Molarity vs. Normality
Main DifferenceThe main difference between Molarity and Normality is that Molarity is considered as the number of moles that are present in a mixture of compounds, whereas Normality is considered as the number of gram equivalents of a compound that are present in the mixture of compounds.

Difference Between Molarity and Normality
Molarity vs. Normality
The amount of moles of a compound that are present in a liter solution is known as the molarity, while the amount of solution presents in gram corresponding of a solute that is weight in one-liter solution is known as normality.
Molarity vs. Normality
The unit of molarity is mole/L; on the other hand, the unit of normality is eq/L or meq/L.
Molarity vs. Normality
“Molarity = moles of solute/liters of the solution” is the formula of molarity for the calculation; on the other hand, “normality = number of mole equivalents/1 L of the solution” is the formula for calculating the normality.
Molarity vs. Normality
The reliance of molarity, which is existing in a solution, does not rest on the form of reaction that solute experiences; on the contrary, the reliance of normality existing in a solution rests on the sort of reaction that solute experiences.
Molarity vs. Normality
By the change in temperature, the molarity of a solution is also changed through increasing the volume; on the flip side, the change in temperature cannot affect the normality of a solution.
Molarity vs. Normality
The molarity of a solution is usually influenced by volume, temperature, the solubility of a solute, and the addition of more solutes in the solution; on the other hand, the normality of a solution is generally influenced by the reactive species which are usually present in that solution of normality.
Molarity vs. Normality
Molarity is symbolized by “M,” while normality is usually symbolized by “N.”
Molarity vs. Normality
1M solution of H2SO4 usually contains 1 mole of H2SO4 per liter solution is the example of molarity; on the contrary, 1M H2SO4 contains molarity of 2 N because 2 moles of H+ ions are generally present in per liter solution is the example of normality.
Molarity vs. Normality
By N = M*n, the molarity can be changed into normality where ‘n’ is considered as the number of counterparts present in a 1-liter solution.
Molaritynoun
(chemistry) the concentration of a substance in solution, expressed as the number moles of solute per litre of solution
Normalitynoun
(uncountable) The state of being normal or usual; normalcy.
Jessie was going to wear pants to school, but her brother persuaded her to wear shorts to preserve normality.Molaritynoun
concentration measured by the number of moles of solute per liter of solvent
Normalitynoun
(chemistry) The concentration of a solution expressed in gram equivalent weights of solute per litre of solution.
Normalitynoun
A measure of how well an observed distribution approximates a normal distribution.
Normalitynoun
(of a solution) concentration expressed in gram equivalents of solute per liter
Normalitynoun
being within certain limits that define the range of normal functioning
Normalitynoun
expectedness as a consequence of being usual or regular or common
Normalitynoun
conformity with the norm
Comparison Chart
Molarity | Normality |
Molarity is usually considered as the number of moles of solute present in per liter of solution. | Normality is generally considered as the number of mole equivalents per liter of solution. |
Unit | |
mole/L | eq/L or meq/L |
Dependence on the Reaction | |
It does not depend on the type of reaction that solute undergoes | It depends on the kind of reaction that the solute goes through. |
Effect of Temperature | |
It can be changed by the change in temperature by increasing the volume. | It cannot be affected by the change in temperature. |
Other Factors | |
Usually depends on volume, temperature, the solubility of a solute, and the addition of more solutes in the solution. | Generally depends on the reactive species which are normally present in that solution of normality. |
Symbol | |
Symbolized by “M” | Symbolized by “N” |
Used For | |
Considered as the unit of concentration, which is used to calculate the change in temperature through experiments. | Generally used more often for the titration calculations. |
Conversion | |
It can be converted into normality by N = M*n where ‘n’ is considered as the number of equivalents present in 1-liter solution. | It cannot be converted into molarity. |
Formula | |
Molarity = moles of solute/liters of solution | Normality = number of mole equivalents/1 L of solution |
Example | |
1M solution of H2SO4 usually contains 1 mole of H2SO4 in per liter solution | 1M H2SO4 contains molarity of 2 N because 2 moles of H+ ions are generally present in per liter solution |
Molarity vs. Normality
Molarity is considered as the number of moles of a compound that are present in a liter solution, while normality is the amount of solution present in gram equivalent of a solute weight in a one-liter solution. The unit of molarity is calculated as mole/L; on the other hand, the unit of normality is calculated as eq/L or meq/L. The dependency of molarity present in a solution does not depend on the type of reaction that solute undergoes; on the contrary, the dependency of normality present in a solution depends on the type of reaction that solute undergoes.
Molarity of a solution can be altered by the change in temperature through increasing the volume; on the flip side, the normality of a solution cannot be affected by the change in temperature. The molarity of a solution usually depends on volume, temperature, the solubility of a solute, and the addition of more solutes in the solution; on the other hand, the normality of a solution generally depends on the reactive species which are normally present in that solution of normality. Molarity is symbolized by “M,” while normality is usually symbolized by “N.”
Molarity is considered as the unit of concentration, which is used to calculate the change in temperature through experiments, whereas normality is generally used more often for the titration calculations. An example of molarity is described as 1M solution of H2SO4, usually contains 1 mole of H2SO4 per liter solution; on the contrary, the example of normality is given as 1M H2SO4 contains molarity of 2 N because 2 moles of H+ ions are generally present in per liter solution.
The molarity can be converted into normality by N = M*n where ‘n’ is considered as the number of equivalents present in a 1-liter solution. The formula of molarity for the calculation is written as “molarity = moles of solute/liters of the solution”; on the other hand, the formula for calculating normality is written as “normality = number of mole equivalents/1 L of the solution”.
Comparis.on Chart
What is Molarity?
The term molarity defined as the number of moles of a compound that are present in a solute in per liter of solution. Molarity is symbolized by “M.” Molarity is also known as the molar concentration because it generally gives the concentration of compounds through moles per liter. The unit of molarity is calculated as mole/L, which is generally used to calculate the molarity of a solution.
However, the measurement of molarity is done in liters, so the molarity of a solution is measured concerning solutions such as liquids. A solution consists of solute and solvent in which solutes are normally dissolved in a solvent, and this mixture of solvent and solutes is known as a solution.
Molarity is considered as the unit of concentration, which is used to calculate the change in temperature through experiments. The molarity of a solution can be transformed by the change in temperature by increasing the volume. The dependency of molarity present in a solution does not depend on the type of reaction that solute undergoes, but the molarity of a solution usually depends on volume, temperature, the solubility of a solute, and the addition of more solutes in the solution.
The amount of solutes that are present in one liter of the solution is known as the molarity of the solution. So molarity is calculated by dividing the number of moles present in the solution from the volume of the particular solution. The molarity can be converted into normality by N = M*n where ‘n’ is considered as the number of equivalents present in a 1-liter solution.
An example of molarity is a 1M solution of H2SO4 usually contains 1 mole of H2SO4 per liter solution. The equation for molarity is Molarity = moles of solute/liters of solution or C = n/V, where C is the number of moles, n is the number of moles, and V is the volume of solution.
What is Normality?
The term normality is defined as the number of moles present in a solution that are equivalents weight in per liter of solution. Hence, normality is also known as the equivalent concentration of a solution. The unit of normality is calculated as eq/L or meq/L, and it is usually symbolized by “N.”
For calculations on a smaller scale, the unit meq/L is used, and it stands for “milliequivalent.” Normality is generally used to describe the concentration of hydroxyl ion (OH–) and the concentration of hydronium ion (H3O+), which are present in an acid-base reaction.
The equation for normality is Normality = number of mole equivalents/1 L of solution. The example of normality is given as 1M H2SO4 contains molarity of 2 N because 2 moles of H+ ions are generally present in per liter solution. But when sulfuric acid is used in a reaction of precipitation where sulfide as a reactant becomes precipitated by using the sulfuric acid, and then the normality of sulfuric acid becomes 1 N because one sulfate ion from the sulfuric acid is released from the reaction.
ConclusionThe above discussion concludes that the values of both molarity and normality are different from each other since, molarity is used to calculate the change in temperature, whereas normality is generally used more often for the titration calculations. Molarity is the number of moles that are present in a mixture of compounds, while normality is the number of grams equals to a compound that is present in a mixture of compounds.