For a perfectly crystaline solid C_(p.m)=aT^(3) , where a is constant. If C_(p.m) is 0.42J//K-mol at 10 K , molar entropy at 10 K is:
For a perfectly crystalline solid C_(p.m.)=aT^(3)+bT ,where a and b constant . If C_(p.m.)is 0.40J//Kmol at 10K and 0.92J//K "mol" at 20K then molar entropy at 20k is:
For a perfectly crystalline solid C_(p,m)=aT^(3)+bT , where a and b are constant. If C_(p,m) is 0.40 J/K mol at 10 K and 0.92 J/K mol at 20 K, then molar entropy at 20 K is :
For a perfectly crystalline solid C_("p,m") =T^(3)+bT , where a & b are constant . If C_("p,m") is 0.04 J//k-"mole" at 10 K and io 0.92 J//K-"mole" at 20 k, Then molar entropy at 20 k is.
Entropy of perfectly crystalline solid is taken as zero at 0 K.
V = k((P)/(T))^(0.33) where k is constant. It is an,
The molar heat capacity of water at constant pressure, C_(p) is "75 J K"^(-1)"mol"^(-1) . When 10 kJ of heat is supplied to 1 kg water which is free to expand, the increase in temperature of water is
The molar heat capacities at constant pressure (assume constant with respect to temperature) of A, B and C are in ratio of 1.5 : 3.0 : 2.0 . If enthalpy change for the exotherimic reaction A + 2B rarr 3C at 300 K is -10 kJ//"mol" & C_(p.m) (B) is 300 J/mol then enthalpy change at 310 K is:
When two moles of an ideal gas (C_(p.m.)=(5)/(2)R) heated form 300K to 600K at constant pressure, the change in entropy of gas (DeltaS) is:
NARENDRA AWASTHI-THERMODYNAMICS-Level 3 - Match The Column