Question
Solve the following differential equation
$\frac{\text{dy}}{\text{dx}}=(\text{e}^\text{x}+1)\text{y}$

Answer

 We have $\frac{\text{dy}}{\text{dx}}=(\text{e}^\text{x}+1)\text{y}$$\Rightarrow\frac{1}{\text{y}}\text{dy}=(\text{e}^\text{x}+1)\text{dx}$
Integrating both sides, we get
$\frac{1}{\text{y}}\text{dy}=(\text{e}^\text{x}+1)\text{dx}$
$\Rightarrow\log|\text{y}|=\text{e}^\text{x}+\text{x} +\text{C}$ Hence, $\Rightarrow\log|\text{y}|=\text{e}^\text{x}+\text{x} +\text{C}$ is the required solution. 

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

Find the second order derivatives of the following functions:$\log(\sin\text{x})$
Let R be a relation on $N \times N$, defined by $(a, b)\ R\ (c, d) \Leftrightarrow a + d = b + c$ for all $(a, b), (c, d) \in N \times N$. Show that $R$ is an equivalence relation.
Show that of all the rectangles inscribed in a given fixed circle, the square has the maximum area.
Determine whether the following pair of lines intersect or not:
$\frac{\text{x}-5}{4}=\frac{\text{y}-7}{4}=\frac{\text{z}+3}{-5}$ and $\frac{\text{x}-8}{7}=\frac{\text{y}-4}{1}=\frac{3-5}{3}$
Differentiate $\sin^{-1}\Big(\frac{2\text{x}}{1+\text{x}^2}\Big)$ with respect to $\tan^{-1}\Big(\frac{2\text{x}}{1-\text{x}^2}\Big),$ if -1 < x < 1.
Evaluate:$\int\limits_{\pi/6}^{\pi/3}\frac{\sin\text{x}+\cos{\text{x}}}{\sqrt{\sin\text{2x}}}\text{dx}$ .
If $\text{y}=3\cos(\log\text{x})+4\sin(\log\text{x}),$ prove that $\text{x}^2\text{y}_2+\text{xy}_1+\text{y}=0$
Find the distance of the point (-1, -5, -10) from the point of intersection of the line $\vec{\text{r}}=(2\hat{\text{i}}-\hat{\text{j}}+2\hat{\text{k}})+\lambda(3\hat{\text{i}}+4\hat{\text{j}}+2\hat{\text{k}})$ and the plane $\vec{\text{r}}\cdot(\hat{\text{i}}-\hat{\text{j}}+\hat{\text{k}})=5.$ 
Draw the rough sketch of $\frac{\text{x}^{2}}{4}+\frac{\text{y}^{2}}{9}=1$ and evaluate the area of the region under the area the curve and the line x-axis.
Show that the minimum of Z occurs at more than two points.
Minimise and Maximise Z = x + 2y subject to $x + 2 y \geq 100,2 x - y \leq 0,2 x + y \leq 200$; $x , \ y \geq 0$.