Chapter 8: Q. 5 (page 679)
Let f be a twice-differentiable function at a point . Using the words value, slope, and concavity, explain why the second Taylor polynomial might be a good approximation for f close to .
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Chapter 8: Q. 5 (page 679)
Let f be a twice-differentiable function at a point . Using the words value, slope, and concavity, explain why the second Taylor polynomial might be a good approximation for f close to .
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In Exercises 49–56 find the Taylor series for the specified function and the given value of . Note: These are the same functions and values as in Exercises 41–48.
In Exercises 49–56 find the Taylor series for the specified function and the given value of . Note: These are the same functions and values as in Exercises 41–48.
Find the interval of convergence for each power series in Exercises 21–48. If the interval of convergence is finite, be sure to analyze the convergence at the endpoints.
Let be a power series in with a finite radius of convergence . Prove that if the series converges absolutely at , then the series converges absolutely at the other value as well.
Let be a power series in with a finite radius of convergence . Prove that if the series converges absolutely at either , then the series converges absolutely at the other value as well.
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