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libggml + gguf: no Python, no PyTorch at inference time. CPU, CUDA, Metal,
and Vulkan use the same files.| File | Size | Description |
|---|---|---|
zonos1-f16.gguf | 3.25 GB | F16 backbone — lossless from the bf16 checkpoint |
zonos1-q8_0.gguf | 1.77 GB | Q8_0 backbone — recommended; effectively lossless |
zonos1-q4_k.gguf | 0.94 GB | Q4_K backbone — smallest |
dac.gguf | 254 MB | DAC-44 kHz decoder (codes → waveform) |
spk-encoder.gguf | 198 MB | ResNet293-SimAM-ASP speaker encoder (wav → 128-d embedding, for voice cloning) |
| Build | Size | KLD ↓ | Top-1 ↑ |
|---|---|---|---|
| F16 (ref) | 3.25 GB | — | — |
| Q8_0 | 1.77 GB | 0.0004 | 99.2% |
| Q4_K | 0.94 GB | 0.024 | 96.8% |
zonos1-perplexity
tool in zonos1.cpp. Both quants produce clean, ASR-verified audio end-to-end; Q8_0 is
the recommended default, Q4_K when memory is tight.start-zonos1 launcher that downloads these files automatically and opens the web UI —
no manual setup. Or fetch them yourself and run the tools directly:1zonos1-cli zonos1-q8_0.gguf --tts "Hello, world." out.wav \
2 --dac dac.gguf --gpu --seed 1--clone voice.mp3 (with spk-encoder.gguf next to the backbone) to clone a voice
from a reference clip.zonos1-server mirrors the reference Zonos API — low-latency streaming PCM, an OpenAI
/v1/audio/speech endpoint, in-process voice cloning, continuous batching, and a browser
UI:zonos1-server zonos1-q8_0.gguf --dac dac.gguf --spk-encoder spk-encoder.gguf --gpudac.gguf / spk-encoder.gguf are auto-detected when they sit next to the backbone.)quantize-cli), the desktop app, and the full CLI reference.