The simplicity of nature is not to be measured by that of our conceptions.
Infinitely varied in its effects, nature is simple only in its causes,
and its economy consists in producing a great number of phenomena,
often very complicated, by means of a small number of general laws.
Pierre-Simon Laplace (1749-1827)
- Time and Place. TR 10:30-11:50 in LART 204
- Instructor. Helmut Knaust, Bell Hall 219, email@example.com, 747-7002
- Office Hours. TR 12:00-13:20, or by appointment.
- Other Sources of Help.
- Prerequisites. I will assume that you have a thorough knowledge of the material covered in your Precalculus and your first two Calculus courses. In particular, it is essential that you are comfortable with techniques of integration and the method of partial fractions.
- Course Contents. The course will cover the following material:
- Chapter 1.1-1.9 (4 weeks)
- Chapter 2.1-2.6 (2.5 weeks)
- Chapter 3.1-3.7 (4 weeks)
- Chapter 5.1-5.2 (1.5 weeks)
- Chapter 6.1-6.4 incl. selected topics from Chapter 4 (2.5 weeks)
- Course Objectives. During the course you should expect (and I will expect) that you make considerable progress in the following areas:
- Apply standard techniques to analyze and solve ordinary differential equations: using analytical, numerical and qualitative methods; using the method of the Laplace transform.
- Be able to model with differential equations and interpret the results of their mathematical analysis.
- Understand the fundamental difference between linear and non-linear differential equations.
- Homework. I will regularly assign homework. The homework will not be graded. Homework assignments will also include reading assignments.
- Quizzes. There will be unannounced quizzes on a regular basis. Quiz problems will be identical to previously assigned homework problems. The quizzes will contribute 10% to your grade.
- Tests. Exams will be given on the following days: Tuesday,
September 20September 27, Thursday, October 27, and Tuesday, November 22. Each exam counts 20% of your grade.
- Make-up Exams. Make-up tests will only be given under extraordinary circumstances, and only if you notify the instructor prior to the exam date. There will be no make-up quizzes. Your worst quiz grade will be dropped.
- Final exam. The final on Thursday, December 8, 10:00-12:45 is mandatory and comprehensive. It counts 30% of your grade.
- Grades. Your grade will be based on the percentage of the total points that you earn during the semester. You need at least 90% of the points to earn an A, at least 80% for a B, at least 70% for a C, and at least 60 % for a D.
- Calculators. You may use a non-graphing calculator (not a cell phone, etc.) during tests and the final. If you have doubts about whether your calculator qualifies, ask me before the first test.
- Mathematica. I will show in class and make available some Mathematica notebooks. If you want to look at those notebooks on your own, you need to request a UTEP home license (see https://www.utep.edu/science/math/mathematica/). Follow the instructions in Access Mathematica Online. Learning how to code is not required, but if you want to learn more about coding in Mathematica, a nice introduction to Mathematica can be found at An Elementary Introduction to the Wolfram Language, by Stephen Wolfram.
- Time Requirement. I expect that you spend an absolute minimum of six hours a week outside of class on reading the textbook, preparing for the next class, reviewing your class notes, and completing homework assignments. Not surprisingly, it has been my experience that there is a strong correlation between class grade and study time.
- Attendance. You are strongly encouraged to attend class every day. I expect you to arrive for class on time and to remain seated until the class is dismissed. Students with six or more absences (excused or unexcused) will be dropped from the course with a grade of "F".
- Academic Integrity. All students must abide by UTEP's academic integrity policies. For detailed information visit the Office of Student Conduct and Conflict Resolution (OSCCR) website. Academic Integrity is a commitment to fundamental values. From these values flow principles of behavior that enable academic communities to translate ideals into action.” Specifically, these values are defined as follows:
- Honesty: advances the quest for truth and knowledge by requiring intellectual and personal honesty in learning, teaching, research, and service.
- Trust: fosters a climate of mutual trust, encourages the free exchange of ideas, and enables all to reach their highest potential.
- Fairness: establishes clear standards, practices, and procedures and expects fairness in the interaction of students, faculty, and administrators.
- Respect: recognizes the participatory nature of the learning process and honors and respects a wide range of opinions and ideas.
- Responsibility: upholds personal responsibility and depends upon action in the face of wrongdoing.
- Military Service. If you are a military student with the potential of being called to military service and/or training during the course of the semester, you are encouraged to contact the instructor as soon as possible.
- Counseling Center. You are encouraged to go to Counseling and Psychological Services (202 Union West) for personal assistance as you work through personal concerns. Confidential counseling services are offered in English or in Spanish.
- Disabilities. If you have a disability and need special accommodation, please contact the Center for Accommodations and Support Services (CASS). The Center aspires to provide students accommodations and support services to help them pursue their academic, graduation, and career goals. Phone 747-948. E-mail: firstname.lastname@example.org.
The homework is always due on the next class date, unless specified otherwise.
- 11/22 Read 6.1 HW 15 Problems 6.1: 6,7,9,10 (Laplace formula sheet)
- 11/15 Read 5.2,6.1. HW 14 Problems 5.2: 1,2,3,12
- 11/8 Read 5.1,5.2. HW 13 Problems 5.1: 2,11,12,17,20 (due 11/15}
- 11/3 Read 3.7, 5.1. HW 12 Problems 3.7: 4,8,10
- 11/1 Read 3.6,3.7. HW 11 Problems 3.6: 8,10,12,29,32
- 10/20 Read 3.5-3.6. HW 10 Problems 3.5: 3,4,11,12,18
- 10/13 Read 3.3-3.5. HW 9 Problems 3.3: 14,19,27; 3.4: 4,6,15,16,22 (due 10/20)
- 10/11 Read 3.1-3.3. HW 8 Problems 3.1: 16,26; 3.2: 2,14,16,19
- 10/6 Read 2.4-2.6; 3.1-3.2. HW 7 Problems 2.4: 3,13a-c; 2.5: 5,7; 2.6: 8,9,10
- 10/4: Read 2.4-2.6. Turn in Worksheet 2 on Thursday (1 submission per team; this will count as a quiz)
- 9/29: Read 2.1,2.2,2.4-2.6. HW 6 Problems 2.1: 1-6,8ab; 2.2: 7,9,13,15,21
- 9/20: Read 2.1-2.2.
- 9/15: Read 1.7,2.1. HW 5 Problems 1.7: 2,4,6,12,16,18
- 9/13 Read 1.6-1.7. HW 4 Problems 1.6: 2,12,30,36
- 9/6: Read 1.5-1.6. HW 3 Problems 1.4: 2,6; 1.5: 2,11 (due 9/13)
- 9/1: Read 1.3-1.5. HW 2 Problems 1.2: 40,41; 1.9: 24,25; 1.3: 10,13,14,16
- 8/30: Read 1.3,1.4.
- 8/25: Read 1.2,1.9. HW 1 Problems 1.2: 6,10,22,36; 1.9: 2,8,12 (due 9/1)
- 8/23: Read 1.2,1.9.
OneNote: Office hours Dec. 6 | Solutions for Test 3 | Laplace formula sheet | Worksheet 2 (glider) | SIR Models for Infectious Diseases | Mathematica: Logistic Growth with Harvesting | Cooling Coffee Without Solving Differential Equations, by Robert Israel, Peter Saltzman and Stan Wagon | Mathematica notebook | Slope field and phase plane plotter, by Darryl Nester. | Bungee jump demonstration | Worksheet 1 (bungee jumping)