The use of wide-band-gap solid-state neutron detectors is expanding in environments where a compact size and high radiation hardness are needed, such as spallation neutron sources and next-generation fusion machines. Silicon carbide is a very promising material for use as a neutron detector in these fields because of its high resistance to radiation, fast response time, stability and good energy resolution. In this paper, measurements were performed with neutrons from the ISIS spallation source with two different silicon carbide detectors together with stability measurements performed in a laboratory under alpha-particle irradiation for one week. Some consideration to the impact of the casing of the detector on the detector’s counting rate ...
In the last two decades we have assisted to a rush towards finding a 3He-replacing technology capabl...
Silicon carbide (SiC) semiconductor is an ideal material for solid-state nuclear radiation detectors...
International audienceSilicon carbide (SiC) semiconductor is an idealmaterial for solid-state nuclea...
The presence of carbon atoms in silicon carbide and diamond makes the materials ideal candidates for...
In this work we present the response of a new large volume 4H Silicon Carbide (SiC) detector to 14 M...
International audienceNeutron radiation detector for nuclear reactor applications plays an important...
The presence of carbon atoms in silicon carbide and diamond makes the materials ideal candidates fo...
Silicon Carbide (SiC) is a relatively new entry in the world of solid-state detectors. Although SiC ...
The benefits of neutron detection and spectroscopy with carbon based, wide band gap, semiconductor d...
Harsh radiation environments are characterised by high temperature, high radiation fluence high pres...
A thorough investigation has been carried out in order to determine the suitability of diamond and s...
In 2016, the “E-SiCure” project (standing for “Engineering Silicon Carbide for Border and Port Secur...
Silicon carbide (SiC) is a promising material for neutron detection at harsh environments because of...
In 2016, the NATO Science for Peace and Security Programme funded research project "Engineering Sili...
In the last two decades we have assisted to a rush towards finding a 3He-replacing technology capabl...
Silicon carbide (SiC) semiconductor is an ideal material for solid-state nuclear radiation detectors...
International audienceSilicon carbide (SiC) semiconductor is an idealmaterial for solid-state nuclea...
The presence of carbon atoms in silicon carbide and diamond makes the materials ideal candidates for...
In this work we present the response of a new large volume 4H Silicon Carbide (SiC) detector to 14 M...
International audienceNeutron radiation detector for nuclear reactor applications plays an important...
The presence of carbon atoms in silicon carbide and diamond makes the materials ideal candidates fo...
Silicon Carbide (SiC) is a relatively new entry in the world of solid-state detectors. Although SiC ...
The benefits of neutron detection and spectroscopy with carbon based, wide band gap, semiconductor d...
Harsh radiation environments are characterised by high temperature, high radiation fluence high pres...
A thorough investigation has been carried out in order to determine the suitability of diamond and s...
In 2016, the “E-SiCure” project (standing for “Engineering Silicon Carbide for Border and Port Secur...
Silicon carbide (SiC) is a promising material for neutron detection at harsh environments because of...
In 2016, the NATO Science for Peace and Security Programme funded research project "Engineering Sili...
In the last two decades we have assisted to a rush towards finding a 3He-replacing technology capabl...
Silicon carbide (SiC) semiconductor is an ideal material for solid-state nuclear radiation detectors...
International audienceSilicon carbide (SiC) semiconductor is an idealmaterial for solid-state nuclea...