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Infinite Intervals of Integration
Implicit Differentiation Properties of Definite Integrals Local Extreme Points
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Objectives Students will be able to
Use limits to determine if infinite intervals of integration are convergent or divergent. Calculate improper integrals (where possible). Implicit Differentiation Properties of Definite Integrals Local Extreme Points
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Improper Integrals Implicit Differentiation
Properties of Definite Integrals Local Extreme Points
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When the limit of an improper integral exists, then the integral is said to be convergent. If the limit of an improper integral does not exist, then the integral is said to be divergent. Implicit Differentiation Properties of Definite Integrals Local Extreme Points
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Example 1 Find the area, if it is finite, of the region under the graph of over the interval Implicit Differentiation Properties of Definite Integrals Local Extreme Points
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Example 2 Determine whether the improper integral below converges or diverges. If it converges, find the value. Implicit Differentiation Properties of Definite Integrals Local Extreme Points
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Example 3 Determine whether the improper integral below converges or diverges. If it converges, find the value. Implicit Differentiation Properties of Definite Integrals Local Extreme Points
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Example 4 Determine whether the improper integral below converges or diverges. If it converges, find the value. Implicit Differentiation Properties of Definite Integrals Local Extreme Points
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Example 5 Find if possible Implicit Differentiation
Properties of Definite Integrals Local Extreme Points
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Example 6 An investment produces a perpetual stream of income with a flow rate of Find the capital value at an interest rate of 10% compounded continuously. Implicit Differentiation Properties of Definite Integrals Local Extreme Points
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