Lecture 18 : Radioactivity | Soddy-Fajans Displacement Law

Lecture 17: Coulomb Energy of Nucleus | Coulomb Energy Difference | Mass Difference of Mirror Nuclei

Lecture 16 : Iso-spin Formalism | Conservation of Isospin | Selection Rules | Charge Independence

Lecture 15 : Quadrupole Moment of Uniformly Charged Ellipsoidal Nuclei | Quantum Mechanical System

Lecture 14 : Electric Moments of Nuclei | Quadrupole | Parity Selection Rules of Multipole Moments

Lecture 13 : Magnetic Dipole Moment of Nucleus | Nuclear Lande g - factor

Lecture 12 : Nuclear Parity | Nuclei Statistics | Spin-Statistic Theorem

Lecture 11 : Nuclear Spin (Total Angular Momentum)

Lecture 10 : Yukawa's Theory of Nuclear Forces (Meson Theory) - A Qualitative Discussion

Lecture 09 : Nature of Nuclear Force

Lecture 08 : Nuclear Stability - N/Z Plot (Nuclide Chart or Segré Chart)

Lecture 07 : Nucleon Separation Energy | Deuteron & Alpha Separation Energy | Odd–Even Effect

Lecture 06 : Packing Fraction | Significance of P.F. | B.E in Terms of P.F

Lecture 04 : Mass Defect | Nuclear Binding Energy

Lecture 05 : Binding Energy per Nucleon | Variation with Mass Number (A) | Nuclear Stability

Lecture 03 : Nuclear Density - Matter Density & Charge Density | Fermi Distribution of Charge & Mass

Lecture 02 : Nuclear Size | Atomic mass unit (a.m.u) | Mass Energy Equivalence

Lecture 01 : Nuclei | Nuclear Notations | Nuclides - Isobars, Isotope Isotones, & Mirror Nuclei

Lecture 90 : Reduced Equation of State | Law of Corresponding States | Other Equations of State

Lecture 89 : Van der Waals Equation in Virial Form | Boyle’s Temperature

Lecture 88 : Determination of Van der Waals Constants (a & b)

Lecture 87 : Limitations of Van der Waals Equation | Critical Constants (T꜀, P꜀, V꜀) |

Lecture 86 : Van der Waals Equation (Full Derivation & Corrections) | Comparison with Experiments

Lecture 85 : Onnes’ Equation of State (Virial Equation) | Real Gas Behaviour

Lecture 84 : Andrew’s Experiment on CO₂ | Amagat Experiment | Real Gas Behaviour

Lecture 83 : Real Gases - Deviations From Ideal Behaviour | Regnault Experiment

Lecture 82 : Diffusion (Transport of Mass) | Particle Flux (Γ) | Comparison (η) vs (κ) vs (D)

Lecture 81 : Coefficient of Thermal Conductivity (Transport of Energy) | Relation Between κ and η

Lecture 80 : Transport Phenomena | Viscosity (Transport of Momentum)

Lecture 79 : Molecular Flux

Lecture 78 : Law of Distribution of Free Paths - Survival Equation

Lecture 77 : Expression for Mean Free Path | Zeroth Approximation | First Order Approximation

Lecture 76 : Molecular Collisions | Mean Free Path | Collision Frequency | Collision Cross-Section

Lecture 75 : Experimental Verification of Maxwell's Law

Lecture 74 : Most Probable Speed | Mean (Average) Speed | Root Mean Square (RMS) Speed

Lecture 73 : Maxwell-Boltzmann Speed Distribution

Lecture 72 : Maxwell-Boltzmann Velocity Distribution

Lecture 71 : Molar Specific Heat Capacities in terms of Degree of Freedom

Lecture 70 : Degree of Freedom | Principle of Equipartition of Energy

Lecture 69 : Deduction of Gas Laws

Lecture 68 : Pressure Exerted by an Ideal Gas | Kinetic Interpretation of Temperature | RMS Speed

Lecture 67 : Kinetic Theory of Ideal Gases

Lecture 66 : Third law of Thermodynamics or Nernst's Heat Theorem

Lecture 65 : Adiabatic Demagnetization

Lecture 64 : Joule-Kelvin Coefficient for IDEAL Gas and REAL Gas

Lecture 63 : Joule-Kelvin Coefficient | Integral Joule-Kelvin Effect | Inversion Condition

Lecture 62 : Joule-Kelvin (or Joule-Thomson) effect | Isenthalpic Curve | Inversion Curve

Lecture 61 | Joule ( Free ) Expansion | Joule Coefficient for Ideal Gas & Real Gas

Lecture 60 : Second-Order Phase Transition | Ehrenfest Equations | λ-Transition ( He I→He II )

Lecture 59 : First-Order Phase Transitions | Clausius–Clapeyron Equation

Lecture 08 : Commutator Algebra | Functions of Operators

Lecture 58 : Phase Equilibrium Criterion | Ehrenfest Classification of Phase Transitions

Lecture 57: Thermodynamics of Magnetic System - Magneto-Caloric Effect I TdS and Energy Equations

Lecture 56 : Variation of Surface Tension with Temperature | Thermodynamics of Surface Film

Lecture 55 : Temperature Change in Adiabatic Process | Gibbs-Helmholtz Energy Equations

Lecture 54 : The Energy Equations | U = U(T,V) | U = U(T,P)

Lecture 53 : The TdS Equations & their Applications | S = S(T,V) | S = S(T,P) | S = S(V,P)

Lecture 52 : Cₚ Variation with Pressure | Cᵥ Variation with Volume | Application of Maxwell Relation

Lecture 51 : Ratios of Adiabatic and Isobaric / Isochoric Expansion Coefficients

Lecture 50 : (Cₚ - Cᵥ) for PERFECT GAS & VAN DER WAAL'S Gas using Thermodynamic Maxwell's Relations