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OpenStudy (anonymous):
OpenStudy (anonymous):
Separate the natural log?
OpenStudy (dumbcow):
what does c_lim refer to?
OpenStudy (anonymous):
@dumbcow is just a limiting concentration of a solute
OpenStudy (dumbcow):
oh ok, can we treat it like a constant then
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OpenStudy (anonymous):
The solution should be this, but I have no idea where it came from.
OpenStudy (dumbcow):
got it, alright are you familiar with product rule for derivatives
OpenStudy (anonymous):
Yeah
OpenStudy (anonymous):
I'm not sure how I will derive the fraction though.
OpenStudy (dumbcow):
ok lets apply that here
\[\rightarrow (c_A)' \ln \frac{c_{\lim}}{c_A} + c_A ( \ln \frac{c_{\lim}}{c_A})' = 0\]
derivative of c is 1
derivative of ln(u) is 1/u * du
derivative of c_lim/c = -c_lim/c^2
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OpenStudy (dumbcow):
for fraction
\[(\frac{1}{x})' = (x^{-1})' = -x^{-2} = -\frac{1}{x^2}\]
OpenStudy (anonymous):
I see. I'll try it out now. Thanks!
OpenStudy (dumbcow):
yw, you get a lot of things to cancel out
at the end they split up the log(clim/cA) --> logclim - logcA