The application of liquid metal technology in fusion devices requires R&D related to many phenomena: interaction between liquid metals and structural material as corrosion, erosion and passivation techniques; magneto-hydrodynamics; free surface fluid-dynamics and any other physical aspect that will be needed for their safe reliable operation. In particular, there is a significant shortage of experimental facilities dedicated to the development of the lithium technology. In the framework of the TECHNOFUSION project, an experimental laboratory devoted to the lithium technology development is proposed, in order to shed some light in the path to IFMIF and the design of chamber's first wall and divertors. The conceptual design foresee a developm...
Liquid metal walls have been proposed to address the first wall challenge for fusion reactors. The L...
Liquid metal plasma-facing components (PFCs) provide numerous potential advantages over solid-materi...
AbstractIn this work, a conceptual design for a pre-filled liquid lithium divertor target for the Na...
AbstractThe TechnoFusión project involves the construction of a relevant set of scientific-technical...
The Technofusion project involves the construction of a relevant set of scientific technical facilit...
The liquid metal shield laboratory (LiMeS-Lab) will provide the infrastructure to develop, test, and...
The design and implementation of future flowing liquid-lithium plasma-facing components (LLPFCs) wil...
A new concept of a Liquid Lithium Fusion Reactor and the first experimental results were presented a...
In this work, a conceptual design for a pre-filled liquid lithium divertor target for the National S...
Liquid metal (LM) divertors are considered for the European DEMO reactor, because they may offer imp...
As the fusion research community trends toward building larger and hotter devices, evidence points t...
Solutions for the steady-state power exhaust problem in future fusion reactors (e.g. DEMO) are not a...
The concept of using molten metal as a plasma facing material (PFM) has been widely considered, and ...
The use of low atomic number liquid metals has been shown to have the potential to solve many of the...
Liquid metal walls have been proposed to address the first wall challenge for fusion reactors. The L...
Liquid metal plasma-facing components (PFCs) provide numerous potential advantages over solid-materi...
AbstractIn this work, a conceptual design for a pre-filled liquid lithium divertor target for the Na...
AbstractThe TechnoFusión project involves the construction of a relevant set of scientific-technical...
The Technofusion project involves the construction of a relevant set of scientific technical facilit...
The liquid metal shield laboratory (LiMeS-Lab) will provide the infrastructure to develop, test, and...
The design and implementation of future flowing liquid-lithium plasma-facing components (LLPFCs) wil...
A new concept of a Liquid Lithium Fusion Reactor and the first experimental results were presented a...
In this work, a conceptual design for a pre-filled liquid lithium divertor target for the National S...
Liquid metal (LM) divertors are considered for the European DEMO reactor, because they may offer imp...
As the fusion research community trends toward building larger and hotter devices, evidence points t...
Solutions for the steady-state power exhaust problem in future fusion reactors (e.g. DEMO) are not a...
The concept of using molten metal as a plasma facing material (PFM) has been widely considered, and ...
The use of low atomic number liquid metals has been shown to have the potential to solve many of the...
Liquid metal walls have been proposed to address the first wall challenge for fusion reactors. The L...
Liquid metal plasma-facing components (PFCs) provide numerous potential advantages over solid-materi...
AbstractIn this work, a conceptual design for a pre-filled liquid lithium divertor target for the Na...