A change in this quantity can be calculated by integrating supplied heat divided by the temperature at which it is supplied.
A change in this quantity can be calculated by integrating supplied heat divided by the temperature at which it is supplied. This quantity is zero for a perfect crystal, and reactions with a positive change in this quantity become more product-favored as (*) temperature increases. One formula for this quantity sets it equal to Boltzmann's constant times the natural log of the number of microstates. This quantity's SI units are joules per mole kelvin. For 10 points, name this thermodynamic quantity that must increase by the second law of thermodynamics, a measure of the disorder of a system.
A change in this quantity can be calculated by integrating supplied heat divided by the temperature at which it is supplied.
{entropy}