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Specific heat is the heat capacity divided by the heat capacity of water, which makes it dimensionless. To obtain molar heat capacity from specific heat for a material of interest, simply multiply the specific heat by the heat capacity of water per gram [1 cal/(g*C)]and multiply by the molecular weight of the substance of interest.

For example, to obtain the molar heat capacity of iron

Specific heat of iron = 0.15 (note there are no units)

Molar heat capacity of iron = 0.15*1 cal/(g*C)*55.85 g /gmole

= 8.378 cal/(gmole*C)

Q: How do you measure molar heat capacity?

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The molar heat capacity of selenium is 25,363 J/mol.K.

The molar heat of solution of a solid can be measured by dissolving a known mass of the solid in a specific amount of solvent and measuring the temperature change that occurs. By using the formula q = mcΔT (where q is heat energy, m is mass, c is specific heat capacity, and ΔT is temperature change), the molar heat of solution can be calculated.

Another way to say heat capacity is thermal capacity.

The specific heat capacity of liquid water is 4.184 J/g°C. To find the heat capacity, you multiply the mass of the water (165g) by the specific heat capacity. So, the heat capacity of 165g of liquid water is 688.56 J/°C.

The molar heat capacity of most metals is approximately 25 J/mol·K. This means that it takes about 25 Joules of energy to raise the temperature of 1 mole of a metal by 1 Kelvin.

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Molar heat refers to the amount of heat required to raise the temperature of one mole of a substance by one degree Celsius. It is a measure of the heat capacity of a substance on a per mole basis. Molar heat is often used in thermochemistry to calculate heat changes in chemical reactions.

The molar heat capacity of water is 75.3 J/mol K at constant pressure. This means that it takes 75.3 joules of energy to raise the temperature of one mole of water by 1 Kelvin.

Molar heat capacity is an extensive property because it depends on the amount of substance being considered.

The molar heat capacity of selenium is 25,363 J/mol.K.

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The molar heat of solution of a solid can be measured by dissolving a known mass of the solid in a specific amount of solvent and measuring the temperature change that occurs. By using the formula q = mcΔT (where q is heat energy, m is mass, c is specific heat capacity, and ΔT is temperature change), the molar heat of solution can be calculated.

The molar heat capacity of hydrogen (H2) is 28,835 J/mol/K.The molar heat capacity of oxygen (O2) is 29,378 J/mol/K.

Another way to say heat capacity is thermal capacity.

The specific heat capacity of liquid water is 4.184 J/g°C. To find the heat capacity, you multiply the mass of the water (165g) by the specific heat capacity. So, the heat capacity of 165g of liquid water is 688.56 J/°C.

Specific heat capacity is an intrinsic property of a substance and is independent of the amount of the substance. Therefore, the specific heat capacity of gaseous hexane would be the same as its molar heat capacity, which is 142.6 J/mol°C.

The molar heat capacity of most metals is approximately 25 J/mol·K. This means that it takes about 25 Joules of energy to raise the temperature of 1 mole of a metal by 1 Kelvin.

Heat capacity is in the measurement of (kilo)Joules per mol degree Kelvin (J/mol K) Specific heat capacity is in joules/gram degree Kelvin (J/ gram K) Converting between the two is rather simple. To convert to specific heat capacity, divide the molar heat capacity by the molar mass of the molecule in question. eg. ( J/ mol K) / (grams/mol ) = J/ gram K, because mols will cancel.