Before Welvet there was Loom: the exploratory engine where the hard ideas were first tried,
measured, and written up. This is the archive of that work, deep-dive reports and AI-generated audio briefings
that trace how a 3D volumetric experiment became the disciplined engine we ship today.
Loom proved the ideas; Welvet made them dependable. Same mission, sovereign AI on your own hardware,
with the lessons of the research years baked in.
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Loom: the lab
A fast-moving research engine (M-POLY-VTD): a 3D volumetric grid, 21 numeric types, target propagation, and a topological DNA engine. Big swings, published openly.
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The rewrite
Loom's flat package hit honesty walls. Welvet is the clean rebuild: one feature per folder, tests kept out of the engine, and no silent fallbacks.
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Welvet: the engine
Today: 34 numeric types, three backends, and a public 228,054-cell proof run (227,194 OK · 0 FAIL). The research became something you can ship and verify.
Deep research library
Reports and audio briefings
Eleven release-era studies from the Loom lab. Listen in the browser or download the matching PDF. All files are
hosted on files.openfluke.com.
Jul 2026 · 3D Wafer Stacking
Welvet AI engine: 3D wafer stacking & future potential
Architectural exploration of 3D wafer stacking & hardware spatial layout: mapping Welvet's 3D volumetric XYZ step mesh directly to vertical wafer-to-wafer DRAM vaults, eliminating CGO FFI delays with Plan 9 assembly, and enforcing storage truth across 34 dtypes and sub-byte quants.
Welvet numeric demotion: when downcasting dtypes and shrinking models fails to buy wall-clock speed, and what the polymorphic numeric path actually costs on real hardware. Same Dense net across dtype, packed quant, and full weight×activation perm — measured size vs train time.
Weight-agnostic compression: dense matrices collapse to 64-bit layer seeds, with non-differentiable evolutionary search. Edge checkpoints measured in bytes, not megabytes.
Experimental acceleration: Plan 9 SIMD on ARM and x86 (no CGO or CUDA), Apple Metal zero-copy, and Qualcomm Hexagon NPU offload with the Drift Spectrum.
Live ingestion from PyTorch, TensorFlow, JAX, and scikit-learn into portable .entity checkpoints, plus a three-way runtime compare against ONNX Runtime, LiteRT, and Core ML.
Per-layer NPU offload via OpenVINO, the small-tensor latency tax, 28x INT8 wins on large ops, and honest notes on when deterministic hardware still drifts from software.