Molar Conductance Solution

STEP 0: Pre-Calculation Summary
Formula Used
Molar Conductance = Specific Conductance/Molarity
λ = K/M
This formula uses 3 Variables
Variables Used
Molar Conductance - (Measured in Siemens) - The Molar conductance is defined as the conducting power of the dissolved ions produced in the solution.
Specific Conductance - (Measured in Siemens per Meter) - The Specific Conductance is the ability of a substance to conduct electricity. It is the reciprocal of specific resistance.
Molarity - (Measured in Mole per Cubic Meter) - Molarity of a given solution is defined as the total number of moles of solute per litre of solution.
STEP 1: Convert Input(s) to Base Unit
Specific Conductance: 4900 Siemens per Meter --> 4900 Siemens per Meter No Conversion Required
Molarity: 55.5 Mole per Liter --> 55500 Mole per Cubic Meter (Check conversion here)
STEP 2: Evaluate Formula
Substituting Input Values in Formula
λ = K/M --> 4900/55500
Evaluating ... ...
λ = 0.0882882882882883
STEP 3: Convert Result to Output's Unit
0.0882882882882883 Siemens -->0.0882882882882883 Mho (Check conversion here)
FINAL ANSWER
0.0882882882882883 0.088288 Mho <-- Molar Conductance
(Calculation completed in 00.004 seconds)

Credits

Created by Pragati Jaju
College Of Engineering (COEP), Pune
Pragati Jaju has created this Calculator and 50+ more calculators!
Verified by Akshada Kulkarni
National Institute of Information Technology (NIIT), Neemrana
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20 Conductance and Conductivity Calculators

Area of Cross-Section of Electrode given Conductance and Conductivity
Go Electrode Cross-sectional Area = (Conductance*Distance between Electrodes)/(Specific Conductance)
Distance between Electrode given Conductance and Conductivity
Go Distance between Electrodes = (Specific Conductance*Electrode Cross-sectional Area)/(Conductance)
Conductivity given Conductance
Go Specific Conductance = (Conductance)*(Distance between Electrodes/Electrode Cross-sectional Area)
Conductance given Conductivity
Go Conductance = (Specific Conductance*Electrode Cross-sectional Area)/(Distance between Electrodes)
Molar Conductivity at Infinite Dilution
Go Molar Conductivity at Infinite Dilution = (Mobility of Cation+Mobility of Anion)*[Faraday]
Limiting Molar Conductivity of Cations
Go Limiting Molar Conductivity = Ionic Mobility of Cation at Infinite Dilution*[Faraday]
Limiting Molar Conductivity of Anions
Go Limiting Molar Conductivity = Ionic Mobility of Anion at Infinite Dilution*[Faraday]
Limiting Molar Conductivity given Degree of Dissociation
Go Limiting Molar Conductivity = (Solution Molar Conductivity/Degree of Dissociation)
Specific Conductance given Molarity
Go Specific Conductance = (Solution Molar Conductivity*Molarity)/1000
Molar Volume of solution given Molar Conductivity
Go Molar Volume = (Solution Molar Conductivity/Specific Conductance)
Molar Conductivity given Conductivity and Volume
Go Solution Molar Conductivity = (Specific Conductance*Molar Volume)
Conductivity given Molar Volume of Solution
Go Specific Conductance = (Solution Molar Conductivity/Molar Volume)
Equivalent Conductance
Go Equivalent Conductance = Specific Conductance*Volume of Solution
Molar Conductivity given Molarity
Go Molar Conductivity = Specific Conductance*1000/Molarity
Cell Constant given Conductance and Conductivity
Go Cell Constant = (Specific Conductance/Conductance)
Conductivity given Cell Constant
Go Specific Conductance = (Conductance*Cell Constant)
Conductance given Cell Constant
Go Conductance = (Specific Conductance/Cell Constant)
Molar Conductance
Go Molar Conductance = Specific Conductance/Molarity
Specific Conductance
Go Specific Conductance = 1/Resistivity
Conductance
Go Conductance = 1/Resistance

17 Important Formulas of Conductance Calculators

Charge Number of Ion Species using Debey-Huckel Limiting Law
Go Charge Number of Ion Species = (-ln(Mean Activity Coefficient)/(Debye Huckel limiting Law Constant*sqrt(Ionic Strength)))^(1/2)
Debey-Huckel Limiting Law Constant
Go Debye Huckel limiting Law Constant = -(ln(Mean Activity Coefficient))/(Charge Number of Ion Species^2)*sqrt(Ionic Strength)
Dissociation Constant of Acid 1 given Degree of Dissociation of Both Acids
Go Dissociation Constant of Acid 1 = (Dissociation Constant of Acid 2)*((Degree of Dissociation 1/Degree of Dissociation 2)^2)
Dissociation Constant of Base 1 given Degree of Dissociation of Both Bases
Go Dissociation Constant of Base 1 = (Dissociation Constant of Base 2)*((Degree of Dissociation 1/Degree of Dissociation 2)^2)
Distance between Electrode given Conductance and Conductivity
Go Distance between Electrodes = (Specific Conductance*Electrode Cross-sectional Area)/(Conductance)
Conductivity given Conductance
Go Specific Conductance = (Conductance)*(Distance between Electrodes/Electrode Cross-sectional Area)
Equilibrium Constant given Degree of Dissociation
Go Equilibrium Constant = Initial Concentration*Degree of Dissociation^2/(1-Degree of Dissociation)
Molar Conductivity at Infinite Dilution
Go Molar Conductivity at Infinite Dilution = (Mobility of Cation+Mobility of Anion)*[Faraday]
Degree of Dissociation given Concentration and Dissociation Constant of Weak Electrolyte
Go Degree of Dissociation = sqrt(Dissociation Constant of Weak Acid/Ionic Concentration)
Dissociation Constant given Degree of Dissociation of Weak Electrolyte
Go Dissociation Constant of Weak Acid = Ionic Concentration*((Degree of Dissociation)^2)
Degree of Dissociation
Go Degree of Dissociation = Molar Conductivity/Limiting Molar Conductivity
Conductivity given Molar Volume of Solution
Go Specific Conductance = (Solution Molar Conductivity/Molar Volume)
Equivalent Conductance
Go Equivalent Conductance = Specific Conductance*Volume of Solution
Conductivity given Cell Constant
Go Specific Conductance = (Conductance*Cell Constant)
Molar Conductance
Go Molar Conductance = Specific Conductance/Molarity
Specific Conductance
Go Specific Conductance = 1/Resistivity
Conductance
Go Conductance = 1/Resistance

Molar Conductance Formula

Molar Conductance = Specific Conductance/Molarity
λ = K/M

What is Molar Conductivity?

Molar conductivity is the conductance property of a solution containing one mole of the electrolyte or it is a function of the ionic strength of a solution or the concentration of salt. It is therefore not a constant.

In other words, molar conductivity can also be defined as the conducting power of all the ions that are formed by dissolving a mole of electrolyte in a solution. Molar conductivity is the property of an electrolyte solution that is mainly used in determining the efficiency of a given electrolyte in conducting electricity in a solution. It is therefore not a constant.

How to Calculate Molar Conductance?

Molar Conductance calculator uses Molar Conductance = Specific Conductance/Molarity to calculate the Molar Conductance, The Molar Conductance is defined as the conducting power of the dissolved ions produced in the solution. Molar Conductance is denoted by λ symbol.

How to calculate Molar Conductance using this online calculator? To use this online calculator for Molar Conductance, enter Specific Conductance (K) & Molarity (M) and hit the calculate button. Here is how the Molar Conductance calculation can be explained with given input values -> 0.088288 = 4900/55500.

FAQ

What is Molar Conductance?
The Molar Conductance is defined as the conducting power of the dissolved ions produced in the solution and is represented as λ = K/M or Molar Conductance = Specific Conductance/Molarity. The Specific Conductance is the ability of a substance to conduct electricity. It is the reciprocal of specific resistance & Molarity of a given solution is defined as the total number of moles of solute per litre of solution.
How to calculate Molar Conductance?
The Molar Conductance is defined as the conducting power of the dissolved ions produced in the solution is calculated using Molar Conductance = Specific Conductance/Molarity. To calculate Molar Conductance, you need Specific Conductance (K) & Molarity (M). With our tool, you need to enter the respective value for Specific Conductance & Molarity and hit the calculate button. You can also select the units (if any) for Input(s) and the Output as well.
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