\(x^{e^x}[1/x+lnx]+e^x\)
\(x^{e^x} e^x[1/x+lnx]+ex^e-1\)
\(e^x.x^{e^x-1}+ex^e\)
\(x^{e^x }e^-x[1/x-lnx]+ex^e-1\)
\(x^{e^x} e^x[1/x-lnx]+ex^e-1\)
\(=e^{x}.x^{e^x-1}+e.x^{e-1}\)
\(y=x^{e^x}+x^{e} \text{ for } x>0\)
Now \(\dfrac{dy}{dx}\) for \( x>0\)can be represented as
\(\dfrac{d}{dx}(x^{e^x}+x^{e})\)
\(=e^{x}.x^{e^x-1}+e.x^{e-1}\) (_Ans)
If some other quantity ‘y’ causes some change in a quantity of surely ‘x’, in view of the fact that an equation of the form y = f(x) gets consistently pleased, i.e, ‘y’ is a function of ‘x’ then the rate of change of ‘y’ related to ‘x’ is to be given by
\(\frac{\triangle y}{\triangle x}=\frac{y_2-y_1}{x_2-x_1}\)
This is also known to be as the Average Rate of Change.
Consider y = f(x) be a differentiable function (whose derivative exists at all points in the domain) in an interval x = (a,b).
Read More: Application of Derivatives