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This deck focuses on Candidates Test, giving you a quick way to review the definitions, rules, and examples that matter most for AP Calculus BC.
Study Candidates Test in AP Calculus BC with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
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Which theorem supports the use of the Candidates Test?
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Extreme Value Theorem. Guarantees continuous functions have absolute extrema on closed intervals.
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This deck focuses on Candidates Test, giving you a quick way to review the definitions, rules, and examples that matter most for AP Calculus BC.
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: Extreme Value Theorem. Guarantees continuous functions have absolute extrema on closed intervals.
Answer: f(0)=0, f(2)=0. Shows function values at the boundary points of the interval.
Answer: Minimum at x=0, Maximum at x=−1 or x=1. f(−1)=1, f(0)=0, f(1)=1, so min at x=0, max at endpoints.
Answer: 4 at x=0. Critical point at x=0 gives maximum value since f′(x)=−2x.
Answer: Compare function values to identify absolute extrema. The highest and lowest function values give the absolute max and min.
Answer: Compare function values to identify absolute extrema. The highest and lowest function values give the absolute max and min.
Answer: Minimum at x=3, Maximum at x=1. f(x)=x21 decreases on [1,3], so max at x=1, min at x=3.
Answer: Maximum at x=0. Critical points at x=±2 give local minima, max at x=0.
Answer: f(0)=3, f(3)=−3. Direct substitution into the function at the boundary points.
Answer: f(−3)=0, f(0)=−6, f(2)=0. Direct evaluation by substituting each x-value into the function.
Answer: Minimum at x=0. Critical point x=0 gives f(0)=0, the minimum value.
Answer: Point where f′(x)=0 or f′(x) is undefined. These are potential locations for local extrema of the function.
Answer: Function must be continuous on a closed interval. Ensures the function has guaranteed absolute maximum and minimum values.
Answer: They are evaluated for potential extrema. Include boundary points as candidates since extrema can occur there.
Answer: f(0)=0, f(2)=0. Shows function values at the boundary points of the interval.
Answer: Minimum at x=−2. Critical point x=1 gives local max, compare with endpoint values.
Answer: f(0)=0, f(2)=−12, f(4)=0. Direct substitution shows function values at these candidate points.
Answer: Limits are used if endpoints are undefined. When function is undefined at endpoints, use limit values instead.
Answer: f(2)=8. Evaluating at endpoints and critical point shows maximum at x=2.
Answer: f(−3)=0, f(0)=−6, f(2)=0. Direct evaluation by substituting each x-value into the function.
Answer: Evaluate the function at critical points and endpoints. All candidate points must be tested to find absolute extrema.
Answer: Solve f′(x)=0 and check where f′(x) is undefined. Both conditions identify all points where extrema can occur.
Answer: A continuous function on a closed interval has absolute extrema. The mathematical foundation that justifies the Candidates Test method.
Answer: Evaluate the function at critical points and endpoints. All candidate points must be tested to find absolute extrema.
Answer: -1 at x=−1 or x=1. Parabola opens downward with maximum at x=0, minimum at endpoints.
Answer: f(0)=3, f(3)=−3. Direct substitution into the function at the boundary points.
Answer: Minimum at x=3, Maximum at x=1. f(x)=x21 decreases on [1,3], so max at x=1, min at x=3.
Answer: Ensures extrema exist on closed intervals. Without continuity, absolute extrema might not exist.
Answer: Find the derivative and solve for critical points. Critical points occur where the derivative equals zero or is undefined.
Answer: Minimum at x=0. Critical point x=0 gives f(0)=0, the minimum value.
Answer: Ensures extrema exist on closed intervals. Without continuity, absolute extrema might not exist.
Answer: f(2)=8. Evaluating at endpoints and critical point shows maximum at x=2.
Answer: Maximum at x=3, Minimum at x=0. Compare f(−3)=5, f(0)=−4, f(3)=5 for extrema locations.
Answer: Determining absolute extrema on a closed interval. Finds global max/min on closed intervals using critical points and endpoints.
Answer: x=0,x=2. f′(x)=3x2−6x=3x(x−2), so x=0 and x=2.
Answer: f(0)=0, f(2)=−12, f(4)=0. Direct substitution shows function values at these candidate points.
Answer: To find critical points. Sets f′(x)=0 to locate potential extrema within the interval.
Answer: To find critical points. Sets f′(x)=0 to locate potential extrema within the interval.
Answer: Minimum at x=2. Critical point x=2 gives f(2)=−2, the lowest value on the interval.
Answer: Extreme Value Theorem. Guarantees continuous functions have absolute extrema on closed intervals.
Answer: Maximum at x=3, Minimum at x=0. Compare f(−3)=5, f(0)=−4, f(3)=5 for extrema locations.
Answer: 4 at x=0. Critical point at x=0 gives maximum value since f′(x)=−2x.
Answer: To ensure all potential extrema are considered. Extrema can occur at boundary points of the closed interval.
Answer: Maximum at x=0. Critical points at x=±2 give local minima, max at x=0.
Answer: Minimum at x=−2. Critical point x=1 gives local max, compare with endpoint values.
Answer: Values at critical points and endpoints. These are all possible locations where absolute extrema can occur.
Answer: x=0,x=2. f′(x)=3x2−6x=3x(x−2), so x=0 and x=2.
Answer: f(−2)=5, f(0)=1, f(2)=5. Shows function values at critical point and endpoints for comparison.
Answer: Minimum at x=0, Maximum at x=−2 or x=2. Critical point at x=0 gives minimum, endpoints give maximum values.
Answer: Find the derivative and solve for critical points. Critical points occur where the derivative equals zero or is undefined.
Answer: Minimum at x=2. Critical point x=2 gives f(2)=−2, the lowest value on the interval.
Answer: They are evaluated for potential extrema. Include boundary points as candidates since extrema can occur there.
Answer: −1 at x=−1 or x=1. Parabola opens downward with maximum at x=0, minimum at endpoints.
Answer: Determining absolute extrema on a closed interval. Finds global max/min on closed intervals using critical points and endpoints.
Answer: Minimum at x=4, Maximum at x=1. f(x)=x1 decreases on [1,4], so max at x=1, min at x=4.
Answer: Solve f′(x)=0 and check where f′(x) is undefined. Both conditions identify all points where extrema can occur.
Answer: Limits are used if endpoints are undefined. When function is undefined at endpoints, use limit values instead.
Answer: f(−2)=5, f(0)=1, f(2)=5. Shows function values at critical point and endpoints for comparison.
Answer: Values at critical points and endpoints. These are all possible locations where absolute extrema can occur.
Answer: Minimum at x=4, Maximum at x=1. f(x)=x1 decreases on [1,4], so max at x=1, min at x=4.
Answer: Minimum at x=0, Maximum at x=−1 or x=1. f(−1)=1, f(0)=0, f(1)=1, so min at x=0, max at endpoints.
Answer: To ensure all potential extrema are considered. Extrema can occur at boundary points of the closed interval.
Answer: Minimum at x=0, Maximum at x=−2 or x=2. Critical point at x=0 gives minimum, endpoints give maximum values.
Answer: Function must be continuous on a closed interval. Ensures the function has guaranteed absolute maximum and minimum values.