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OpenStudy (anonymous):
Beta function
Please help!!!
10 years ago
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OpenStudy (anonymous):
\[\rm \int\limits_{0}^{2\pi} (1+cosx)^4~\cdot~\sin^2x~dx\]
10 years ago
OpenStudy (anonymous):
@rishavraj @ganeshie8 @robtobey
10 years ago
OpenStudy (anonymous):
@Michele_Laino
10 years ago
OpenStudy (michele_laino):
If I apply the bisection formulas, I can rewrite the integral as below:
\[\large I = 128\int_0^{2\pi } {{{\left\{ {\cos \left( {\frac{x}{2}} \right)} \right\}}^{10}}} {\left\{ {\sin \left( {\frac{x}{2}} \right)} \right\}^2}d\left( {\frac{x}{2}} \right)\]
10 years ago
OpenStudy (anonymous):
i did not understand
10 years ago
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OpenStudy (ibbutibbu.):
Makes no sense to me either ¯\_(ツ)_/¯
10 years ago
OpenStudy (anonymous):
@Zarkon please help
10 years ago
OpenStudy (anonymous):
@zepdrix @Loser66 @mathmale @FibonacciChick666 @satellite73
10 years ago
OpenStudy (anonymous):
hmmm
10 years ago
OpenStudy (loser66):
there is a way to do, but it takes a lot of time. hehehe. and I am lazy.
ok, expand the binomial, distribute sin^2 in, then take integral term by term
10 years ago
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OpenStudy (loser66):
I meant (1+cos)^4= cos^4+4cos^3+6cos^2+4cos +1
then multiply sin^2 to each of them
then take integral term by term.
10 years ago
OpenStudy (anonymous):
is it the only way?
10 years ago
OpenStudy (anonymous):
i got another way!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!
@Loser66 :)
10 years ago
OpenStudy (anonymous):
anyways thank you !
10 years ago
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