Lectures related to Statistical Mechanics: Fundamentals

Explores scaling and renormalization in statistical mechanics, emphasizing critical points and invariant properties.

Introduces the kinetic theory of gases, focusing on the microscopic description of gas components and the ideal gas law.

Covers computational methods for molecular systems at finite temperature, emphasizing stochastic sampling and time evolution simulations.

Explores molecular dynamics simulations under holonomic constraints, focusing on numerical integration and algorithm formulation.

Covers the statistical mechanics of velocity and Langevin formulation, discussing the Langevin force and thermal equilibrium.

Provides an overview of vapor-liquid phase diagrams and their role in separation processes, focusing on phase equilibria and the Gibbs phase rule.

Provides an overview of thermodynamics, focusing on systems, temperature, and the laws governing gas behavior.

Covers the basics of statistical mechanics, focusing on the Langevin hypothesis and its implications.

Explores statistical physics concepts in isolated systems, focusing on entropy and disorder.

Introduces the kinetic theory of gases and the ideal gas law.

Covers the principles of thermodynamics, focusing on particle systems and their statistical properties.

Covers the concepts of energy types, entropy, second principle, and Gibbs free energy.

Covers entropy, its definition, and its implications in thermodynamics.

Explores the principles of thermodynamics, focusing on gas behavior and the relationship between temperature, pressure, and volume.

Explores the Jarzynski Equality through experimental tests on RNA molecules, validating the theory in non-equilibrium conditions.

Provides an overview of calorimetry and the thermodynamic properties of ideal gases, including their state equations and heat capacities.

Covers statistical physics, isolated systems, entropy, and the Boltzmann distribution.

Covers the fundamentals of classical thermodynamics, from classical mechanics to statistical mechanics, and key thermodynamic variables.

Explores thermodynamic transformations of ideal gases, heat capacity, entropy, and adiabatic processes.

Explores the Euclidean path integral formalism, with a focus on the harmonic oscillator.