Ask your own question, for FREE!
Mathematics 7 Online
OpenStudy (swissgirl):

Is anyone familiar with Continued-Fractions approximation?

OpenStudy (swissgirl):

$${x^2+3x+2 \over x^2-x+1}$$

OpenStudy (swissgirl):

Like I sooo dont follow the process although everyone seems to say that it is simple

OpenStudy (amistre64):

continued fraction is simple, i spose this would follow its pattern

OpenStudy (amistre64):

...if i could recall how to do a continued fraction that is. i seem to have had misremembered the simple details :)

OpenStudy (amistre64):

\[\frac{5}{12}=\frac{1}{\cfrac{12}{5}}=\cfrac{1}{2+\cfrac25}=\cfrac{1}{2+\cfrac1{\cfrac52}}=\cfrac{1}{2+\cfrac1{2+\frac12}}\]stuff

OpenStudy (anonymous):

This is something new, I think. A variant on polynomial division?

OpenStudy (swissgirl):

Right but how would u clean everything up in the end. Like the answer doesnt look like an escalator in my book

OpenStudy (amistre64):

hmm, how does it look in your book?

OpenStudy (swissgirl):

I do think its a variation of polynomial division The answer is $$1+{4 \over x- \frac{5}{4}} +{ \frac{21}{16} \over x + \frac{1} {4}}$$

OpenStudy (anonymous):

I guess it's poly division as opposed to the usual integer division. It's not that clear how u get rid of the escalator, though....

OpenStudy (anonymous):

Oh, I see...it stops pretty quickly and then you just add up the terms. So 1 + 1 over (blah above) and actually flipping it over so to speak...

Can't find your answer? Make a FREE account and ask your own questions, OR help others and earn volunteer hours!

Join our real-time social learning platform and learn together with your friends!
Can't find your answer? Make a FREE account and ask your own questions, OR help others and earn volunteer hours!

Join our real-time social learning platform and learn together with your friends!