MCQ
${d \over {dx}}(x{e^{{x^2}}}) = $
  • $2{x^2}{e^x}^2 + {e^x}^2$
  • B
    ${x^2}{e^x}^2 + {e^x}^2$
  • C
    ${e^x}.2{x^2} + {e^x}^2$
  • D
    None of these

Answer

Correct option: A.
$2{x^2}{e^x}^2 + {e^x}^2$
a
(a) $\frac{d}{{dx}}\left( {x{e^{{x^2}}}} \right) = {e^{{x^2}}} + x{e^{{x^2}}}2x = {e^{{x^2}}}(1 + 2{x^2})$.

Need a full question paper?

Generate a complete, print-ready paper with questions like this in minutes — across 16+ boards, with answer keys.

Start Generating Free

Similar questions

If $\mid\text{a}\mid=4$ and $-3\underline{<}\lambda\underline{<}2$ then the range of $\mid\lambda\text{a}\mid$ is:
Which of the following statements is correct?
Choose the correct answer out of the given four options.Let $T$ be the set of all triangles in the Euclidean plane and let a relation $R$ on $T$ be defined as $\text{aRb},$ if a is congruent to $\text{b}\ \forall\ \text{a},\ \text{b}\in\text{T}.$ Then$, R$ is:
If $\text{f(x)}=\begin{cases}\frac{1-\sin^2\text{x}}{3\cos^2\text{x}},&\text{if}\text{ x}<\frac{\pi}{2}\\\text{a},&\text{if}\text{ x}=\frac{\pi}{2}\\\frac{\text{b}(1-\sin\text{x})}{(\pi-2\text{x})^2},&\text{if}\text{ x }>\frac{\pi}{2}\end{cases}$ Then f(x) is continuous at $\text{x}=\frac{\pi}{2},$ if:
If $i,\,\,j,\,\,k$ are unit orthonormal vectors and  $ a $ is a vector, if $a \times r = j,$ then $a . r$  is
Let $\hat{a}, \hat{b}$ be unit vectors. If $\vec{c}$ be a vector such that the angle between $\hat{ a }$ and $\overrightarrow{ c }$ is $\frac{\pi}{12}$, and $\hat{ b }=\overrightarrow{ c }+2(\overrightarrow{ c } \times \hat{ a })$, then $|6 \overrightarrow{ c }|^{2}$ is equal to
If $f(x)$ is invertible and twice differentiable function satisfying $f '(x) = \int\limits_0^{f(x)} {{f^{ - 1}}} (t)dt,\,\forall x\, \in \,R$ and $f '(0) =1$ then $f '(1)$ can be 
The maximum value of $e^{(2 + \sqrt 3 \cos x + \sin x)}$ is
Evaluate $\left|\begin{array}{cc}x & x+1 \\ x-1 & x\end{array}\right|$
If $\text{x}=\text{a}\cos^3\theta,\text{y}=\text{a}\sin^3,$ then $\sqrt{1+\Big(\frac{\text{dy}}{\text{dx}}\Big)^2}=$