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Final Exam Learning Targets (Red items will not be assessed on the final) Unit 5 – Exponential Relationships Date(s) Learning Target 1. I can recognize situations in which one quantity changes at a constant rate per unit interval relative to another. F.LE.1.b 2. I can recognize situations in which a quantity grows or decays by a constant percent rate per unit interval relative to another. F.LE.1.c 3. I can interpret the parameters in a linear or exponential function in terms of a context. F.LE.5, A.SSE.1 4. I can write a linear or exponential function given a verbal description of the function in context. A.CED.2 5. Given a problem in context, I can write an exponential equation and use it to solve the problem. A.CED.1 6. I can describe the key features (intercepts, intervals of increase/decrease, end behavior) of the graph of an exponential function. F.IF.4 7. I can compare the properties of an exponential function to another function (linear or exponential) given graphical, verbal, analytic, or tabular representations of the functions. F.IF.9; F.LE.3 8. I can graph exponential functions by hand (using appropriate labeling and scaling) and using technology. F.IF.7.e 9. I can describe the effects that a, b, and k have on the graph of f (x) = abx + k . F.BF.3 Summary Assignment 10. I can write an exponential function given a graph, verbal description of a relationship, or two input-output pairs. F.LE.2 11. I can prove that exponential functions grow by equal factors over equal intervals and explain the reasoning process. F.LE.1.a 12. I can re-write the explicit formula for a geometric sequence, an = a1r n-1 , in the form f (n)= abn and explain the reasoning process. 13. I can explain the reasoning process for solving exponential equations by hand in simple cases and using technology (graphing and spreadsheet software) in more complicated cases. A.REI.3; A.REI.11 Homework Skill-Building Learning Targets HW1. I can apply the laws of exponents in order to simplify operations involving exponential expressions. HW2. I can simplify the square root of a number using the properties of roots. HW3. I can simplify the sum, difference, product, or quotient of square roots. HW4. I can rationalize an expression involving a square root. Unit 6 – Quadratic Functions Date(s) Learning Target 1. I can describe the characteristics of the graph of a quadratic function. symmetry, maximum, minimum, intercepts, increasing/decreasing 2. I can utilize appropriate mathematical vocabulary (term, coefficient, degree, etc.) to describe the equation of a quadratic function. 3. I can compare the characteristics of the graphs of quadratic, linear and exponential functions. average rate of change, extrema, increasing/decreasing, intercepts 4. I can graph a quadratic function of the form y ax using a table of values and by analyzing its structure. 2 5. I can describe the graphs of quadratic functions of the form y ax 2 in general terms. vertex, concave up/down 6. I can solve quadratic equations of the form ax k graphically and structurally (by observation). 2 7. I can describe the effects of a, h and k on the graph of the function y ax h k . 2 translation left/right, translation up/down, reflection 8. I can graph quadratic functions in Vertex Form y a x h k . 2 9. I can re-write a quadratic function in vertex form by completing the square of one side of the equation. Summary Assignment 10. I can graph quadratic functions in Standard Form y ax bx c by completing the square to re-write it in Vertex Form. 2 11. I can graph a quadratic function in Standard Form by identifying the axis of symmetry and vertex. 12. I can graph quadratic functions in factored form y ax p x q by using xintercepts and the nature of the graphs of quadratic functions. 13. I can write a quadratic equation given the x-intercepts and an additional point. 14. I can write a quadratic equation given the vertex and an additional point. Unit 7 – Quadratic Equations Date(s) Learning Target Summary 1. I can solve a quadratic equation by finding the zeros/roots of a related quadratic function. 2. I can solve a quadratic equation of the form ax c by taking a square root. 2 3. I can factor a quadratic expression (binomial or trinomial) using the GCF, special patterns, or general factoring practices. 4. I can solve a quadratic equation of 2 the form ax bx c 0 by factoring and using the Zero Product Property. 5. I can solve a quadratic equation of the form ax bx c 0 by transforming it into an equivalent 2 equation of the form x m n that has the same solutions by completing the square. 2 6. I can derive the quadratic formula using completing the square to solve an equation in the general form ax bx c 0 . 2 7. I can describe the number and nature of solutions of a quadratic equation using the discriminant. 8. I can solve a quadratic equation of the form ax bx c 0 by using the quadratic formula. 2 Assignment 9. I can solve word problems involving quadratic equations using algebraic methods. 10. I can solve word problems involving quadratic equations by graphing and utilizing technology. 11. I can solve an optimization problem by writing and solving a quadratic equation. 12. I can solve a system of equations involving a linear and quadratic equation algebraically and graphically. Unit 8 – Complex Numbers Date(s) Learning Target 1. I can simplify the square root of a negative value using the imaginary number i 1 . 2. I can find the complex solutions to a quadratic equation with real coefficients by completing the square. 3. I can find the complex solutions to a quadratic equation with real coefficients by using the quadratic formula. 4. I can distinguish between the solutions to a quadratic equation and the roots (x-intercepts) of its related functions. 5. I can apply the Fundamental Theorem of Algebra to describe the number of complex roots for various equations. 6. I can describe the set of complex numbers and its relation to the real and imaginary numbers. 7. I can represent complex numbers as points in the complex plane. 8. I can determine the modulus and conjugate of a complex number. Summary Assignment 9. I can add and subtract complex numbers. 10. I can represent the addition, subtraction, and conjugation of complex numbers geometrically on the complex plane. 11. I can multiply complex numbers and simplify the product. 12. I can represent the multiplication of complex numbers geometrically on the complex plane. 13. I can use the concept of a conjugate to divide complex numbers. Unit 9 – Polynomial Functions Date(s) Learning Target Summary Assignment 1. I can write an equation for a polynomial function given the roots or a graph of the function. 2. I can describe the characteristics of the graph of a polynomial function (continuous, smooth, etc.) 3. I can describe the end behavior of a polynomial function using the Leading Coefficient Test. 4. I can determine the number of relative extrema and roots of a polynomial function. 5. I can describe the multiplicity of the roots of a polynomial function given a graph or equation. 6. I can sketch polynomial functions using the end behavior, roots, and additional points. 1st Semester Topics: Linear Functions: Writing equations of linear function and graphing linear functions and piecewise linear functions. Solving Systems of Equations: Using substitution, elimination, graphing, and matrices to solve systems of linear equations. Average Rate of Change: Compute the average rate of change of a function based on its graph, equation or a table of values that represent the function.