Exam 8: Techniques of Integration

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The integral The integral   : :

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Which of the following integrals converges?

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For computing the integral For computing the integral   , the most efficient method is , the most efficient method is

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Evaluate the integrals using Integration by Parts, the Substitution Method, or both methods. A) Evaluate the integrals using Integration by Parts, the Substitution Method, or both methods. A)    B)  B) Evaluate the integrals using Integration by Parts, the Substitution Method, or both methods. A)    B)

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Use the substitution Use the substitution   and the trigonometric identity   , or reduction formulas as necessary, to calculate the integrals.  A)    B)  and the trigonometric identity Use the substitution   and the trigonometric identity   , or reduction formulas as necessary, to calculate the integrals.  A)    B)  , or reduction formulas as necessary, to calculate the integrals. A) Use the substitution   and the trigonometric identity   , or reduction formulas as necessary, to calculate the integrals.  A)    B)  B) Use the substitution   and the trigonometric identity   , or reduction formulas as necessary, to calculate the integrals.  A)    B)

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Use the substitution Use the substitution   and the identity   to evaluate the integral   . and the identity Use the substitution   and the identity   to evaluate the integral   . to evaluate the integral Use the substitution   and the identity   to evaluate the integral   . .

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The time between customers at a checkout line is a random variable with exponential density. There is a 30% probability of waiting 5 min or more between customers. What is the average time between customers?

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Evaluate the integral using one or two methods, as indicated. A) Evaluate the integral using one or two methods, as indicated. A)   : the Substitution Method followed by Integration by Parts, twice.  B)   : Integration by Parts followed by the Substitution Method. : the Substitution Method followed by Integration by Parts, twice. B) Evaluate the integral using one or two methods, as indicated. A)   : the Substitution Method followed by Integration by Parts, twice.  B)   : Integration by Parts followed by the Substitution Method. : Integration by Parts followed by the Substitution Method.

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Evaluate the integral Evaluate the integral   . .

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Evaluate the integral Evaluate the integral   . .

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Evaluate the integral Evaluate the integral   . .

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Calculate Calculate   and   for the following.  A)    B)  and Calculate   and   for the following.  A)    B)  for the following. A) Calculate   and   for the following.  A)    B)  B) Calculate   and   for the following.  A)    B)

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Evaluate the integral Evaluate the integral   . .

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The partial fraction decomposition of The partial fraction decomposition of   is: is:

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A cereal-packaging company fills boxes on average with 39 oz of cereal. Due to machine error, the actual volume is normally distributed with a standard deviation of 0.2 oz. Let A cereal-packaging company fills boxes on average with 39 oz of cereal. Due to machine error, the actual volume is normally distributed with a standard deviation of 0.2 oz. Let   be the probability of a box having less than 38.5 oz. Express   as an integral of an appropriate density function and compute its value numerically. be the probability of a box having less than 38.5 oz. Express A cereal-packaging company fills boxes on average with 39 oz of cereal. Due to machine error, the actual volume is normally distributed with a standard deviation of 0.2 oz. Let   be the probability of a box having less than 38.5 oz. Express   as an integral of an appropriate density function and compute its value numerically. as an integral of an appropriate density function and compute its value numerically.

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Compute the integral Compute the integral   . .

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To show that To show that   converges, we should use: converges, we should use:

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The height of sixth grade students in a certain class is a random variable The height of sixth grade students in a certain class is a random variable   with mean   in. Assume the height of the students is normally distributed with standard deviation   in. Let   be the probability that a student will be at least   in. tall. Express   as an integral of an appropriate density function, and compute its value numerically. with mean The height of sixth grade students in a certain class is a random variable   with mean   in. Assume the height of the students is normally distributed with standard deviation   in. Let   be the probability that a student will be at least   in. tall. Express   as an integral of an appropriate density function, and compute its value numerically. in. Assume the height of the students is normally distributed with standard deviation The height of sixth grade students in a certain class is a random variable   with mean   in. Assume the height of the students is normally distributed with standard deviation   in. Let   be the probability that a student will be at least   in. tall. Express   as an integral of an appropriate density function, and compute its value numerically. in. Let The height of sixth grade students in a certain class is a random variable   with mean   in. Assume the height of the students is normally distributed with standard deviation   in. Let   be the probability that a student will be at least   in. tall. Express   as an integral of an appropriate density function, and compute its value numerically. be the probability that a student will be at least The height of sixth grade students in a certain class is a random variable   with mean   in. Assume the height of the students is normally distributed with standard deviation   in. Let   be the probability that a student will be at least   in. tall. Express   as an integral of an appropriate density function, and compute its value numerically. in. tall. Express The height of sixth grade students in a certain class is a random variable   with mean   in. Assume the height of the students is normally distributed with standard deviation   in. Let   be the probability that a student will be at least   in. tall. Express   as an integral of an appropriate density function, and compute its value numerically. as an integral of an appropriate density function, and compute its value numerically.

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Evaluate the integral Evaluate the integral   . .

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The height of sixth grade students in a class is a random variable The height of sixth grade students in a class is a random variable   with mean   in. Assume the height of the students is normally distributed with standard deviation   in. Let   be the probability that a student will be at most   in. tall. Express   as an integral of an appropriate density function, and compute its value numerically. with mean The height of sixth grade students in a class is a random variable   with mean   in. Assume the height of the students is normally distributed with standard deviation   in. Let   be the probability that a student will be at most   in. tall. Express   as an integral of an appropriate density function, and compute its value numerically. in. Assume the height of the students is normally distributed with standard deviation The height of sixth grade students in a class is a random variable   with mean   in. Assume the height of the students is normally distributed with standard deviation   in. Let   be the probability that a student will be at most   in. tall. Express   as an integral of an appropriate density function, and compute its value numerically. in. Let The height of sixth grade students in a class is a random variable   with mean   in. Assume the height of the students is normally distributed with standard deviation   in. Let   be the probability that a student will be at most   in. tall. Express   as an integral of an appropriate density function, and compute its value numerically. be the probability that a student will be at most The height of sixth grade students in a class is a random variable   with mean   in. Assume the height of the students is normally distributed with standard deviation   in. Let   be the probability that a student will be at most   in. tall. Express   as an integral of an appropriate density function, and compute its value numerically. in. tall. Express The height of sixth grade students in a class is a random variable   with mean   in. Assume the height of the students is normally distributed with standard deviation   in. Let   be the probability that a student will be at most   in. tall. Express   as an integral of an appropriate density function, and compute its value numerically. as an integral of an appropriate density function, and compute its value numerically.

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