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AbstractPhil/geolip-aleph-qwen
geolip-aleph-qwen is a machine learning model from AbstractPhil. Use it for the machine learning task on the model card, and read the license before you ship it in a product. It is set up for pytorch. The card lists the license as mit.
The AlephLM generation stake: composing the certified components of the GeoLIP aleph program into a utilizable generation structure on a real pretrained substrate. Successor to geolip-aleph-differentiation (exp011–exp…
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From the Hugging Face model README
The AlephLM generation stake: composing the certified components of the GeoLIP aleph program into a utilizable generation structure on a real pretrained substrate. Successor to geolip-aleph-differentiation (exp011–exp021, now on hold), whose measurement program produced the design rules this repo spends. Experiment numbering restarts at 1.
| component | what it is | certified by |
|---|---|---|
| Substrate | Qwen2.5-0.5B, frozen | the strongest prior result in the program is the frozen-trunk retrofit: GPT-2 124M ppl 38.65 → 26.53 through aleph relays, beating param-matched adapters 2/2 seeds (exp013) |
| Aleph relay stack | multi-slot M̂ read after each block, near-zero gated residual (gate init −3.0) | exp013 (gates grow ~3× — the trunk opts in; no init stabilization needed), exp020 (no cost in depth) |
| Discrete interface | the sign-code tap: winner half-axis + orientation per slot — the aleph logit as a cacheable, transmissible conditioning surface | sign ≥ soft in 12/12 pretrained-substrate cells (exp013); task parity (exp012) |
| Persistent registry | write-time-frozen aleph key encoder + external KV store — fact memory that later training cannot erase, by construction | exp021: addresses drift with the live trunk (72–91% key scrambling; key-path freezing changes nothing) — the frozen keyer is the requirement the data forced |
| Content pipe | weak→strong logit distillation for filling students/adapters | exp019: zero-to-negative distillation tax; better than ground truth on structured content 2/2 seeds |
Design rules inherited from the closed line: pure Adam wd=0 on geometric paths; decoders read M̂ never M; slot-parallel reconstructive consumption (the collapse cure); CV is a readout; drift-check before any freeze; ≥2 seeds before any claim; every package ships standalone with a self-asserting results builder.
exp001_relay — the relay retrofit at 0.5B ✅: frozen 17.798 → relay 14.09 / matched-MLP 13.93 (−21% ppl at <0.6% trainable, 2 seeds, replication <0.02). The GPT-2 ppl ordering inverts (substrate-scoped) while the gate mechanism replicates (relay gates grow 0.047→0.081, MLP gates shrink) — the gate-vs-ppl dissociation, certified at two substrates.
exp002_refine — refining the relay ✅: the aleph-addressed patchwork consumer wins (13.997 mean, 2 seeds, first relay under 14); width/strobe saturated; coverage beats concentration (−0.48); the wide MLP diverges 1/2 seeds vs 0% across all relay variants; ordering budget-stable at 6k steps (2 seeds).
exp003_instruct — instruct tasks + register differentiation ✅: hallucination reduction quantified (specialist grounding 0.979/0.958 vs frozen 0.542 — >10× fewer failures); register capture found (a single-task specialist answers every register in its own; perfect JSON, 0.0 task-validity); multi-task resolves it (all registers ≥0.875); the register-differentiation hypothesis confirmed on the sign-code surface (~2× deep-layer separation vs a wikitext-trained stack, 2 seeds) — the gauge only the aleph relay exposes.
exp004_composite — composite construction gate ✅ (two acts, both ledgered): combination-scene targets from the fused datasets (qwen-deepfashion-fused, qwen-synth-characters-fused). Act 1: packed-window training teaches the ~3k-token composite register flawlessly (json_error 0.0 vs frozen 0.833) but never teaches stopping (truncated 1.000; still 0.938 with the cap lifted — true rows average 4.3k tokens, so 1024-token windows almost never contain an ending). Act 2: row-aligned SFT fixes it completely — structural_ok 1.000 (16/16), every failure bucket 0.0. Termination is a property of sample semantics, not the adapter stack. Honest caveats: entity over-emission 1.67×, grounding-lite 0.062 — construction solved, faithfulness is the next target. Ships the long-sequence memory rider (gradient checkpointing + chunked CE; 66 GB spill → 8.8 GB peak).
exp005_taskmoe — multi-anchor task-MoE ✅ (with its own capacity control): the routed composite of three frozen register specialists + one trainable anchor serves all registers (0.875/1.0/1.0) under dense signed dispatch — but the control decides attribution: random frozen stacks match (0.979/0.979/1.0), so at register distance the specialists were passengers (the monolith-capacity trainable anchor carries; specialists may mildly interfere). No routing collapse (usage_ppl 3.7–3.9 of 4, 4/4 paths).
exp006_story — story anchors, 4 request methods ✅: continuation/instruct/JSON registers all 1.0 (frozen 0.67/0.83/0.83), but the checkable keyword constraint stays at 0.083 — unmoved from frozen: format learning ≠ constraint compliance (teacher forcing makes ignorable instructions unlearned). Strong register separation (0.46 @L8).
exp007_math — math anchors, 4 ask-methods ✅: format locks in 4/4 (frozen nl format 0.312), no correctness tax, and held-out f(x) evaluation improves 0.688 → 0.938. With exp006 this yields the predictability principle: the LM loss teaches exactly what target-token predictability demands — answers force using the question; story keywords are ignorable.
exp008_tokendiff — CIFAR-10 discrete token diffusion through a gated adapter (feasibility gate): the frozen trunk + 5.5M adapter learns a genuine class-conditional discrete denoiser — beats the identity baseline at every corruption level (0.527 vs 0.252 at t=0.75; 0.378 vs 0.002 at pure noise). Greedy iterative decoding mode-collapses to the modal (all-dark) image — the ledgered v1 sampler lesson; stochastic-sampling amendment included.
exp009_family — THE FAMILY ✅ (the flagship): six anchors — five frozen specialists (3 registers, story, math) + one trainable — under one dense signed dispatch serve 11 sub-competences at ~specialist level through a single routed model. Domain-level dispatch specialization without a selector (story prompts: 0.82 usage on the story anchor) and surgical modular decoupling both directions (story-off kills story, math stays perfect; math-off degrades math, story untouched). With exp005's control: the two-regime dispatch law — anchors specialize-and-carry at domain distance, blend into redundancy at register distance, and the sign-code register probe's separation predicts the regime in advance.
exp010 — seed-2 ablations (folded into the packages above as amendments): the two-regime dispatch law certified on two seeds (story usage 0.821 vs 0.820; surgical decoupling both directions, both seeds), with the register-level control's verdict amended honestly: the seed-0 MATCH was seed-dependent — at seed 1 the random-stack control falls (0.917/0.708/0.563) while the real-specialist composite holds (0.938/1.0/1.0). Specialists confer seed-robustness. The preregistered OOD-band cell confirmed: the tokendiff anchor draws 0.918 usage (predicted >0.9 before the run), and the routed family preserves the standalone denoiser to the third decimal.
exp011_newanchors — masked-infill + sentence similarity ✅: the infill anchor beats a real frozen-LM floor by +18/+14/+10 points across corruption rates; the similarity anchor reaches 0.494 recall@1 over 465 distractors (frozen 0.054, lexical 0.073) — and the aleph-native headline: sign-code Hamming retrieval at 0.359 on the trained stack (0.023 before training) — contrastive pressure reorganized the discrete surface itself. The absolute-objective arm (recon_target) works at half strength: a scoped boundary marker for the absolute-vs-comparative doctrine.
exp012_bridges — foreign encoders as anchors ✅: the CLIP bridge is the program's first demonstrated cross-modal conditioning — captions generated under a frozen CLIP image tower score 0.273 against their true image vs 0.170 under shuffled images. The BERT bridge is an honest negative twice over (boilerplate targets, then content-bearing targets against a strong generic prior) — the predictability principle's third datum, and the roster decision it forced is ledgered.
exp013_collective — the grand collective ✅: ten anchors under one dense signed dispatch. Three preregistrations, three confirmations (infill usage 0.549 in the predicted 0.5–0.8 band; simesh a passenger as its 0.22 separation predicted; tokendiff 0.886) — the register probe now calls dispatch regimes before mixtures are built. The full N×N matrix (12 configs × 5 domains vs a frozen reference row) keeps decoupling surgical where anchors carry, and returns two honest boundaries: the hardest extraction register starves at this domain count and budget (a capacity/schedule limit found by pushing limits; remedy arm recorded), and the sub-capacity attribution pair is inconclusive under that same confound. Mixed-batch test: per-row usage tracks each row's domain inside one padded batch — dispatch is per-position, no cross-batch coupling.
exp014_toggles — the toggle registry ✅: span
gating via harness-controlled control tokens (band 33000+, stripped
before the trunk ever sees them — the moe_toggle tool). The mask path
is bit-exact (all-off ≡ freshly loaded frozen trunk, max|Δlogit| = 0;
strip ≡ identity). Per-segment activation beats all-on (1.0 vs 0.875
on the chained math segment — toggling removes mixed-context
interference), the inverted-gating null shows directional damage (0.667)
where the test discriminates, and the three-segment demo
(denoise → describe → compute) ships with its two characterizations:
greedy collapse in the demo path, and denominator damping of solo-toggled
anchors (~1/10 amplitude at ten anchors) — the doctrinal trade-off,
measured.
Each experiment lands in expNNN_*/ with code, README, self-asserting
results builder, ledger, and checkpoints, reproducible from inside its
folder.
The upstream repo holds the laws this build rests on: the consumption law, the address-bottleneck's scope, the projective-codebook law, the KD regime map, heredity-as-robustness, the memorization/generalization inverse law, and the frozen-keyer requirement — each with ledgers, controls, and replication seeds. This repo is where they compound.
MIT. AbstractPhil + Claude Fable 5.
exp010 was the seed-ablation program (staged A/B/C): re-runs of earlier
experiments' cells at a second seed plus preregistered composition
extensions. It had no bed of its own, so its rows shipped as amendments
inside the packages they test (exp005_taskmoe, exp008_tokendiff, ...).
The exp010_seeds/ folder is an index: the A1/A1b verdicts (two-regime
dispatch law certified at 2 seeds; the preregistered OOD-band usage
prediction confirmed at 0.918 vs >0.9) and pointers to every amendment row.