Question
Solve the following differential equation
$\sin\Big(\frac{\text{dy}}{\text{dx}}\Big)=\text{K};\text{y}(0)=1$

Answer

$\sin\Big(\frac{\text{dy}}{\text{dx}}\Big)=\text{K};\text{y}(0)=1$
$\frac{\text{dy}}{\text{dx}}=\sin^{-1}\text{K}$
$\text{dy}=\sin^{-1}\text{k dx}$
$\int\text{dy}=\int\sin^{-1}\text{K dx}$
$\text{y}=\text{x}\sin^{-1}\text{K}+\text{C}$
Put x = 0, y = 1
1 = 0 + C
1 = C
Put C = 1 in equation (1),
$\text{y}=\text{x}\sin^{-1}\text{K}+1$
$\text{y}-1=\text{x}\sin^{-1}\text{k}$

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 area enclosed by the parabola $y = 5x^2$ and $y = 2x^2 + 9.$
Evaluate the following integrals:
$\int\cos\Big\{2\cot^{-1}\sqrt{\frac{1+\text{x}}{1-\text{x}}}\Big\}\text{dx}$
A dietician wishes to mix together two kinds of food $X$ and $Y$ in such a way that the mixture contains at least $10$ units of vitamin $A, 12$ units of vitamin $B$ and $8$ units of vitamin $C.$ The vitamin contents of one $kg$ food is given below:
Food
Vitamin A
Vitamin B
Vitamin C
$X$ $1$ $2$ $3$
$Y$ $2$ $2$ $1$
One kg of food $X$ costs $Rs. 16$ and one $kg$ of food $Y$ costs $Rs.20.$ Find the least cost of the mixture which will produce the required diet $?$
Let $L$ be the set of all lines in $XY-$plane and $R$ be the relation in $L$ defined as $R = \{(L_1, L_2): L_1\}$ is parallel to $L_2.$ Show that $R$ is an equivalence relation. Find the set of all lines related to the line $y = 2x + 4.$
Solve the following differential equations:
$\text{x}\frac{\text{dy}}{\text{dx}}+\cot\text{y}=0,$ given that $\text{y}=\frac{\pi}{4},$ when $\text{x}=\sqrt{2}.$
Evaluate the following intregals: $\int\frac{\text{x}^2}{(\text{x}-1)(\text{x}+1)^2}\ \text{dx}$
If $e^{y }(x + 1) = 1,$ then show that $\frac{\text{d}^{2}\text{y}}{\text{dx}^{2}} = \bigg(\frac{\text{dy}}{\text{dx}}\bigg)^{2}.$
If $\text{x}-\text{e}^{\tan\text{x}}+\sqrt{\frac{\text{x}^2+1}{2}},$ find $\frac{\text{dy}}{\text{dx}}$
Using properties of determinants show that $\begin{vmatrix} 1 & 1 & \text{1 + x} \\ 1 & \text{1 + y} & 1 \\ \text{1 + z} & 1 & 1 \end{vmatrix} = \text{xyz + yz + zx + xy}.$
If $\text{y}=\big\{\log_{\cos\text{x}}\sin\text{x}\big\}\big\{\log_{\sin\text{x}}\cos\text{x}\big\}^{-1}+\sin^{-1}\Big(\frac{2\text{x}}{1+\text{x}^2}\Big),$ find $\frac{\text{dy}}{\text{dx}}$ at $\text{x}=\frac{\pi}{4}$