Problem 19
Use the Leading Coefficient Test to determine the end behavior of the graph of the polynomial function.
Problem 19
Solve each polynomial inequality in Exercises 1–42 and graph the solution set on a real number line. Express each solution set in interval notation.
Problem 19
In Exercises 19–24, (a) Use the Leading Coefficient Test to determine the graph's end behavior. (b) Determine whether the graph has y-axis symmetry, origin symmetry, or neither. (c) Graph the function.
Problem 19
Divide using synthetic division. (3x2+7x−20)÷(x+5)
Problem 20
Use the Leading Coefficient Test to determine the end behavior of the graph of the polynomial function.
Problem 20
Solve each polynomial inequality in Exercises 1–42 and graph the solution set on a real number line. Express each solution set in interval notation.
Problem 20
In Exercises 19–24, (a) Use the Leading Coefficient Test to determine the graph's end behavior. (b) Determine whether the graph has y-axis symmetry, origin symmetry, or neither. (c) Graph the function.
Problem 20
Write an equation that expresses each relationship. Then solve the equation for y. x varies directly as z and inversely as the sum of y and w.
Problem 21
Solve each polynomial inequality in Exercises 1–42 and graph the solution set on a real number line. Express each solution set in interval notation.
Problem 21
Find the vertical asymptotes, if any, and the values of x corresponding to holes, if any, of the graph of each rational function. f(x)=x/(x+4)
Problem 21
Divide using synthetic division. (4x3−3x2+3x−1)÷(x−1)
Problem 21
In Exercises 17–24, a) List all possible rational roots. b) List all possible rational roots. c) Use the quotient from part (b) to find the remaining roots and solve the equation. 6x3+25x2−24x+5=0
Problem 21
Use the vertex and intercepts to sketch the graph of each quadratic function. Give the equation of the parabola's axis of symmetry. Use the graph to determine the function's domain and range. y−1=(x−3)2
Problem 21
Use the Leading Coefficient Test to determine the end behavior of the graph of the polynomial function.
Problem 22
Use the Leading Coefficient Test to determine the end behavior of the graph of the polynomial function. f(x)=11x4−6x2+x+3
Problem 22
Solve each polynomial inequality in Exercises 1–42 and graph the solution set on a real number line. Express each solution set in interval notation. 3x2 − 5x ≤ 0
Problem 23
Use the vertex and intercepts to sketch the graph of each quadratic function. Give the equation of the parabola's axis of symmetry. Use the graph to determine the function's domain and range. f(x)=2(x+2)2−1
Problem 23
Use the Leading Coefficient Test to determine the end behavior of the graph of the polynomial function.
Problem 23
Divide using synthetic division. (6x5−2x3+4x2−3x+1)÷(x−2)
Problem 23
Solve each polynomial inequality in Exercises 1–42 and graph the solution set on a real number line. Express each solution set in interval notation. −x2 + x ≥ 0
Problem 23
Find the vertical asymptotes, if any, and the values of x corresponding to holes, if any, of the graph of each rational function. g(x)=(x+3)/x(x+4)
Problem 23
In Exercises 17–24, a) List all possible rational roots. b) List all possible rational roots. c) Use the quotient from part (b) to find the remaining roots and solve the equation. x4−2x3−5x2+8x+4=0
Problem 24
Divide using synthetic division. (x5+4x4−3x2+2x+3)÷(x−3)
Problem 24
Solve each polynomial inequality in Exercises 1–42 and graph the solution set on a real number line. Express each solution set in interval notation. −x2 + 2x ≥ 0
Problem 24
In Exercises 19–24, use the Leading Coefficient Test to determine the end behavior of the graph of the polynomial function.
Problem 25
In Exercises 25–26, graph each polynomial function.
Problem 25
Find an nth-degree polynomial function with real coefficients satisfying the given conditions. If you are using a graphing utility, use it to graph the function and verify the real zeros and the given function value. n=3; 1 and 5i are zeros; f(-1) = -104
Problem 25
Use the vertex and intercepts to sketch the graph of each quadratic function. Give the equation of the parabola's axis of symmetry. Use the graph to determine the function's domain and range. f(x)=4−(x−1)2
Problem 25
Find the zeros for each polynomial function and give the multiplicity for each zero. State whether the graph crosses the x-axis, or touches the x-axis and turns around, at each zero. f(x)=2(x−5)(x+4)2
Problem 25
Divide using synthetic division. (x2−5x−5x3+x4)÷(5+x)
Ch. 3 - Polynomial and Rational Functions
