Verified Answer :

Assuming \(T_1(x)\) refers to the first degree Taylor polynomial, you need only find the value of \(f\) and its derivative at \(x=1\). You have \(f(1)=\ln1=0\) and \(f'(1)=\dfrac11=1\).

The first degree Taylor approximation to \(f\) centered at \(b=1\) is then \(T_1(x)=f(1)+f'(1)(x-1)=x-1\).

The taylor polynomial for the function (f(x)=ln(x)) based at b=1 is (f(x) = x-1) and this can be determined by using the Taylor first degree approximation formula.

Given :

f(x) = ln(x)

The following steps can be used n order to determine the Taylor polynomial:

Step 1 - The Taylor approximation is given by:

\(\rm f(x) = f(b) + \dfrac{f'(b)}{1!}(x-b) + \dfrac{f''(b)}{2!}(x-b)^2+ \dfrac{f'''(b)}{3!}(x-b)^3+....\)

Step 2 - Now, differentiate the given function f(x) = ln(x).

\(\rm f'(x) = \dfrac{1}{x}\)

Step 3 - Now, substitute the value of (x = 1) in the above expression.

\(\rm f'(1) = \dfrac{1}{1}=1\)

Step 3 - Now, the first degree Taylor approximation is given by:

\(\rm f(x) = f(b) + \dfrac{f'(b)}{1!}(x-b)\)

Step 4 - Substitute the values of the known terms in the above expression.

\(\rm f(x) = f(1) + \dfrac{f'(1)}{1!}(x-1)\)

Step 5 - Simplify the above expression.

f(x) = ln(1) + (x - 1)

f(x) = x - 1

So, the taylor polynomial for the function (f(x)=ln(x)) based at b=1 is (f(x) = x-1).

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https://brainly.com/question/2096984