- A$y{e^{{x^2}}} = c{x^2}$
- B$y{e^{ - {x^2}}} = c{x^2}$
- ✓${y^2}{e^{{x^2}}} = c{x^2}$
- D${y^2}{e^{ - {x^2}}} = c{x^2}$
After integration, we get $\log x - \frac{{{x^2}}}{2} = \log y + \log c$
==> $\log {x^2} - \log {y^2} + \log c = {x^2}$ ==> $\log \frac{{c{x^2}}}{{{y^2}}} = {x^2}$
==> $\frac{{c{x^2}}}{{{y^2}}} = {e^x}^2$ ==> $c{x^2} = {y^2}{e^{{x^2}}}$.
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$f(x)=\left\{\begin{array}{ccc}x^{5} \sin \left(\frac{1}{x}\right)+5 x^{2}& , & x<0 \\ 0 & , & x=0 \\ x^{5} \cos \left(\frac{1}{x}\right)+\lambda x^{2} & , & x>0\end{array} .\right.$
The value of $\lambda$ for which $f^{\prime \prime}(0)$ exists, is
$g(x) = \min (\cos x, \sin x)$
$h(y) = f(x) y^2 + ay + g(x).$
If equation $h(y) = 0$ has real roots $\forall \,x \in R ,$ then complete set of values of $a$ is