The application of liquid metal, especially liquid lithium, as a plasma facing component (PFC) has the capacity to offer a strong alternative to solid PFCs by reducing damage concerns and enhancing plasma performance. The liquid-metal infused trenches (LiMIT) concept is a liquid metal divertor alternative which employs thermoelectric current from either plasma or external heating in tandem with the toroidal field to self-propel liquid lithium through a series of trenches. LiMIT was tested in the linear plasma simulator, Magnum PSI, at heat fluxes of up to 3 MW m-2. Results of these experiments, including velocity and temperature measurements, as well as power handling considerations are discussed, focusing on the 80 shots performed at Magnu...
The use of flowing liquid lithium as a first wall for a reactor has potentially attractive physics a...
To simulate detrimental events in a tokamak and provide a test-stand for a liquid lithium infused tr...
Liquid metal walls have the potential to solve first-wall problems for fusion reactors, such as heat...
The application of liquid metal, especially liquid lithium, as a plasma facing component (PFC) has t...
The use of low atomic number liquid metals has been shown to have the potential to solve many of the...
As the fusion research community trends toward building larger and hotter devices, evidence points t...
The concept of using molten metal as a plasma facing material (PFM) has been widely considered, and ...
To develop realistic liquid lithium divertors for future fusion reactors, this paper aims to improve...
Flowing liquid metal PFCs offer an attractive solution to the problems currently facing conventional...
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...
In a tokamak a part of the energy is deposited as heat in the region called divertor. Liquid metal ...
Part of the development of liquid metals as a first wall or divertor for reactor applications must i...
Liquid metal plasma-facing components (PFCs) provide numerous potential advantages over solid-materi...
The use of flowing liquid lithium as a first wall for a reactor has potentially attractive physics a...
To simulate detrimental events in a tokamak and provide a test-stand for a liquid lithium infused tr...
Liquid metal walls have the potential to solve first-wall problems for fusion reactors, such as heat...
The application of liquid metal, especially liquid lithium, as a plasma facing component (PFC) has t...
The use of low atomic number liquid metals has been shown to have the potential to solve many of the...
As the fusion research community trends toward building larger and hotter devices, evidence points t...
The concept of using molten metal as a plasma facing material (PFM) has been widely considered, and ...
To develop realistic liquid lithium divertors for future fusion reactors, this paper aims to improve...
Flowing liquid metal PFCs offer an attractive solution to the problems currently facing conventional...
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...
In a tokamak a part of the energy is deposited as heat in the region called divertor. Liquid metal ...
Part of the development of liquid metals as a first wall or divertor for reactor applications must i...
Liquid metal plasma-facing components (PFCs) provide numerous potential advantages over solid-materi...
The use of flowing liquid lithium as a first wall for a reactor has potentially attractive physics a...
To simulate detrimental events in a tokamak and provide a test-stand for a liquid lithium infused tr...
Liquid metal walls have the potential to solve first-wall problems for fusion reactors, such as heat...