Calculus 1‎ > ‎Calculus Lessons‎ > ‎Unit 1 - Limits‎ > ‎

Day 07 - Infinite Limits - 01.12.16

Update
  • Unit 1 Test on 1/22

  1. For the function whose graph is shown below, which statements are false? 5221_02_Q1-2_03

  2. Find all vertical asymptotes of f(x) =

    1. x = –2, x = 2

    2. x = –2

    3. x = 0

    4. x = 2

    5. none of the above

  3. Consider the function given below. Which of the following appear to be true about f(x)? 5221_1-4_19

    1. I only

    2. I & II

    3. I & III

    4. II & III

    5. I, II, and III

  4. Find the x-values (if any) at which the function is not continuous. Identify if they are removable.

    1. no points of discontinuity

    2. x = 9 (nonremovable), x = 7 (removable)

    3. x = 9 (removable), x = 7 (non-removable)

    4. no points of continuity

    5. x = 9 (not removable), x = 7 (non-removable)

  5. For , find and determine if is continuous at

    1. 30, Yes

    2. 30, No

    3. 29, Yes

    4. 29, No

    5. not enough information

    Review

    Lesson
    • 1.D. Infinite Limits (video)
      • Challenge
        • Create a limit example with a function whose limit is positive infinity and negative infinity.
    • 1.E. Limits at Infinity (video)

          • Posted on the board at the end of the block.

          Homework
          • 1.D. Infinite Limits (video)
          • 1.E. Limits at Infinity (video)


          Standard(s)
          • APC.2
            • Define and apply the properties of limits of functions.
              • Limits will be evaluated graphically and algebraically.
                • Includes:
                  • ​limits of a constant
                  • ​limits of a sum, product, and quotient
                  • ​one-sided limits
                  • ​limits at infinity, infinite limits, and non-existent limits
          • APC.3
            • Use limits to define continuity and determine where a function is continuous or discontinuous.
              • Includes:
                • ​continuity in terms of limits
                • continuity at a point and over a closed interval
                • ​application of the Intermediate Value Theorem and the Extreme Value Theorem
                • ​geometric understanding and interpretation of continuity and discontinuity