States supported by chaotic open quantum systems fall into two categories: a majority showing instantaneous ballistic decay, and a set of quantum resonances of classically vanishing support in phase space. We present a theory describing these structures within a unified semiclassical framework. Emphasis is put on the quantum diffraction mechanism which introduces an element of probability and is crucial for the formation of resonances. Our main result is boundary conditions on the semiclassical propagation along system trajectories. Depending on whether the trajectory propagation time is shorter or longer than the Ehrenfest time, these conditions describe deterministic escape, or probabilistic quantum decay
Despite considerable progress during the past decades in devising a semiclassical theory for classic...
We study the decaying eigenstates of open chaotic systems in the semiclassical limit, distinguishing...
Proceedings of the conference QMath 11International audienceTwo different ''wave chaotic'' systems, ...
We address the decay in open chaotic quantum systems and calculate semiclassical corrections to the ...
Physical systems are often neither completely closed nor completely open, but instead are best descr...
We elucidate the basic physical mechanisms responsible for the quantum-classical transition in one-d...
A hypothesis about the average phase-space distribution of resonance eigenfunctions in chaotic syste...
We consider quantum decay and photofragmentation processes in open chaotic systems in the semiclassi...
The semiclassical approximation has been the main tool to connect classical and quantum mechanics, a...
We study the resonance (or Gamow) eigenstates of open chaotic systems in the semiclassical limit, di...
This thesis is concerned with the application and extension of semiclassical methods, involving corr...
Compared with the previous version, misprints and typos have been corrected, and the bibliography up...
39 pages, 10 figures Compared with the previous version, we generalized the correspondence between s...
This thesis is concerned with the application and extension of semiclassical methods, involving corr...
We derive a prediction of dynamical tunneling rates from regular to chaotic phase-space regions comb...
Despite considerable progress during the past decades in devising a semiclassical theory for classic...
We study the decaying eigenstates of open chaotic systems in the semiclassical limit, distinguishing...
Proceedings of the conference QMath 11International audienceTwo different ''wave chaotic'' systems, ...
We address the decay in open chaotic quantum systems and calculate semiclassical corrections to the ...
Physical systems are often neither completely closed nor completely open, but instead are best descr...
We elucidate the basic physical mechanisms responsible for the quantum-classical transition in one-d...
A hypothesis about the average phase-space distribution of resonance eigenfunctions in chaotic syste...
We consider quantum decay and photofragmentation processes in open chaotic systems in the semiclassi...
The semiclassical approximation has been the main tool to connect classical and quantum mechanics, a...
We study the resonance (or Gamow) eigenstates of open chaotic systems in the semiclassical limit, di...
This thesis is concerned with the application and extension of semiclassical methods, involving corr...
Compared with the previous version, misprints and typos have been corrected, and the bibliography up...
39 pages, 10 figures Compared with the previous version, we generalized the correspondence between s...
This thesis is concerned with the application and extension of semiclassical methods, involving corr...
We derive a prediction of dynamical tunneling rates from regular to chaotic phase-space regions comb...
Despite considerable progress during the past decades in devising a semiclassical theory for classic...
We study the decaying eigenstates of open chaotic systems in the semiclassical limit, distinguishing...
Proceedings of the conference QMath 11International audienceTwo different ''wave chaotic'' systems, ...