Statistical thermodynamics uses probability and probability distributions for large collections of particles to reproduce the same properties of macroscopic systems already established by classical thermodynamics. In so doing it can give insights into the why's of thermodynamics. Statistical thermodynamics can utilize the equations of quantum mechanics for interatomic and intermolecular forces to further explain the thermodynamic properties of macroscopic systems of real matter based on what is happening down at the atomic level.
This sounds suspiciously like statistical thermodynamics, a graduate-level chemistry/physics class. You're probably best off consulting a good text, like McQuarrie's Statistical Thermodynamics.
Thermodynamics is primarily concerned with macroscopic processes, such as heat and work interactions at the system level. While thermodynamics does build upon concepts from statistical mechanics for a microscopic understanding, its main focus is on the overall behavior of systems rather than individual particles.
Ludwig Boltzmann was an Austrian physicist known for his work in statistical mechanics and the development of the kinetic theory of gases. He formulated the statistical definition of entropy and made significant contributions to the understanding of the behavior of atoms and molecules in gases. Boltzmann's work laid the foundation for the field of statistical thermodynamics.
One famous scientist who studied thermodynamics is Ludwig Boltzmann. He made significant contributions to the field, including the development of statistical mechanics and the formulation of the famous Boltzmann equation. His work laid the foundation for our understanding of the behavior of gases and the concept of entropy.
Thermodynamics is considered a part of physical chemistry.
Joel Keizer has written: 'Statistical thermodynamics of nonequilibrium processes' -- subject(s): Nonequilibrium thermodynamics, Statistical thermodynamics
Stanley I. Sandler has written: 'Chemical, biochemical, and engineering thermodynamics' -- subject(s): Textbooks, Thermodynamics, Biochemical engineering, Chemical engineering 'An introduction to applied statistical thermodynamics' -- subject(s): Thermodynamics, Statistical thermodynamics, Industrial applications
Robert H. Swendsen has written: 'An introduction to statistical mechanics and thermodynamics' -- subject(s): Statistical mechanics, Thermodynamics
Statistical thermodynamics considers the behavior of a system at the molecular level, while classical thermodynamics deals with macroscopic properties of a system. Statistical thermodynamics connects thermodynamic properties to the behavior of individual particles, using probability distributions. Classical thermodynamics focuses on macroscopic relationships like energy and entropy without considering the individual particles.
D. N. Zubarev has written: 'Statistical mechanics of nonequilibrium processes' -- subject(s): Statistical thermodynamics, Nonequilibrium thermodynamics
Diligent study for a number of years, aided by frequent reference to texts such as Adamson's Physical Chemistry and McQuarrie's Statistical Thermodynamics.
There is a relationship between thermodynamics and statistics. For more detail than you can probably handle, check out the book Statistical Thermodynamics by McQuarrie.
thermodynamics quantum mechanics statistical mechanics kinetics
This sounds suspiciously like statistical thermodynamics, a graduate-level chemistry/physics class. You're probably best off consulting a good text, like McQuarrie's Statistical Thermodynamics.
The main divisions of physics are classical mechanics, thermodynamics and statistical mechanics, electromagnetism, quantum mechanics, relativity, and particle physics.
O. K. Rice has written: 'Progress report on \\' 'Statistical mechanics, thermodynamics and kinetics'
R. Castaing has written: 'Cours de thermodynamique statistique' -- subject(s): Statistical thermodynamics