Theory of Cold Atoms: Basics of Quantum Statistics
arXiv:1304.6881 · doi:10.1088/1054-660X/23/6/062001
Abstract
The aim of this Tutorial is to present the basic mathematical techniques required for an accurate description of cold trapped atoms, both Bose and Fermi. The term {\it cold} implies that considered temperatures are low, such that quantum theory is necessary, even if temperatures are finite. And the term {\it atoms} means that the considered particles are structureless, being defined by their masses and mutual interactions. Atoms are {\it trapped} in the sense that they form a finite quantum system, though their number can be very large allowing for the use of the methods of statistical mechanics. This Tutorial is the first part of several tutorials, giving general mathematical techniques for both types of particle statistics. The following tutorials will be devoted separately to Bose atoms and Fermi atoms. The necessity of carefully explaining basic techniques is important for avoiding numerous misconceptions often propagating in literature.
Tutorial
References in corpus (10)
- Many-Body Physics with Ultracold Gases
- Theory of ultracold Fermi gases
- Finite Temperature Models of Bose-Einstein Condensation
- Ultra-cold Polarized Fermi Gases
- Cold Bosons in Optical Lattices
- Basics of Bose-Einstein Condensation
- Fluctuations of composite observables and stability of statistical systems
- The Mathematics of the Bose Gas and its Condensation
- Nonequilibrium representative ensembles for isolated quantum systems
- Difference in Bose-Einstein condensation of conserved and unconserved particles
Cited by in corpus (19)
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- Ground state of a homogeneous Bose gas of hard spheres
- Properties of dipolar bosonic quantum gases at finite temperatures
- Isothermal compressibility determination across Bose-Einstein condensation
- Instability of insulating states in optical lattices due to collective phonon excitations
- Statistical systems with nonintegrable interaction potentials
- Order indices and entanglement production in quantum systems
- Quantum Operation of Affective Artificial Intelligence
- Limitation of the Lee-Huang-Yang interaction in forming a self-bound state in Bose-Einstein condensates
- Models of Mixed Matter
- Optical lattice with heterogeneous atomic density
- Characteristic temperatures of a triplon system of dimerized quantum magnets
- Phonon instability of insulating states in optical lattices
- Saga of Superfluid Solids
- Particle Fluctuations in Mesoscopic Bose Systems
- Nanoscale Phase Separation in Ferroelectric Materials
- Positive operator-valued measures in quantum decision theory