The liquid metal shield laboratory (LiMeS-Lab) will provide the infrastructure to develop, test, and compare liquid metal divertor designs for future fusion reactors. The main research topics of LiMeS-lab will be liquid metal interactions with the substrate material of the divertor, the continuous circulation and capillary refilling of the liquid metal during intense plasma heat loading and the retention of plasma particles in the liquid metal. To facilitate the research, four new devices are in development at the Dutch Institute for Fundamental Energy Research and the Eindhoven University of Technology: LiMeS-AM: a custom metal 3D printer based on powder bed fusion; LiMeS-Wetting, a plasma device to study the wetting of liquid metals on va...
The application of liquid metals such as gallium, tin and lithium as plasma-facing materials is a po...
Abstract For DEMO and beyond liquid metal plasma facing components are considered due to their resil...
A liquid Li vapour-box divertor is an attractive heat exhaust solution for future fusion reactors. P...
The liquid metal shield laboratory (LiMeS-Lab) will provide the infrastructure to develop, test, and...
The liquid metal shield laboratory (LiMeS-Lab) will provide the infrastructure to develop, test, and...
The application of liquid metal technology in fusion devices requires R&D related to many phenomena:...
AbstractThe TechnoFusión project involves the construction of a relevant set of scientific-technical...
Plasma materials interactions (PMI) in tokamak machines play a crucial role in the overall plasma pe...
The lithium and tin capillary-porous systems (CPSs) were tested with steady-state plasma in the PLM ...
The design and implementation of future flowing liquid-lithium plasma-facing components (LLPFCs) wil...
Liquid metal walls have been proposed to address the first wall challenge for fusion reactors. The L...
\u3cp\u3eFor DEMO and beyond, liquid metal plasma-facing components are considered due to their resi...
The goal of the present thesis is to present the theoretical and experimental results concerning the...
Liquid metal (LM) divertors are considered for the European DEMO reactor, because they may offer imp...
The application of liquid metals such as gallium, tin and lithium as plasma-facing materials is a po...
Abstract For DEMO and beyond liquid metal plasma facing components are considered due to their resil...
A liquid Li vapour-box divertor is an attractive heat exhaust solution for future fusion reactors. P...
The liquid metal shield laboratory (LiMeS-Lab) will provide the infrastructure to develop, test, and...
The liquid metal shield laboratory (LiMeS-Lab) will provide the infrastructure to develop, test, and...
The application of liquid metal technology in fusion devices requires R&D related to many phenomena:...
AbstractThe TechnoFusión project involves the construction of a relevant set of scientific-technical...
Plasma materials interactions (PMI) in tokamak machines play a crucial role in the overall plasma pe...
The lithium and tin capillary-porous systems (CPSs) were tested with steady-state plasma in the PLM ...
The design and implementation of future flowing liquid-lithium plasma-facing components (LLPFCs) wil...
Liquid metal walls have been proposed to address the first wall challenge for fusion reactors. The L...
\u3cp\u3eFor DEMO and beyond, liquid metal plasma-facing components are considered due to their resi...
The goal of the present thesis is to present the theoretical and experimental results concerning the...
Liquid metal (LM) divertors are considered for the European DEMO reactor, because they may offer imp...
The application of liquid metals such as gallium, tin and lithium as plasma-facing materials is a po...
Abstract For DEMO and beyond liquid metal plasma facing components are considered due to their resil...
A liquid Li vapour-box divertor is an attractive heat exhaust solution for future fusion reactors. P...