REDUCED MODEL — SIMULATION PLATFORM, NOT A REACTOR.
Linear-mirror concept; static reduced plasma + time-stepped weighted alphas via the real Python kernels in your browser.
Particle markers are enlarged; every reading is derived from the run state or declared assumed. Ambience audio is illustrative
(vacuum processes are not audible). No net-energy claim.
TOROIDAL DISPLAY PROJECTION — kernel physics is a LINEAR mirror (z → ring angle)
2D laboratory view (3D rendering unavailable)
The hall is shown as an interactive cross-section.
Every numerical result — sensors, energy chain, particle records, run identity — remains fully available.
Click hotspots to inspect components and sensors; click a particle row for its dossier.
terminal status (green=detected, orange=converted, red=escaped, blue=thermalized); ACTIVE alphas tint white→violet by remaining kernel energy
1 Trail
the particle's last ≤38 KERNEL frame positions; fade = age. Markers/trails are enlarged macro-particles.
3 Fusion flash
at the kernel event coordinate; size ∝ log₁₀(macro-weight); ring is presentation only
1+3 Grid flash + moving dot
a kernel dc_event: the ASSIGNED stage flashes; the dot's decelerating cyan→orange transit is an ILLUSTRATIVE animation of that conversion
2 Bus pulses / lamp
speed & brightness ∝ this frame's instantaneous usable power (LOAD-01 sensor)
2 Plasma brightness
∝ this frame's normalised reaction activity; hot spots at kernel event sites; colours follow the selected DISPLAY SCALE (see colour bar) — never real plasma light
1 Field lines / heatmap
kernel-computed |B| (colour = magnitude); loss cone from kernel angle
4 Swirl filaments, dust, shafts
VIS-layer atmosphere only — no data meaning
4 Toroidal shape
a DISPLAY PROJECTION: the kernel's linear z-axis is bent into a ring
(z → toroidal angle) and every kernel position uses the same mapping. It is presentation, not toroidal
physics; the |B| heatmap and loss cone overlays remain linear-view only.
Laboratory overview
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⚡ Energy conversion chain model output
⚖ Compare runs (same scenario)
Runs the CURRENT experiment configuration at both fidelities in your browser and compares
the resulting identities and energy channels. L0 = ideal upper bound; L1 = loss-aware.
Experiment configuration
Defaults reproduce the canonical lab run. Every field is strictly validated in the kernel.
Fidelity
L2 (field maps) and L3 (WarpX/Geant4 reference) are planned — the kernel refuses to fake them.
Reactor geometry
Plasma
Magnetic field
Simulation resolution
DirectConvert
ΔE = qΔV within the declared model; losses are assumed values (assumed).
Click any component in the hall (or a hotspot in 2D mode) to inspect
it — state, connected sensors, related equations and fidelity notes.
Synthetic sensors synthetic —
derived from the run state or declared assumed. Click to view volume + live graph.
Pause and click an alpha marker (or a particle row in
2D mode) to open its full dossier.
