By analyzing an instructive example, for testing many concepts and approaches in quantum mechanics, of a one-dimensional quantum problem with moving infinite square-well, we define geometric phase of the physical system. We find that there exist three dynamical phases from the energy, the momentum and local change in spatial boundary condition respectively, which is different from the conventional computation of geometric phase. The results show that the geometric phase can fully describe the nonlocal character of quantum behavior. © 2007 Elsevier B.V. All rights reserved
The state vector representing a quantum system acquires a phase factor following an adiabatic evolut...
Mixed states typically arise when quantum systems interact with the outside world. Evolution of open...
Using the usual distance function (the Fubini-Study metric) and a new distance function on the proje...
10.1016/j.physleta.2007.08.042Physics Letters, Section A: General, Atomic and Solid State Physics372...
The geometric phase is defined for any arbitrary quantum evolution using a "reference section" of th...
The usual definition of a geometric phase involves particular conditions on the behaviour of the st...
Whenever a classical or quantum system undergoes a cyclic evolution governed by a slow change of pa...
A new approach to the theory of the geometric phase in quantum mechanics, based entirely on kinemati...
A new approach to the theory of the geometric phase in quantum mechanics, based entirely on kinemati...
We cast the nonadiabatic geometric phase in terms of the geometric distance function and the geometr...
We discuss the dynamical phase and the geometric phase in relation to the geometric distance functio...
The geometric phase in quantum mechanics was originally elucidated in the context of the adiabatic t...
Geometric phases, arising from cyclic evolutions in a curved parameter space, appear in a wealth of ...
Aimed at graduate physics and chemistry students, this is the first comprehensive monograph covering...
Geometric phase for novel analytical solutions (Barnes and Das Sarma) of time-dependent two-level qu...
The state vector representing a quantum system acquires a phase factor following an adiabatic evolut...
Mixed states typically arise when quantum systems interact with the outside world. Evolution of open...
Using the usual distance function (the Fubini-Study metric) and a new distance function on the proje...
10.1016/j.physleta.2007.08.042Physics Letters, Section A: General, Atomic and Solid State Physics372...
The geometric phase is defined for any arbitrary quantum evolution using a "reference section" of th...
The usual definition of a geometric phase involves particular conditions on the behaviour of the st...
Whenever a classical or quantum system undergoes a cyclic evolution governed by a slow change of pa...
A new approach to the theory of the geometric phase in quantum mechanics, based entirely on kinemati...
A new approach to the theory of the geometric phase in quantum mechanics, based entirely on kinemati...
We cast the nonadiabatic geometric phase in terms of the geometric distance function and the geometr...
We discuss the dynamical phase and the geometric phase in relation to the geometric distance functio...
The geometric phase in quantum mechanics was originally elucidated in the context of the adiabatic t...
Geometric phases, arising from cyclic evolutions in a curved parameter space, appear in a wealth of ...
Aimed at graduate physics and chemistry students, this is the first comprehensive monograph covering...
Geometric phase for novel analytical solutions (Barnes and Das Sarma) of time-dependent two-level qu...
The state vector representing a quantum system acquires a phase factor following an adiabatic evolut...
Mixed states typically arise when quantum systems interact with the outside world. Evolution of open...
Using the usual distance function (the Fubini-Study metric) and a new distance function on the proje...