Fascinating look into the dynamic imaging capabilities at Los Alamos National Lab—essentially, how the U.S. is able to analyze nuclear-level explosive events without actually conducting nuclear tests.
The Lab uses multiple systems to image these high-speed events:
• pRad uses proton radiography to get 20–40 frames of a detonation, with material-level resolution based on density.
• DARHT uses dual-axis x-ray imaging to create 3D snapshots from two angles, ideal for testing whether the computational models built from pRad hold up.
• Scorpius (in development) will take this a step further by using subcritical plutonium in a new accelerator at NNSS, capturing multiple high-resolution frames just nanoseconds apart.
The fact that they can tailor experiments based on frame-by-frame behavior of individual materials under explosive stress feels like the real-world version of “bullet time” physics modeling. The margins of error come down to billionths of a second.
Comments
Fascinating look into the dynamic imaging capabilities at Los Alamos National Lab—essentially, how the U.S. is able to analyze nuclear-level explosive events without actually conducting nuclear tests.
The Lab uses multiple systems to image these high-speed events:
• pRad uses proton radiography to get 20–40 frames of a detonation, with material-level resolution based on density.
• DARHT uses dual-axis x-ray imaging to create 3D snapshots from two angles, ideal for testing whether the computational models built from pRad hold up.
• Scorpius (in development) will take this a step further by using subcritical plutonium in a new accelerator at NNSS, capturing multiple high-resolution frames just nanoseconds apart.
The fact that they can tailor experiments based on frame-by-frame behavior of individual materials under explosive stress feels like the real-world version of “bullet time” physics modeling. The margins of error come down to billionths of a second.
Thank you for contextualizing this. We are truly living in a wild part of the space time continuum.