Molarity of \(KCl\) solution \(= 0.1\) M
Resistance \(=\) \(1750\ Ω\)
Conductivity \(= 0.152×10^{–3}\) S cm–1
Conductivity \(= \frac {\text {Cell\ constant}}{\text{Resistance}}\)
∴ Cell constant \(= 0.152×10^{–3}×1750 \)
\(= 266×10^{–3}\) cm–1
So, the answer is \(266\).
Following figure shows dependence of molar conductance of two electrolytes on concentration. Λo m is the limiting molar conductivity. The number of incorrect statement(s) from the following is ________
(A) \(\Lambda \text{o m}\) for electrolyte A is obtained by extrapolation.
(B) For electrolyte B, \(\Lambda \text{m}\) vs \(\sqrt c\) graph is a straight line with intercept equal to o \(\Lambda \text{m}\)
(C) At infinite dilution, the value of degree of dissociation approaches zero for electrolyte B.
(D) Λo m for any electrolyte A or B can be calculated using \(\lambda0\) for individual ions.
An electrochemical cell is a device that is used to create electrical energy through the chemical reactions which are involved in it. The electrical energy supplied to electrochemical cells is used to smooth the chemical reactions. In the electrochemical cell, the involved devices have the ability to convert the chemical energy to electrical energy or vice-versa.