We construct models of exactly solvable two-particle quantum graphs with certain non-local two-particle interactions, establishing appropriate boundary conditions via suitable self-adjoint realisations of the two-particle Laplacian. Showing compatibility with the Bethe ansatz method, we calculate quantisation conditions in the form of secular equations from which the spectra can be deduced. We compare spectral statistics of some examples to well known results in random matrix theory, analysing the chaotic properties of their classical counterparts
We investigate the equivalence between spectral characteristics of the Laplace operator on a metric ...
Quantum graphs provide a simple model of quantum mechanics in systems with complex geometry and can ...
peer reviewedUnderstanding the emergence of quantum chaos in multipartite systems is challenging in ...
Quantum graphs were first introduced as a simple model for studying quantum mechanics in geometrical...
We present quantum graphs with remarkably regular spectral characteristics. We call them {\it regula...
We present quantum graphs with remarkably regular spectral characteristics. We call them regular qua...
We identify a set of quantum graphs with unique and precisely defined spectral properties called reg...
This chapter is devoted to various interactions between the graph theory and mathematical physics of...
We present an exact analytical solution of the spectral problem of quasi-one-dimensional scaling qua...
We present an exact analytical solution of the spectral problem of quasi-one-dimensional scaling qua...
Quantum graphs are commonly used as models of complex quantum systems, for example molecules, networ...
We show that the quantum single particle motion on a one-dimensional line with Fülöp–Tsutsui point i...
We introduce a real-space version of the Bardeen-Cooper-Schrieffer interaction allowing the investig...
Based on earlier work on regular quantum graphs we show that a large class of scaling quantum graphs...
We study dynamically coupled one-dimensional Bose-Hubbard models and solve for the wave functions an...
We investigate the equivalence between spectral characteristics of the Laplace operator on a metric ...
Quantum graphs provide a simple model of quantum mechanics in systems with complex geometry and can ...
peer reviewedUnderstanding the emergence of quantum chaos in multipartite systems is challenging in ...
Quantum graphs were first introduced as a simple model for studying quantum mechanics in geometrical...
We present quantum graphs with remarkably regular spectral characteristics. We call them {\it regula...
We present quantum graphs with remarkably regular spectral characteristics. We call them regular qua...
We identify a set of quantum graphs with unique and precisely defined spectral properties called reg...
This chapter is devoted to various interactions between the graph theory and mathematical physics of...
We present an exact analytical solution of the spectral problem of quasi-one-dimensional scaling qua...
We present an exact analytical solution of the spectral problem of quasi-one-dimensional scaling qua...
Quantum graphs are commonly used as models of complex quantum systems, for example molecules, networ...
We show that the quantum single particle motion on a one-dimensional line with Fülöp–Tsutsui point i...
We introduce a real-space version of the Bardeen-Cooper-Schrieffer interaction allowing the investig...
Based on earlier work on regular quantum graphs we show that a large class of scaling quantum graphs...
We study dynamically coupled one-dimensional Bose-Hubbard models and solve for the wave functions an...
We investigate the equivalence between spectral characteristics of the Laplace operator on a metric ...
Quantum graphs provide a simple model of quantum mechanics in systems with complex geometry and can ...
peer reviewedUnderstanding the emergence of quantum chaos in multipartite systems is challenging in ...