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Example 1.4 Set up Taylor's formula forn= 2 with the expansion point x0= 0 for the function f(x) = Arctan 2x. Example 1.8 Assume that the function f(x) is of class C∞ near the point x0∈R and that f(x0) = 0.

Figure 1: The graph of f (x) = sin x, and the tangent parallel to the x-axis, corresponding to ξ = π 2 .
Figure 1: The graph of f (x) = sin x, and the tangent parallel to the x-axis, corresponding to ξ = π 2 .

2 Estimates of remainder terms

This is also the case ix2, so we get the estimate of the remaining term. Put in the Taylor polynomial and then proceed with the evaluation of the remaining term.

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Figure 5: The graphs of cos  x
Figure 5: The graphs of cos x

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By successive differentiation we get where we will use the third derivative in the evaluation of the remaining term. Click on the ad to read more. Click on the ad to read more. Click on the ad to read more. Click on the ad to read more. Click on the ad to read more. Click on the ad to read more. Click on the ad to read more. per ad for more Click on ad for more Click on ad for more Click on ad for more.

Figure 6: The graphs of f (x) = (1 + x) 2 ln(1 + x) and P 3 (x), − 0, 4 ≤ x ≤ 0, 4 with an indication of the interval [ − 0, 1; 0, 1].
Figure 6: The graphs of f (x) = (1 + x) 2 ln(1 + x) and P 3 (x), − 0, 4 ≤ x ≤ 0, 4 with an indication of the interval [ − 0, 1; 0, 1].

3 Approximating polynomials

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Figure 9: The graph of y = ln(1 + 2x) and its approximating polynomial y = 2x − 2x 2 + 8
Figure 9: The graph of y = ln(1 + 2x) and its approximating polynomial y = 2x − 2x 2 + 8

4 Limit processes

The order of the zero at 0 in the denominator is 1 in (1) and 2 in (2), so the numerators must be expanded similarly. Clearly, the denominator = 0 for x = 0 in (1), so since the numerator tends to −∞, it follows by inspection that (1) is divergent.

Figure 12: The graph of f (x) = cos x
Figure 12: The graph of f (x) = cos x

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Example 4.6 Consider the functions below for x → 0 by first placing all the terms on the same break line:. Click on the ad to read more Click on the ad to read more Click on the ad to read more Click on the ad to read more Click on the ad to read more Click on the ad to read more Click on the ad to read more on the ad to read more Click on the ad to read more Click on the ad to read more Click on the ad to read more Click on the ad to read more Click on the ad to to read more Click on the ad to read more Click on the ad to read more Click on the ad to read more Click on the ad to read more Click on the ad to read more Click on the ad to read more read Click on the ad to read more.

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We will find a value of the function Bβ(λ) for λ= 0, so that the function becomes continuous at λ= 0. The purpose of the current example is partly to find the Taylor expansion, and partly to apply it in a limit process -. Therefore, we will find the Taylor expansions of the numerator and denominator of order 2.

Figure 13: The graph of y = (1 + x) x 1 , x > 0.
Figure 13: The graph of y = (1 + x) x 1 , x > 0.

5 Asymptotes

Since the function is defined continuously in the endpoints x = 2 and x = 3, we do not have asymptotes at these points, although of course we have vertical half-tangents. The function is not defined atx= 0, so there is a possibility of asymptotes forx→0, forx→+∞, and forx→.

Figure 18: The function f(x) = √
Figure 18: The function f(x) = √

6 Improper integrals

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Figure 26: The graph of the integrand x e − x .
Figure 26: The graph of the integrand x e − x .

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Figure 1: The graph of f (x) = sin x, and the tangent parallel to the x-axis, corresponding to ξ = π 2 .
Figure 4: The domain is the open set inside the parabola of the equation x = y 2 − 4.
Figure 5: The graphs of cos  x
Figure 6: The graphs of f (x) = (1 + x) 2 ln(1 + x) and P 3 (x), − 0, 4 ≤ x ≤ 0, 4 with an indication of the interval [ − 0, 1; 0, 1].
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