Exam 9: Sequences; Induction; the Binomial Theorem

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Find the indicated term of the geometric sequence. -6th term of -1, 3, -9, ...

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Mathematical Induction 1 Prove Statements Using Mathematical Induction Write the word or phrase that best completes each statement or answers the question. Use the Principle of Mathematical Induction to show that the statement is true for all natural numbers n. - Mathematical Induction 1 Prove Statements Using Mathematical Induction  Write the word or phrase that best completes each statement or answers the question. Use the Principle of Mathematical Induction to show that the statement is true for all natural numbers n. -

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First, we show that the statement is true when n = 1.
For n = 1, we get 1 First, we show that the statement is true when n = 1. For n = 1, we get 1   This is a true statement and Condition I is satisfied. Next, we assume the statement holds for some k. That is,   is true for some positive integer k. We need to show that the statement holds for k + 1. That is, we need to show that   So we assume that 1   is true and add the next term,   to both sides of the equation.   Condition II is satisfied. As a result, the statement is true for all natural numbers n. This is a true statement and Condition I is satisfied.
Next, we assume the statement holds for some k. That is, First, we show that the statement is true when n = 1. For n = 1, we get 1   This is a true statement and Condition I is satisfied. Next, we assume the statement holds for some k. That is,   is true for some positive integer k. We need to show that the statement holds for k + 1. That is, we need to show that   So we assume that 1   is true and add the next term,   to both sides of the equation.   Condition II is satisfied. As a result, the statement is true for all natural numbers n. is true for some positive integer k.
We need to show that the statement holds for k + 1. That is, we need to show that First, we show that the statement is true when n = 1. For n = 1, we get 1   This is a true statement and Condition I is satisfied. Next, we assume the statement holds for some k. That is,   is true for some positive integer k. We need to show that the statement holds for k + 1. That is, we need to show that   So we assume that 1   is true and add the next term,   to both sides of the equation.   Condition II is satisfied. As a result, the statement is true for all natural numbers n. So we assume that 1 First, we show that the statement is true when n = 1. For n = 1, we get 1   This is a true statement and Condition I is satisfied. Next, we assume the statement holds for some k. That is,   is true for some positive integer k. We need to show that the statement holds for k + 1. That is, we need to show that   So we assume that 1   is true and add the next term,   to both sides of the equation.   Condition II is satisfied. As a result, the statement is true for all natural numbers n. is true and add the next term, First, we show that the statement is true when n = 1. For n = 1, we get 1   This is a true statement and Condition I is satisfied. Next, we assume the statement holds for some k. That is,   is true for some positive integer k. We need to show that the statement holds for k + 1. That is, we need to show that   So we assume that 1   is true and add the next term,   to both sides of the equation.   Condition II is satisfied. As a result, the statement is true for all natural numbers n. to both sides of the equation. First, we show that the statement is true when n = 1. For n = 1, we get 1   This is a true statement and Condition I is satisfied. Next, we assume the statement holds for some k. That is,   is true for some positive integer k. We need to show that the statement holds for k + 1. That is, we need to show that   So we assume that 1   is true and add the next term,   to both sides of the equation.   Condition II is satisfied. As a result, the statement is true for all natural numbers n. Condition II is satisfied. As a result, the statement is true for all natural numbers n.

Find the indicated term using the given information. --1 , 2 , 5 , ... ; Find the indicated term using the given information. --1 , 2 , 5 , ... ;

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Use a graphing utility to find the sum of the geometric sequence. Round answer to two decimal places, if necessary. -Use a graphing utility to find the sum of the geometric sequence. Round answer to two decimal places, if necessary. -

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A geometric sequence is given. Find the common ratio and write out the first four terms. -A geometric sequence is given. Find the common ratio and write out the first four terms. -

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Mathematical Induction 1 Prove Statements Using Mathematical Induction Write the word or phrase that best completes each statement or answers the question. Use the Principle of Mathematical Induction to show that the statement is true for all natural numbers n. - Mathematical Induction 1 Prove Statements Using Mathematical Induction  Write the word or phrase that best completes each statement or answers the question. Use the Principle of Mathematical Induction to show that the statement is true for all natural numbers n. -

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Find the sum of the sequence. -Find the sum of the sequence. -

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Use the Binomial Theorem to find the indicated coefficient or term. -The 5th term in the expansion of ( Use the Binomial Theorem to find the indicated coefficient or term. -The 5th term in the expansion of (

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Find the sum of the sequence. -Find the sum of the sequence. -

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Use a graphing utility to find the sum of the geometric sequence. Round answer to two decimal places, if necessary. -Use a graphing utility to find the sum of the geometric sequence. Round answer to two decimal places, if necessary. -

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Find the sum. -Find the sum. -

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The sequence is defined recursively. Write the first four terms. -The sequence is defined recursively. Write the first four terms. -

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Use a graphing utility to find the sum of the geometric sequence. Round answer to two decimal places, if necessary. -4 + 12 + 36 + 108 + 324 + ... + Use a graphing utility to find the sum of the geometric sequence. Round answer to two decimal places, if necessary. -4 + 12 + 36 + 108 + 324 + ... +

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Find the sum. -(-6)+ (-1)+ 4 + 9 + ... + 39

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Expand the expression using the Binomial Theorem. -Expand the expression using the Binomial Theorem. -

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Determine whether the given sequence is arithmetic, geometric, or neither. If the sequence is arithmetic, find the common difference; if it is geometric, find the common ratio. -Determine whether the given sequence is arithmetic, geometric, or neither. If the sequence is arithmetic, find the common difference; if it is geometric, find the common ratio. -

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Solve. -After working for 25 years you would like to have $800,000 in an annuity for early retirement. If theannual interest rate is 7.5%, compounded monthly, what will your monthly deposit need to be?

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Express the sum using summation notation. -Express the sum using summation notation. -

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Evaluate the expression. -Evaluate the expression. -

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Evaluate the factorial expression. -Evaluate the factorial expression. -

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