The area bounded by the curve
\(y=|x^2−9| \)
and the line y = 3 is
\(4(2\sqrt3+\sqrt6-4)\)
\(4(4\sqrt3+\sqrt6-4)\)
\(8(4\sqrt3+3\sqrt6-9)\)
\(8(4\sqrt3+\sqrt6-9)\)
The correct asnwer is (D) : \(8(4\sqrt3+\sqrt6-9)\)

\(=2\int^{3}_{0}(\sqrt{9+y}-\sqrt{9-y})dy + 2\int^{9}_{3}(\sqrt{9-y})dy\)
\(=2\int^{3}_{0}((9+y)^{1/2}-(9-y)dy + \int^{9}_{3}({9-y})^{1/2})dy\)
\(=2[\frac{2}{3}[(9+y)^{3/2}]^{3}_{0} + \frac{2}{3}[(9-y)^{3/2}]^{3}_{0}-\frac{2}{3}[(9-y)^{3/2}]^{3}_{0}]\)
\(= \frac{4}{3}[12\sqrt{12}-27+6\sqrt6-27-(0-6\sqrt6)]\)
\(=\frac{4}{3}[24\sqrt3+12\sqrt6-54]\)
\(=8(4\sqrt3+2\sqrt6-9)\)
The eccentricity of the curve represented by $ x = 3 (\cos t + \sin t) $, $ y = 4 (\cos t - \sin t) $ is:
If the area of the region $\{ (x, y) : |x - 5| \leq y \leq 4\sqrt{x} \}$ is $A$, then $3A$ is equal to
MX is a sparingly soluble salt that follows the given solubility equilibrium at 298 K.
MX(s) $\rightleftharpoons M^{+(aq) }+ X^{-}(aq)$; $K_{sp} = 10^{-10}$
If the standard reduction potential for $M^{+}(aq) + e^{-} \rightarrow M(s)$ is $(E^{\circ}_{M^{+}/M}) = 0.79$ V, then the value of the standard reduction potential for the metal/metal insoluble salt electrode $E^{\circ}_{X^{-}/MX(s)/M}$ is ____________ mV. (nearest integer)
[Given : $\frac{2.303 RT}{F} = 0.059$ V]
An infinitely long straight wire carrying current $I$ is bent in a planar shape as shown in the diagram. The radius of the circular part is $r$. The magnetic field at the centre $O$ of the circular loop is :

Integral calculus is the method that can be used to calculate the area between two curves that fall in between two intersecting curves. Similarly, we can use integration to find the area under two curves where we know the equation of two curves and their intersection points. In the given image, we have two functions f(x) and g(x) where we need to find the area between these two curves given in the shaded portion.

Area Between Two Curves With Respect to Y is
If f(y) and g(y) are continuous on [c, d] and g(y) < f(y) for all y in [c, d], then,
