Applying time-dependent driving is a basic way of quantum control. Driven systems show various dynamics as its time scale is changed due to the different amount of nonadiabatic transitions. The fast-forward scaling theory enables us to observe slow (or fast) time-scale dynamics during moderate time by applying additional driving. Here we discuss its application to nonadiabatic transitions. We derive mathematical expression of additional driving and also find a formula for calculating it. Moreover, we point out relation between the fast-forward scaling theory for nonadiabatic transitions and shortcuts to adiabaticity by counterdiabatic driving
Adiabatic protocols are employed across a variety of quantum technologies, from implementing state p...
peer reviewedFast nonadiabatic control protocols known as shortcuts to adiabaticity have found a ple...
The quantum speed limit (QSL) is the theoretical lower limit of the time for a quantum system to evo...
A shortcut to adiabaticity is a driving protocol that reproduces in a short time the same final stat...
Quantum information processing requires fast manipulations of quantum systems in order to overcome d...
A universal scheme is introduced to speed up the dynamics of a driven open quantum system along a pr...
A universal scheme is introduced to speed up the dynamics of a driven open quantum system along a pr...
We investigate the quantum dynamics of many-body systems subject to local (i.e., restricted to a lim...
The adiabatic theorem is a fundamental result in quantum mechanics, which states that a system can b...
Different methods have been recently put forward and implemented experimentally to inverse engineer ...
A system undergoes adiabatic evolution when its population in the instantaneous eigenbasis of its ti...
We extend the concept of superadiabatic dynamics, or transitionless quantum driving, to quantum open...
We work out the theory and applications of a fast quasiadiabatic approach to speed up slow adiabatic...
Adiabatic quantum state evolution can be accelerated through a variety of <i>shortcuts to adiabatici...
Adiabatic protocols are employed across a variety of quantum technologies, from implementing state p...
Adiabatic protocols are employed across a variety of quantum technologies, from implementing state p...
peer reviewedFast nonadiabatic control protocols known as shortcuts to adiabaticity have found a ple...
The quantum speed limit (QSL) is the theoretical lower limit of the time for a quantum system to evo...
A shortcut to adiabaticity is a driving protocol that reproduces in a short time the same final stat...
Quantum information processing requires fast manipulations of quantum systems in order to overcome d...
A universal scheme is introduced to speed up the dynamics of a driven open quantum system along a pr...
A universal scheme is introduced to speed up the dynamics of a driven open quantum system along a pr...
We investigate the quantum dynamics of many-body systems subject to local (i.e., restricted to a lim...
The adiabatic theorem is a fundamental result in quantum mechanics, which states that a system can b...
Different methods have been recently put forward and implemented experimentally to inverse engineer ...
A system undergoes adiabatic evolution when its population in the instantaneous eigenbasis of its ti...
We extend the concept of superadiabatic dynamics, or transitionless quantum driving, to quantum open...
We work out the theory and applications of a fast quasiadiabatic approach to speed up slow adiabatic...
Adiabatic quantum state evolution can be accelerated through a variety of <i>shortcuts to adiabatici...
Adiabatic protocols are employed across a variety of quantum technologies, from implementing state p...
Adiabatic protocols are employed across a variety of quantum technologies, from implementing state p...
peer reviewedFast nonadiabatic control protocols known as shortcuts to adiabaticity have found a ple...
The quantum speed limit (QSL) is the theoretical lower limit of the time for a quantum system to evo...