Useful Links
Physics
Statistical Mechanics
Applications to Physical Systems
Ideal Gas
Maxwell-Boltzmann Statistics
Distribution of molecular speeds
Derivation from first principles
Applicability to classical systems
Role in determining macroscopic properties such as pressure and temperature
Quantum Ideal Gases
Bose-Einstein Statistics
Characteristics of bosons
Bose-Einstein condensation
Applications and examples: superfluidity, laser cooling
Fermi-Dirac Statistics
Characteristics of fermions
Fermi energy and temperature
Applications and examples: electron gas in metals, white dwarfs
Real Gases
Virial Expansion
Mathematical basis and series expansion
Virial coefficients and their physical significance
Practical applications in gas analysis
Van der Waals Equation
Correction terms for pressure and volume
Critical temperature and pressure
Phase behavior predictions for real gases
Solids
Einstein Model of Heat Capacity
Assumptions and simplifications
Derivation of specific heat formula
Limitations and historical significance
Debye Model of Heat Capacity
Phonon theory and vibrational states
Debye temperature
Comparison to Einstein model and real solids
Low-temperature behavior predictions
Thermal Expansion
Microscopic basis and statistical mechanisms
Dependencies on temperature and pressure
Practical implications in materials science
Conductivity and Electrical Properties
Role of charge carriers in solids
Temperature dependence
Applications in semiconductor theory
Liquids and Liquid Mixtures
Statistical Mechanics of Liquids
Radial distribution function
Structure and pair correlation
Thermodynamic properties via statistical approach
Phase Equilibria
Liquid-vapor equilibrium
Modeling phase transitions in mixtures
Applications to distillation and material separation processes
Magnetic Systems
Paramagnetism and Diamagnetism
Statistical basis for magnetic response
Temperature and field dependence
Ferromagnetism
Domain theory and statistical models
Curie-Weiss Law
Role of quantum statistics
Superconductivity
Microscopic models and theories
BCS theory and Cooper pairs
Energy gap and superconducting state
Thermodynamic properties of superconductors
Entropy and energy considerations in transition
Magnetic and electrical properties in low temperatures
Polymers and Soft Matter
Statistical models of polymer chains
Random walk and ideal chain models
Excluded volume effects
Applications in colloids and gels
Thermodynamic properties and phase transitions
Structural dynamics and rheological properties
Biological Systems
Statistical mechanics of biomolecules
Folding and stability of proteins
Dynamics of nucleic acids
Thermodynamic properties in biological environments
Cellular Transport and Dynamics
Mechanisms of diffusion and osmosis
Role of statistical mechanics in understanding cellular functions
Advanced Topics in Physical Applications
Nanostructures and Nanoparticles
Quantum size effects and statistical descriptions
Applications in catalysis and material properties
Statistical Mechanics in Astrophysics
Stellar structure and thermodynamic stability
Statistical models of matter under extreme conditions
Applications in black hole thermodynamics
4. Concepts of Probability in Statistical Mechanics
First Page
6. Quantum Statistical Mechanics