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note this is an out of date sandbox to play with YuE-exlammav2 with gradio, running in a docker, with some small tweaks for the sake of testing (such as launching multiple consecutive renders with the same settings). I most likely will not be maintaining this fork or prepping it for a merge, as it will be significanlty out of date and the changes were either too specific to my use, or are easy enough to re-implement in a future version without dealing with dozens of merges.

YuE ExLlama assessment

Overview

YuE ExLlama is an advanced pipeline for generating high-quality audio from textual and/or audio prompts. The system operates in multiple stages, leveraging deep learning models and codec-based transformations to synthesize structured and coherent musical compositions. The project consists of several key components that handle different stages of audio processing, including inference, encoding, decoding, and post-processing.

System Components

The system is structured into three primary stages:

  • Stage 1: Text and Audio Prompt Processing (infer_stage1.py)
  • Stage 2: Audio Token Refinement and Generation (infer_stage2.py)
  • Post-Processing: Audio Reconstruction and Mixing (infer_postprocess.py)

Additionally, interface.py provides an interactive front-end using Gradio, and infer.py acts as the main execution script that orchestrates the inference process.


Stage 1 - Text and Audio Prompt Processing

File: infer_stage1.py

Processes input prompts (text and/or audio), encodes them into a tokenized representation, and prepares them for audio synthesis.

Key Functions and Classes

  • load_audio_mono(filepath, sampling_rate=16000) - Loads an audio file, converts it to mono, and resamples if necessary.
  • encode_audio(codec_model, audio_prompt, device, target_bw=0.5) - Converts audio waveforms into a compressed token representation.
  • get_prompt_texts(genres, lyrics) - Processes genres and lyrics into structured prompts for inference.
  • get_audio_prompt_ids(...) - Extracts and encodes audio segments for in-context learning.
  • Stage1Pipeline - Handles codec model loading, encoding audio, and formatting data for Stage 2.

Output: Intermediate .npy files stored in the stage1 directory.


Stage 2 - Audio Token Refinement and Generation

File: infer_stage2.py

Processes encoded audio tokens from Stage 1 through a model to refine and complete audio generation.

Key Functions and Classes

  • Stage2Pipeline - Loads tokenizer and codec tools for processing.
  • generate_batch(prompt, batch_size) - Generates refined audio tokens in batches.
  • fix_output(output) - Applies corrections to avoid out-of-range values.
  • save(output_dir, outputs) - Saves generated audio tokens as .npy files.

Output: Refined tokens stored in the stage2 directory.


Post-Processing - Audio Reconstruction and Mixing

File: infer_postprocess.py

Reconstructs audio from generated tokens, applies enhancements, and mixes instrumental and vocal tracks.

Key Functions and Classes

  • save_audio(wav, path, sample_rate, rescale=False) - Saves processed audio.
  • post_process(...) - Converts tokens back into waveform audio, applies mixing, and enhances final output.
  • replace_low_freq_with_energy_matched(...) - Refines low-frequency content for better sound quality.

Output: Final .mp3 files stored in the output directory.


Execution Flow

File: infer.py

Sequentially executes the three processing stages:

  1. Calls infer_stage1.py to process prompts.
  2. Calls infer_stage2.py to generate refined tokens.
  3. Calls infer_postprocess.py to generate and mix final audio.

Ensures proper execution by handling arguments and failure checks.


User Interface

File: interface.py

Provides a Gradio-based web interface for interacting with the model.

Features

  • Model selection for Stage 1 and Stage 2
  • Genre and lyrics input
  • Support for audio prompts
  • Parameter tuning (segments, max new tokens, cache settings)
  • Live logging and result preview
  • File explorer for downloading generated music

Original README is below.

YuE-Exllamav2-UI

Welcome to YuE-Exllamav2-UI, the ultimate optimized interface for music generation using YuE models with ExLlamaV2 acceleration. This project delivers the best possible performance for YuE models, achieving exceptional speed and efficiency on modern NVIDIA GPUs like the RTX 4090 and RTX 3060.

Note: This project is a fork of the fork made by user sgsdxzy which has been optimized for performance using exllamav2 from the YuE-exllamav2 repository. For more official information about the model, follow the official repository.


Interface

Gradio Interface Preview


Key Features

  • ExLlamaV2 Optimization: Inference acceleration with Flash Attention 2 and BF16 support.
  • Exceptional Performance: Up to 500% speedup compared to the original implementation.
  • NVIDIA GPU Support: Compatible with CUDA 12.2 and optimized for modern GPUs.
  • User-Friendly Interface: Web-based Gradio interface for easy configuration and music generation.
  • Audio Playback and Download: Listen to generated audio and download it directly from the interface.
  • Pre-configured Docker: Easy deployment with Docker and support for persistent volumes.

News and Updates

Note: Keep an eye on updates to know when you need to do a docker pull alissonpereiraanjos/yue-exllamav2-interface

  • 2025.02.04 πŸ”₯: Added field to save the result file with a custom name
  • 2025.02.03 πŸ”₯: Added ExLlamaV2 integration with up to 500% speedup by sgsdxzy (https://github.com/sgsdxzy/YuE-exllamav2)
  • 2025.02.01 (Oficial Repository) πŸ§‘πŸ»β€πŸ’» Inference Update: 1. Support dual-track ICL mode. 2. Fix "instrumental" naming bug in output files. 3. Support seeding.
  • 2025.01.31 πŸ”₯: Added possibility to select existing models using a dropdown, added Refresh File Explorer button and Warnings are ignored in the log.
  • 2025.01.30 πŸ”₯: Initial release with BF16 model support.

Performance Benchmarks

RTX 4090 24GB

Stage Original ExLlamaV2 Speedup
Stage 1 282s 125s 2.25x
Stage 2 666s 49s 13.6x
Total 948s 174s 5.45x

Configuration: BF16 models, Flash Attention 2 enabled, CFG enabled, batch size 4, 64k cache.

RTX 3060 Mobile 6GB

Stage ExLlamaV2
Stage 1 317s
Stage 2 350s
Total 667s

Configuration: Quantized models with Q4/Q8 cache, Flash Attention 2 enabled.


How to Use

Prerequisites

Docker

Ensure you have Docker installed on your system. Follow the official Docker installation guides for your platform:

NVIDIA GPU Support

This interface requires NVIDIA GPUs for acceleration. Ensure you have the necessary hardware and drivers set up.

  1. Linux:

  2. Windows/macOS:

    • Refer to the respective Docker and NVIDIA documentation for GPU passthrough (e.g., WSL2 on Windows).
    • Note: GPU support is mandatory. Without compatible NVIDIA GPUs, the container will not function correctly.

Docker Compose

To simplify the setup and management of the YuE-Exllamav2-UI, you can use Docker Compose. Docker Compose allows you to define and run multi-container Docker applications with a single configuration file (docker-compose.yml). Below are the steps to get started.

Note: This docker-compose.yml file already exists in the root of the repository, you just need to download or copy the file and replace the directory mapping and run the command in the same directory as the file, see the explanation below.

Create a docker-compose.yml file:

version: '3.8'

services:
  yue-exllamav2:
    image: alissonpereiraanjos/yue-exllamav2-interface:latest
    container_name: yue-exllamav2
    restart: unless-stopped
    ports:
      - "7860:7860"
    environment:
      - DOWNLOAD_MODELS=all_bf16
    volumes:
      - /path/to/models:/workspace/models
      - /path/to/outputs:/workspace/outputs
    deploy:
      resources:
        reservations:
          devices:
            - capabilities: [gpu]

Run the container:

docker-compose up -d

Access the Interface: Once the container is running, access the Gradio UI at http://localhost:7860.

Explanation of the Configuration

  • image: Specifies the Docker image to use (alissonpereiraanjos/yue-exllamav2-interface:latest).
  • container_name: Sets a name for the container (yue-interface).
  • restart: unless-stopped: Ensures the container restarts automatically unless manually stopped.
  • ports: Maps container ports to the host:
    • 7860:7860: Port for accessing the Gradio UI.
    • 8888:8888: Optional additional port (JupyterLab).
  • environment: Defines environment variables:
    • DOWNLOAD_MODELS=all: Downloads all available models. Replace all with specific model keys (e.g., YuE-s2-1B-general,YuE-s1-7B-anneal-en-cot) to download only selected models.
  • volumes: Maps host directories to the container:
    • /path/to/models:/workspace/models: Directory where models will be stored.
    • /path/to/outputs:/workspace/outputs: Directory where generated outputs will be saved.
    • Replace /path/to/models and /path/to/outputs with the actual paths on your system.
  • deploy.resources.reservations.devices: Enables GPU support in the container (requires NVIDIA GPU and drivers).

Customization

  • Specific models: To download only specific models, modify the DOWNLOAD_MODELS environment variable in the docker-compose.yml file. For example:

    environment:
      - DOWNLOAD_MODELS=YuE-s2-1B-general,YuE-s1-7B-anneal-en-cot
  • Different ports: If you need to use different ports, adjust the port mappings under the ports section.


Direct Docker Run

To run without Docker Compose:

docker run --gpus all -d \
  -p 7860:7860 \
  -e DOWNLOAD_MODELS=all_bf16 \
  -v /path/to/models:/workspace/models \
  -v /path/to/outputs:/workspace/outputs \
  alissonpereiraanjos/yue-exllamav2-interface:latest
  • --gpus all: Enables NVIDIA GPU support.
  • -d: Runs the container in detached mode (background).
  • -p 7860:7860: Exposes port 7860 for accessing the Gradio UI at http://localhost:7860.
  • -p 8888:8888: Exposes port 8888 for additional services if applicable.
  • -e DOWNLOAD_MODELS=all_bf16: Downloads all bf16 available models upon initialization.

Environment Variables

  • DOWNLOAD_MODELS: Determines which models to download.
    • Set to all_bf16 to download all available models (BF16).
    • Alternatively, specify a comma-separated list of model keys to download specific models (e.g., DOWNLOAD_MODELS=YuE-s2-1B-general,YuE-s1-7B-anneal-en-cot).

Supported Models

Model Key Model HF Repository Container Path Quantization
xcodec_mini_infer m-a-p/xcodec_mini_infer /workspace/YuE-Interface/inference/xcodec_mini_infer N/A
YuE-s1-7B-anneal-en-cot m-a-p/YuE-s1-7B-anneal-en-cot /workspace/models/YuE-s1-7B-anneal-en-cot BF16
YuE-s1-7B-anneal-en-icl m-a-p/YuE-s1-7B-anneal-en-icl /workspace/models/YuE-s1-7B-anneal-en-icl BF16
YuE-s1-7B-anneal-jp-kr-cot m-a-p/YuE-s1-7B-anneal-jp-kr-cot /workspace/models/YuE-s1-7B-anneal-jp-kr-cot BF16
YuE-s1-7B-anneal-jp-kr-icl m-a-p/YuE-s1-7B-anneal-jp-kr-icl /workspace/models/YuE-s1-7B-anneal-jp-kr-icl BF16
YuE-s1-7B-anneal-zh-cot m-a-p/YuE-s1-7B-anneal-zh-cot /workspace/models/YuE-s1-7B-anneal-zh-cot BF16
YuE-s1-7B-anneal-zh-icl m-a-p/YuE-s1-7B-anneal-zh-icl /workspace/models/YuE-s1-7B-anneal-zh-icl BF16
YuE-s2-1B-general m-a-p/YuE-s2-1B-general /workspace/models/YuE-s2-1B-general BF16
YuE-upsampler m-a-p/YuE-upsampler /workspace/models/YuE-upsampler BF16

Mapping Directories for Models and Output

You can mount host directories to store models and outputs outside the container:

docker run --gpus all -it \
  -v /path/to/models:/workspace/models \
  -v /path/to/outputs:/workspace/outputs \
  -p 7860:7860 \
  -p 8888:8888 \
  -e DOWNLOAD_MODELS=false \
  alissonpereiraanjos/yue-exllamav2-interface:latest
  • -v /path/to/models:/workspace/models: Mounts the host's /path/to/models directory to /workspace/models inside the container.
  • -v /path/to/outputs:/workspace/outputs: Mounts the host's /path/to/outputs directory to /workspace/outputs inside the container.
  • -e DOWNLOAD_MODELS=false: Skips automatic model downloads (useful if models are already present in the mounted directories).

RunPod Deployment

If you prefer to use RunPod, you can quickly deploy an instance based on this image by using the following template link:

Deploy on RunPod

This link directs you to the RunPod console, allowing you to set up a machine directly with the YuE Interface image. Configure your GPU, volume mounts, and environment variables as needed.

Tip: If you generate music frequently, consider creating a Network Volume in RunPod. This allows you to store models and data persistently, avoiding repeated downloads and saving time.

Recommended Settings:

  • GPU: RTX 4090 or A100
  • Network Volume: Minimum 100GB for model storage
  • Environment Variables: DOWNLOAD_MODELS=all_bf16

Update Docker Image (Important)

To update the Docker image with the latest changes, run:

docker pull alissonpereiraanjos/yue-exllamav2-interface:latest

Note: Always update the image before running the container to ensure you have the latest features and fixes. This is especially important when deploying on RunPod, as it pulls the latest image upon creating a new pod.

Model Suffixes Explained

The suffixes in the model keys indicate specific training or optimization techniques applied to the models:

Suffix Meaning Description
COT Chain-of-Thought Models trained with Chain-of-Thought to enhance reasoning and logical generation capabilities.
ICL In-Context Learning Models optimized for In-Context Learning, allowing dynamic adaptation based on the provided context.

Examples:

  • YuE-s1-7B-anneal-en-cot: A model trained with Chain-of-Thought techniques.
  • YuE-s1-7B-anneal-en-icl: A model optimized for In-Context Learning.

Acknowledgements

A special thanks to the YuE-exllamav2 repository for their incredible optimization work, which made this project possible.


Support

For technical support or questions:


Citation

If you use this project in your research, please consider citing:

@misc{yuan2025yue,
  title={YuE: Open Music Foundation Models for Full-Song Generation},
  author={Ruibin Yuan et al.},
  year={2025},
  howpublished={\url{https://github.com/multimodal-art-projection/YuE}}
}

Experience music generation with accelerated performance! πŸŽ΅πŸš€


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