- A$C{l_2}CH.COOH$
- B$ClC{H_2}COOH$
- C$C{H_3}COOH$
- ✓$C{l_3}C.COOH$
$\mathop {C{l_3}CCOOH}\limits_{trichloro{\mkern 1mu} \,\,acetic\,\,\,acid(Most{\mkern 1mu} \,\,acidic)} > $ $\mathop {C{l_2}CHCOOH}\limits_{dichloro\,\,{\kern 1pt} acetic\,{\kern 1pt} acid} > $ $Cl - C{H_2} - COOH > $ $C{H_3}COOH$
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$(i)$ $\left[ M ( NCS )_{6}\right]^{(-6+ n )}$
$(ii)$ $\left[ MF _{6}\right]^{(-6+ n )}$
$(iii)$ $\left[ M \left( NH _{3}\right)_{6}\right]^{ n ^{+}}$
Statement $I$ : The rate law for the reaction $A+B \rightarrow C$ is rate $(r)=k[A]^2[B]$. When the concentration of both $\mathrm{A}$ and $\mathrm{B}$ is doubled, the reaction rate is increased " $\mathrm{x}$ " times.
Statement $II$ :
(Image)
The figure is showing "the variation in concentration against time plot" for a $"y"$ order reaction. The value of $x+y$ is . . . . . . 