What would be the pros and cons of using a quotient rule integration by parts formula?
\[\int\frac{t'}{b}=\frac{t}{b}+\int\frac{bt'}{b^2}\] or some such
shouldn't it be \[\int\limits_{}^{}\frac{t'}{b}=\frac{t}{b}+\int\limits_{}^{}\frac{t}{b^2} ?\]
maybe ... it was a quick write up :)
\[\frac{t}{b}=\int\frac{t'}{b}-\int\frac{b't}{b^2}\]
oh wait maybe i should have said b'
ok i agree with your last equation
:) good, since its just the quotient rule lol ive read that it is really just the product rule in a different form ..
its workable, just havent seen it done alot if ever
yes any quotient can be written as a product really no need for the quotient rule
\[tb^{-1}=\int t'b^{-1}+\int tb'^{-1}\] \[tb^{-1}-\int tb'^{-1}=\int t'b^{-1}\]
\[tb^{-1}=\int\limits_{}^{}t'b^{-1}-\int\limits_{}^{}b'b^{-2}t\] \[\int\limits_{}^{}t'b^{-1}=tb^{-1}+\int\limits_{}^{}b'b^{-2}t\]
yeah, that looks contorted into shape :)
i like product rule more
i don't want to make one for quotient rule lol
i like only \[(fg)'=f'g+fg'\] \[fg=\int\limits_{}^{}f'g+\int\limits_{}^{}fg'\] \[\int\limits_{}^{}fg'=fg-\int\limits_{}^{}f' g\]
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