geoduck
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Suppose you have the equation
[tex]x^2*(log x)^{1/3}=-C[/tex]
for very small C. I have a book claims that asymptotically, for very small C, the solution is:
[tex]x^2=C*\frac{2}{[logC]^{1/3} }[/tex]
I'm not quite sure how to show this. If the 2 wasn't there, it looks like what they did was:
[tex]x^2=-\frac{C}{(log x)^{1/3}}[/tex]
and just substituted -C for x on the RHS:
[tex]x^2=\frac{C}{(log C)^{1/3}}[/tex]
I was thinking maybe you could substitute -C for x2 instead to get:[tex]x^2=\frac{2^{1/3}C}{(log C)^{1/3}}[/tex]
[tex]x^2*(log x)^{1/3}=-C[/tex]
for very small C. I have a book claims that asymptotically, for very small C, the solution is:
[tex]x^2=C*\frac{2}{[logC]^{1/3} }[/tex]
I'm not quite sure how to show this. If the 2 wasn't there, it looks like what they did was:
[tex]x^2=-\frac{C}{(log x)^{1/3}}[/tex]
and just substituted -C for x on the RHS:
[tex]x^2=\frac{C}{(log C)^{1/3}}[/tex]
I was thinking maybe you could substitute -C for x2 instead to get:[tex]x^2=\frac{2^{1/3}C}{(log C)^{1/3}}[/tex]