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The entropy change for the conversion of...

The entropy change for the conversion of 1 mole of `alpha-" tin"` (at `13^(@)C, 1` atm) to 1 mole of `beta-" tin "(13^(@)C, 1 atm)` if the enthalpy of transition is `2.095 kJ mol^(-1)`

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The entropy change of the conversion of 1 mol of alpha - tin (at 13^(@)C , 1 atm) to 1 mol of beta - tin( 13^(@) , 1 atm). If enthalpy of transition is 2.095 kJ mol^(-1) is :

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Calculate the entropy change accompanying the conversion of 1 mole of ice at 273.1 K and 1 atm pressure into steam at 373.1 K and 1 atm pressure. At 273.1 K, the molar heat of fusion of ice, DeltaH_(f) is 6.00 kJ mol^(-1) and at 373.1 K, the molar heat of vapourization of water, DeltaH_(v) , is 40.6 kJ mol^(-1) . Also assume that the molar heat capacities, C_(p) , in the temperature range 373.1 to 273.1 K remains constant. Given that C_(p) = 75.25 m mol^(-1)K^(-1) and log 13.66 = 1.1354.

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