Learn · Fundamentals of Statistical Thermodynamics
Lecture 56 of 60Week 12
Lecture 56: Problem Solving
Prof. Nand Kishore · IIT Bombay
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- Fundamentals of Statistical Thermodynamics, IIT Bombay (at NPTEL)
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All the lectures
- Lecture 1: General introduction to Statistical Thermodynamics
- Lecture 2: Configuration and Weights
- Lecture 3: Configuration and Weights ……. continuation
- Lecture 4: Boltzmann Distribution
- Lecture 5: The Molecular Partition Function
- Lecture 6: The Molecular Partition Function of a uniform ladder of energy levels
- Lecture 7: The partition function for a particle of mass m free to move in a one-dimensional container of length X
- Lecture 8: The partition function for a particle of mass m free to move in a three-dimensional container of sides X, Y, Z (Volume V)
- Lecture 9:Numerical Problems Set-I (based on partition function)
- Lecture 10: Numerical Problems Set-II (based on partition function and translational contribution)
- Lecture 11: The Internal Energy
- Lecture 12: Obtaining expression for beta
- Lecture 13: The Statistical Entropy
- Lecture 14: Connecting partition function with entropy
- Lecture 15: Solving numerical problems based on Internal energy and Entropy
- Lecture 16: Solving numerical problems based on Internal energy and Entropy
- Lecture 17: Negative Temperature
- Lecture 18 : Further discussion on q (Partition function), U (Internal energy) and S (Entropy) at T > 0 and T < 0
- Lecture 19 :The Canonical Partition Function
- Lecture 20 : Relating Canonical Partition Function Internal Energy and Entropy
- Lecture 21:Recovering molecular partition function q from canonical partition function Q
- Lecture 22: Entropy of a monatomic gas
- Lecture 23: Further discussion on entropy of a monatomic gas - I
- Lecture 24: Further discussion on entropy of a monatomic gas - II
- Lecture 25: The Thermodynamic Functions (Pressure)
- Lecture 26: The Thermodynamic Functions (Enthalpy)
- Lecture 27: The Thermodynamic Functions (The Gibbs Energy)
- Lecture 28: The Thermodynamic Functions (The Molecular Partition Function)
- Lecture 29: The Rotational Contribution to Molecular Partition Function
- Lecture 30: The Rotational Contribution to Molecular Partition Function (Nonlinear Rotor)
- Lecture 31: The Rotational Contribution to Molecular Partition Function (Linear and Nonlinear Rotor)
- Lecture 32: "Rotational Partition Function (Nonlinear Rotor and some numerical problems)"
- Lecture 33: Vibrational Partition Function - I
- Lecture 34: Vibrational Partition Function-II
- Lecutre 35: Vibrational Partition Function-Applications
- Lecture 36: Electronic Partition Function
- Lecture 37: Mean Energies
- Lecture 38: Mean Energies (continued)
- Lecture 39: Heat Capacity
- Lecture 40: Heat Capacity (continued)
- Lecture 41: Mean Energies (Applications)
- Lecture 42: Problem Solving
- Lecture 43: Residual Entropy
- Lecture 44: Residual Entropy (continued)
- Lecture 45: Relation between equilibrium constant K and partition function q
- Lecture 46: Relation between equilibrium constant K and partition function q (continued)
- Lecture 47: Relation between equilibrium constant K and partition function q (Applications-1)
- Lecture 48: Relation between equilibrium constant K and partition function q (Applications-2)
- Lecture 49: Contributions to equilibrium constant
- Lecture 50: Contributions to equilibrium constant (continued)
- Lecture 51: Contributions to equilibrium constant (continued) and Problems Solving
- Lecture 52: Problem solving
- Lecture 53: Problem solving (continued)
- Lecture 54: Equations of state
- Lecture 55: Bose-Einstein Statistics
- Lecture 56: Problem Solving
- Lecture 57: FERMI- DIRAC Statistics
- Lecture 58: Radial Distribution Function
- Lecture 59: Recap-1
- Lecture 60: Recap-2