{:("Column-I","Column-II"),("Quantities","Factors on which dependency exist"),((A)"Molar conductance", (p)"Temperature"),((B)"emf of a cell in operation",(q)"Concentration of species involved"),((C )"Electrode potential ",(r)"Nature of substance involved "),((D)"Standard reduction potential ",(s)"No . of electrons lost or gained in the reaction "),(,(t)"is on additive property"):}

{:("Column-I","Column-II"),("Quantities","Factors on which dependency

1.	{:("Column-I","Column-II"),("Quantities","Factors on which dependency exist"),((A)"Molar conductance", (p)"Temperature"),((B)"emf of a cell in operation",(q)"Concentration of species involved"),((C )"Electrode potential ",(r)"Nature of substance involved "),((D)"Standard reduction potential ",(s)"No . of electrons lost or gained in the reaction "),(,(t)"is on additive property"):}
Answer» Solution :(A)`lambda_M=(1000K)/M` `lambda_M` DEPEND upon T,M, nature of substance and have additive property. (B)& ( C) `E_(cell)=E_(cell)^@-(2.0303 RT)/(nF)` log Q `E_(cell)` depend upon T,Q,n & nature of substance. (D) `E_("RED")^(@)` depend upon nature of substance.