The specific latent heat of fusion of water is 334 kJ/kg. Ice melts at 0 degrees Celsius and boils at 100 degrees Celsius.
The molar heat of fusion of water is 6.01 kJ/mol. It represents the amount of energy required to convert 1 mole of ice at 0°C into 1 mole of water at 0°C without a change in temperature.
6.01kJ/mol
The molar heat of vaporization of iodine can be calculated using Hess's Law. The molar heat of sublimation is the sum of the molar heat of fusion and the molar heat of vaporization, so: 62.3 kJ/mol = 15.3 kJ/mol + x kJ/mol. Solving for x, the molar heat of vaporization is 47.0 kJ/mol.
To calculate the heat released when 253 g of water freezes, first convert the mass to moles using the molar mass of water (18.015 g/mol). Then, use the molar heat of fusion to determine the total heat released. Therefore, 253 g of water is 14.05 moles (253 g / 18.015 g/mol) and the heat released is 84.5 kJ (6.008 kJ/mol * 14.05 mol).
The molar heat of fusion of ethanol is approximately 5.02 kJ/mol. This is the amount of energy required to convert one mole of solid ethanol into liquid ethanol at its melting point of -114.1°C.
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.
The heat of fusion is the amount of energy needed to change a substance from a solid to a liquid at its melting point.
molar heat of fusion
The molar heat of vaporization of iodine can be calculated using Hess's Law. The molar heat of sublimation is the sum of the molar heat of fusion and the molar heat of vaporization, so: 62.3 kJ/mol = 15.3 kJ/mol + x kJ/mol. Solving for x, the molar heat of vaporization is 47.0 kJ/mol.
To calculate the heat released when 253 g of water freezes, first convert the mass to moles using the molar mass of water (18.015 g/mol). Then, use the molar heat of fusion to determine the total heat released. Therefore, 253 g of water is 14.05 moles (253 g / 18.015 g/mol) and the heat released is 84.5 kJ (6.008 kJ/mol * 14.05 mol).
Molar heat of fusion: the heat (enthalpy, energy) needed to transform a solid in liquid (expressed in kJ/mol). Molar heat of vaporization: the heat (enthalpy, energy) needed to transform a liquid in gas (expressed in kJ/mol).
The molar heat of fusion of water in J / g is 334. To find the heat required to convert 0.3 kg, use the equation: heat of fusion * mass = heat required. It would require 100.2 kJ.
Use Einstein's Theory of Special Relativity
due to the anomalous behaviour of water.....
The molar heat of fusion of ethanol is approximately 5.02 kJ/mol. This is the amount of energy required to convert one mole of solid ethanol into liquid ethanol at its melting point of -114.1°C.
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.
The latent heat of fusion of 1kg water is 334 kJ/kg. (Wikipedia)
The heat of fusion is the amount of energy needed to change a substance from a solid to a liquid at its melting point.
You use Heat of fusion... Heat=mass x heat of fusion Heat of fusion for water: 80 cal/g so 35g x 80 cal/g= 2800 cal released.