Lectures related to Internal energy

Introduces the Random-Subcube Model (RSM) for constraint satisfaction problems, exploring its structure, phase transitions, and variable freezing.

Delves into thermodynamics basics, calculating energy changes, constructing tables, and using Maxwell relations for thermodynamic relations.

Covers the basics of thermodynamics, chemical reactions, energy conservation, and the laws of perfect gases.

Explores the conservation of energy through various transformations, emphasizing the independence of work and heat exchanges.

Covers thermodynamic potentials and their role in system equilibrium with reservoirs.

Covers the analysis of thermodynamic processes involving bromine vapor and energy balances.

Covers the calculation of internal energy and specific heat for gases, electrons, phonons, and photons.

Covers the states of matter and the first law of thermodynamics.

Covers Legendre transformations, internal energy, building functions, and energy libre de Gibbs.

Explores compressibility, thermal expansion, and specific heat capacity of materials.

Explores various forms of energy and heat transfer in closed systems.

Explores thermodynamic transformations, internal energy, kinetic gas theory, and temperature measurement methods.

Explores phase transitions and stability criteria in thermodynamics, emphasizing entropy, internal energy, and thermodynamic potentials.

Explores internal energy, mechanics, and state variables in isolated systems with practical examples involving a gas piston, air, and a fan.

Covers iterative methods for solving linear equations and analyzing convergence, including error control and positive definite matrices.

Explores quantum formalism and 2-level systems, covering energy representation, thermal equilibrium, and operator expectation values.

Covers energy balances in chemical engineering, emphasizing the importance of accounting for energy flow in and out of process units.

Explores conservation of momentum and kinetic energy in collisions, emphasizing the importance of understanding collision outcomes.

Explores heat exchange, specific heat, and latent heat in different materials and phase transitions.