They cover experimental methods of ultracold atomic physics, theory and experiment with

Bose gas, experiment and theory with the Fermi gases and superfluids, low-dimensional atomic

Bose gases, ultracold atoms and molecules in optical lattices, unitary Fermi gases, and potential insights into non-equilibrium behavior from atomic physics.

Further, we present a new model for description of charged Bose or Fermi liquid via a nonideal Bose gas consisting of charged sound particles.

In fact, the Hamiltonian of system (24) describes an ideal Bose gas consisting of charged spinless phonons at a small wave number k [much less than] 2m[upsilon]/h but at k [much greater than] 2m[upsilon]/h the Hamiltonian operator describes an ideal gas of charged sound particles.

of Parma, Italy) examines the elementary excitations in magnetic periodic structures, the spin waves or magnons, which are shown to behave like an ideal

Bose gas at low temperature and an interacting Bose system at higher temperature.

The motion of "solid particle" describes the longitudinal elastic wave which in turn represents a Bose gas of neutral sound particles with spin 1 with finite mass m.

In fact, the Hamiltonian of system (31) describes an ideal Bose gas consisting of phonons with spin 1 at a small wave number k [much less than] 2m[upsilon]/h but at k [much greater than] 2m[upsilon]/h the Hamiltonian operator describes an ideal gas of sound particles.

In this context, the classical Maxwell equations lead to appearance of the so-called ultraviolet catastrophe; to remove this problem, Planck proposed the model of the electromagnetic field as an ideal

Bose gas of massless photons with spin one.

In 1938, the connection between the ideal Bose gas and superfluidity in helium was first made by London [1].

First, we present new model of a dilute Bose gas with strongly interactions between the atoms, to describe the superfluid liquid helium.

This reasoning is a very important factor in the microscopic investigation of the model non-ideal Bose gas because the presence of a macroscopic number of atoms in the condensate means new excitations in the model Bose-gas for superfluid liquid helium:

where [MATHEMATICAL EXPRESSION NOT REPRODUCIBLE IN ASCII] is the velocity of sound in the Bose gas, and which depends on the density atoms in the condensate [N.

In this context, the classic Maxwell equations lead to appearance of the so-called ultraviolet catastrophe; to remove this problem, Planck proposed modelled the electromagnetic field as an ideal

Bose gas of massless photons with spin one.