Learn · Basic Statistical Mechanics
Lecture 14 of 61Week 3
Lecture 14 : Grand Canonical Ensemble
Prof. Biman Bagchi · IIT Bombay
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All the lectures
- Lecture 1 : Why Study Statistical Mechanics?
- Lecture 2 : Thermodynamics
- Lecture 3 : Probability Theory Part 1
- Lecture 4 : Probability Theory Part 2
- Lecture 5 : Fundamental concepts and Postulates of Statistical Mechanics Part 1
- Lecture 6 : Fundamental concepts and Postulates of Statistical Mechanics Part 2
- Lecture 7 : From Postulates to Formulation
- Lecture 8 : Microcanonical Ensemble
- Lecture 9 : Relation with Thermodynamics in Microcanonical Ensemble Part 1
- Lecture 10 : Relation with Thermodynamics in Microcanonical Ensemble Part 2
- Lecture 11 : Canonical Ensemble Part 1
- Lecture 12 : Canonical Ensemble Part 2
- Lecture 13 : Thermodynamic Potential for Canonical ensemble
- Lecture 14 : Grand Canonical Ensemble
- Lecture 15 : Thermodynamic Potentials for Grand Canonical and Isothermal-Isobaric ensembles
- Lecture 16 : Fluctuations and Response Function Part 1
- Lecture 17 : Fluctuations and Response Function Part 2
- Lecture 18 : Ideal Monatomic Gas: Microscopic Expression of Translational Entropy Part 1
- Lecture 19 : Ideal Monatomic Gas: Microscopic Expression of Translational Entropy Part 2
- Lecture 20 : Ideal Monatomic Gas: Microscopic Expression of Translational Entropy Part 3
- Lecture 21: Ideal Monatomic Gas: Microscopic Expression of Translational Entropy Part 4
- Lecture 22: Ideal Monatomic Gas: Microscopic Expression of Translational Entropy Part 5
- Lecture 23: Ideal Gas of Diatomic Molecules: Microscopic Expression for Rotational and Vibrational Entropy and Specific Heat Part 1
- Lecture 24: Ideal Gas of Diatomic Molecules: Microscopic Expression for Rotational and Vibrational Entropy and Specific Heat Part 2
- Lecture 25: Ideal Gas of Diatomic Molecules: Microscopic Expression for Rotational and Vibrational Entropy and Specific Heat Part 3
- Lecture 26: Ideal Gas of Diatomic Molecules: Microscopic Expression for Rotational and Vibrational Entropy and Specific Heat Part 4
- Lecture 27: Ideal Gas of Polyatomic molecules
- Lecture 28: Cluster Expansion and Mayer’s Theory of Condensation Part 1
- Lecture 29: Cluster Expansion and Mayer’s Theory of Condensation Part 2
- Lecture 30: Cluster Expansion and Mayer’s Theory of Condensation Part 3
- Lecture 31: Cluster Expansion and Mayer’s Theory of Condensation Part 4
- Lecture 32: Cluster Expansion and Mayer’s Theory of Condensation Part 5
- Lecture 33: Cluster Expansion and Mayer’s Theory of Condensation Part 6
- Lecture 34: Phase Transition and Landau Theory Part 1
- Lecture 35: Phase Transition and Landau Theory Part 2
- Lecture 36: Phase Transition and Landau Theory Part 3
- Lecture 37: Comments on some important Concepts of Statistical Mechanics
- Lecture 38: Nucleation Part 1: Introduction, Thermodynamics of Nucleation
- Lecture 39: Nucleation Part 2 : Kinetics of Nucleation
- Lecture 40: Nucleation Part 3: Kinetics of Nucleation, Classical Nucleation Theory, Heterogeneous Nucleation
- Lecture 41: Nucleation Part 4: Ostwald Step Rule
- Lecture 42: Spinodal Decomposition and Pattern Formation: Evolution of Structure through Dynamics Part 1
- Lecture 43: Spinodal Decomposition and Pattern Formation: Evolution of Structure through Dynamics Part 2
- Lecture 44: Ising Model and Other Lattice Models Part 1
- Lecture 45: Ising Model and Other Lattice Models Part 2
- Lecture 46: Ising Model and Other Lattice Models Part 3
- Lecture 47: Ising Model and Other Lattice Models Part 4
- Lecture 48: Ising Model and Other Lattice Models Part 5
- Lecture 49: Binary Mixtures: Towards Understanding Non-Ideality and Osmotic Pressure Part 1
- Lecture 50: Binary Mixtures: Towards Understanding Non-Ideality and Osmotic Pressure Part 2
- Lecture 51: Theory of Liquids Part 1
- Lecture 52: Theory of Liquids Part 2
- Lecture 53: Theory of Liquids Part 3
- Lecture 54: Theory of Liquids Part 4
- Lecture 55: Polymers in Solution and Polymer Collapse Part 1
- Lecture 56: Polymers in Solution and Polymer Collapse Part 2
- Lecture 57: Polymers in Solution and Polymer Collapse Part 3
- Lecture 58: Polymers in Solution and Polymer Collapse Part 4
- Lecture 59: Computer Simulation Methods in Statistical Mechanics Part 1
- Lecture 60: Computer Simulation Methods in Statistical Mechanics Part 2
- Lecture 61: Conclusion