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GGUF packages of Ming 3.0 TTS 0.5B for the audio.cpp runtime: speech from text, voice cloning and voice design in seven languages, with mono 44.1 kHz output and no Python runtime. For developers.
Ming 3.0 TTS 0.5B GGUF is a kit in the Developer category, listed by Mindket. It is free. This is version 1, last updated on . Download it on this page, a zip of its files. Nothing in it runs by itself.
pip install -U huggingface_hub hf download audio-cpp/Ming-3.0-TTS-0.5B-GGUF
Ming 3.0 TTS 0.5B is a text-to-speech model, and this repository offers it as GGUF files built for the audio.cpp runtime. Each package bundles everything the model needs, including a Qwen-based backbone, a flow-matching head, an audio autoencoder and a speaker encoder. Output is mono at 44.1 kHz, and no separate codec or Python runtime is needed.
It suits developers who want speech synthesis from a command line, in a small package, in Chinese, English, Japanese, Korean, German, French or Spanish.
| Industry | Who uses it | How they use it | Example |
|---|---|---|---|
| Software | Application developers | Call the command line tool to add spoken output to an app | Reading app messages aloud |
| Media | Content creators | Turn scripts into narration with a designed voice | Narrating a short script |
| Localization | Language teams | Speak the same text in several of the supported languages | Producing French and Spanish versions |
| Research | Speech researchers | Compare the runtime's speed and memory use with the Python code | Checking real-time factor on their own GPU |
If you want a ready-made app with buttons, you can skip it, since this is a command line tool and a model file.
You run it from a terminal with the audio.cpp command line program.
| Use case | Who | What they get back |
|---|---|---|
| Plain text to speech | Developers | A wav file of the text spoken |
| Voice cloning from a reference clip | Creators | A wav file in the reference voice |
| Voice design from a description | Creators | A wav file in a voice you describe in words |
You need the audio.cpp program, which comes from its GitHub project, and one of the two model files. The card gives no build steps for audio.cpp.
pip install -U huggingface_hub hf download audio-cpp/Ming-3.0-TTS-0.5B-GGUF
You run audiocpp_cli with a task name, the model file, a language option and your text. Three tasks are shown, and each writes a wav file.
| Tool | What it does |
|---|---|
| tts task | Speaks the text you give it |
| clon task | Speaks the text in the voice of a reference wav file |
| vdes task | Speaks the text in a voice you describe in an instruct option |
| reference_text option | Adds the words spoken in the reference when cloning |
audiocpp_cli --family ming3_tts --task tts --backend cuda \ --model ming-3.0-tts-0.5b-bf16.gguf \ --request-option language=en \ --text "Good evening. The harbor is quiet tonight." --out speech.wav --log audiocpp_cli --family ming3_tts --task clon --backend cuda \ --model ming-3.0-tts-0.5b-bf16.gguf --voice-ref reference.wav \ --request-option language=en \ --text "Please leave the lamp beside the window." --out clone.wav --log audiocpp_cli --family ming3_tts --task vdes --backend cuda \ --model ming-3.0-tts-0.5b-bf16.gguf \ --request-option language=en \ --request-option instruct="A calm adult man with a clear, warm voice." \ --text "Good evening. The harbor is quiet tonight." --out designed.wav --log
Cloning without a transcript uses speaker conditioning. To include the reference's acoustic prefix as well, also pass the reference_text option with the words spoken in the clip.
You run the tts task with language set to en and the text of a short delivery notice. The program writes speech.wav, which holds that notice read aloud in the model's default voice.
Text to speech turns written words into audio. Start with the plain tts command and one sentence, play the speech.wav it writes, then try the vdes task with a short voice description.
For experts, the whole stack runs in C++ through audio.cpp, with no codec or Python runtime. The card's tests on an RTX 5090 give a warm real-time factor near 0.17 for audio.cpp against about 0.65 to 0.68 for the official Python code. The speed setting steers the model as a category it was conditioned on, and does not stretch the finished audio.
The speed figures are synthesis speed measurements, not a claim that the sampled audio matches the Python output. Options let you steer the voice, the emotion, the dialect and how it speaks, and the project guide lists the values.
GGUF packages of Ming 3.0 TTS 0.5B for the audio.cpp runtime: speech from text, voice cloning and voice design in seven languages, with mono 44.1 kHz output and no Python runtime. For developers.
Made by audio-cpp on Hugging Face. These notes are Mindket's, written from its model page and model card; the model's own files and license are on Hugging Face.
What it is: Ming 3.0 TTS 0.5B is a text-to-speech model, and this repository offers it as GGUF files built for the audio.cpp runtime. Each package bundles everything the model needs, including a Qwen-based backbone, a flow-matching head, an audio autoencoder and a speaker encoder. Output is mono at 44.1 kHz, and no separate codec or Python runtime is needed.
Who it suits: It suits developers who want speech synthesis from a command line, in a small package, in Chinese, English, Japanese, Korean, German, French or Spanish.
Industry | Who uses it | How they use it | Example
Software | Application developers | Call the command line tool to add spoken output to an app | Reading app messages aloud
Media | Content creators | Turn scripts into narration with a designed voice | Narrating a short script
Localization | Language teams | Speak the same text in several of the supported languages | Producing French and Spanish versions
Research | Speech researchers | Compare the runtime's speed and memory use with the Python code | Checking real-time factor on their own GPU
If you want a ready-made app with buttons, you can skip it, since this is a command line tool and a model file.
Where to use it: You run it from a terminal with the audio.cpp command line program.
Use case | Who | What they get back
Plain text to speech | Developers | A wav file of the text spoken
Voice cloning from a reference clip | Creators | A wav file in the reference voice
Voice design from a description | Creators | A wav file in a voice you describe in words
How to set it up: You need the audio.cpp program, which comes from its GitHub project, and one of the two model files. The card gives no build steps for audio.cpp.
pip install -U huggingface_hub
hf download audio-cpp/Ming-3.0-TTS-0.5B-GGUF
How to use it: You run audiocpp_cli with a task name, the model file, a language option and your text. Three tasks are shown, and each writes a wav file.
Tool | What it does
tts task | Speaks the text you give it
clon task | Speaks the text in the voice of a reference wav file
vdes task | Speaks the text in a voice you describe in an instruct option
reference_text option | Adds the words spoken in the reference when cloning
audiocpp_cli --family ming3_tts --task tts --backend cuda \
--model ming-3.0-tts-0.5b-bf16.gguf \
--request-option language=en \
--text "Good evening. The harbor is quiet tonight." --out speech.wav --log
audiocpp_cli --family ming3_tts --task clon --backend cuda \
--model ming-3.0-tts-0.5b-bf16.gguf --voice-ref reference.wav \
--request-option language=en \
--text "Please leave the lamp beside the window." --out clone.wav --log
audiocpp_cli --family ming3_tts --task vdes --backend cuda \
--model ming-3.0-tts-0.5b-bf16.gguf \
--request-option language=en \
--request-option instruct="A calm adult man with a clear, warm voice." \
--text "Good evening. The harbor is quiet tonight." --out designed.wav --log
Cloning without a transcript uses speaker conditioning. To include the reference's acoustic prefix as well, also pass the reference_text option with the words spoken in the clip.
Example: You run the tts task with language set to en and the text of a short delivery notice. The program writes speech.wav, which holds that notice read aloud in the model's default voice.
For newcomers and experts: Text to speech turns written words into audio. Start with the plain tts command and one sentence, play the speech.wav it writes, then try the vdes task with a short voice description.
For experts, the whole stack runs in C++ through audio.cpp, with no codec or Python runtime. The card's tests on an RTX 5090 give a warm real-time factor near 0.17 for audio.cpp against about 0.65 to 0.68 for the official Python code. The speed setting steers the model as a category it was conditioned on, and does not stretch the finished audio.
The text goes in with a language option
The Qwen backbone and flow-matching head run
The audio autoencoder builds the waveform
A speaker encoder shapes the voice
A mono 44.1 kHz wav file is written
Good to know: The speed figures are synthesis speed measurements, not a claim that the sampled audio matches the Python output. Options let you steer the voice, the emotion, the dialect and how it speaks, and the project guide lists the values.
Title: Peak GPU memory in the card's test
Official Python, BF16: 3660 MiB
audio.cpp, BF16: 2768 MiB
audio.cpp, Q8_0: 1924 MiB
Download its files with Hugging Face's command line:
pip install -U huggingface_hub
hf download audio-cpp/Ming-3.0-TTS-0.5B-GGUF
Then follow the usage in its model card. Nothing in this kit runs by itself.
README.md 6 KB
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| Ming 3.0 TTS 0.5B GGUF This page | 70,871 | 7 | — | mit | |
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