Liquid metal plasma-facing components (PFCs) provide numerous potential advantages over solid-material components. One critique of the approach is the relatively less developed technologies associated with deploying these components in a fusion plasma-experiment. Exploration of the temperature limits of liquid lithium PFCs in a tokamak divertor and the corresponding consequences on core operation are a high priority informing the possibilities for future liquid lithium PFCs. An all-metal NSTX-U is envisioned to make direct comparison between all high-Z wall operation and liquid lithium PFCs in a single device. By executing the all-metal upgrades incrementally, scientific productivity will be maintained while enabling physics and engineering...
To develop realistic liquid lithium divertors for future fusion reactors, this paper aims to improve...
Lithium as a plasma-facing material has attractive features, including a reduction in the recycling ...
The design and implementation of future flowing liquid-lithium plasma-facing components (LLPFCs) wil...
Liquid metal plasma-facing components (PFCs) provide numerous potential advantages over solid-materi...
In this work, a conceptual design for a pre-filled liquid lithium divertor target for the National S...
AbstractIn this work, a conceptual design for a pre-filled liquid lithium divertor target for the Na...
Developing a reactor compatible divertor has been identified as a particularly challenging technolog...
Liquid metal walls have been proposed to address the first wall challenge for fusion reactors. The L...
The use of low atomic number liquid metals has been shown to have the potential to solve many of the...
Recent NSTX high power divertor experiments have shown significant and recurring benefits of solid l...
Flowing liquid metal PFCs offer an attractive solution to the problems currently facing conventional...
As the fusion research community trends toward building larger and hotter devices, evidence points t...
For DEMO and beyond, liquid metal plasma-facing components are considered due to their resilience to...
To develop realistic liquid lithium divertors for future fusion reactors, this paper aims to improve...
Lithium as a plasma-facing material has attractive features, including a reduction in the recycling ...
The design and implementation of future flowing liquid-lithium plasma-facing components (LLPFCs) wil...
Liquid metal plasma-facing components (PFCs) provide numerous potential advantages over solid-materi...
In this work, a conceptual design for a pre-filled liquid lithium divertor target for the National S...
AbstractIn this work, a conceptual design for a pre-filled liquid lithium divertor target for the Na...
Developing a reactor compatible divertor has been identified as a particularly challenging technolog...
Liquid metal walls have been proposed to address the first wall challenge for fusion reactors. The L...
The use of low atomic number liquid metals has been shown to have the potential to solve many of the...
Recent NSTX high power divertor experiments have shown significant and recurring benefits of solid l...
Flowing liquid metal PFCs offer an attractive solution to the problems currently facing conventional...
As the fusion research community trends toward building larger and hotter devices, evidence points t...
For DEMO and beyond, liquid metal plasma-facing components are considered due to their resilience to...
To develop realistic liquid lithium divertors for future fusion reactors, this paper aims to improve...
Lithium as a plasma-facing material has attractive features, including a reduction in the recycling ...
The design and implementation of future flowing liquid-lithium plasma-facing components (LLPFCs) wil...