- A${\sin ^{ - 1}}\frac{{(y - 1)}}{x} = a$
- ✓$\sin \frac{{(y - 1)}}{x} = a$
- C$\sin \frac{{(1 - y)}}{{(1 + x)}} = a$
- D$\sin \frac{y}{{(x + 1)}} = a$
Integrating both sides,$\int_{}^{} {dy} = \int_{}^{} {{{\sin }^{ - 1}}a\,dx} $
$y = x{\sin ^{ - 1}}a + c$ and $y(0) = 0 + c = 1$, $\therefore c = 1$
$\therefore y = x{\sin ^{ - 1}}a + 1$ ==> $a = \sin \frac{{y - 1}}{x}$.
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$x+2 y+3 z=\alpha$
$4 x+5 y+6 z=\beta$
$7 x+8 y+9 z=\gamma-$
is consistent. Let $| M |$ represent the determinant of the matrix
$M=\left[\begin{array}{ccc}\alpha & 2 & \gamma \\ \beta & 1 & 0 \\ -1 & 0 & 1\end{array}\right]$
Let $P$ be the plane containing all those $(\alpha, \beta, \gamma)$ for which the above system of linear equations is consistent, and $D$ be the square of the distance of the point $(0,1,0)$ from the plane $P$.
($1$) The value of $| M |$ is
($2$) The value of $D$ is