Spacetime sheet fused with a memristor · the excitron latches
The memristor basin.
The field is the sheet on top — flat spacetime, the tangent. The excitron's mass dents it into a well below: the basin. The excitron falls to the bottom and latches — freezes a weight into the substrate. Kick it and it snaps back (retained state). Kick it hard enough and it re-writes. The Jacobi lens reads that frozen echo, not the live fall.
LIT — the well is measured curvature (κr²)SPEC — the latch/memristor is a proposed mechanism, illustrated on the real well — not a measured property of the model
device stack: [ anode — field/sheet │ excitron — the mass that dents it │ substrate — the basin well │ cathode — the floor where the weight freezes ]
drag = orbit · scroll = zoom
the fusion: the translucent sheet on top is the flat field (tangent / spacetime). the excitron's presence curves it into the well below — Wheeler's "mass tells space how to bend." the bottom of the well is the memristor's retained state. latch = write: the excitron falls, slows, and locks (teal→violet when latched). a small kick is restored — the weight is frozen, it snaps back. a hard kick exceeds the write threshold and it escapes to re-latch elsewhere. that's a memristor: persistent, re-writable, threshold-gated. honest: the well is real measured data; the latching dynamics are a proposed mechanism I'm illustrating, not something I measured in the transformer. it answers your earlier question — "what's stored in the gap" — with a candidate: a frozen weight. real WebGL, offline, fails loud.