AP Calculus BC Syllabus Course Overview This course is designed to mimic a full year of introductory single variable calculus at the collegiate level. The material is highly advanced and will be taught at a very rigorous pace. This class will require more time, work, studying, and collaboration by far than any math class you have previously enrolled in. Students in this class are expected to have excelled in Algebra 1, Geometry, Algebra 2, and Precalculus. My overall goal for you is fourfold: To prepare you to succeed on the AP Exam in May [everyone is expected to take it] To provide you with a background necessary to excel in higher studies of mathematics at the university level To provide you with the communication skills needed to discuss mathematics accurately in written and oral form To help you appreciate the significant roles Calculus plays in a variety of fields today Our approach to the study of Calculus will involve four main approaches: Numerical Analysis Graphical Analysis Algebraic and Symbolic Analysis Verbal and Written representations of mathematics Textbook Finney, et. al. (2007). Calculus – Graphical, Numerical, Algebraic, AP Edition. Boston, MA. Pearson Prentice Hall. ISBN: 0-13-201408-4 Supplementary Resources www.khanacademy.org/ www.studyisland.com/ www.youtube.com/user/scheithauerphysics University of Texas’ Quest Online Homework System Vernier Logger Pro, LabQuest, and data collection devices Foerster, P (1997). Calculus Explorations. Berkeley, CA: Key Curriculum Press. ISBN: 1559533110 Graphing Calculator The use of a graphing calculator is mandatory in this course. I have a classroom set of TI-84+ that you may use at school, but it is highly recommended you have your own calculator for use at home. Any model approved by the College Board is acceptable for use in class. The model you choose must be capable of the following functions: Plot the graph of a function in an arbitrary viewing window Find the zeros of functions Numerically calculate the derivative of a function Numerically calculate the value of a definite integral TEACHING STRATEGIES & CLASS ACTIVITIES Explorations Explorations are short math exercises that lead students to the introduction of new ideas. Explorations will be worked individually and in a collaborative small-group setting where students may work together and discussion the solution & implications of the exploration. Emphasis is also placed on correct written communication of mathematical solutions and concepts. Explorations will also utilize the graphing calculator to investigate relationships and concepts. Students will use graphical and tabular analysis to test hypotheses and conclusions about accuracy of models and behavior of functions. For example, on the first day of class, students will work an exploration where they derive a rate function from the context of a problem. They then calculate the average rate of change over a relatively large interval of time. Following calculations decrease the time interval to introduce the idea of limits and instantaneous velocity. After given time to discuss the results with a partner, we will summarize the findings as a class. At times, students will be assigned to facilitate the class wide discussion or to explain their solutions to the class. Labs Labs will involve some type of data collection and/or manipulation to extend students’ understanding of various topics. The overall purpose is to link theoretical understanding to real-world context and concrete examples. Labs will use the graphing calculators to run simulations, analyze data, interpret results and must use numerical results to support their well-written conclusions. Emphasis will be placed on ability to express mathematical concepts, contexts, and solutions in sentence form. An example of a lab is “Terminal Velocity” where students use a Vernier LabQuest and Motion Detector to collect position versus time data of a coffee filter falling. Students will draw a sketch of the generated graph and then must create the corresponding velocity and acceleration graphs. They must also describe the terminal velocity in terms of a limit. Students will then find a curve-of-best-fit for the position vs. time graph and use derivatives to generate the velocity and acceleration functions and compare the graphs generated by these functions to the ones sketched previously. Students will also evaluate the definite integral of these functions to compare the “theoretical” to “experimental” displacement and change in velocity. Quizzes Quizzes will be given in a variety of formats (all formats at some time will be ‘calculator allowed’ and ‘no calculator’). Again emphasis will be placed on students’ abilities to express mathematical solutions and concepts in sentence form. Traditional paper/pencil with multiple choice and open-ended problems Remote voting system quizzes via the CPS Spark system o Study Island will facilitate many of these quizzes Take home quizzes o Significantly more challenging problems where external resources may be used. Group Quizzes o Open-ended problems, typically of a higher difficulty, where the group must come to a consensus on the solution. Only one piece of paper and one pencil will be provided so cooperation and verbal communication skills must be utilized. Homework Quizzes o I will ask for your full solutions to ‘randomly’ selected homework problems throughout the past one to two weeks. Since you are only duplicating previously made solutions, you will have very little time to complete these. Exams At least one exam will be given per unit. Each exam will consist of multiple choice and free response questions – each divided into “Calculator” and “No Calculator” sections. On the free response section, students will earn some points based on their ability to express solutions in full sentences that are in harmony with the context of the problem. Exam Corrections Students will often have an opportunity to correct mistakes made on the exam to receive some partial credit back on their score. Students will have to explain what they did wrong and how to correct the problem and then write out the correct solution. Homework Homework will primarily be assigned from your textbook and supplemental materials I pass out in class. I will not collect your homework, but will assign homework quizzes instead (see above). While every problem may not be graded, it is to your advantage to complete all assigned problems. Students will have plenty of opportunities to seek assistance on problems they are struggling to solve. Supplemental problems and practice will be assigned through University of Texas’ Quest website and Study Island. As a result, all students are required to obtain a UTEID and to enroll in my online course. AP Exam Problem Sets Students will be provided with released questions from prior AP Exams. This will require a sufficient number of topics to be covered first (around the first 3 or 4 units). Students will work both individually and collaboratively to determine solutions to the provided questions. As a class we will then review the solutions and discuss test-taking strategies as well. Project Students will create their own tutorial videos to help review for the exam. They will be compiled and hosted on the course website and YouTube channel to aid in reviewing for the exam. Grading Your grade for each grading period will be calculated using the following weighted categories. Your overall grade will be compiled according to district policy. A semester exam will be administered at the end of each semester. Homework Quizzes, Labs, and Explorations………………………………………..30% All other Quizzes………………………….…………………………………………………….30% Exams………………………………………………………….…………………………………….40% Course Outline The units in the course correspond with chapters in your text. However, the content of the review chapter will be integrated throughout the course. Unit 1/Chapter 2: Limits and Continuity [~3 weeks] Average & Instantaneous rates of change Informal definition of a limit Properties of Limits One-sided and Two-sided Limits Calculating limits algebraically Using a table of values for a function to estimate a limit Estimating limits graphically Limits Involving Infinity Understanding & Describing Asymptotes using Limits Involving Infinite Sandwich Theorem Continuity and Discontinuity Limits of Algebraic Combinations and Composition Functions Intermediate Value Theorem Lines tangent and normal to a curve Slope of a Curve Unit 2/Chapter 3: Derivatives Formal Definition of a Derivative & Proper Use of Notation Calculating Derivatives Using the Definition One-sided derivatives Relating graphs of f(x) and f’(x) Differentiability o How the derivative at a point may fail to exist o Relating differentiability to continuity Evaluating Derivatives Numerically on a Calculator Intermediate Value Theorem for Derivatives Rules for Differentiation o Power Rule o Sums & Differences o Products & Quotients Higher Order Derivatives Relating Derivatives to Real-World Context o Instantaneous rates of change o Velocity, acceleration, and jerk o Assorted contexts (economics, etc.) Derivatives of Trigonometric Functions o Simple Harmonic Motion Derivative of Composite Functions & The Chain Rule o Applying the Chain Rule to the slope of parameterized curves Implicitly Defined Functions and Implicit Differentiation Derivatives of Inverse Trigonometric Functions Derivatives of Exponential and Logarithmic Functions Unit 3/Chapter 4: Applications of Derivatives Absolute & Local Extrema Mean Value Theorem Increasing & Decreasing Functions Relating the graphs of f(x) to f’(x) and f’’(x) o First & Second Derivative Test for local extrema o Concavity o Points of Inflection Modeling & Optimization in Various Contexts Linear Approximation Related Rates Unit 4/Chapter 5: The Definite Integral Estimating Finite Sums and the Rectangular Approximation Method Riemann Sums o Definition & Interpretation o Left, central, and right methods Definition & Notation of Definite Integral Methods of Evaluating Definite Integrals Estimating Definite Integrals with the Trapezoidal Sum Rule Antiderivatives o Of basic functions o Finding specific antiderivatives given initial conditions o Finding antiderivatives via substitution (and changing the limits of definite integrals) Relating Definite Integrals to Area Properties of Definite Integrals Average Value of a Function Mean Value Theorem for Definite Integrals Relating Differential and Integral Calculus Fundamental Theorem of Calculus Analyzing Antiderivatives Graphically Unit 5/Chapter 6: Differential Equations Definition & Introduction To Differential Equations Slope Fields Euler’s Method Andtidifferentiation & Indefinite Integrals Antidifferentiation by Substitution Antidifferentiation by Parts o Product Rule o Solving for Unknown Integrals o Tabular Integration o Inverse Trig & Log Functions Separable Differential Equations Exponential Growth and Decay & Modeling in Various Contexts Logistic Growth o Population Modeling o Partial Fractions o Logistic Differential Equations Unit 6/Chapter 7: Applications of Definite Integrals The Integral as Net Change o Linear Motion, Work, Consumption Over Time, etc. Area Between Curves Area Enclosed by Intersecting Curves Geometry Formulas Integrating with Respect to y Volume o Cross Sections o Shell & Washer Methods Lengths of Curves Unit 7/Chapter 8: Sequences, L’Hopital’s Rule, and Improper Integrals Introduction to & Defining Sequences Arithmetic & Geometric Sequences Graphing a Sequence Limits of a Sequence L’Hopital’s Rule & Indeterminate Forms of Limits Improper Integrals o Infinite limits of integration o Integrands with infinite discontinuities Convergence and Divergence Applications of Improper Integrals Unit 8/Chapter 9: Infinite Series Geometric Series Power Series Representing Functions by Series Differentiation and Integration of Series Taylor Series o Series for sin(x), cos(x), e^x, 1/(1-x) Maclaurin and Taylor Series Combing Taylor Series Taylor’s Theorem Testing for Convergence o nth-Term Test o Comparing Nonnegative Series o Ratio Test o Integral Test o Harmonic & p-series o Comparison Tests Unit 9/Chapter 10: Parametric, Vector, and Polar Functions Parametric Functions o Parametric Curves in the Plane o Derivatives, slope, and concavity o Arc Length o Modeling, including displacement, velocity, and vector functions Vectors o Two-Dimensional Vectors & Relating to Parametric Equations o Vector Operations o Modeling two-dimensional motion Polar Functions o Polar Coordinates and Notation o Types of Polar Curves o Differentiating Polar Curves & Slopes of Polar Curves o Integrating Polar Curves & Area Enclose by Polar Curves Exam Review Time permitting, we will spend approximately two or three weeks performing a cumulative review to prepare for the AP Exam. Focus will be spent on problem-solving and test-taking strategies. Post-Exam Topics Our school year is slated to end before the AP Exam will be administered, so barring an excessive amount of inclement weather days, there will be no post-exam topics to consider.