Respuesta :
On solving the provided question we can say that -by Taylor's series Plug 1.5 for x using the estimates, and we get about 0.0707
What is Taylor series?
A creative technique to approximate any function as a polynomial with an unlimited number of terms is to use a Taylor series. The differentiation of the function at a single point is where each term in the Taylor polynomial originates.
The purpose of Taylor series is to use calculus to approximate non-polynomial functions.
So let's use common sense.
We must match the centre value at some Centre an in order to be precise.
Since cos(pi/2) = 0, we know that our initial constant should also be 0.
[tex]q(x) = 0[/tex]
The linear approximation must then be accurate.
where x=pi/2
The fact that
[tex]\frac{d}{dx}cosx = -sinx = -sin(\pi /2) = -1[/tex]
Additionally, we want to divide this by 1, which is the only value, thus our constant is, Since we want to be universal and utilise this as a linear approximation, and we have a Centre to maintain, we set the value to -1.
our following phrase is
[tex]0-1(x-\pi /2)[/tex]
Next, we must share a concave shape. Therefore, we use the cosine's second derivative, which is simply
[tex]-cosx = -cos(\pi /2) = 0[/tex]
Even if we divide by 2, we may skip this step as our constant is 0! Cosine's third derivative is our fourth term. What is
[tex]sinx = sin(\pi /2) =1[/tex]
Given we want to be universal and utilize this as a cubic approximation, and since we have a centre to maintain, our following phrase is
[tex]-(x-\pi /2) + 1/6(x - \pi /2)^3[/tex]
Plug 1.5 for x using the estimates, and we get about 0.0707
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