6.10 Integrating Functions Using Long Division and Completing the Square

Cards (149)

  • Steps of long division for polynomials
    1️⃣ Divide the leading term of the numerator by the leading term of the denominator
    2️⃣ Multiply the result by the denominator and subtract from the numerator
    3️⃣ Bring down the next term of the numerator
    4️⃣ Repeat steps 1-3 until the degree of the numerator is less than the degree of the denominator
  • To integrate a function using long division, the last step involves integrating the resulting quotient
  • When dividing 3x22x+3x^{2} - 2x +5 5 by x+x +2 2, the quotient is 3x - 8
  • In integration by long division, the goal is to simplify the integrand
  • The simplified expression after dividing \frac{x^2}{x+1}</latex> using long division is x1+x - 1 +1x+1 \frac{1}{x + 1}
    True
  • What technique is used to simplify rational functions for integration?
    Long division
  • What is the integral of 1x+1\frac{1}{x + 1}?

    lnx+\ln|x +1 1|
  • Steps for long division of polynomials
    1️⃣ Divide the leading term of the numerator by the leading term of the denominator
    2️⃣ Multiply the result by the denominator and subtract from the numerator
    3️⃣ Bring down the next term of the numerator
    4️⃣ Repeat steps 1-3 until the degree of the numerator is less than the degree of the denominator
  • Integrating rational functions using long division involves dividing the numerator by the denominator first.

    True
  • Long division of polynomials requires repeating steps until the degree of the numerator is less than the degree of the denominator
  • After performing long division on x2x+1\frac{x^{2}}{x + 1}, the remainder is 1
  • What is the first step in polynomial long division?
    Divide leading terms
  • The process of polynomial long division continues until the degree of the numerator is less than the degree of the denominator.

    True
  • Match the steps in long division with their counterparts in integration by long division:
    Divide leading terms ↔️ Divide numerator by denominator
    Multiply and subtract ↔️ Multiply result by denominator, subtract
    Bring down next term ↔️ Integrate the result from step 2
    Repeat steps 1-3 ↔️ Repeat steps 1-3
  • In polynomial long division, you multiply the result by the denominator
  • What is the first step in integrating rational functions using long division?
    Divide numerator by denominator
  • The final step in integrating rational functions using long division is to integrate the result from step 2.
    True
  • What is the first step in long division for polynomials?
    Divide leading terms
  • The process of polynomial long division continues until the degree of the numerator is less than the degree of the denominator.

    True
  • In integrating rational functions using long division, you subtract the result from the numerator
  • Match the steps in long division with their counterparts in integration by long division:
    Divide leading terms ↔️ Divide numerator by denominator
    Multiply and subtract ↔️ Multiply result by denominator, subtract
    Bring down next term ↔️ Integrate the result from step 2
    Repeat steps 1-3 ↔️ Repeat steps 1-3
  • In polynomial long division, you multiply the result by the denominator
  • The process of polynomial long division continues until the degree of the numerator is less than the degree of the denominator.

    True
  • In integrating rational functions using long division, you subtract the result from the numerator
  • Match the steps in long division with their counterparts in integration by long division:
    Divide leading terms ↔️ Divide numerator by denominator
    Multiply and subtract ↔️ Multiply result by denominator, subtract
    Bring down next term ↔️ Integrate the result from step 2
    Repeat steps 1-3 ↔️ Repeat steps 1-3
  • In polynomial long division, you multiply the result by the denominator
  • What is the first step in integrating rational functions using long division?
    Divide numerator by denominator
  • The final step in integrating rational functions using long division is to integrate the result from step 2.

    True
  • In completing the square, you divide the coefficient of x</latex> by 2
  • Match the steps in completing the square with their descriptions:
    Factor out x2x^{2} coefficient ↔️ Ensure the x2x^{2} term has a coefficient of 1
    Calculate and add/subtract (b/2)2(b / 2)^{2} ↔️ Create a perfect square trinomial
    Group and simplify ↔️ Rewrite the expression as a perfect square plus a constant
  • When completing the square for x2+x^{2} +6x+ 6x +1 1, the expression becomes (x + 3)^{2} - 8
  • If the coefficient of x2x^{2} is not 1, it must be factored out before completing the square.

    True
  • What term is added and subtracted to complete the square for ax2+ax^{2} +bx+ bx +c c?

    (b2a)2(\frac{b}{2a})^{2}
  • What is the first step to complete the square for a quadratic expression of the form ax2+ax^{2} +bx+ bx +c c?

    Factor out the coefficient of x2x^{2}
  • For the expression x2+x^{2} +8x+ 8x +10 10, what value is added and subtracted to complete the square?

    16
  • Steps for performing long division for polynomials
    1️⃣ Divide the leading term of the numerator by the leading term of the denominator
    2️⃣ Multiply the result by the denominator and subtract from the numerator
    3️⃣ Bring down the next term of the numerator
    4️⃣ Repeat steps 1-3 until the degree of the numerator is less than the degree of the denominator
  • In integration by long division, the first step is to divide the numerator by the denominator.

    True
  • Match the steps of long division with their corresponding actions:
    Divide leading terms ↔️ Divide numerator by denominator
    Multiply and subtract ↔️ Multiply result by denominator, subtract
    Bring down next term ↔️ Integrate the result from step 2
  • Long division for polynomials involves dividing the leading term of the numerator by the leading term of the denominator.

    True
  • Integrating a rational function using long division involves integrating the remainder after division.

    True