If X is the specific resistance $(in{S}^{-1}.cm)$ of the electrolytic solution and Y is the molarity of the solution then ${\Lambda }_m(inS.c{m}^2.mo{l}^{-1})$ is given by :

Q.

If X is the specific resistance of the solution and M is the molarity of the

solution, the molar conductivity of the solution is given by

[Kurukshetra CEE 2002]

Q. If 'x' is the specific resistance of the electrolyte solution and 'y' is the molarity of the solution, then ${\wedge }_m$ is given by :

Q. Let $x,y,z,t$ are in A.P. and ${1000}^{{\log }_{10}x}+{1000}^{{\log }_{10}y}+{1000}^{{\log }_{10}z}={1000}^{{\log }_{10}t}$. If $x,y,z,t$ are positive integers, then the minimum possible value of $x+y+z+t$ is

Q. If $(2.3{)}^x=(0.23{)}^y=1000,$ then find the value of $\frac{1}{x}-\frac{1}{y}$

Q. If $(2.3{)}^x=(0.23{)}^y=1000$ then find the value of $\frac{1}{x}-\frac{1}{y}$