This project encompasses the "master hub" for the TRON worker.
This codebase is capable of:
- Distributing PyTorch and other jobs to worker nodes
- Stable Diffusion, Bark TTS, WizardLM, and more.
- Interfacing with users via a Discord bot frontend
- Flexible pipeline configuration, with optimized defaults
- Create incredible results with little effort!
- Self-hosting images, when accompanied with a companion webserver
- Integrating OpenAI's GPT API into a Discord interface with conversation history tracking and pruning, so that the history properly rolls over without overrunning the API token limit.
- Img2Img and upscaling via Stable Diffusion workers
- As-deterministic-as-possible generation, when desired
- Reliable and exceptional results, out of the box, compared to other
tools such as
automatic1111/stable-diffusion-webui
This master code base does not require the client code to work. However, its utility is greatly reduced without GPU worker nodes.
This project is undergoing active development. It has no internal API for extensions, or REST API integration within other projects. Currently, extending for new functionality is an involved process.
This portion of the codebase has lightweight requirements.
A Raspberry Pi 3 with a running MySQL server and nginx webserver, could easily handle running the master node.
- MySQL: Used for storing OAuth details, diffusion models, etc.
- nginx: If the server has a public hostname, it can be used to host its own images, rather than sending them to Discord or Imgur.
- Create a python venv:
python -m venv .venv/
- Enter the venv:
. .venv/bin/activate
- Install poetry:
pip install poetry
- Install all project requirements:
poetry install
-
Copy
discord_tron_master/config/example.json
todiscord_tron_master/config/config.json
-
Create a MySQL database and user. Update the values in
config.json
accordingly. -
Inside your venv, execute:
flask db init
flask db upgrade
Or, the create_tables.py
script may be of some use to you.
- Update
config.json
to contain your relevant API keys:
- OpenAI
- Huggingface Hub
- Discord
- Update the values in
config.json
to point to your WebSocket server host and port:
"websocket_hub": {
"host": "example.net",
"port": 6789,
"tls": true,
"protocol": "wss"
}
This produces more accurate config templates when adding worker nodes later.
- Run the master from the top level git directory (this folder).
This codebase has two components you will run:
. .venv/bin/activate # Always ensure you're in the virtual environment first.
python -m discord_tron_master run > master.log 2>&1
And, in another terminal (or tmux
/ screen
session):
. .venv/bin/activate
gunicorn -w 4 -b 0.0.0.0:5000 --certfile=discord_tron_master/config/server_cert.pem \
--keyfile=discord_tron_master/config/server_key.pem \
discord_tron_master.gunicorn_entry:api -t 120 > web.log 2>&1
You must ensure that your firewall, if any, is not blocking ports:
- TCP 5000
- TCP 6789
Google Colab can be used successfully as a worker for this project.
Kaggle has not been tested.
Any remote Linux system with a GPU would, in theory, work, as long as you can install the proper library versions, and run python scripts.
- Inside
discord-tron-master
(this folder):
python -m 'discord_tron_master' create_worker_user --username 'colab_worker' --password 'example.pass' --email '[email protected]'
- Inside the same directory:
. .venv/bin/activate
python -m discord_tron_master create_client_tokens --username colab_worker
Which prints, something like:
[INFO] Client does not exist for user throwaway - we will try to create one.
[INFO] Checking for API Key...
[INFO] No API Key found, generating one...
[INFO] API key for client/user:
{
"api_key": "...",
"client_id": "...",
"user_id": 1,
"expires": null
}
[INFO] Checking for existing tokens...
[INFO] Creating tokens for user throwaway
{
"id": 1,
"access_token": "...",
"refresh_token": "...",
"expires_in": 3600,
"client_id": "...",
"user_id": 1,
"scopes": null,
"issued_at": "..."
}
- The first block contains
api_key
, which needs to be transferred to the client and placed indiscord-tron-client/discord_tron_client/config/config.json
:
...
"master_api_key": "... place the api key here ...",
...
-
The second block, in its entirety must be transferred to the client and placed in
discord-tron-client/discord_tron_client/config/auth.json
-
Place the resulting SSL key and certificate files
server_key.pem
andserver_cert.pem
on the client system under theconfig/
directory.
classes/
: A somewhat-structured folder for many useful classes.command_processors/
: Process incoming worker commands via WebSocket.
discord/
: Some helpers to make life easier.cogs/
: A structured way to store Discord bot commands.- Example:
cogs/user/settings.py
handles the!settings
command.
- Example:
config/
: Pretty self-explanatory.exceptions/
: Basic error handling classes for flow control.migrations/
: Automatically-generated SQLAlchemy-Flask migrations.models/
: Code representation of Database objects.api.py
: Flask API routes, currently a very basic and subpar layout.websocket_hub.py
: The WebSocket hub code which handles auth and connection.bot.py
: The Discord frontend code that handles basic initialization and command routing / cog registration and loading.LICENSE
: The Silly Use License (SUL-1.0), because why not have some fun while coding? 😜
To add a new !command to the bot:
- Add the !command cog processor and, if needed, a Job class.
- If the client will be sending a new data type that is currently unhandled,
add a new entry to the
command_processor
module that uses your handler.- If the existing data matches an existing workflow for the user, eg, some text or an image to send - you can reuse the existing WebSocket command handlers on the master backend.
- Test your changes extensively. No one wants to accept broken code.
- Open a pull request, and hope for the best! 🤞
When designing this application, the need to run Flask via Gunicorn resulted in the Discord bot no longer having direct access to the Flask context, and vice versa.
In other words, the HTTP endpoints can not send a message to Discord.
This isn't a huge deal in practice, because currently, the only use of the HTTP endpoints are for authentication exchanges and uploading binary data that might be larger than the 32M window for WebSockets.
In testing, it was determined that sending large binary data over this type of WebSocket hub design would result in stalled messages even when using threaded design.