The jellium is a model, introduced by Wigner (Phys Rev 46(11):1002, 1934), for a gas of electrons moving in a uniform neutralizing background of positive charge. Wigner suggested that the repulsion between electrons might lead to a broken translational symmetry. For classical one-dimensional systems this fact was proven by Kunz (Ann Phys 85(2):303–335, 1974), while in the quantum setting, Brascamp and Lieb (Functional integration and its applications. Clarendon Press, Oxford, 1975) proved translation symmetry breaking at low densities. Here, we prove translation symmetry breaking for the quantum one-dimensional jellium at all densities
We modify the "floating crystal" trial state for the classical homogeneous electron gas (also known ...
The phase diagram of quantum electron bilayers in zero magnetic field is obtained using density fun...
Upon increasing the electron density in a quantum wire, the one-dimensional electron system undergoe...
Abstract. The jellium is a model, introduced by Wigner (1934), for a gas of electrons moving in a un...
Setting: quantum statistical mechanics. Charged fermions move on a line, homogeneous neutralizing ba...
Wigner's jellium is a model for a gas of electrons. The model consists of $N$ unit negatively charge...
Quasi one-dimensional systems are systems of particles in domains which are of infinite extent in on...
We study the Wigner crystallization in semiconductor quantum wires within the density-functional app...
Extending on ideas of Lewin, Lieb, and Seiringer [Phys. Rev. B 100, 035127 (2019)], we present a mod...
Quasi 1D systems are systems of particles in domains which are of infinite extent in one direction a...
We study the ground state of a system of spinless electrons interacting through a screened Coulomb p...
We consider the fate of the Wigner crystal state in a two dimensional system of massive Dirac electr...
We studied the structural, dynamical properties and melting of a quasi-one-dimensional system of cha...
We consider temperature-induced melting of a Wigner solid in one dimensional (1D) and two dimensiona...
The simplest possible structural transition that an electronic system can undergo is Wigner crystall...
We modify the "floating crystal" trial state for the classical homogeneous electron gas (also known ...
The phase diagram of quantum electron bilayers in zero magnetic field is obtained using density fun...
Upon increasing the electron density in a quantum wire, the one-dimensional electron system undergoe...
Abstract. The jellium is a model, introduced by Wigner (1934), for a gas of electrons moving in a un...
Setting: quantum statistical mechanics. Charged fermions move on a line, homogeneous neutralizing ba...
Wigner's jellium is a model for a gas of electrons. The model consists of $N$ unit negatively charge...
Quasi one-dimensional systems are systems of particles in domains which are of infinite extent in on...
We study the Wigner crystallization in semiconductor quantum wires within the density-functional app...
Extending on ideas of Lewin, Lieb, and Seiringer [Phys. Rev. B 100, 035127 (2019)], we present a mod...
Quasi 1D systems are systems of particles in domains which are of infinite extent in one direction a...
We study the ground state of a system of spinless electrons interacting through a screened Coulomb p...
We consider the fate of the Wigner crystal state in a two dimensional system of massive Dirac electr...
We studied the structural, dynamical properties and melting of a quasi-one-dimensional system of cha...
We consider temperature-induced melting of a Wigner solid in one dimensional (1D) and two dimensiona...
The simplest possible structural transition that an electronic system can undergo is Wigner crystall...
We modify the "floating crystal" trial state for the classical homogeneous electron gas (also known ...
The phase diagram of quantum electron bilayers in zero magnetic field is obtained using density fun...
Upon increasing the electron density in a quantum wire, the one-dimensional electron system undergoe...