Hey I just met u and this is crazy .. Here my problems , Help me maybe ? :)) prove approximation of Mac Laurin Polinom from this function
No.
okay .. :(
Harsh. @lgbasallote
haha lol
So help her already. I dont know what that is, lol. Can you atleast try? @lgbasallote
i have no idea
yeah yeah , at least try if u can .. :)
I'm not sure what you mean, you want to derive the three series expansions above?
@greysica do I understand that you just want to see how the above statements are derived?
I have to find the way how it works as a function based on mac laurin polinom
I can derive the mcLauren series from the function, but that doesn't sound like what you want.
hmm , I'm not sure actually about question for my homework , but would u like show me how it works based on ur opinion ?
the Taylor expansion of a function about x=0 is\[f(x)=\sum_{n=0}^\infty{f^{(n)}(0)\over n!}x^n\]where \(f^{(n)}(0)\) is the \(n^{th}\) derivative of the function at x=0
is that for A ?
@greysica what Turing Test has mentioned above is general formula for Taylor series about a=0 also Known as Maclaurin series.
@greysica you need Maclaurin Polynomials of the given functions??
ya :)
ok @greysica you there? I'll walk you though it must you must participate the formula for the series expansion of a function about \(x=0\) is\[f(x)=\sum_{n=0}^\infty{f^{(n)}(0)\over n!}x^n\]where \(f^{(n)}(0)\) is the \(n^{th}\) derivative of \(f(x)\) at the value \(x=0\) so let's start with the first function, \(f(x)=a^x\) what is the first term of the sequence according to the formula? i.e. when \(n=0\)
x=0 ?
not not x=0
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