Molar specific heat capacity is the amount of heat energy required to raise thetemperature of 1 mole of a substance
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∙ 2011-07-05 21:41:48Molar heat capacity of liquid water = 75.3538 Molar heat capacity = molar mass x specific heat
The Molar heat Capacity of water is 75.2
extensive
NaOH, or sodium hydroxide has a molar mass of 39.9971 grams per mole. This lends to its specific heat capacity of 59.66 Joules per mole per Kelvin.
Heat capacity (or its mass normalized relative, specific heat capacity) can be calculated by comparing the difference in heat flow.
molar heat capacity is the product of specific heat capacity and molecular weight molar heat capacity=specific heat capacity*molecular weight
Molar heat capacity of liquid water = 75.3538 Molar heat capacity = molar mass x specific heat
heat capacity= specific heat x mass molar heat capacity = specific heat x molar mass - Hope this helps!!
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)
The molar heat capacity of selenium is 25,363 J/mol.K.
The molar heat capacity of thorium is 26,230 J/mol.K.
The Molar heat Capacity of water is 75.2
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.
Assuming molar heat capacity: 112.3 J/(mol K) (joules per mole kelvin difference)
Another way of stating this, is that the volume-specific heat capacity (volumetric heat capacity) of solar elements is roughly constant. The molar volume of the solid.
Gasses have two specific heat capacities because the boundary conditions can affect the number by up to 60%. Therefore, a number is given to each boundary condition: isobaric (constant pressure) or isochoric (constant volume). In an ideal gas, they differ by the quantity R (the gas constant - the same one you use in the ideal gas law): Cp = Cv + R where Cp is the isobaric molar heat capacity (specific heat) and Cv is the isochoric molar heat capacity.
no because the molar mass of lead is great than aluminum