MCQ
An ideal solution is that which
  • A
    Shows positive deviation from Raoult's law
  • B
    Shows negative deviation from Raoult's law
  • C
    Has no connection with Raoult's law
  • Obeys Raoult's law

Answer

Correct option: D.
Obeys Raoult's law
d
It’s Obvious.
 

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

Which of the following compounds does give $N_2$ on heating?
Formaldehyde is used as formalin in industries:
Sugar moiety in $DNA$ and $RNA$ molecules respectively are
In a reaction $A_2B_3(g) \to A_2(g) + \frac{3}{2}B_2(g)$, the pressure increases from $60$ torr to $75$  torr in $2.5\, minutes$. The rate of disappearance of $A_2B_3$ is ........ $torr\, min^{-1}$
Which of the following mixture is chromic acid
Which of the following isomerism does not found in ethers :
$Emf$ of the following cell at $298 \,K$ in $V$ is $x \times 10^{-2} . Zn \left| Zn ^{2+}(0.1\, M ) \| Ag ^{+}(0.01 \,M )\right| Ag$ The value of $x$ is .... .

(Rounded off to the nearest integer)

[Given $: E_{Z n^{+2}/Z_{n}}^{0}=-0.76 \,V ; E _{A g^{+} / A_{ g }}^{0}=+0.80 \,V ; \frac{2.303 RT }{ F }=0.059$]

Two benzyne intermediates are likely to be formed equally. Reaction with amide  ion can occur in two different directions with each benzyne, giving three possible  products. They are formed in a $1 : 2 : 1$ ratio. Asterisk $(^*)$ refers to $^{14}C.$

product $(A)$ is

Correct order of decreasing acid strength of the following compound is :
When a certain conductivity cell was filled with $0.1\,M\,KCl$ , it had a resistance of $85\,\Omega $ at $25\,^oC$ . When the same cell was filled with an aqueous solution of $0.052\,M$ unknown electrolyte, the resistance was $96\,\Omega $ . Calculate the molar conductivity of the unknown electrolyte at this concentration ............. ${\Omega ^{ - 1}}{\rm{c}}{{\rm{m}}^2}{\rm{mo}}{{\rm{l}}^{ - 1}}$ (Given : Specific conductance of $0.1\,M\,KCl = 1.29 \times 10^{-2}\,\Omega ^{-1}\,cm^{-1}$ )