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Hi, I wonder if I've solved the following questions correctly. Do we always have a certain kind of formula for such kinds of question (both

Hi, I wonder if I've solved the following questions correctly.

Do we always have a certain kind of formula for such kinds of question (both series estimation and errors of approximation)?

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We seek an upper bound for the error of approximation of the series by the partial sum of its 7 first terms What is the right estimate? The error is co 1 0 1 1 \\. J _ f dz: = n=8 n 8 m5 4 . 84 The error is 00 1 0 1 1 k j _ f d3: = n=7 n 7 m5 4 74 The error is M8 ml\" |/\\ h 8 ml" 23' || The error is 00 1 0 1 1 o 2: sf dx=- n=8n5 7 m5 4.74 We seek an upper bound for the error of approximation of the series by the partial sum of its 5 first terms What is the right estimate? \\._/ f f / / The error is 00 2 n=5 6 1 71/2 The error is 00 0 2 n=6 1 era/2 The error is f: n=5 1 era/2 The error is if n=6 1 811/2 |/\\ IA 4/2' 5/2' 0 1 \"2:31 811/2 5 1 2 11/2 We want an upper bound estimate for the series where f (m) is a decreasing function of :c for m 2 1 . Which integral provides a correct upper bound? We want a lower bound estimate for the series Ef (n) n=3 where f (a) is a decreasing function of a for x 2 1. Which integral provides a correct lower bound? 9 E f (n) 2 3 . 11 f (x) dac On=3 9 E f (n) 2 /2 . 10 f (x) dac On=3 f (x) da On= 3 E f ( n) 2, 9 If ( n) 2/ f (x) dx n=3

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