We develop a statistical description of chaotic wave functions in closed systems obeying arbitrary boundary conditions by combining a semiclassical expression for the spatial two-point correlation function with a treatment of eigenfunctions as Gaussian random fields. Thereby we generalize Berry’s isotropic random wave model by incorporating confinement effects through classical paths reflected at the boundaries. Our approach allows one to explicitly calculate highly nontrivial statistics, such as intensity distributions, in terms of usually few short orbits, depending on the energy window considered. We compare with numerical quantum results for the Africa billiard and derive nonisotropic random wave models for other prominent confinement g...
We study chaotic eigenfunctions in wedge-shaped and rectangular regions using a generalization of Be...
We semiclassically derive the leading off-diagonal correction to the spectral form factor of quantum...
The structure of wavefunctions strongly depends on the underlying classical dynamics. We illustrate...
We develop a statistical description of chaotic wave functions in closed systems obeying arbitrary b...
We present an improved version of Berry's ansatz able to incorporate exactly the existence of bounda...
We show how two-point correlation functions recently derived within non-isotropic random wave models...
We present a semiclassical approach to eigenfunction statistics in chaotic and weakly disordered qua...
We present an improved version of Berry's ansatz able to incorporate exactly the existence of bounda...
We present a novel approach to study the statistical properties of eigenfunctions in quantum systems...
In this work we shall test predictions of random wave models with microwave experiments. In wave or ...
Starting with Berry's hypothesis for fixed energy waves in a classically chaotic system, and casting...
We describe a novel approach for computing wave correlation functions inside finite spatial domains ...
We study chaotic eigenfunctions in wedge-shaped and rectangular regions using a generalization of Be...
We study wave transport through a chaotic quantum billiard attached to two waveguides via barriers o...
Chaotic Hamiltonians are known to follow Random Matrix Theory (RMT) ensembles in the apparent random...
We study chaotic eigenfunctions in wedge-shaped and rectangular regions using a generalization of Be...
We semiclassically derive the leading off-diagonal correction to the spectral form factor of quantum...
The structure of wavefunctions strongly depends on the underlying classical dynamics. We illustrate...
We develop a statistical description of chaotic wave functions in closed systems obeying arbitrary b...
We present an improved version of Berry's ansatz able to incorporate exactly the existence of bounda...
We show how two-point correlation functions recently derived within non-isotropic random wave models...
We present a semiclassical approach to eigenfunction statistics in chaotic and weakly disordered qua...
We present an improved version of Berry's ansatz able to incorporate exactly the existence of bounda...
We present a novel approach to study the statistical properties of eigenfunctions in quantum systems...
In this work we shall test predictions of random wave models with microwave experiments. In wave or ...
Starting with Berry's hypothesis for fixed energy waves in a classically chaotic system, and casting...
We describe a novel approach for computing wave correlation functions inside finite spatial domains ...
We study chaotic eigenfunctions in wedge-shaped and rectangular regions using a generalization of Be...
We study wave transport through a chaotic quantum billiard attached to two waveguides via barriers o...
Chaotic Hamiltonians are known to follow Random Matrix Theory (RMT) ensembles in the apparent random...
We study chaotic eigenfunctions in wedge-shaped and rectangular regions using a generalization of Be...
We semiclassically derive the leading off-diagonal correction to the spectral form factor of quantum...
The structure of wavefunctions strongly depends on the underlying classical dynamics. We illustrate...