Exam 4: Applications of Differentiation

arrow
  • Select Tags
search iconSearch Question
  • Select Tags

Sketch the graph of Sketch the graph of   on   and find its absolute maximum and absolute minimum values, if any. on Sketch the graph of   on   and find its absolute maximum and absolute minimum values, if any. and find its absolute maximum and absolute minimum values, if any.

Free
(Short Answer)
4.9/5
(40)
Correct Answer:
Verified

  Abs. max.  Abs. max.   Abs. max.

The sum of two positive numbers is The sum of two positive numbers is   . What is the smallest possible value of the sum of their squares? . What is the smallest possible value of the sum of their squares?

Free
(Short Answer)
4.8/5
(33)
Correct Answer:
Verified

Find the critical number(s), if any of the function Find the critical number(s), if any of the function

Free
(Multiple Choice)
4.7/5
(36)
Correct Answer:
Verified

A

Find the critical numbers of Find the critical numbers of   . .

(Multiple Choice)
4.8/5
(43)

A piece of wire 10 m long is cut into two pieces. One piece is bent into a square and the other is bent into an equilateral triangle. How should the wire be cut for the square so that the total area enclosed is a minimum? Round your answer to the nearest hundredth.

(Multiple Choice)
4.8/5
(43)

Determine where the graph of Determine where the graph of   is concave upward and where it is concave downward. Also, find all inflection points of the function. is concave upward and where it is concave downward. Also, find all inflection points of the function.

(Short Answer)
4.8/5
(37)

Find the most general antiderivative of the function. Find the most general antiderivative of the function.

(Short Answer)
4.9/5
(43)

Use Newton's method with the specified initial approximation Use Newton's method with the specified initial approximation   to find   , the third approximation to the root of the given equation. (Give your answer to four decimal places.)  to find Use Newton's method with the specified initial approximation   to find   , the third approximation to the root of the given equation. (Give your answer to four decimal places.)  , the third approximation to the root of the given equation. (Give your answer to four decimal places.) Use Newton's method with the specified initial approximation   to find   , the third approximation to the root of the given equation. (Give your answer to four decimal places.)

(Short Answer)
4.8/5
(42)

Use Newton's method with the specified initial approximation Use Newton's method with the specified initial approximation   to find   , the third approximation to the root of the given equation. (Round your answer to four decimal places.)  to find Use Newton's method with the specified initial approximation   to find   , the third approximation to the root of the given equation. (Round your answer to four decimal places.)  , the third approximation to the root of the given equation. (Round your answer to four decimal places.) Use Newton's method with the specified initial approximation   to find   , the third approximation to the root of the given equation. (Round your answer to four decimal places.)

(Multiple Choice)
4.9/5
(43)

Find the absolute maximum and absolute minimum values, if any, of the function Find the absolute maximum and absolute minimum values, if any, of the function   on   . on Find the absolute maximum and absolute minimum values, if any, of the function   on   . .

(Multiple Choice)
4.8/5
(36)

Find the position function of a particle moving along a coordinate line that satisfies the given condition. Find the position function of a particle moving along a coordinate line that satisfies the given condition.   , s(1) = -1 , s(1) = -1

(Short Answer)
4.8/5
(43)

Find the maximum and minimum points of the function. Find the maximum and minimum points of the function.

(Short Answer)
4.8/5
(41)

The graph of the derivative The graph of the derivative   of a continuous function f is shown. On what intervals is f decreasing?   . of a continuous function f is shown. On what intervals is f decreasing? The graph of the derivative   of a continuous function f is shown. On what intervals is f decreasing?   . .

(Multiple Choice)
4.9/5
(38)

A car braked with a constant deceleration of 40 A car braked with a constant deceleration of 40   , producing skid marks measuring 60 ft before coming to a stop. How fast was the car traveling when the brakes were first applied? , producing skid marks measuring 60 ft before coming to a stop. How fast was the car traveling when the brakes were first applied?

(Short Answer)
4.8/5
(45)

Find the number c that satisfies the conclusion of the Mean Value Theorem on the given interval. Find the number c that satisfies the conclusion of the Mean Value Theorem on the given interval.   ,  , Find the number c that satisfies the conclusion of the Mean Value Theorem on the given interval.   ,

(Multiple Choice)
4.7/5
(38)

The function The function   satisfies the hypotheses of Rolle's Theorem on the interval   . Find all values of c that satisfy the conclusion of the theorem. satisfies the hypotheses of Rolle's Theorem on the interval The function   satisfies the hypotheses of Rolle's Theorem on the interval   . Find all values of c that satisfy the conclusion of the theorem. . Find all values of c that satisfy the conclusion of the theorem.

(Multiple Choice)
4.8/5
(43)

Find the critical number(s), if any, of the function Find the critical number(s), if any, of the function

(Multiple Choice)
4.9/5
(30)

A woman at a point A on the shore of a circular lake with radius A woman at a point A on the shore of a circular lake with radius   wants to arrive at the point C diametrically opposite on the other side of the lake in the shortest possible time. She can walk at the rate of   and row a boat at   . How should she proceed? (Find   ). Round the result, if necessary, to the nearest hundredth.  wants to arrive at the point C diametrically opposite on the other side of the lake in the shortest possible time. She can walk at the rate of A woman at a point A on the shore of a circular lake with radius   wants to arrive at the point C diametrically opposite on the other side of the lake in the shortest possible time. She can walk at the rate of   and row a boat at   . How should she proceed? (Find   ). Round the result, if necessary, to the nearest hundredth.  and row a boat at A woman at a point A on the shore of a circular lake with radius   wants to arrive at the point C diametrically opposite on the other side of the lake in the shortest possible time. She can walk at the rate of   and row a boat at   . How should she proceed? (Find   ). Round the result, if necessary, to the nearest hundredth.  . How should she proceed? (Find A woman at a point A on the shore of a circular lake with radius   wants to arrive at the point C diametrically opposite on the other side of the lake in the shortest possible time. She can walk at the rate of   and row a boat at   . How should she proceed? (Find   ). Round the result, if necessary, to the nearest hundredth.  ). Round the result, if necessary, to the nearest hundredth. A woman at a point A on the shore of a circular lake with radius   wants to arrive at the point C diametrically opposite on the other side of the lake in the shortest possible time. She can walk at the rate of   and row a boat at   . How should she proceed? (Find   ). Round the result, if necessary, to the nearest hundredth.

(Multiple Choice)
4.8/5
(30)

Use the guidelines of this section to sketch the curve. Use the guidelines of this section to sketch the curve.   Select the graph of the curve. Select the graph of the curve.

(Multiple Choice)
4.9/5
(38)

Use Newton's method with the specified initial approximation Use Newton's method with the specified initial approximation   to find   , the third approximation to the root of the given equation. (Round your answer to four decimal places.)  to find Use Newton's method with the specified initial approximation   to find   , the third approximation to the root of the given equation. (Round your answer to four decimal places.)  , the third approximation to the root of the given equation. (Round your answer to four decimal places.) Use Newton's method with the specified initial approximation   to find   , the third approximation to the root of the given equation. (Round your answer to four decimal places.)

(Multiple Choice)
4.9/5
(37)
Showing 1 - 20 of 68
close modal

Filters

  • Essay(0)
  • Multiple Choice(0)
  • Short Answer(0)
  • True False(0)
  • Matching(0)