Experiments
Experiments glossary term

Fast Liner Experiment

Pioneered electromagnetic solid liner compression of gun-injected plasma targets.

Experiments Also: Fast Liner Experiment, fast-liner-experiment, LASL Fast Liner, Fast Liner Has Dossier → 2 sources

01 Definition

LASL (Los Alamos Scientific Laboratory) experiment (1977) using magnetically imploded aluminum liners to compress plasma. A direct precursor to AFRL's FRCHX (solid liner MTF) and CFS-NM's SLC (liquid metal liner). The Fast Liner also used a coaxial plasma gun for plasma injection, connecting liner and plasma gun technology threads.

02 Detailed_Analysis

The Fast Liner Experiment was an early magneto-inertial fusion concept conducted at the Los Alamos Scientific Laboratory (LASL) in the late 1970s. The program utilized multi-megampere pulsed currents from fast capacitor banks to magnetically implode thin-walled cylindrical aluminum or copper shells (liners) in approximately one microsecond. These imploding metal liners compressed a pre-injected coaxial gun plasma to thermonuclear densities and kilovolt temperatures, establishing empirical baselines that directly informed both AFRL's solid-liner FRCHX experiment and modern commercial liner fusion concepts.

03 Key_Facts

  • ▸ Conducted at Los Alamos (LASL) in the late 1970s by Sherwood/Inall.
  • ▸ Employed megampere electromagnetic z-pinch forces to implode metallic liners.
  • ▸ Integrated coaxial plasma guns to inject target plasma prior to implosion.
  • ▸ Direct technical precursor to AFRL's Field-Reversed Configuration Liner Experiment.

04 Deep_Dive_Intelligence

Overview

The Fast Liner Experiment at Los Alamos Scientific Laboratory (LASL) was a 1977 experiment that used magnetically imploded aluminum liners to compress plasma for fusion. A 1977 LASL controlled-thermonuclear-research report listed both a 'fast liner experiment' and a 'gun injection experiment.'

Significance

The Fast Liner Experiment is a direct precursor to:

Plasma Gun Connection

The Fast Liner also used a coaxial plasma gun for plasma injection, connecting the liner and plasma gun technology threads. This is significant because it shows that LANL's compact toroid research combined both liner compression and plasma gun formation — the two technology threads that would later diverge into FRCHX (liner) and MARAUDER/HyperJet (plasma guns).

06 Related_Terms (2)

07 Related_Entities (12)

08 Timeline_Mentions (10)

1971

NRL LINUS Liquid Metal Liner Concept

NRL develops the LINUS fusion reactor concept using rotationally stabilized liquid lead-lithium liner. CFS-NM's SLC concept has strong conceptual similarities.

Fusion Physics
1975

Foundational FRC and MTF Research at LANL

Los Alamos National Laboratory (LANL) pioneers research into Field-Reversed Configuration (FRC) and Magnetized Target Fusion (MTF), establishing the scientific pedigree for future compact fusion progr

fusion-physics
1975

LANL FRC/MTF Research Era

Los Alamos National Laboratory pioneers research into Field-Reversed Configurations (FRCs) and Magnetized Target Fusion (MTF).

fusion-physics
1977

Sandia Phi-target Work Published

Sandia National Laboratory publishes early reports on Phi-target work, which remains a primary example of an integrated Magnetized Target Fusion (MTF) experiment.

fusion-physics
1977

LASL Fast Liner Experiment

LASL Fast Liner Experiment using magnetically imploded aluminum liners. Direct precursor to FRCHX and CFS-NM SLC. Also used coaxial plasma gun for injection.

Fusion Physics
1979

PPPL Compact Toruses Symposium

PPPL symposium consolidating compact toroid (FRC/spheromak) research.

fusion-research
1979

MAGO project begins at VNIIEF (Russian nuclear weapons lab)

Russian MTF program at weapons lab. Communist Party decree. Same dual-use pattern as US.

defense-programs
1980

LLNL Beta II Compact Toroid Experiment

LLNL Beta II compact toroid experiment using coaxial plasma gun with LASL features. Second link in three-lab lineage: LANL (CTX) → LLNL (Beta II) → AFRL (MARAUDER).

Fusion Physics
1981

Foundational FRX Paper Published

W. T. Armstrong and others at LANL publish 'Field-reversed experiments (FRX) on compact toroids,' codifying FRC formation physics.

fusion-physics
1981

LANL CTX Spheromak Experiment

LANL CTX using magnetized coaxial plasma gun to generate spheromaks. Foundational node of the three-lab compact toroid lineage.

Fusion Physics
View Full Timeline →

09 FAQ

What is Fast Liner Experiment? ▾
LASL (Los Alamos Scientific Laboratory) experiment (1977) using magnetically imploded aluminum liners to compress plasma. A direct precursor to AFRL's FRCHX (solid liner MTF) and CFS-NM's SLC (liquid metal liner). The Fast Liner also used a coaxial plasma gun for plasma injection, connecting liner and plasma gun technology threads.
Why does Fast Liner Experiment matter? ▾
Pioneered electromagnetic solid liner compression of gun-injected plasma targets.
How does Fast Liner Experiment relate to other concepts? ▾
Fast Liner Experiment is closely related to FRCHX, Compact Toroid. These relationships are documented in the research glossary and cross-referenced with primary source documents.
When did Fast Liner Experiment appear in the research timeline? ▾
Fast Liner Experiment is referenced in 10 timeline events, including "NRL LINUS Liquid Metal Liner Concept" (1971). The timeline provides chronological context for the development and application of this concept.
Which entities are associated with Fast Liner Experiment? ▾
12 entities are associated with Fast Liner Experiment in the network graph, including Air Force Research Laboratory, Dr. Thomas Intrator, Dr. Glen A. Wurden. Explore the network graph for full relationship mapping.
Is there a detailed dossier for Fast Liner Experiment? ▾
Yes, Fast Liner Experiment has a comprehensive intelligence dossier with deep dive analysis, source documents, and network connections. View the full dossier for complete intelligence assessment.

Quick_Facts

Category
Experiments
Aliases
Fast Liner Experiment, fast-liner-experiment, LASL Fast Liner, Fast Liner
Sources
2
Related Terms
2
Graph Entities
12
Timeline Events
10