton Roads (WC2)
CALL No.: 17208 CEE 756 - WC5_In Virginia (WC5)
CALL No.: 17209 CEE 756 - WC7_Outside of Virginia (WC7)

CALL No.: 17212 CEE 856 - ODU Main Campus (ODU) GORNTO 217
CALL No.: 17213 CEE 856 - WC2_Hampton Roads (WC2)
CALL No.: 17214 CEE 856 - WC5_In Virginia (WC5)
CALL No.: 17215 CEE 856 - WC7_Outside of Virginia (WC7)

Session Fall Session #1 (Aug 26, 2023 - Dec 8, 2023)
Time/Day Wednesday, 7:10 PM - 9:50 PM
Classroom GORNTO 217 and Online (see Canvas/Course Collaboration Too)
Prerequisite Graduate standing minimum. MATH 307U (ODE), MATH 312 (Vector & Matrix), CEE 340 (Hydraulics and Water Resource), CEE 350 (Environmental Pollution and Control) or Permission of the instructor required.

Students are presumed to have a *strong* background in mathematics, fluid dynamics, hydraulics and hydrology, chemistry, physics, statistics and computational/numerical methods.
Instructor Jaewan Yoon, Associate Professor, CEE, KH 130
Office Phone (757) 683-4724
e-mail <jyoon@odu.edu>
Office Hours Thursday 2:00 - 4:00 PM, and via e-mail anytime

Course Description
   

The objective of this course is to provide graduate-level students an overview of the analytical theory and methods used in surface water quality modeling at meso- and micro-scale system levels.

A must-have course for those who are in the fields of medium- to large-scale urban & natural water resources/water quality management, planning, conservation and remediation (in both Civil and Environmental Engineering).

Students will be introduced to and familiarized in theory and design applications to identify, quantify and describe time/space-variant intensity and magnitude of common substances/pollutants by using flux, transport and fate phenomena principles. For example, depending on the scale of the system/problem, application of standard dispersive/diffusive/decay transport model framework or derivation of a general solution from analytical system equations can be used.

Analytical methods are applied further to investigate/simulate/predict/optimize the system responses corresponding to natural/anthropogenic triggers onto various water quality problem domains including stream and river, lake and reservoir, and estuaries and ocean outfall systems. (Many of the same approaches can be applied to the unit process-level scale in water & wastewater treatments)

Mathematical conceptualization and formulation of flux, transport and fate mechanisms describing meso-spatiotemporal states of physical, chemical, biological, and hydrological water quality will be discussed in depth. Both analysis and design orientations will be emphasized.

Students are presumed to have a strong background in mathematics, fluid dynamics, hydraulics and hydrology, chemistry, physics, statistics and computational/numerical methods.

Textbook and References
   

Textbook

Surface Water-Quality Modeling, Steven C. Chapra,
Waveland (Paperback), December 31, 2008

ISBN-10: 1577666054
ISBN-13: 978-1577666059


Class Topics
   

  1. Principles and lemma used in analytical transport and fate modeling
  2. Problem conceptualization of event domains
  3. Fundamental of transport mechanisms
  4. Time/Space-variant of transport phenomena and control measures
  5. Advective/Dispersive/Diffusive fluxes upon multimodal loadings
  6. Various water quality processes - point, nonpoint, diffused, surface-subsurface interaction
  7. Hydrologic and hydraulic principles relating to water quality modeling
  8. Chemical, physical, and biological characteristics of aquatic system
  9. Assimilative capacity of aquatic systems (WAC) and TMDL
  10. Eutrophication process and trophic state indices -- control and management
  11. Spatiotemporal nutrient management strategy
  12. Tidal loading modulation and control in estuarine environments
  13. Dispersive/Diffusive mixing plume design and optimization
  14. Sea level rise and tidal flooding augmentation in pollutant transport phenomena
Grading Policy
   

Honor System

The Old Dominion University Honor Code applies to all works associated with this course. Honor the Honor Code. Academia is all about Pride and Respect, and the Honor Code is its backbone.

Final Grade Assignment

Midterm Test 20% (Opened book & notes)
Final Exam 20% (Opened book & notes)
Modeling Project & Presentation 60%



Total 100%  

No gradable Homeworks assigned but Weekly Exercise questions will be posted to Canvas/Assignments, followed by a solution one week later.

If you'd registered this course as CEE 856, in addition to "all above," you are required to submit a term research paper (due together with your Final Project Report). Topic of the term research paper will be identified after a short meeting with the instructor in the beginning of the semester.



Letter grades will be based on brackets (see right side) out of the normalized 100% total.

A cumulative total equals to a 65 percentile or higher will guarantee you a grade of C- or better. A cumulative total smaller than a 65 percentile will guarantee you a grade of F.
 
100%-93% A
< 93%-88% A-
< 88%-85% B+
< 85%-80% B
< 80%-78% B-
< 78%-75% C+
< 75%-70% C
< 70%-65% C-
< 65% F

Logistics
        
  1. Office Hours: If you have a question, please e-mail in advance to me at <jyoon@odu.edu> to make an appointment (or flat out to ask a question via e-mail). Putting your question/thought in letter would often help you to clarify what you really don't understand.
    
    
    
    	
  2. Homeworks due on the beginning of following Wednesday class by uploading your PDF solution to Canvas/Assignments. Once completed, you can upload anytime priot to the due date.
            
  3. Exams will be given in a full class period, opened book, opened notes exam. Each exam will cover upto last class' topics, and will not be cumulative.
            
  4. If you think your homework/exam was incorrectly graded or graded too harshly, please return it to me with an explanation. I reserve the right to completely regrade a homework/examination that has been returned (regraded result can be either better or worse than the original grade).
            
  5. Please be serious about "Deadline." (for your project) If it is not meant to be serious in the first place, there wouldn't be the word "Dead" in it. Languid procrastination is the mother of all subjugations -- do not dig yourself into it. Late project report submission will not be accepted, period.
            
  6. A requirement of this course is to conduct a term group modeling project on a water quality problem, give an in-class, about 30-minute (which will be adjusted depending on the class size) presentation over Zoom, and submit/upload a written final report in a PDF file format to Canvas.

    The project will be a group effort, ideally two students per group and no more than three per group at max., but the members/group ratio would be depending on the class size. For more information, please see Term Group Project guideline.

    By applying classroom theories to a real-world problem/design, you can really understand the value of these theories. Remember, the ability to accomplish a thorough, technically-sound, and quality project is what distinguishes you from the undergraduates and distinguishes engineers from others.
            
  7. Reasonable accommodations are provided for students with disabilities. Students should contact me as early in the semester as possible.
            

Course Timeline
 

CEE 756/856 Water Quality Modeling
Lecture 3 hours; 3 credits
7:10 PM-9:50 PM, Wednesday; GORNTO 217 and on Online
Session Fall Session #1 (Aug 26 - Dec 9, 2023)

Today is

Important Dates to Remember
Midterm Exam
(Opened book & notes)
Posted by October 11 (Wednesday) 7:00 PM at Canvas
Due by October 13 (Friday) Noon or earlier by uploading your solution to Canvas
Project Proposal Deadline October 18 (Wednesday)
Project Progress Report Due Optional but highly recommended. November 8 (Wednesday)
1-page Summary due for your group's Project Presentation December 4 (Monday) Noon, in Word (.docx) format
Project Presentations In-class presentation & via Zoom, December 6 (Wednesday) 7:10-9:30
Project Final Report and Project Presentation Due December 6 (Wednesday) 7:10 PM or earlier, upload to Canvas. Project Final Report (in a PDF format) and Project Presentation (in Powerpoint .pptx)
Final Exam
(Opened book & notes)
Posted by December 7 (Thusday) 7:00 PM at Canvas
Due by December 9 (Saturday) Noon or earlier by uploading your solution to Canvas

Period Date   Topics Reading
Chapter
(Extra)
1 8/30 W - Introduction & Modeling Overview
- Mass Balance and Transport phenomena
1 and 3
2 9/6 W - Loadings
- Feedforward and Feedbackward systems
2, 4, 5, 6 and 7
3 9/13 W - Advective, Diffusive and Dispersive Fluxes
- Steady- and Unsteady-state Distributed systems
- Stability and Numerical Dispersion
8,9, 10, 11 and 12
4 9/20 W River and Stream
14 (17)
5 9/27 W Estuary and Nearshore
15 (17)
6 10/4 W Lake, Reservoir and Impoundment
16 (17)
7 10/11 W Midterm Exam (Opened book & notes)

Posted by October 11 (Wednesday) 7:00 PM at Canvas
Due by October 13 (Friday) Noon or earlier by uploading your solution to Canvas
8 10/18 W - Modeling Methodology
- Statistical Techniques for evaluating Model Performance

Project Proposal Deadline
1, 18
9 10/25 W - Dissolved Oxygen - I
- BOD Loading and Gas Transfer
19, 20
10 11/1 W - Dissolved Oxygen - II
- PS & NPS S-P DO Sag Models
21, 22
11 11/8 W - Dissolved Oxygen - III
- Nitrogenous Process
- Photosynthesis/Respiration
- Sediment Oxygen Demand & Pathogens

Project Progress Report
23, 24, 25, (26), 27
12 11/15 W - Eutrophication
- Phosphorous Loading in Eutrophic Process
28, 29
* 11/22 W Thanksgiving Holiday, No Class (November 22-26 W-S)
 
13 11/29 W - Thermal Stratification
- Phyto Growth Models
- WLA, TMDL and BMP
(30) 31, 33 (34)
* 12/4 M E-mail 1-page summary of your group's project presentation (in Word, .docx format) to Dr. Yoon by Noon  
14 12/6 W Project Presentation, 7:10-9:50 PM

Project Final Report (in a PDF format) and Project Presentation (in Powerpoint .pptx), uploaded to Canvas/Project Files Upload by 7:10 PM or earlier.
15 12/7 R Final Exam (Opened book & notes)

Posted on December 7 (Thusday) 7:00 PM at Canvas
Due by December 9 (Saturday) Noon or earlier by uploading your solution to Canvas


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