— Magnet Array Lab —
Interactive visualization of all three ring pole arrays with precise alignment patterns. Step-by-step neodymium conditioning sequence — from raw magnet to imprinted SEG component.
POLE MAP OVERVIEW
All 3 rings simultaneously. Note: stator:roller pole mismatch is the engine of self-rotation.
CRITICAL RATIOS — STATOR vs ROLLER POLE COUNTS
| Ring | n | Stator Segs | Poles/Seg | Total Stator Poles | Roller Poles | S:R Ratio |
|---|---|---|---|---|---|---|
| Ring 1 | 1 | 12 | 8 | 96 | 32 | 3:1 |
| Ring 2 | 2 | 16 | 8 | 128 | 32 | 4:1 |
| Ring 3 | 3 | 24 | 8 | 192 | 32 | 6:1 |
| TOTAL | — | 52 | — | 416 | 32 (universal) | 3–6:1 |
Why 32 roller poles?
8 segments × 4 poles. The 8-segment structure prevents static lock — always 4 N/S pairs in tension.
Why different stator counts?
n² scaling. Ring 1 (n=1): 96. Ring 2 (n=2): 128. Ring 3 (n=3): 192. Each ring's stator grows while roller stays 32.
The self-rotation engine
A 3:1 ratio means the roller can never settle into magnetic equilibrium. It is always being nudged forward. This IS the perpetual motion source.
How to read this: Each ring shows its stator pole sequence (N=cyan, S=violet dots on ring arc), plus orbiting rollers. Toggle rings to isolate. Use "Isolate" to focus a single ring. Enable "Poles" to see individual pole dots on stator. Enable "Fields" for ZPE coupling lines. Use the Pole Sequence Strip to step through the unrolled stator pattern segment-by-segment.
LIVE ARRAY
RING TOGGLES + ISOLATION
Ring 1 — Inner Stator
96 stator poles · 12 rollers
12 stator segments × 8 poles = 96 stator poles. 12 rollers × 32 poles = 384 roller poles. Stator:Roller ratio = 3:1.
Ring 2 — Middle Stator
128 stator poles · 16 rollers
16 stator segments × 8 poles = 128 stator poles. 16 rollers × 32 poles = 512 roller poles. Stator:Roller ratio = 4:1.
Ring 3 — Outer Stator
192 stator poles · 24 rollers
24 stator segments × 8 poles = 192 stator poles. 24 rollers × 32 poles = 768 roller poles. Stator:Roller ratio = 6:1.
ARRAY TOTALS
STATOR POLE SEQUENCE — UNROLLED
Full circumferential pole array laid flat. N/S alternation within each segment, primary polarity alternates per segment.
Cyan (N)
North pole — field exits surface
Violet (S)
South pole — field enters surface
Bright
Active segment (step mode)
Divider
Segment boundary — machined groove