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                clear.
            
            
                Be sure to check back, because this page will be updated often during the semester. 
                
                    
                
            
            
                -  Since the main text doesn't include background material on exponentials, logarithms, or
                    trig functions, I posted references for the first two weeks of class to onCourse.
                
- Beginning on Sunday February 6, all numbers indicate sections from
                    APEX Calculus, Version 4.0.
                    
 Be sure to check the
                    Errata for corrections to the text.
            Week 1: Due Thursday January 27 @ 11:59 pm
            An intuitive introduction to derivatives 
            To Read
            
                - Section 1.4 Amount Functions and Rate Functions: The Idea of the Derivative,
                    from Ostebee/Zorn, pp. 35-44, posted to onCourse
To Watch
            
                - Week 1: Intuitive idea of derivatives (Echo360, link in onCourse)
Optional Resources
            
            Pre-Class Questions 
            Look at the graphs of P(t) and V(t) in Figure 1 on page 37.
            
                - Is the derivative of P positive or negative at t=5 ? Explain. 
- Is the second derivative of P positive or negative at t=5 ? Explain.
- Give a value of t where the derivative of P is zero.
- Have you filled out the Background Questionairre yet? (link in onCourse) 
            Submit answers through onCourse
            
            Week 2: Due Sunday January 30 @ 11:59 pm
            Review of exponentials, logarithms, and trigonometric functions 
            To Read
            
                - Section 3.4 Exponential and Logarithmic Functions, pp. 85-96,
                    from Essential Precalculus, posted to onCourse
-  Section 4.1 The Unit Circle: Sine and Cosine, from Essential
                        Precalculus, posted to onCourse
Optional Resources
            
            Pre-Class Questions 
            
                - All exponential functions \( f(x)=b^x\) share a common point on their graphs. What is it?
                
- How are the graphs of the functions \( f(x)=2^x\) and \(g(x)=\log_2(x)\) related? 
- Use the unit circle definitions of sine and cosine to answer the following.
                    
                        - Is \( \sin(6\pi / 7) \) positive or negative? Why?
- Is \( \cos(6\pi / 7) \) positive or negative? Why?
 
            Submit answers through onCourse
            
            Week 3: Due Sunday February 6 @ 11:59 pm
            Limits, continuity, and asymptotes 
            To Read
            Note that these sections are from APEX Calculus. 
            
                - Section 1.1 An Introduction to Limits
- Section 1.3 Finding Limits Analytically
- Section 1.4 One Sided Limits
- Section 1.5 Continuity
- Section 1.6 Limits Involving Infinity
This is the longest assignment of the semester by far.
                Try to read/skim these sections for the main ideas, and don't get too hung up in the details in your
                first reading. We'll discuss all the most important points thoroughly during class.
                You can also ignore any references to the ε - δ definition of the limit in these sections.
            
            Optional Resources
            
            Pre-Class Questions 
            
                - Explain why \( \displaystyle\lim_{x\to -3} \frac{x^2-9}{x+3} = -6 \) 
- If \( f(x)=x^2\), explain why \( \displaystyle\lim_{h\to 0} \frac{f(5+h) -f(5)}{h} = 10\)
- In Figure 1.4.1, explain why \( \displaystyle\lim_{x\to 1^+}f(x) \ne f(1)\) 
- How can you tell from the graph of y=f(x) if the function f(x) is continuous? 
- Give an example of a function that has a vertical asymptote at x = 2. Explain. 
            Submit answers through onCourse
            
            Week 4: Due Sunday February 13 @ 11:59 pm
            The derivative and basic differentiation rules
            To Read
            
                - Section 2.1 Instantaneous Rates of Change: The Derivative
- Section 2.3 Basic Differentiation Rules
To Watch
            
                - Week 4: Definition of the derivative and the derivative of xn (Echo360, link in onCourse)
                
- Week 4: Basic differentiation rules (Echo360, link in onCourse)
Pre-Class Questions 
            
                - Let \( f(x)=3x^2\). Use the limit definition of the derivative (Definition 2.1.1 on page 62) to find
                    \( f'(2)\). 
- Use the graph of \(f(x)=|x|\) to explain why \( f'(0)\) does not exist.
- If \(f(x)=x^8+\frac{1}{x}-\sin(x)+3\cos(x)\), what is \(f'(x)\)? 
- If \(g(x)=e^x\), what is the 42nd derivative of \(g(x)\)? 
            Submit answers through onCourse
            
            Week 5: Due Sunday February 20 @ 11:59 pm
            The product, quotient, and chain rules 
            To Read
            
                - Section 2.4 The Product and Quotient Rules
- Section 2.5 The Chain Rule 
To Watch
            
                - Week 5: The product and quotient rules (Echo360, link in onCourse)
Optional Resources
            
                - How to Use the Chain Rule by Calcvids
 Don't get hung up on the derivative of r(x) in the video - we'll talk about
                        derivatives of logarithms other than ln(x) later.
Pre-Class Questions 
            Explain what is wrong with the following calculations and fix them.
            
                - If \( f(x)=(x^2+7x)(x^4 + 5 x^2 + 9)\), then \( f'(x)=(2x+7)(4x^3+10x)\). 
 
 
- If \( f(x)=\displaystyle\frac{x^2+7x}{x^4 + 5 x^2 + 9}\), then \(
                    f'(x)=\displaystyle\frac{2x+7}{4x^3+10x}\). 
 
 
- If \(f(x)=(x^2+2x)^{130}\), then \(f'(x)=130(x^2+2x)^{129}\). 
            Submit answers through onCourse
            
            Week 6: Due Sunday February 27 @ 11:59 pm
            Extreme values and the Mean Value Theorem 
            To Read
            
                - Section 3.1 Extreme Values
- Section 3.2 The Mean Value Theorem
 You can skip the proofs of the Mean Value Theorem and Rolle's Theorem.
To Watch
            
                - Week 6: Finding extreme values (Echo360, link in onCourse)
- Week 6: Why we care about the Mean Value Theorem (Echo360, link in onCourse)
Pre-Class Questions 
            
                -  Let \(f(x)=2x^3+3x^2-12x+5\).
                    
                        - Find the critical numbers of \(f(x)\). 
- Find the extreme values of \(f(x)\) on the interval \([-1,2]\). 
 
- What is an important consequence of the Mean Value Theorem related to finding antiderivatives of a
                    function f(x)?
            Submit answers through onCourse
            
            Week 7: Due Sunday March 6 @ 11:59 pm
            Derivatives, concavity, and curve sketching 
            To Read
            
                - Section 3.3 Increasing and Decreasing Functions
- Section 3.4 Concavity and the Second Derivative
- Section 3.5 Curve Sketching
Optional Resources
            
            Pre-Class Questions 
            
                - 
                    Let f(x)=x3-3x2-9x+7.
                    
                        - Find the critical numbers of f(x)
- Find the intervals where f(x) is increasing and the intervals where f(x) is decreasing
- Use the First Derivative Test to identify each critical number as a relative maximum,
                            minimum, or neither
 
-  Using the same function f(x),
                    
                        - Find the inflection points of f(x)
- Find the intervals where f(x) is concave up and the intervals where f(x) is concave down
                        
- Use the Second Derivative Test to identify each critical number of f(x) as a relative
                            maximum or
                            minimum, if possible.
                        
 
            Submit answers through onCourse
            
            Week 8: Due Sunday March 20 @ 11:59 pm
            L'Hôpital's Rule and Optimization 
            To Read
            
                - Section 6.7 L'Hôpital's Rule
- Section 4.3 Optimization
Optional Resources
            
                - L'Hôpital's Rule by the Organic
                    Chemistry Tutor (focus on first 6 minutes or so)
                
Pre-Class Questions 
            
                - Is the limit \( \displaystyle \lim_{x \to \infty} \frac{e^x}{x} \) in indeterminate form? Explain.
                
- Is the limit \( \displaystyle \lim_{x \to 0} \frac{\cos(3x)}{x} \) in indeterminate form? Explain.
                
- No specific questions on optimization, but pay attention to what the text calls the fundamental equation in the examples in Section 4.3.
                
            Submit answers through onCourse
            
            Week 9: Due Sunday March 27 @ 11:59 pm
            Taylor and Maclaurin Polynomials 
            To Read
            
                - 8.7 Taylor Polynomials
 Focus on pages 473-476. We won't get into the details of error bounds this semester.
To Watch
            
                - Week 9: Why Taylor polynomials (Echo360, link in onCourse)
                
Pre-Class Questions 
            
                - What is the purpose of finding the Taylor polynomial for a known function like \(f(x)=\sin(x)\)?
                
- What is the difference between a Taylor polynomial and a Maclaurin polynomial?
- Consider forming the Maclaurin polynomial of degree 3 for \( f(x)=\sin(x) \). Call this polynomial
                    \( P_3(x) \). Which derivatives of \( f(x) \) do you need to form \( P_3(x) \)? 
            Submit answers through onCourse
            
            Week 10: Due Sunday April 3 @ 11:59 pm
            Definite and Indefinite Integrals 
            To Read
            
                - Section 5.1 Antiderivatives and Indefinite Integration 
- Section 5.2 The Definite Integral 
Optional Resources
            
            Pre-Class Questions 
            Think about these, but no need to submit your answers. Focus on reviewing for Exam 2 this week.
            
                - Evaluate \( \displaystyle\int 2x + \cos(x) dx\) 
- What is the difference between a definite integral and an indefinite integral? 
- Look at graph in Figure 5.2.8 on pg 213. Will \(\displaystyle \int_0^a f(t) dt\) be positive or
                    negative?
                    How about \(\displaystyle\int_0^b f(t) dt\)? Explain. 
            Week 11: Due Sunday April 10 @ 11:59 pm
            Riemann Sums and the Fundamental Theorem of Calculus 
            To Watch
            
                - Week 11: The Fundamental Theorem of Calculus (Echo360, link in onCourse)
                
To Read
            
                - Section 5.3 Riemann Sums
- Section 5.4 The Fundamental Theorem of Calculus 
 Focus on the concepts in the first four pages (pp 236 - 239)
Optional Resources
            
            Pre-Class Questions 
            
                - What is the purpose of a Riemann sum? 
- Will a Right Hand Rule sum overestimate or underestimate \(\displaystyle\int_0^2 x^2 dx\)? Explain. 
- Does every continuous function have an antiderivative? Why or why not?
-  Find the area of the region above the x-axis and below the graph of
                    f(x)=cos(x) + 2 between x=1 and x=7. 
            Submit answers through onCourse
            
            Week 12: Due Sunday April 17 @ 11:59 pm
            Antidifferentiation by Substitution 
            To Read
            
                - Section 6.1 Substitution 
 You can skip the parts related to the inverse trig functions.
Optional Resources
            
            Pre-Class Questions 
            
                - Substitution attempts to undo one of the techniques of differentiation. Which one is it? 
- Use \(u\)-substitution to find an antiderivative of \(f(x) = 3x^2\cos(x^3)\) 
            Submit answers through onCourse
            
            Week 13: Due Sunday April 24 @ 11:59 pm
            Modeling and applications 
            To Watch
            
                - Exponential growth and epidemics by 3Blue1Brown, from March 8, 2020
- Week 13: More on the logistic growth model (Echo360, link in onCourse), from Fall 2020
                
- This next video isn't required, but it's one of the best explanations I saw in Spring 2020. It's well worth your 23 minutes. 
 Simulating an epidemic by 3Blue1Brown
Pre-Class Questions 
            
                - Why is a logistic model more accurate than an exponential model when modeling an epidemic?
- Around the 5:00 mark of the "Exponential growth and epidemics" video, they mark a point as an inflection point. Explain why this point matches our calculus definition of an inflection point being a place where the second derivative is 0.
            Week 14: For Sunday May 1
            For the last week of the semester we'll be reviewing and looking at the Big Picture of Calculus I.
                No Pre-Class Assignments for this week.