We examine the creation of electron-positron pairs in a very strong force field. Using numerical solutions to quantum field theory we calculate the spatial and momentum probability distributions for the created particles. A comparison with classical mechanical phase space calculations suggests that despite the fully relativistic and quantum mechanical nature of the matter creation process, most aspects can be reproduced accurately in terms of classical mechanics
We study the creation of electron-positron pairs induced by two spatially separated electric fields ...
Ultra strong electromagnetic fields can lead to spontaneous creation of single or multiple electron–...
International audienceQED effects are known to occur in a strong laser pulse interaction with a coun...
We use a simplified essential state model to compare two quantum field theoretical approaches to stu...
We examine the spontaneous breakdown of the matter vacuum triggered by an external force of arbitrar...
The simultaneous creation of multiple electron-positron pairs by localized strong electric fields is...
Using numerical solutions to quantum field theory, the creation of boson-antiboson pairs from the va...
Based on space-time-resolved solutions to relativistic quantum field theory we illustrate interpreta...
We examine the creation and annihilation dynamics for electron-positron pairs in a time-dependent bu...
We study the creation of electron-positron pairs from the vacuum induced by two spatially displaced ...
We study the creation of electron-positron pairs from the vacuum induced by a combination of a stati...
The common tunneling picture of electron-positron pair creation in a strong electric field is genera...
We examine the mathematical solutions of the Dirac equation to predict the spontaneous electron-posi...
We propose a computational quantum field theoretical approach to obtain a microscopic insight into t...
We propose a computational quantum field theoretical approach to obtain a microscopic insight into t...
We study the creation of electron-positron pairs induced by two spatially separated electric fields ...
Ultra strong electromagnetic fields can lead to spontaneous creation of single or multiple electron–...
International audienceQED effects are known to occur in a strong laser pulse interaction with a coun...
We use a simplified essential state model to compare two quantum field theoretical approaches to stu...
We examine the spontaneous breakdown of the matter vacuum triggered by an external force of arbitrar...
The simultaneous creation of multiple electron-positron pairs by localized strong electric fields is...
Using numerical solutions to quantum field theory, the creation of boson-antiboson pairs from the va...
Based on space-time-resolved solutions to relativistic quantum field theory we illustrate interpreta...
We examine the creation and annihilation dynamics for electron-positron pairs in a time-dependent bu...
We study the creation of electron-positron pairs from the vacuum induced by two spatially displaced ...
We study the creation of electron-positron pairs from the vacuum induced by a combination of a stati...
The common tunneling picture of electron-positron pair creation in a strong electric field is genera...
We examine the mathematical solutions of the Dirac equation to predict the spontaneous electron-posi...
We propose a computational quantum field theoretical approach to obtain a microscopic insight into t...
We propose a computational quantum field theoretical approach to obtain a microscopic insight into t...
We study the creation of electron-positron pairs induced by two spatially separated electric fields ...
Ultra strong electromagnetic fields can lead to spontaneous creation of single or multiple electron–...
International audienceQED effects are known to occur in a strong laser pulse interaction with a coun...