Thermodynamics¶
Thermodynamics is a branch of physics that studies the relationships among heat, work, temperature, and energy.
Contents:
- Bose—Einstein statistics
- Dielectric Thermodynamics
- Enthalpy change via entropy change and electric field change
- Enthalpy of dielectrics
- Free energy change via temperature change and electric displacement change
- Gibbs energy change via temperature change and electric displacement change
- Gibbs energy of dielectrics
- Internal energy change via heat and electric displacement change
- Equations of state
- Euler relations
- Fermi—Dirac statistics
- Heat transfer
- Maxwell—Boltzmann statistics
- Relativistic Thermodynamics
- Average kinetic energy of ideal gas from temperature
- Average speed in Maxwell—Boltzmann statistics
- Average square speed in Maxwell—Boltzmann statistics
- Canonical partition function of a classical discrete system
- Change in entropy of ideal gas from volume and temperature
- Chemical potential is Gibbs energy per particle
- Chemical potential is particle count derivative of enthalpy
- Chemical potential is particle count derivative of free energy
- Chemical potential is particle count derivative of Gibbs energy
- Chemical potential is particle count derivative of internal energy
- Chemical potential of ideal gas
- Classical isochoric molar heat capacity of solids
- Compressibility factor via intermolecular force potential
- Diffusion coefficient of spherical Brownian particles from temperature and dynamic viscosity
- Diffusion flux from diffusion coefficient and concentration gradient
- Dynamic viscosity of gas from temperature
- Efficiency of heat engine
- Enthalpy derivative via volume derivative
- Enthalpy differential
- Enthalpy is internal energy plus pressure energy
- Enthalpy via Gibbs energy
- Entropy change in reversible process
- Entropy derivative via volume derivative
- Entropy from statistical weight
- Entropy is derivative of free energy
- Entropy is derivative of Gibbs energy
- Entropy of independent subsystems is sum of their entropies
- Fractional volume change via small temperature change
- Free energy differential
- Gas mixture pressure from partial pressures
- Gas pressure change from temperature
- Gibbs energy differential
- Gibbs energy via enthalpy
- Grashof number
- Heat is heat capacity times temperature change
- Heat of combustion via mass
- Heat of vaporization via mass
- Helmholtz free energy via internal energy
- Infinitesimal work in quasistatic process
- Intensive parameters relation
- Internal energy change of ideal gas via temperature
- Internal energy change via heat and work
- Internal energy differential
- Internal energy of ideal gas via temperature
- Internal energy via Helmholtz free energy
- Isentropic speed of sound
- Isobaric molar heat capacity of ideal gas via adiabatic index
- Isochoric and isobaric heat capacities of homogeneous substance
- Isochoric and isobaric heat capacities of ideal gas
- Isochoric molar heat capacity of ideal gas via adiabatic index
- Isochoric molar heat capacity of ideal gas via degrees of freedom
- Laplace pressure of spherical shapes
- Latent heat of fusion via mass
- Mean free path of random motion
- Prandtl number via dynamic viscosity and thermal conductivity
- Pressure and temperature in isochoric process
- Adiabatic process equation via pressure and volume
- Pressure and volume in isothermal process
- Pressure from number density and kinetic energy
- Pressure of ideal gas from height and temperature
- Probability of finding ideal gas molecules in volume
- Probability of ideal gas macrostate
- Quantum isochoric molar heat capacity of solids
- Radiation power via temperature
- Rate of energy conduction through slab
- Relative humidity is ratio of vapor pressure
- Speed of sound in ideal gas
- Temperature derivative via volume derivative
- Temperature is derivative of internal energy
- Total energy transfer is zero in adiabatically isolated system
- Total particle count is sum of occupancies
- Volume and temperature in isobaric process
- Volumetric and linear expansion coefficients in isotropic materials
- Volumetric expansion coefficient of ideal gas
- Work is integral of pressure over volume
- Work of ideal gas in isobaric process
- Work of ideal gas in isothermal process