Lectures related to Fundamental Equations: Conservation and Thermodynamics

Explores fundamental thermodynamics concepts, laws, energy transfer, and system analysis.

Covers atomic structure, thermodynamics, material properties, and ideal gas law.

Covers conservation equations, redundancy, integration constants, energy equation, and sonic quantities in isentropic flow.

Discusses the control volume approach in fluid mechanics, focusing on conservation laws and their applications.

Explores free convection, laminar flow boundary layer equations, and heat transfer principles.

Covers chemical potential variations and thermodynamic functions in mixtures, emphasizing their implications in real and ideal gases.

Explores the conservation of linear momentum and stress in a continuum, focusing on governing equations and constitutive laws.

Covers heat capacity, degrees of freedom, and their implications in thermodynamics.

Explores stress tensor symmetry through angular momentum balance in continua, covering topics like energy conservation and constitutive laws.

Introduces fluid mechanics, covering definitions, fundamental laws, and properties of fluids.

Explores entropy, state functions, reversible processes, and the Carnot cycle in thermodynamics.

Explores energy conservation in open systems, analyzing mass and energy transfer in turbines, compressors, and heat exchangers.

Discusses the thermodynamic behavior of real gases and phase transitions, including the Joule-Thomson effect and latent heat values.

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

Introduces continuum mechanics, focusing on conservation laws and kinematics for continuous media.

Discusses thermodynamic systems, the first principle of thermodynamics, and energy conservation in various contexts.

Covers the governing equations for forces and motion in continua, including stress, energy conservation, solid deformation, and fluid motion.

Explores thermodynamics, state functions, internal energy, and enthalpy, emphasizing energy conservation and heat exchange in various systems.

Explores calorimetric coefficients for ideal gases, focusing on specific heat capacities and their relationships.

Explores entropy, ideal gases, and TDS equations in thermodynamics, emphasizing the importance of the Clausius inequality and the Carnot cycle.