We investigate the adiabatic evolution of a set of nondegenerate eigenstates of a parametrized Hamiltonian. Their relative phase change can be related to geometric measurable quantities that extend the familiar concept of Berry phase to the evolution of more than one state. We present several physical systems where these concepts can be applied, including an experiment on microwave cavities for which off-diagonal phases can be determined from published data
The theory of geometric phase is generalized to a cyclic evolution of the eigenspace of an invariant...
The geometric phase in quantum mechanics was originally elucidated in the context of the adiabatic t...
We derive, by a biorthonormal state approach, the analogy of Berry's phase factor for open, non-cons...
A wave function picks up, in addition to the dynamic phase, the geometric (Berry) phase when travers...
During the last few years, considerable interest has been focused on the phase that waves accumulate...
Geometric phases play a central role in a variety of quantum phenomena, especially in condensed matt...
We present a formal geometric framework for the study of adiabatic quantum mechanics for arbitrary f...
We define a new unitary operator in the Hubert space of a quantum system which parallel transports t...
Within the adiabatic theorem we must explicitly add to the instantaneous adiabatic vectors, parametr...
If a quantum system evolves in a noncyclic fashion the corresponding geometric phase or holonomy may...
We investigate the phase relation among different eigenstates of a parameterized Hamiltonian evolvin...
Aimed at graduate physics and chemistry students, this is the first comprehensive monograph covering...
The state vector representing a quantum system acquires a phase factor following an adiabatic evolut...
We are accustomed to think the phase of single particle states does not matter. After all, the phase...
We show that the difference of adiabatic phases, that are basis-dependent, in noncyclic evolution of...
The theory of geometric phase is generalized to a cyclic evolution of the eigenspace of an invariant...
The geometric phase in quantum mechanics was originally elucidated in the context of the adiabatic t...
We derive, by a biorthonormal state approach, the analogy of Berry's phase factor for open, non-cons...
A wave function picks up, in addition to the dynamic phase, the geometric (Berry) phase when travers...
During the last few years, considerable interest has been focused on the phase that waves accumulate...
Geometric phases play a central role in a variety of quantum phenomena, especially in condensed matt...
We present a formal geometric framework for the study of adiabatic quantum mechanics for arbitrary f...
We define a new unitary operator in the Hubert space of a quantum system which parallel transports t...
Within the adiabatic theorem we must explicitly add to the instantaneous adiabatic vectors, parametr...
If a quantum system evolves in a noncyclic fashion the corresponding geometric phase or holonomy may...
We investigate the phase relation among different eigenstates of a parameterized Hamiltonian evolvin...
Aimed at graduate physics and chemistry students, this is the first comprehensive monograph covering...
The state vector representing a quantum system acquires a phase factor following an adiabatic evolut...
We are accustomed to think the phase of single particle states does not matter. After all, the phase...
We show that the difference of adiabatic phases, that are basis-dependent, in noncyclic evolution of...
The theory of geometric phase is generalized to a cyclic evolution of the eigenspace of an invariant...
The geometric phase in quantum mechanics was originally elucidated in the context of the adiabatic t...
We derive, by a biorthonormal state approach, the analogy of Berry's phase factor for open, non-cons...