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SEBK4C/Ornith-1.0-397B-Featherweight
Ornith-1.0-397B-Featherweight is a text generation model from SEBK4C. Use it when you need the model to write or continue text. The card lists the license as mit.
397B-parameter, 512-expert MoE compressed to 2.41 bits/weight, verified against its own FP8 original on a frozen 604-case behavioral suite: function-calling 0.91, multi-turn tool use 1.00, code 0.98, composite S = 0.9…
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From the Hugging Face model README
397B-parameter, 512-expert MoE compressed to 2.41 bits/weight, verified against its own FP8 original on a frozen 604-case behavioral suite: function-calling 0.91, multi-turn tool use 1.00, code 0.98, composite S = 0.9258 (vs FP8's 0.8693 under a bare protocol — read the paper before quoting the comparison).
The base model, deepreinforce-ai/Ornith-1.0-397B,
is a state-of-the-art open agentic-coding model (per DeepReinforce: SWE-bench Verified 82.4,
Terminal-Bench 2.1 ~78, competitive with 1.6 T and frontier closed models — their
benchmarks). This repo makes that
model runnable on consumer hardware and proves the behavior survives compression; the
capability numbers are DeepReinforce's, the fidelity numbers are ours (paper has both).
<sub>Base-model capability benchmarks — DeepReinforce's published evaluation, reproduced for context (not re-run by us).</sub>
How it was made, validated, and every dead-end (~100 hours of autonomous ratchet research): → PAPER.md · research report · harness + goldens + journal. This page is only what you need to host it.
| File | Size | sha256 |
|---|---|---|
Ornith-1.0-397B-Featherweight-v0.gguf | 119,517,476,064 B | 1499c2f2d84dcdbb4c243371522cc8f98ca4a76a0bc2f1e4801b9f64f0c57dc2 |
Ornith-1.0-397B-Featherweight-serve.llamafile | 320 MB | 9a1b095bbca37661cc3903e9a3369f0ccc162b0731a845f40f8618148005ad2d |
featherweight-autotune.sh | 4 KB | launcher — probes your machine, computes tuned flags |
serving.args / recipe.yaml | — | reference flags (per-flag rationale) / exact quant recipe |
Just run the autotuner. It probes your GPUs/RAM/cores, picks the fastest engine you have installed, and computes offload/context/thread flags from the measured serving laws — then launches. One command, any machine:
./featherweight-autotune.sh # add --dry-run to see the computed command first
That's the whole story for most people. The details below are only if you want to drive the engines yourself.
| Tier | When | Speed | How |
|---|---|---|---|
| llama.cpp + cuBLAS ★ | NVIDIA + llama-server installed (≥4fc4ec55, qwen3_5_moe) | full (18.5 t/s ref) | autotune selects it; or llama-server -m …gguf $(grep -vE '^\s*(#|$)' serving.args|tr '\n' ' ') |
| llamafile Metal | Apple Silicon | good (unified-memory bound) | autotune, or bare ./…serve.llamafile |
| llamafile CPU | anything, no deps | RAM-bandwidth bound | bare ./…serve.llamafile (portable defaults) |
llamafile --gpu nvidia | NVIDIA, no llama.cpp | ⚠ compatibility only (~2–3 t/s, driver tinyBLAS) | last resort — install llama.cpp instead |
Bare zero-install boot (no dependencies, portable-safe defaults — serves the OpenAI API on
:8080; append your own -ngl/-ts/--n-cpu-moe or just use autotune):
chmod +x Ornith-1.0-397B-Featherweight-serve.llamafile && ./Ornith-1.0-397B-Featherweight-serve.llamafile
On NVIDIA, install llama.cpp — the llamafile's driver-only CUDA (tinyBLAS) is a compatibility fallback: ~7× slower than cuBLAS and occasionally fails to initialize. It exists so the file runs everywhere, not so it runs fast. A self-contained binary with in-process autotune (like the sibling gemma-4 llamafile) is on the roadmap — it needs that fork's bundled llama.cpp rebuilt against
qwen3_5_moe.
| Hardware | Engine | Decode tok/s | Prefill tok/s |
|---|---|---|---|
| 2×RTX 4090 · 90 GB DDR5 · Gen5 NVMe ★ recommended | llama.cpp | 18.5 measured (17–19) | 717 measured (650–750) |
| same box | llamafile --gpu nvidia | 2.6 measured | ~5 |
| same box, bare llamafile (CPU, cold) | llamafile | 2.0 measured | ~4 |
| 1×12 GB GPU · 128 GB DDR4 · Gen4 | llama.cpp | 5–9 predicted ±40% | 60–150 predicted |
| Apple M5 Pro · 120 GB unified | Metal | 12–25 predicted ±50% | 100–250 predicted |
| Apple Max/Ultra · ≥128 GB | Metal | 25–45 predicted ±50% | 200–400 predicted |
| 12-channel DDR5 server · CPU-only | llama.cpp | 15–25 predicted ±40% | 150–300 predicted |
Predictions follow the serving law (decode ≈ RAM bandwidth ÷ ~1.5 GB streamed/token; paper § "Run it yourself"). The ± ranges are honest priors, not measurements — post your rig's numbers via the 7-step smoke checklist (paper) to the results thread and this table tightens.
2×24 GB GPUs + ≥90 GB fast RAM + NVMe — the verified reference class (the box the whole research program ran on). Below that it still works: RAM size decides fit (≥120 GB comfortable; less streams from SSD), RAM bandwidth decides decode speed, GPUs mostly buy prefill plus a decode bonus from expert offload.
--port N to change); any flag you append overrides the
baked defaults — last value wins.--n-cpu-moe 60, no -ts. Autotune OOM? FEATHERWEIGHT_GPU_LAYERS=8 ./featherweight-autotune.sh.sudo sysctl iogpu.wired_limit_mb=<RAM_MB×0.94>.--reasoning-budget 1024.<function=…> XML in content —
parse it or tool benchmarks read as zero. llama.cpp --jinja handles it natively. (Also:
vLLM currently lacks SM120 FP8-MoE kernels — on workstation Blackwell use SGLang.)This is a derivative work standing entirely on others' shoulders — please credit them too:
deepreinforce-ai/Ornith-1.0-397B
and its FP8 release by
DeepReinforce — MIT-licensed weights of a
genuinely impressive 397B agentic MoE. None of this exists without them.MIT (base model MIT). Full provenance, licensing table, eval harness, FP8 goldens, and the append-only research journal live in SEBK4C/molt-ornith-eval.