Epithermal neutrons from pulsed-spallation sources have revolutionised neutron science allowing scientists to acquire new insight into the structure and properties of matter. Here, we demonstrate that laser driven fast (∼MeV) neutrons can be efficiently moderated to epithermal energies with intrinsically short burst durations. In a proof-of-principle experiment using a 100 TW laser, a significant epithermal neutron flux of the order of 105 n/sr/pulse in the energy range of 0.5-300 eV was measured, produced by a compact moderator deployed downstream of the laser-driven fast neutron source. The moderator used in the campaign was specifically designed, by the help of MCNPX simulations, for an efficient and directional moderation of the fast ne...
Neutrons make it possible to probe matter in a unique and valuable way compared to what is possible ...
High-flux, high-repetition-rate neutron sources are of interest in studying neutron-induced damage p...
A compact high-flux, short-pulse neutron source would have applications from nuclear astrophysics to...
Epithermal neutrons from pulsed-spallation sources have revolutionised neutron science allowing scie...
The continued improvement of high power laser technologies is recasting the prospects of smallscale ...
Development of intense neutron sources driven by laser will enable a range of scientific investigati...
Neutrons are unique particles to probe samples in many ?elds of research ranging from biology to mat...
Neutrons are a unique tool to alter and diagnose material properties and excite nuclear reactions wi...
Due to their unique interaction with matter, neutrons are an interesting research and diagnostic ins...
The scientific and technical advances continue to support novel discoveries by allowing scientists t...
Neutron production with laser-driven neutron sources was demonstrated. We outline the basics of lase...
Neutron beams, both pulsed and continuous, are a powerful tool in a wide variety of research fields ...
The production of neutron beams having short temporal duration is studied using ultraintense laser p...
Highly anisotropic, beam-like neutron emission with peak flux of the order of109 n/sr was obtained f...
Neutrons make it possible to probe matter in a unique and valuable way compared to what is possible ...
High-flux, high-repetition-rate neutron sources are of interest in studying neutron-induced damage p...
A compact high-flux, short-pulse neutron source would have applications from nuclear astrophysics to...
Epithermal neutrons from pulsed-spallation sources have revolutionised neutron science allowing scie...
The continued improvement of high power laser technologies is recasting the prospects of smallscale ...
Development of intense neutron sources driven by laser will enable a range of scientific investigati...
Neutrons are unique particles to probe samples in many ?elds of research ranging from biology to mat...
Neutrons are a unique tool to alter and diagnose material properties and excite nuclear reactions wi...
Due to their unique interaction with matter, neutrons are an interesting research and diagnostic ins...
The scientific and technical advances continue to support novel discoveries by allowing scientists t...
Neutron production with laser-driven neutron sources was demonstrated. We outline the basics of lase...
Neutron beams, both pulsed and continuous, are a powerful tool in a wide variety of research fields ...
The production of neutron beams having short temporal duration is studied using ultraintense laser p...
Highly anisotropic, beam-like neutron emission with peak flux of the order of109 n/sr was obtained f...
Neutrons make it possible to probe matter in a unique and valuable way compared to what is possible ...
High-flux, high-repetition-rate neutron sources are of interest in studying neutron-induced damage p...
A compact high-flux, short-pulse neutron source would have applications from nuclear astrophysics to...