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This deck focuses on Exploring Types Of Discontinuities, giving you a quick way to review the definitions, rules, and examples that matter most for AP Calculus AB.
Study Exploring Types Of Discontinuities in AP Calculus AB with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
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Identify the discontinuity: f(x)=tan(x) at x=2π.
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Infinite discontinuity. Tangent has vertical asymptotes where cosine equals zero.
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This deck focuses on Exploring Types Of Discontinuities, giving you a quick way to review the definitions, rules, and examples that matter most for AP Calculus AB.
Work through these flashcards in short sessions. Try to answer each prompt before flipping the card, then revisit any cards you miss until the explanation feels automatic.
Answer: Infinite discontinuity. Tangent has vertical asymptotes where cosine equals zero.
Answer: Removable discontinuity. Factor: x+1(x+1)(x−1), creates removable hole at x=−1.
Answer: The limit exists, but the function value is either undefined or different. The limit approaches a finite value, but function is undefined or has wrong value.
Answer: Removable discontinuity. Factor: x+2(x+2)2, simplifies to (x+2) with hole at x=−2.
Answer: The limit does not equal the function value or does not exist. Either the limit doesn't exist or doesn't equal the function value.
Answer: Removable discontinuity. Factor: x−1(x+1)(x−1)=x+1, undefined at x=1 but limit exists.
Answer: Jump discontinuity. When one-sided limits exist but are unequal, the function "jumps" between values.
Answer: A discontinuity that can be removed by redefining the function. The function has a hole that can be filled by defining the value at that point.
Answer: Removable discontinuity. Factor: (x+3)(x−3)x+3, simplifies with hole at x=−3.
Answer: Jump discontinuity. Floor function creates jumps of size 1 at every integer value.
Answer: The limit and function value must be equal at that point. The function value must exist and equal the limit at that point.
Answer: Infinite discontinuity. Squared denominator ensures function approaches +∞ from both sides.
Answer: A point where a function is not continuous. Any location where the function fails to meet continuity requirements.
Answer: Jump discontinuity. When one-sided limits exist but are unequal, the function "jumps" between values.
Answer: Removable discontinuity. Factor: x−3(x+3)(x−3), creates removable hole at x=3.
Answer: Removable discontinuity. Factor: x−2(x−2)(x+1), creates hole at x=2.
Answer: The function is not continuous at that point. The function violates at least one of the three continuity conditions.
Answer: Removable discontinuity. Factor: x+1(x+1)(x−1), creates removable hole at x=−1.
Answer: Infinite discontinuity. Factor x2−1=(x+1)(x−1), so denominator is zero at x=1.
Answer: Jump discontinuity. Left limit is 0, right limit is 1, creating a jump of size 1.
Answer: Removable discontinuity. Factor: (x+2)(x−2)x+2, cancels to x−21 with hole at x=−2.
Answer: Removable can be fixed by redefining; non-removable cannot. Removable means "fixable"; non-removable means permanent breaks or asymptotes.
Answer: Infinite discontinuity. Denominator equals zero creating vertical asymptote where function approaches infinity.
Answer: A discontinuity that is neither removable nor a jump. Includes oscillatory discontinuities where limits don't exist in any form.
Answer: Infinite discontinuity. Factor denominator: x2−4=(x+2)(x−2), zero at x=2.
Answer: Infinite discontinuity. Positive denominator creates vertical asymptote as function approaches +∞.
Answer: A function is continuous if it is continuous at every point on the interval. No breaks, holes, or jumps exist anywhere within the given interval.
Answer: Non-removable discontinuity. When the limit fails to exist, the discontinuity cannot be removed.
Answer: Infinite discontinuity. Division by zero creates a vertical asymptote as f(x)→±∞.
Answer: Infinite discontinuity. Both factors in denominator create vertical asymptotes at x=0 and x=1.
Answer: Infinite discontinuity. Denominator has factors x and (x−3), both creating vertical asymptotes.
Answer: Removable discontinuity. Factor: x−2(x−2)(x+1), creates hole at x=2.
Answer: Removable discontinuity. Factor: x+2(x+2)2, simplifies to (x+2) with hole at x=−2.
Answer: A discontinuity where a function approaches infinity at a point. The function has a vertical asymptote where values grow without bound.
Answer: Jump discontinuity. Floor function creates jumps of size 1 at every integer value.
Answer: The function's limit, value, and limit from both sides are equal. All three continuity conditions: function exists, limit exists, and they're equal.
Answer: Infinite discontinuity. Squared denominator ensures function approaches +∞ from both sides.
Answer: The limit does not equal the function value or does not exist. Either the limit doesn't exist or doesn't equal the function value.
Answer: The limit exists, but the function value is either undefined or different. The limit approaches a finite value, but function is undefined or has wrong value.
Answer: Infinite discontinuity. Tangent has vertical asymptotes where cosine equals zero.
Answer: Infinite discontinuity. Both factors in denominator create vertical asymptotes at x=0 and x=1.
Answer: Infinite discontinuity. Denominator equals zero creating vertical asymptote where function approaches infinity.
Answer: A discontinuity that can be removed by redefining the function. The function has a hole that can be filled by defining the value at that point.
Answer: Jump discontinuity. Left limit is 0, right limit is 1, creating a jump of size 1.
Answer: The left-hand and right-hand limits at c exist but differ. The graph has a finite "jump" between the left and right limit values.
Answer: The function approaches infinity or negative infinity at the point. Denominator approaches zero while numerator approaches nonzero value.
Answer: No discontinuities. Absolute value function is continuous everywhere with no breaks or jumps.
Answer: Infinite discontinuity. Factor x2−1=(x+1)(x−1), so denominator is zero at x=1.
Answer: Removable can be fixed by redefining; non-removable cannot. Removable means "fixable"; non-removable means permanent breaks or asymptotes.
Answer: The function is not continuous at that point. The function violates at least one of the three continuity conditions.
Answer: No discontinuities. Absolute value function is continuous everywhere with no breaks or jumps.
Answer: The function's limit, value, and limit from both sides are equal. All three continuity conditions: function exists, limit exists, and they're equal.
Answer: Removable discontinuity. Factor: (x+3)(x−3)x+3, simplifies with hole at x=−3.
Answer: Removable discontinuity. Factor: x−2(x+2)(x−2), simplifies with removable hole at x=2.
Answer: The left-hand and right-hand limits at c exist but differ. The graph has a finite "jump" between the left and right limit values.
Answer: A discontinuity where a function approaches infinity at a point. The function has a vertical asymptote where values grow without bound.
Answer: Removable discontinuity. Factor: x+1(x+1)2, simplifies to (x+1) with hole at x=−1.
Answer: Infinite discontinuity. Factor denominator: x2−4=(x+2)(x−2), zero at x=2.
Answer: Removable discontinuity. Factor: x−3(x+3)(x−3), creates removable hole at x=3.
Answer: A discontinuity where the left and right limits exist but are not equal. The function has different left and right limits creating a "jump" in the graph.
Answer: Removable discontinuity. Factor: (x+2)(x−2)x+2, cancels to x−21 with hole at x=−2.
Answer: A discontinuity that is neither removable nor a jump. Includes oscillatory discontinuities where limits don't exist in any form.
Answer: The function approaches infinity or negative infinity at the point. Denominator approaches zero while numerator approaches nonzero value.
Answer: Infinite discontinuity. Positive denominator creates vertical asymptote as function approaches +∞.
Answer: Infinite discontinuity. Denominator has factors x and (x−3), both creating vertical asymptotes.
Answer: A function is continuous if it is continuous at every point on the interval. No breaks, holes, or jumps exist anywhere within the given interval.
Answer: Infinite discontinuity. Division by zero creates a vertical asymptote as f(x)→±∞.
Answer: A point where a function is not continuous. Any location where the function fails to meet continuity requirements.
Answer: Removable discontinuity. Factor: x−2(x+2)(x−2), simplifies with removable hole at x=2.
Answer: Non-removable discontinuity. When the limit fails to exist, the discontinuity cannot be removed.
Answer: Removable discontinuity. Factor: x+1(x+1)2, simplifies to (x+1) with hole at x=−1.
Answer: Removable discontinuity. Factor: x−3(x+3)(x−3), creates removable hole at x=3.
Answer: The limit and function value must be equal at that point. The function value must exist and equal the limit at that point.
Answer: A discontinuity where the left and right limits exist but are not equal. The function has different left and right limits creating a "jump" in the graph.
Answer: Removable discontinuity. Factor: x−1(x+1)(x−1)=x+1, undefined at x=1 but limit exists.
Answer: Removable discontinuity. Factor: x−3(x+3)(x−3), creates removable hole at x=3.