Deck 4: The Derivative in Graphing and Applications

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Question
Find the value for which f(x) = x2 + 2 on [2, 5] satisfies the Mean-Value Theorem.

A) 2.5
B) 3.5
C) 4.5
D) 3
E) 4
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Question
Answer true or false. A graphing utility can be used to show that Rolle's Theorem can be applied to show that f(x) = (x - 8)2 has a point where f '(x) = 0.
Question
Find the value c that satisfies Rolle's Theorem for f(x) = 9 cos 6x on <strong>Find the value c that satisfies Rolle's Theorem for f(x) = 9 cos 6x on   .</strong> A)   B)   C) 0 D)   E)   <div style=padding-top: 35px> .

A) <strong>Find the value c that satisfies Rolle's Theorem for f(x) = 9 cos 6x on   .</strong> A)   B)   C) 0 D)   E)   <div style=padding-top: 35px>
B) <strong>Find the value c that satisfies Rolle's Theorem for f(x) = 9 cos 6x on   .</strong> A)   B)   C) 0 D)   E)   <div style=padding-top: 35px>
C) 0
D) <strong>Find the value c that satisfies Rolle's Theorem for f(x) = 9 cos 6x on   .</strong> A)   B)   C) 0 D)   E)   <div style=padding-top: 35px>
E) <strong>Find the value c that satisfies Rolle's Theorem for f(x) = 9 cos 6x on   .</strong> A)   B)   C) 0 D)   E)   <div style=padding-top: 35px>
Question
Answer true or false. According to Rolle's Theorem if a function's derivative is 0, the graph of the function must cross the y-axis.
Question
Answer true or false. The hypotheses of the Mean-Value Theorem are satisfied for Answer true or false. The hypotheses of the Mean-Value Theorem are satisfied for   on [-2, 2].<div style=padding-top: 35px> on [-2, 2].
Question
Answer true or false. Answer true or false.   on [-3, 3] satisfies the hypotheses of Rolle's Theorem.<div style=padding-top: 35px> on [-3, 3] satisfies the hypotheses of Rolle's Theorem.
Question
Find the value c that satisfies the Mean-Value Theorem for f(x) = x3 on [0, 2].

A) <strong>Find the value c that satisfies the Mean-Value Theorem for f(x) = x<sup>3</sup> on [0, 2].</strong> A)   B)   C) 2 D) 0 E)   <div style=padding-top: 35px>
B) <strong>Find the value c that satisfies the Mean-Value Theorem for f(x) = x<sup>3</sup> on [0, 2].</strong> A)   B)   C) 2 D) 0 E)   <div style=padding-top: 35px>
C) 2
D) 0
E) <strong>Find the value c that satisfies the Mean-Value Theorem for f(x) = x<sup>3</sup> on [0, 2].</strong> A)   B)   C) 2 D) 0 E)   <div style=padding-top: 35px>
Question
If <strong>If   on [0, 8], find the value c that satisfies the Mean-Value Theorem. (Round to three decimal places.)</strong> A) 1.333 B) 1.540 C) 0.759 D) 1.923 E) 0.385 <div style=padding-top: 35px> on [0, 8], find the value c that satisfies the Mean-Value Theorem. (Round to three decimal places.)

A) 1.333
B) 1.540
C) 0.759
D) 1.923
E) 0.385
Question
Verify that f(x) = x3 -5x + 4 satisfies the hypothesis of the Mean-Value Theorem over the interval [-2, 3] and find all values of C that satisfy the conclusion of the theorem.
Question
Find the value c that satisfies Rolle's Theorem for f(x) = x3 -4x on [-2, 2].

A) -2.0
B) 1.2
C) 2.0
D) 4.0
E) -4.0
Question
Answer true or false. The hypotheses of the Mean-Value Theorem are satisfied for  Answer true or false. The hypotheses of the Mean-Value Theorem are satisfied for   on [0, 4  \pi ].<div style=padding-top: 35px>  on [0, 4 π\pi ].
Question
Verify that f(x) = x2 + 7x - 3 satisfies the hypothesis of the Mean-Value Theorem over the interval [0, 1] and find all values of C that satisfy the conclusion of the theorem.
Question
Answer true or false. Rolle's Theorem is used to find the zeros of a function.
Question
Verify that f(x) = x3 - x satisfies the hypothesis of Rolle's Theorem on the interval [-1, 1] and find all values of C in (-1, 1) such that f '(C) = 0
Question
Answer true or false. The hypotheses of the Mean-Value Theorem are satisfied for f(x) = cos 2x on [0, 4 π\pi ].
Question
Find the value c such that the conclusion of Rolle's Theorem are satisfied for f(x) = 2x2 - 2 on [-3, 3].

A) 0
B) -1
C) 1
D) 0.5
E) -0.5
Question
Find the value for which f(x) = x3 -8 on [3, 7] satisfies the Mean-Value Theorem.

A) 4.509
B) 3.512
C) 8.888
D) 5.132
E) 6.285
Question
Answer true or false. The Mean-Value Theorem can be used on f(x) = |x - 3| on [-5, 5].
Question
Answer true or false. The Mean-Value Theorem guarantees there is at least one c on [0, 1] such that f '(x) = 0.8 when f(x) = x.
Question
Find the value c that satisfies Rolle's Theorem for f(x) = cos 4x on  <strong>Find the value c that satisfies Rolle's Theorem for f(x) = cos 4x on   .</strong> A)   B) 4  \pi  C) 0 D)   E)   <div style=padding-top: 35px>  .

A)  <strong>Find the value c that satisfies Rolle's Theorem for f(x) = cos 4x on   .</strong> A)   B) 4  \pi  C) 0 D)   E)   <div style=padding-top: 35px>
B) 4 π\pi
C) 0
D)  <strong>Find the value c that satisfies Rolle's Theorem for f(x) = cos 4x on   .</strong> A)   B) 4  \pi  C) 0 D)   E)   <div style=padding-top: 35px>
E)  <strong>Find the value c that satisfies Rolle's Theorem for f(x) = cos 4x on   .</strong> A)   B) 4  \pi  C) 0 D)   E)   <div style=padding-top: 35px>
Question
Does Does   satisfy the hypothesis of the Mean-Value Theorem over the interval [-3, 3]? If so, find all values of C that satisfy the conclusion of the theorem.<div style=padding-top: 35px> satisfy the hypothesis of the Mean-Value Theorem over the interval [-3, 3]? If so, find all values of C that satisfy the conclusion of the theorem.
Question
Does Does   satisfy the hypothesis of the Mean-Value Theorem over the interval [0, 1]? If so, find all values of C that satisfy the conclusion.<div style=padding-top: 35px> satisfy the hypothesis of the Mean-Value Theorem over the interval [0, 1]? If so, find all values of C that satisfy the conclusion.
Question
A cyclist starts from rest and travels 6.25 miles along a straight road in 15 minutes. Use the Mean-Value Theorem to show that at some instant during the trip his velocity was exactly 25 miles per hour.
Question
Use Rolle's Theorem to prove that the equation 6x5 - 28x3 + 6 = 0 has at least one solution in the interval (0, 1).
Question
Does Does   satisfy the hypothesis of the Mean-Value Theorem over the interval [0, 6]? If so, find all values of C that satisfy the conclusion of the theorem.<div style=padding-top: 35px> satisfy the hypothesis of the Mean-Value Theorem over the interval [0, 6]? If so, find all values of C that satisfy the conclusion of the theorem.
Question
Verify that f(x) = x2 + 8 satisfies the hypothesis of the Mean-Value Theorem on the interval [0, 4] and find all values of C that satisfy the conclusion of the theorem.
Question
Use Rolle's Theorem to show that f(x) = 4x3 + 5x - 1 does not have more than one real root.
Question
Find the value of c in the interval [0, 2 π\pi ] that satisfies the Mean Value Theorem. f(x) = 6 cos x
Question
Use Rolle's Theorem to show that f(x) = x3 + ax + b, where a > 0, cannot have more than one real root.
Question
Does Does   satisfy the hypothesis of the Mean-Value Theorem over the interval [-5, 5]? If so, find all values of C that satisfy the conclusion.<div style=padding-top: 35px> satisfy the hypothesis of the Mean-Value Theorem over the interval [-5, 5]? If so, find all values of C that satisfy the conclusion.
Question
Find the value of c in the interval [0, 1] that satisfies the Mean Value Theorem. f(x) = x7
Question
Verify that f(x) = x3 -3x2- 3x + 1 satisfies the hypothesis of the Mean-Value Theorem over the interval [0, 2] and find all values of C that satisfy the conclusion of the theorem.
Question
Find the value of c in the interval [0, 4] that satisfies the Mean Value Theorem. f(x) = 5x2 + 20
Question
An automobile starts from rest and travels 4.5 miles along a straight road in 6 minutes. Use the Mean-Value Theorem to show that at some instant during the trip its velocity was exactly 45 miles per hour.
Question
Find the value of c in the interval [-1, 1] that satisfies the Mean Value Theorem. f(x) = x2 - 4x + 3
Question
Verify that Verify that   satisfies the hypothesis of the Mean-Value Theorem over the interval [6, 8] and find all values of C that satisfy the conclusion of the theorem.<div style=padding-top: 35px> satisfies the hypothesis of the Mean-Value Theorem over the interval [6, 8] and find all values of C that satisfy the conclusion of the theorem.
Question
Approximate <strong>Approximate   by applying Newton's Method to the equation x<sup>2</sup> - 5 = 0. Use 2 for your initial value and calculate three iterations.</strong> A) 2.2360680 B) 2.2359480 C) 2.2360560 D) 2.236111 E) 2.25 <div style=padding-top: 35px> by applying Newton's Method to the equation x2 - 5 = 0. Use 2 for your initial value and calculate three iterations.

A) 2.2360680
B) 2.2359480
C) 2.2360560
D) 2.236111
E) 2.25
Question
Does Does   satisfy the hypothesis of the Mean-Value Theorem over the interval [0, 16]? If so, find all values of C that satisfy the conclusion of the theorem.<div style=padding-top: 35px> satisfy the hypothesis of the Mean-Value Theorem over the interval [0, 16]? If so, find all values of C that satisfy the conclusion of the theorem.
Question
Find the value of c in the interval [0, π\pi ] that satisfies the Mean Value Theorem. f(x) = sin(6x)
Question
Find the value of c in the interval [0, 1] that satisfies the Mean Value Theorem. f(x) = x4 + 8
Question
Use Newton's Method to find the largest positive solution of x4 + x3 - 2x2- 5x -7 = 0. Use 4 for your initial value and calculate eight iterations.

A) 3.0777385
B) 2.4705751
C) 2.0313608
D) 2.1446813
E) 2.0413802
Question
Use Newton's Method to find the x-coordinate of the intersection of y = x4 + 2x3 and y = 2x2 + 6x + 3. Use 3 for your initial value and calculate eight iterations.

A) 2.3333333
B) 1.9347826
C) 1.7649117
D) 1.7331057
E) 1.7320508
Question
Use Newton's Method to find the largest positive solution of x4 + 4x3 -2x2 - 9x - 2 = 0. Use 4 for your initial value and calculate eight iterations.

A) 1.6033441
B) 1.5530570
C) 1.8062561
D) 2.2423497
E) 2.9550827
Question
Use Newton's Method to approximate the greatest x-coordinate of the intersection of y = x3 - 2x and y = x4 + 6x - 4. Use 3 for your initial value and calculate eight iterations.

A) 0.5169625
B) 0.7963536
C) 0.5080644
D) 1.4400943
E) 2.1685393
Question
Approximate Approximate   by applying Newton's Method to the equation x<sup>5</sup> - 83 = 0. Use -2 for your initial value and calculate nine iterations.<div style=padding-top: 35px> by applying Newton's Method to the equation x5 - 83 = 0. Use -2 for your initial value and calculate nine iterations.
Question
Approximate Approximate   by applying Newton's Method to the equation x<sup>3</sup> - 73 = 0. Use 4 for your initial value and calculate five iterations.<div style=padding-top: 35px> by applying Newton's Method to the equation x3 - 73 = 0. Use 4 for your initial value and calculate five iterations.
Question
Use Newton's Method to find the largest positive solution of x5 + 6x3-3x2 - 9 = 0. Use 3 for your initial value and calculate three iterations.

A) 2.3278689
B) 1.8122908
C) 1.4559632
D) 1.4558412
E) 1.4559512
Question
Use Newton's Method to find the largest positive solution of x4 + x3 - 6x - 6 = 0. Use 4 for your initial value and calculate eight iterations.

A) 1.8381538
B) 1.9835930
C) 1.8171206
D) 2.3659571
E) 3.0268456
Question
Approximate Approximate   by applying Newton's Method to the equation x<sup>3</sup> -29 = 0. Use 3 for your initial value and calculate five iterations.<div style=padding-top: 35px> by applying Newton's Method to the equation x3 -29 = 0. Use 3 for your initial value and calculate five iterations.
Question
Approximate Approximate   by applying Newton's Method to the equation x<sup>2</sup> -44 = 0. Use 6 for your initial value and calculate five iterations.<div style=padding-top: 35px> by applying Newton's Method to the equation x2 -44 = 0. Use 6 for your initial value and calculate five iterations.
Question
Use Newton's Method to find the largest positive solution of x4 - 3x2 - 9 = 0. Use 5 for your initial value and calculate eight iterations.

A) 2.2697369
B) 2.5222928
C) 2.2032027
D) 3.0390141
E) 3.8489362
Question
Use Newton's Method to find the largest positive solution of x4 - 8x2 - 9 = 0. Use 4 for your initial value and calculate eight iterations.

A) 3.380208
B) 3.0000000
C) 3.0799923
D) 3.0045383
E) 3.0000157
Question
Approximate <strong>Approximate   by applying Newton's Method to the equation x<sup>3</sup> - 11 = 0. Use 2.5 for your initial value and calculate four iterations.</strong> A) 2.5 B) 2.253333 C) 2.2243608 D) 2.2239800 E) 2.22398009 <div style=padding-top: 35px> by applying Newton's Method to the equation x3 - 11 = 0. Use 2.5 for your initial value and calculate four iterations.

A) 2.5
B) 2.253333
C) 2.2243608
D) 2.2239800
E) 2.22398009
Question
The equation, x3 - 2x - 19 = 0 has one real solution for 1 < x < 19. Approximate it by Newton's Method. Use 4.75 for your initial value and calculate eight iterations.
Question
Use Newton's Method to find the largest solution of x5 - 2x4 + 5x3 -x2 + 7x + 12 = 0. Use 2 for your initial value and calculate six iterations.

A) 1.2151899
B) 0.0852538
C) -1.7308568
D) -1.0071278
E) -1.2897963
Question
Use Newton's Method to find the largest positive solution of x3 + x2 - 4x - 5 = 3. Use 4 for your initial value and calculate eight iterations.

A) 3.0769231
B) 2.5867842
C) 2.3921405
D) 2.3307530
E) 2.3417624
Question
Use Newton's Method to find the largest positive solution of x4 + 4x - 5 = 0. Use 4 for your initial value and calculate eight iterations.

A) 1.0000000
B) 1.2164332
C) 1.6112108
D) 2.1938904
E) 2.9730769
Question
Use Newton's Method to approximate the solutions of x4- 77 = 0. Use 4 for your initial value and calculate four iterations.

A) -3.0108653, 3.0108653
B) -2.9634212, 2.9634212
C) -2.9622573, 2.9622573
D) -3.300781, 3.300781
E) -4, 4
Question
Use Newton's Method to find the greatest x-coordinate of the intersection of y = 4x4 -24x2 and y = 18x2 - 16. Use 9 for your initial value and calculate eight iterations.

A) 3.2978272
B) 3.1786982
C) 3.1888714
D) 4.3309497
E) 3.6519603
Question
Approximate Approximate   by applying Newton's Method to the equation x<sup>3</sup> - 88 = 0. Use 4 for your initial value and calculate nine iterations.<div style=padding-top: 35px> by applying Newton's Method to the equation x3 - 88 = 0. Use 4 for your initial value and calculate nine iterations.
Question
Answer true or false. For the position function graphed, the acceleration at t = 1 is positive. Answer true or false. For the position function graphed, the acceleration at t = 1 is positive.  <div style=padding-top: 35px>
Question
The equation, x3 + x2 - 5x - 6 = 0 has one real solution for 1 < x < 6. Approximate it by Newton's Method. Use 3 for your initial value and calculate eight iterations.
Question
Let s(t) = t4 - 5t + 6 be a position function. The acceleration function a(t) =

A) 4t3 - 5
B) 12t2
C) 4t3 - 5t
D) 12t2 - 5
E) 12t3
Question
Answer true or false. If a particle is dropped a distance of 624 m. It has a speed of 110.58 m/s (rounded to the nearest hundredth of a m/s) when it hits the ground.
Question
The graph represents a position function. Determine what is happening to the velocity at t = 0.  <strong>The graph represents a position function. Determine what is happening to the velocity at t = 0.  </strong> A) It is positive B) It is negative C) It is zero D) There is insufficient information to tell. E) It is + \infty  <div style=padding-top: 35px>

A) It is positive
B) It is negative
C) It is zero
D) There is insufficient information to tell.
E) It is + \infty
Question
Let s(t) = t9 -t be a position function of a particle. At 1 the particle's acceleration is

A) negative
B) positive
C) zero
Question
The graph represents a position function. Determine what is happening to the velocity at t = 1.  <strong>The graph represents a position function. Determine what is happening to the velocity at t = 1.  </strong> A) It is negative B) It is positive C) It is zero D) There is insufficient information to tell. E) It is + \infty  <div style=padding-top: 35px>

A) It is negative
B) It is positive
C) It is zero
D) There is insufficient information to tell.
E) It is + \infty
Question
s(t) = 4t - 3t2, t \ge 0. The velocity function is

A) 4 - 3t
B) 4t - 6t2
C) 4 - 6t
D) 8 - 6t
E) 4t - 3t
Question
A projectile is dropped, and reaches the ground at 40 m/s. How long does it take the projectile to reach ground? (Assume the position function is <strong>A projectile is dropped, and reaches the ground at 40 m/s. How long does it take the projectile to reach ground? (Assume the position function is   , where a = -10   .)</strong> A) 2 s B) 8 s C) 4.47 s D) 4 s E) 3.16 s <div style=padding-top: 35px> , where a = -10 <strong>A projectile is dropped, and reaches the ground at 40 m/s. How long does it take the projectile to reach ground? (Assume the position function is   , where a = -10   .)</strong> A) 2 s B) 8 s C) 4.47 s D) 4 s E) 3.16 s <div style=padding-top: 35px> .)

A) 2 s
B) 8 s
C) 4.47 s
D) 4 s
E) 3.16 s
Question
Let s(t) = sin 4t be a position function of a particle. At <strong>Let s(t) = sin 4t be a position function of a particle. At   the particle's velocity is</strong> A) Positive B) Negative C) Zero <div style=padding-top: 35px> the particle's velocity is

A) Positive
B) Negative
C) Zero
Question
The graph represents a velocity function. The acceleration at t = 2 is  <strong>The graph represents a velocity function. The acceleration at t = 2 is  </strong> A) positive B) negative C) zero D) There is insufficient information to tell. E) It is + \infty  <div style=padding-top: 35px>

A) positive
B) negative
C) zero
D) There is insufficient information to tell.
E) It is + \infty
Question
Find s when a = 0.

A) 48
B) -48
C) 6
D) -6
E) 0
Question
Answer true or false. This can be the graph of a particle's position if the particle is moving to the right at t = 3.3. Answer true or false. This can be the graph of a particle's position if the particle is moving to the right at t = 3.3.  <div style=padding-top: 35px>
Question
Let s(t) = 5t6 -4t be a position function. Find v when t = 3.

A) 7,290
B) 1,455
C) 7,286
D) 3,633
E) 4
Question
The equation, The equation,   has one real solution for   . Approximate it by Newton's Method. Use 2 for your initial value and calculate eight iterations.<div style=padding-top: 35px> has one real solution for The equation,   has one real solution for   . Approximate it by Newton's Method. Use 2 for your initial value and calculate eight iterations.<div style=padding-top: 35px> . Approximate it by Newton's Method. Use 2 for your initial value and calculate eight iterations.
Question
s(t) = 5t-4t3, t \ge 0. The acceleration function is

A) 5 - 8t
B) 8t
C) 5 - 8t2
D) 24t
E) 5t - 4t
Question
Answer true or false. If the graph on the left is a position function, the graph on the right represents the corresponding velocity function.
y = x2 Answer true or false. If the graph on the left is a position function, the graph on the right represents the corresponding velocity function. y = x<sup>2</sup>    <div style=padding-top: 35px> Answer true or false. If the graph on the left is a position function, the graph on the right represents the corresponding velocity function. y = x<sup>2</sup>    <div style=padding-top: 35px>
Question
The equation, x3 - x2 - 4x - 4 = 0 has one real solution for 1 < x < 4. Approximate it by Newton's Method. Use 3 for your initial value and calculate eight iterations.
Question
s(t) = 5t5- 11. Find t when a = 0.

A) 100
B) -100
C) 5
D) -5
E) 0
Question
s(t) = t5 -10, t <strong>s(t) = t<sup>5</sup> -10, t   0. Find s when a = 0. 		</strong> A)  20 B)  -20 C)  10 D)  -10 E)  0 <div style=padding-top: 35px> 0. Find s when a = 0.

A) 20
B) -20
C) 10
D) -10
E) 0

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Deck 4: The Derivative in Graphing and Applications
1
Find the value for which f(x) = x2 + 2 on [2, 5] satisfies the Mean-Value Theorem.

A) 2.5
B) 3.5
C) 4.5
D) 3
E) 4
3.5
2
Answer true or false. A graphing utility can be used to show that Rolle's Theorem can be applied to show that f(x) = (x - 8)2 has a point where f '(x) = 0.
False
3
Find the value c that satisfies Rolle's Theorem for f(x) = 9 cos 6x on <strong>Find the value c that satisfies Rolle's Theorem for f(x) = 9 cos 6x on   .</strong> A)   B)   C) 0 D)   E)   .

A) <strong>Find the value c that satisfies Rolle's Theorem for f(x) = 9 cos 6x on   .</strong> A)   B)   C) 0 D)   E)
B) <strong>Find the value c that satisfies Rolle's Theorem for f(x) = 9 cos 6x on   .</strong> A)   B)   C) 0 D)   E)
C) 0
D) <strong>Find the value c that satisfies Rolle's Theorem for f(x) = 9 cos 6x on   .</strong> A)   B)   C) 0 D)   E)
E) <strong>Find the value c that satisfies Rolle's Theorem for f(x) = 9 cos 6x on   .</strong> A)   B)   C) 0 D)   E)
0
4
Answer true or false. According to Rolle's Theorem if a function's derivative is 0, the graph of the function must cross the y-axis.
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5
Answer true or false. The hypotheses of the Mean-Value Theorem are satisfied for Answer true or false. The hypotheses of the Mean-Value Theorem are satisfied for   on [-2, 2]. on [-2, 2].
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6
Answer true or false. Answer true or false.   on [-3, 3] satisfies the hypotheses of Rolle's Theorem. on [-3, 3] satisfies the hypotheses of Rolle's Theorem.
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7
Find the value c that satisfies the Mean-Value Theorem for f(x) = x3 on [0, 2].

A) <strong>Find the value c that satisfies the Mean-Value Theorem for f(x) = x<sup>3</sup> on [0, 2].</strong> A)   B)   C) 2 D) 0 E)
B) <strong>Find the value c that satisfies the Mean-Value Theorem for f(x) = x<sup>3</sup> on [0, 2].</strong> A)   B)   C) 2 D) 0 E)
C) 2
D) 0
E) <strong>Find the value c that satisfies the Mean-Value Theorem for f(x) = x<sup>3</sup> on [0, 2].</strong> A)   B)   C) 2 D) 0 E)
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8
If <strong>If   on [0, 8], find the value c that satisfies the Mean-Value Theorem. (Round to three decimal places.)</strong> A) 1.333 B) 1.540 C) 0.759 D) 1.923 E) 0.385 on [0, 8], find the value c that satisfies the Mean-Value Theorem. (Round to three decimal places.)

A) 1.333
B) 1.540
C) 0.759
D) 1.923
E) 0.385
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9
Verify that f(x) = x3 -5x + 4 satisfies the hypothesis of the Mean-Value Theorem over the interval [-2, 3] and find all values of C that satisfy the conclusion of the theorem.
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10
Find the value c that satisfies Rolle's Theorem for f(x) = x3 -4x on [-2, 2].

A) -2.0
B) 1.2
C) 2.0
D) 4.0
E) -4.0
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11
Answer true or false. The hypotheses of the Mean-Value Theorem are satisfied for  Answer true or false. The hypotheses of the Mean-Value Theorem are satisfied for   on [0, 4  \pi ]. on [0, 4 π\pi ].
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12
Verify that f(x) = x2 + 7x - 3 satisfies the hypothesis of the Mean-Value Theorem over the interval [0, 1] and find all values of C that satisfy the conclusion of the theorem.
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13
Answer true or false. Rolle's Theorem is used to find the zeros of a function.
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14
Verify that f(x) = x3 - x satisfies the hypothesis of Rolle's Theorem on the interval [-1, 1] and find all values of C in (-1, 1) such that f '(C) = 0
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15
Answer true or false. The hypotheses of the Mean-Value Theorem are satisfied for f(x) = cos 2x on [0, 4 π\pi ].
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16
Find the value c such that the conclusion of Rolle's Theorem are satisfied for f(x) = 2x2 - 2 on [-3, 3].

A) 0
B) -1
C) 1
D) 0.5
E) -0.5
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17
Find the value for which f(x) = x3 -8 on [3, 7] satisfies the Mean-Value Theorem.

A) 4.509
B) 3.512
C) 8.888
D) 5.132
E) 6.285
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18
Answer true or false. The Mean-Value Theorem can be used on f(x) = |x - 3| on [-5, 5].
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19
Answer true or false. The Mean-Value Theorem guarantees there is at least one c on [0, 1] such that f '(x) = 0.8 when f(x) = x.
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20
Find the value c that satisfies Rolle's Theorem for f(x) = cos 4x on  <strong>Find the value c that satisfies Rolle's Theorem for f(x) = cos 4x on   .</strong> A)   B) 4  \pi  C) 0 D)   E)    .

A)  <strong>Find the value c that satisfies Rolle's Theorem for f(x) = cos 4x on   .</strong> A)   B) 4  \pi  C) 0 D)   E)
B) 4 π\pi
C) 0
D)  <strong>Find the value c that satisfies Rolle's Theorem for f(x) = cos 4x on   .</strong> A)   B) 4  \pi  C) 0 D)   E)
E)  <strong>Find the value c that satisfies Rolle's Theorem for f(x) = cos 4x on   .</strong> A)   B) 4  \pi  C) 0 D)   E)
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21
Does Does   satisfy the hypothesis of the Mean-Value Theorem over the interval [-3, 3]? If so, find all values of C that satisfy the conclusion of the theorem. satisfy the hypothesis of the Mean-Value Theorem over the interval [-3, 3]? If so, find all values of C that satisfy the conclusion of the theorem.
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22
Does Does   satisfy the hypothesis of the Mean-Value Theorem over the interval [0, 1]? If so, find all values of C that satisfy the conclusion. satisfy the hypothesis of the Mean-Value Theorem over the interval [0, 1]? If so, find all values of C that satisfy the conclusion.
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23
A cyclist starts from rest and travels 6.25 miles along a straight road in 15 minutes. Use the Mean-Value Theorem to show that at some instant during the trip his velocity was exactly 25 miles per hour.
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24
Use Rolle's Theorem to prove that the equation 6x5 - 28x3 + 6 = 0 has at least one solution in the interval (0, 1).
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25
Does Does   satisfy the hypothesis of the Mean-Value Theorem over the interval [0, 6]? If so, find all values of C that satisfy the conclusion of the theorem. satisfy the hypothesis of the Mean-Value Theorem over the interval [0, 6]? If so, find all values of C that satisfy the conclusion of the theorem.
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26
Verify that f(x) = x2 + 8 satisfies the hypothesis of the Mean-Value Theorem on the interval [0, 4] and find all values of C that satisfy the conclusion of the theorem.
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27
Use Rolle's Theorem to show that f(x) = 4x3 + 5x - 1 does not have more than one real root.
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28
Find the value of c in the interval [0, 2 π\pi ] that satisfies the Mean Value Theorem. f(x) = 6 cos x
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29
Use Rolle's Theorem to show that f(x) = x3 + ax + b, where a > 0, cannot have more than one real root.
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30
Does Does   satisfy the hypothesis of the Mean-Value Theorem over the interval [-5, 5]? If so, find all values of C that satisfy the conclusion. satisfy the hypothesis of the Mean-Value Theorem over the interval [-5, 5]? If so, find all values of C that satisfy the conclusion.
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31
Find the value of c in the interval [0, 1] that satisfies the Mean Value Theorem. f(x) = x7
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32
Verify that f(x) = x3 -3x2- 3x + 1 satisfies the hypothesis of the Mean-Value Theorem over the interval [0, 2] and find all values of C that satisfy the conclusion of the theorem.
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33
Find the value of c in the interval [0, 4] that satisfies the Mean Value Theorem. f(x) = 5x2 + 20
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34
An automobile starts from rest and travels 4.5 miles along a straight road in 6 minutes. Use the Mean-Value Theorem to show that at some instant during the trip its velocity was exactly 45 miles per hour.
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35
Find the value of c in the interval [-1, 1] that satisfies the Mean Value Theorem. f(x) = x2 - 4x + 3
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36
Verify that Verify that   satisfies the hypothesis of the Mean-Value Theorem over the interval [6, 8] and find all values of C that satisfy the conclusion of the theorem. satisfies the hypothesis of the Mean-Value Theorem over the interval [6, 8] and find all values of C that satisfy the conclusion of the theorem.
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37
Approximate <strong>Approximate   by applying Newton's Method to the equation x<sup>2</sup> - 5 = 0. Use 2 for your initial value and calculate three iterations.</strong> A) 2.2360680 B) 2.2359480 C) 2.2360560 D) 2.236111 E) 2.25 by applying Newton's Method to the equation x2 - 5 = 0. Use 2 for your initial value and calculate three iterations.

A) 2.2360680
B) 2.2359480
C) 2.2360560
D) 2.236111
E) 2.25
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38
Does Does   satisfy the hypothesis of the Mean-Value Theorem over the interval [0, 16]? If so, find all values of C that satisfy the conclusion of the theorem. satisfy the hypothesis of the Mean-Value Theorem over the interval [0, 16]? If so, find all values of C that satisfy the conclusion of the theorem.
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39
Find the value of c in the interval [0, π\pi ] that satisfies the Mean Value Theorem. f(x) = sin(6x)
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40
Find the value of c in the interval [0, 1] that satisfies the Mean Value Theorem. f(x) = x4 + 8
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41
Use Newton's Method to find the largest positive solution of x4 + x3 - 2x2- 5x -7 = 0. Use 4 for your initial value and calculate eight iterations.

A) 3.0777385
B) 2.4705751
C) 2.0313608
D) 2.1446813
E) 2.0413802
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42
Use Newton's Method to find the x-coordinate of the intersection of y = x4 + 2x3 and y = 2x2 + 6x + 3. Use 3 for your initial value and calculate eight iterations.

A) 2.3333333
B) 1.9347826
C) 1.7649117
D) 1.7331057
E) 1.7320508
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43
Use Newton's Method to find the largest positive solution of x4 + 4x3 -2x2 - 9x - 2 = 0. Use 4 for your initial value and calculate eight iterations.

A) 1.6033441
B) 1.5530570
C) 1.8062561
D) 2.2423497
E) 2.9550827
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44
Use Newton's Method to approximate the greatest x-coordinate of the intersection of y = x3 - 2x and y = x4 + 6x - 4. Use 3 for your initial value and calculate eight iterations.

A) 0.5169625
B) 0.7963536
C) 0.5080644
D) 1.4400943
E) 2.1685393
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45
Approximate Approximate   by applying Newton's Method to the equation x<sup>5</sup> - 83 = 0. Use -2 for your initial value and calculate nine iterations. by applying Newton's Method to the equation x5 - 83 = 0. Use -2 for your initial value and calculate nine iterations.
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46
Approximate Approximate   by applying Newton's Method to the equation x<sup>3</sup> - 73 = 0. Use 4 for your initial value and calculate five iterations. by applying Newton's Method to the equation x3 - 73 = 0. Use 4 for your initial value and calculate five iterations.
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47
Use Newton's Method to find the largest positive solution of x5 + 6x3-3x2 - 9 = 0. Use 3 for your initial value and calculate three iterations.

A) 2.3278689
B) 1.8122908
C) 1.4559632
D) 1.4558412
E) 1.4559512
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48
Use Newton's Method to find the largest positive solution of x4 + x3 - 6x - 6 = 0. Use 4 for your initial value and calculate eight iterations.

A) 1.8381538
B) 1.9835930
C) 1.8171206
D) 2.3659571
E) 3.0268456
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49
Approximate Approximate   by applying Newton's Method to the equation x<sup>3</sup> -29 = 0. Use 3 for your initial value and calculate five iterations. by applying Newton's Method to the equation x3 -29 = 0. Use 3 for your initial value and calculate five iterations.
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50
Approximate Approximate   by applying Newton's Method to the equation x<sup>2</sup> -44 = 0. Use 6 for your initial value and calculate five iterations. by applying Newton's Method to the equation x2 -44 = 0. Use 6 for your initial value and calculate five iterations.
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51
Use Newton's Method to find the largest positive solution of x4 - 3x2 - 9 = 0. Use 5 for your initial value and calculate eight iterations.

A) 2.2697369
B) 2.5222928
C) 2.2032027
D) 3.0390141
E) 3.8489362
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52
Use Newton's Method to find the largest positive solution of x4 - 8x2 - 9 = 0. Use 4 for your initial value and calculate eight iterations.

A) 3.380208
B) 3.0000000
C) 3.0799923
D) 3.0045383
E) 3.0000157
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53
Approximate <strong>Approximate   by applying Newton's Method to the equation x<sup>3</sup> - 11 = 0. Use 2.5 for your initial value and calculate four iterations.</strong> A) 2.5 B) 2.253333 C) 2.2243608 D) 2.2239800 E) 2.22398009 by applying Newton's Method to the equation x3 - 11 = 0. Use 2.5 for your initial value and calculate four iterations.

A) 2.5
B) 2.253333
C) 2.2243608
D) 2.2239800
E) 2.22398009
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54
The equation, x3 - 2x - 19 = 0 has one real solution for 1 < x < 19. Approximate it by Newton's Method. Use 4.75 for your initial value and calculate eight iterations.
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55
Use Newton's Method to find the largest solution of x5 - 2x4 + 5x3 -x2 + 7x + 12 = 0. Use 2 for your initial value and calculate six iterations.

A) 1.2151899
B) 0.0852538
C) -1.7308568
D) -1.0071278
E) -1.2897963
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56
Use Newton's Method to find the largest positive solution of x3 + x2 - 4x - 5 = 3. Use 4 for your initial value and calculate eight iterations.

A) 3.0769231
B) 2.5867842
C) 2.3921405
D) 2.3307530
E) 2.3417624
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57
Use Newton's Method to find the largest positive solution of x4 + 4x - 5 = 0. Use 4 for your initial value and calculate eight iterations.

A) 1.0000000
B) 1.2164332
C) 1.6112108
D) 2.1938904
E) 2.9730769
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58
Use Newton's Method to approximate the solutions of x4- 77 = 0. Use 4 for your initial value and calculate four iterations.

A) -3.0108653, 3.0108653
B) -2.9634212, 2.9634212
C) -2.9622573, 2.9622573
D) -3.300781, 3.300781
E) -4, 4
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59
Use Newton's Method to find the greatest x-coordinate of the intersection of y = 4x4 -24x2 and y = 18x2 - 16. Use 9 for your initial value and calculate eight iterations.

A) 3.2978272
B) 3.1786982
C) 3.1888714
D) 4.3309497
E) 3.6519603
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60
Approximate Approximate   by applying Newton's Method to the equation x<sup>3</sup> - 88 = 0. Use 4 for your initial value and calculate nine iterations. by applying Newton's Method to the equation x3 - 88 = 0. Use 4 for your initial value and calculate nine iterations.
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61
Answer true or false. For the position function graphed, the acceleration at t = 1 is positive. Answer true or false. For the position function graphed, the acceleration at t = 1 is positive.
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62
The equation, x3 + x2 - 5x - 6 = 0 has one real solution for 1 < x < 6. Approximate it by Newton's Method. Use 3 for your initial value and calculate eight iterations.
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63
Let s(t) = t4 - 5t + 6 be a position function. The acceleration function a(t) =

A) 4t3 - 5
B) 12t2
C) 4t3 - 5t
D) 12t2 - 5
E) 12t3
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64
Answer true or false. If a particle is dropped a distance of 624 m. It has a speed of 110.58 m/s (rounded to the nearest hundredth of a m/s) when it hits the ground.
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65
The graph represents a position function. Determine what is happening to the velocity at t = 0.  <strong>The graph represents a position function. Determine what is happening to the velocity at t = 0.  </strong> A) It is positive B) It is negative C) It is zero D) There is insufficient information to tell. E) It is + \infty

A) It is positive
B) It is negative
C) It is zero
D) There is insufficient information to tell.
E) It is + \infty
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66
Let s(t) = t9 -t be a position function of a particle. At 1 the particle's acceleration is

A) negative
B) positive
C) zero
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67
The graph represents a position function. Determine what is happening to the velocity at t = 1.  <strong>The graph represents a position function. Determine what is happening to the velocity at t = 1.  </strong> A) It is negative B) It is positive C) It is zero D) There is insufficient information to tell. E) It is + \infty

A) It is negative
B) It is positive
C) It is zero
D) There is insufficient information to tell.
E) It is + \infty
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68
s(t) = 4t - 3t2, t \ge 0. The velocity function is

A) 4 - 3t
B) 4t - 6t2
C) 4 - 6t
D) 8 - 6t
E) 4t - 3t
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69
A projectile is dropped, and reaches the ground at 40 m/s. How long does it take the projectile to reach ground? (Assume the position function is <strong>A projectile is dropped, and reaches the ground at 40 m/s. How long does it take the projectile to reach ground? (Assume the position function is   , where a = -10   .)</strong> A) 2 s B) 8 s C) 4.47 s D) 4 s E) 3.16 s , where a = -10 <strong>A projectile is dropped, and reaches the ground at 40 m/s. How long does it take the projectile to reach ground? (Assume the position function is   , where a = -10   .)</strong> A) 2 s B) 8 s C) 4.47 s D) 4 s E) 3.16 s .)

A) 2 s
B) 8 s
C) 4.47 s
D) 4 s
E) 3.16 s
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70
Let s(t) = sin 4t be a position function of a particle. At <strong>Let s(t) = sin 4t be a position function of a particle. At   the particle's velocity is</strong> A) Positive B) Negative C) Zero the particle's velocity is

A) Positive
B) Negative
C) Zero
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71
The graph represents a velocity function. The acceleration at t = 2 is  <strong>The graph represents a velocity function. The acceleration at t = 2 is  </strong> A) positive B) negative C) zero D) There is insufficient information to tell. E) It is + \infty

A) positive
B) negative
C) zero
D) There is insufficient information to tell.
E) It is + \infty
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72
Find s when a = 0.

A) 48
B) -48
C) 6
D) -6
E) 0
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73
Answer true or false. This can be the graph of a particle's position if the particle is moving to the right at t = 3.3. Answer true or false. This can be the graph of a particle's position if the particle is moving to the right at t = 3.3.
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74
Let s(t) = 5t6 -4t be a position function. Find v when t = 3.

A) 7,290
B) 1,455
C) 7,286
D) 3,633
E) 4
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75
The equation, The equation,   has one real solution for   . Approximate it by Newton's Method. Use 2 for your initial value and calculate eight iterations. has one real solution for The equation,   has one real solution for   . Approximate it by Newton's Method. Use 2 for your initial value and calculate eight iterations. . Approximate it by Newton's Method. Use 2 for your initial value and calculate eight iterations.
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76
s(t) = 5t-4t3, t \ge 0. The acceleration function is

A) 5 - 8t
B) 8t
C) 5 - 8t2
D) 24t
E) 5t - 4t
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77
Answer true or false. If the graph on the left is a position function, the graph on the right represents the corresponding velocity function.
y = x2 Answer true or false. If the graph on the left is a position function, the graph on the right represents the corresponding velocity function. y = x<sup>2</sup>    Answer true or false. If the graph on the left is a position function, the graph on the right represents the corresponding velocity function. y = x<sup>2</sup>
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78
The equation, x3 - x2 - 4x - 4 = 0 has one real solution for 1 < x < 4. Approximate it by Newton's Method. Use 3 for your initial value and calculate eight iterations.
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79
s(t) = 5t5- 11. Find t when a = 0.

A) 100
B) -100
C) 5
D) -5
E) 0
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80
s(t) = t5 -10, t <strong>s(t) = t<sup>5</sup> -10, t   0. Find s when a = 0. 		</strong> A)  20 B)  -20 C)  10 D)  -10 E)  0 0. Find s when a = 0.

A) 20
B) -20
C) 10
D) -10
E) 0

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