- A${x^{2/3}} + {y^{2/3}} = c$
- B${x^{1/3}} + {y^{1/3}} = c$
- ✓${y^{2/3}} - {x^{2/3}} = c$
- D${y^{1/3}} - {x^{1/3}} = c$
Integrating both sides, $\frac{{{y^{2/3}}}}{{2/3}} = \frac{{{x^{2/3}}}}{{2/3}} + c$
$\frac{3}{2} \cdot {y^{2/3}} = \frac{3}{2}{x^{2/3}} + c$ ==> ${y^{2/3}} - {x^{2/3}} = c$.
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If the derivative $f^{\prime}$ of $f$ satisfies the equation $f ^{\prime}( x )=\frac{ f ( x )}{ b ^2+ x ^2}$ for all $x \in R$, then which of the following statements is/are TRUE?
$(A)$ If $b>0$, then $f$ is an increasing function
$(B)$ If $b<0$, then $f$ is a decreasing function
$(C)$ $(x)(-x)=1$ for all $x \in R$
$(D)$ $(x)-f(-x)=0$ for all $x \in R$
Consider a matrix $A=\left[a_{i j}\right]_{3 \times 3}$ where
$a_{i j}=J_{6+i, 3}-J_{i+3,3}, \quad i \leq j$
$\quad\quad\quad\quad\quad\quad0 , \quad\quad\quad i>j$.
Then $\left|\operatorname{adj} A^{-1}\right|$ is :