CALCULUS
FUNDAMENTAL THEOREM OF CALCULUS
Given [pic] with the initial condition [pic]
Method 1: Integrate [pic], and use the initial condition to find C. Then write
the particular solution, and use your particular solution to find [pic].
Method 2: Use the Fundamental Theorem of Calculus: [pic]
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Sometimes there is no antiderivative so we have to use Method 2 and our graphing calculator.
Ex. [pic]
Ex. The graph of [pic] consists of two line segments and a
semicircle as shown on the right. Given that [pic],
find:
(a) [pic]
(b) [pic]
Graph of [pic]
(c) [pic]
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Ex. The graph of [pic] is shown. Use the figure and the
fact that [pic] to find:
(a) [pic]
(b) [pic]
(c) [pic]
Then sketch the graph of f.
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Ex. A pizza with a temperature of 95°C is put into a 25°C room when t = 0. The pizza’s
temperature is decreasing at a rate of [pic] per minute. Estimate the
pizza’s temperature when t = 5 minutes.
CALCULUS
WORKSHEET ON FUNDAMENTAL THEOREM OF CALCULUS
Work the following on notebook paper.
Work problems 1 - 3 by both methods.
1. [pic]
2. [pic]
3. Water flows into a tank at a rate of [pic] is measured in
gallons per hour and t is measured in hours. If there are 150 gallons of water in the tank
at time t = 0, how many gallons of water are in the tank when t = 24?
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Work problems 4 – 8 using the Fundamental Theorem of Calculus and your calculator.
4. [pic]
5. [pic]
6. A particle moving along the x-axis has position [pic] at time t with the velocity of the
particle [pic] At time t = 6, the particle’s position is (4, 0). Find the position
of the particle when t = 7.
7. Let [pic] represent a bacteria population which is 4 million at time t = 0. After t hours,
the population is growing at an instantaneous rate of [pic] million bacteria per hour. Find
the total increase in the bacteria population during the first three hours, and find the
population at t = 3 hours.
8. A particle moves along a line so that at any time [pic] its velocity is given by
[pic]. At time t = 0, the position of the particle is [pic] Determine
the position of the particle at t = 3.
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Use the Fundamental Theorem of Calculus and the given graph.
9. The graph of [pic] is shown on the right.
[pic]
10. The graph of [pic] is the semicircle shown on the right.
Find [pic]
11. The graph of [pic], consisting of two line segments
and a semicircle, is shown on the right. Given
that [pic], find:
(a) [pic] (b) [pic] (c) [pic]
12. Let [pic] be the function whose graph goes through the point (3, 6) and whose derivative is given
by [pic] Find [pic]
13. (Multiple Choice) If [pic] is the antiderivative of [pic] such that [pic] , then [pic]
(A) 4.988 (B) 5 (C) 5.016 (D) 5.376 (E) 5.629
Answers to Worksheet on the First Fundamental Theorem of Calculus
1. [pic] 7. 10.099 million, 14.099 million
2. [pic] 8. 6.151
3. 357.36 gallons 9. 9.2
4. 2.932 10. [pic]
5. 0.996 11. (a) 9.5 (b) 6.5 (c) 6.5 + 2π
6. 3.837 12. 6.238
13. D
-----------------------
4
1
4
- 4
Area = 4
Area = 9
Area = 2
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