Lecture 2 : Review of Classical Thermodynamics Part II
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Lecture 3 : Thermodynamic potential part 1
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Lecture 4 : Thermodynamic potentials Part 2
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Lecture 5 : Microstates of a system
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Lecture 6: Microstates of a System (Contd.)
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Lecture 7 Microstates of a system (contd.)
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Lecture 8 Microstates of a system (contd.)
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Lecture 9 : Microstates of a system
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Lecture 10 : Microstates of a system
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Lecture 11: Microstates of a system (contd)
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Lecture 12 :Microstates of a system (contd)
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Lecture 13 Microstates of a System (Contd.)
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Lecture 14 : Fundamentals of Statistical Mechanics
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Lecture 15 : Statistical Ensembles
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Lecture 16 : Microstates of a system
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Lecture 17 : Canonical ensemble part I
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Lecture 18 : Canonical Ensemble part I contd
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Lecture 19 : Canonical Ensemble Part II
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Lecture 20 : Canonical Ensemble Part III
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Lecture 21 : Ideal gas
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Lecture 22: Ideal gases (contd)
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Lecture 23 : Ideal gases (contd)
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Lecture 24 : Ideal gases (contd.)
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Lecture 25 : Statistical thermodynamics of ideal gases (contd)
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Lecture 26 : Statistical Thermodynamics of ideal gas (contd.)
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Lecture 27 : Statistical thermodynamics of ideal gas (contd)
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Lecture 28 : Statistical thermodynamics of ideal gases (contd)
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Lecture 29 : Statistical thermodynamics of ideal gases (contd)
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Lecture 30 : Statistical thermodynamics of diatomic ideal gases
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Lecture 31 : Statistical thermodynamics of ideal gas
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Lecture 32 : Chemical reaction equilibrium
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Lecture 33 : Specific heat of solids
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Lecture 34 : Application of Molecular Thermodynamics
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Lecture 35 : Introduction to classical statistical mechanics
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Lecture 36 : Introduction to classical statistical mechanics (contd)
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Lecture 37 : Classical Statistical Mechanics
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Lecture 38 : Classical Statistical Mechanics
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Lecture 39 : Classical Statistical Mechanics
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Lecture 40 : Rate of Chemical Reaction
Description:
This course is designed to use fundamental concepts of statistical mechanics in simple real-world problems. Starting from simple molecular models of systems like solids, liquids and gases, the students would learn how to obtain their thermodynamic properties that are usually measured in experiments.