Files
AutoGPT/autogpt_platform
Abhimanyu Yadav 78c2245269 feat(frontend): add automatic collision resolution for flow editor nodes (#11506)
When users drag and drop nodes in the new flow editor, nodes can overlap
with each other, making the graph difficult to read and interact with.
This PR adds an automatic collision resolution algorithm that runs when
a node is dropped, ensuring nodes are automatically separated to prevent
overlaps and maintain a clean, readable graph layout.

### Changes 🏗️

- **Added collision resolution algorithm** (`resolve-collision.ts`):
- Implements an iterative collision detection and resolution system
using Flatbush for efficient spatial indexing
- Automatically resolves overlaps by moving nodes apart along the axis
with the smallest overlap
- Configurable options: `maxIterations`, `overlapThreshold`, and
`margin`
- Uses actual node dimensions (`width`, `height`, or `measured` values)
when available

- **Integrated collision resolution into Flow component**:
- Added `onNodeDragStop` callback that triggers collision resolution
after a node is dropped
- Configured with `maxIterations: Infinity`, `overlapThreshold: 0.5`,
and `margin: 15px`

- **Enhanced node dimension handling**:
- Updated `nodeStore.ts` to prioritize actual node dimensions
(`node.width`, `node.measured.width`) over hardcoded defaults when
calculating positions
  - Ensures collision detection uses accurate node sizes

- **Added dependency**:
- Added `flatbush@4.5.0` for efficient spatial indexing and collision
detection

### Checklist 📋

#### For code changes:

- [x] I have clearly listed my changes in the PR description
- [x] I have made a test plan
- [x] I have tested my changes according to the test plan:
- [x] Drag a node and drop it on top of another node - verify nodes
automatically separate
- [x] Drag multiple nodes to create overlapping clusters - verify all
overlaps are resolved
- [x] Drag nodes with different sizes (NOTE blocks vs regular blocks) -
verify collision detection uses correct dimensions
- [x] Drag nodes near the edge of the canvas - verify nodes don't get
pushed off-screen
- [x] Test with a graph containing many nodes (20+) - verify performance
is acceptable
  - [x] Verify nodes maintain their positions when no collisions occur
- [x] Test with nodes that have custom measured dimensions - verify
accurate collision detection
2025-12-04 14:46:43 +00:00
..

AutoGPT Platform

Welcome to the AutoGPT Platform - a powerful system for creating and running AI agents to solve business problems. This platform enables you to harness the power of artificial intelligence to automate tasks, analyze data, and generate insights for your organization.

Getting Started

Prerequisites

  • Docker
  • Docker Compose V2 (comes with Docker Desktop, or can be installed separately)

Running the System

To run the AutoGPT Platform, follow these steps:

  1. Clone this repository to your local machine and navigate to the autogpt_platform directory within the repository:

    git clone <https://github.com/Significant-Gravitas/AutoGPT.git | git@github.com:Significant-Gravitas/AutoGPT.git>
    cd AutoGPT/autogpt_platform
    
  2. Run the following command:

    cp .env.default .env
    

    This command will copy the .env.default file to .env. You can modify the .env file to add your own environment variables.

  3. Run the following command:

    docker compose up -d
    

    This command will start all the necessary backend services defined in the docker-compose.yml file in detached mode.

  4. After all the services are in ready state, open your browser and navigate to http://localhost:3000 to access the AutoGPT Platform frontend.

Running Just Core services

You can now run the following to enable just the core services.

# For help
make help

# Run just Supabase + Redis + RabbitMQ
make start-core

# Stop core services
make stop-core

# View logs from core services 
make logs-core

# Run formatting and linting for backend and frontend
make format

# Run migrations for backend database
make migrate

# Run backend server
make run-backend

# Run frontend development server
make run-frontend

Docker Compose Commands

Here are some useful Docker Compose commands for managing your AutoGPT Platform:

  • docker compose up -d: Start the services in detached mode.
  • docker compose stop: Stop the running services without removing them.
  • docker compose rm: Remove stopped service containers.
  • docker compose build: Build or rebuild services.
  • docker compose down: Stop and remove containers, networks, and volumes.
  • docker compose watch: Watch for changes in your services and automatically update them.

Sample Scenarios

Here are some common scenarios where you might use multiple Docker Compose commands:

  1. Updating and restarting a specific service:

    docker compose build api_srv
    docker compose up -d --no-deps api_srv
    

    This rebuilds the api_srv service and restarts it without affecting other services.

  2. Viewing logs for troubleshooting:

    docker compose logs -f api_srv ws_srv
    

    This shows and follows the logs for both api_srv and ws_srv services.

  3. Scaling a service for increased load:

    docker compose up -d --scale executor=3
    

    This scales the executor service to 3 instances to handle increased load.

  4. Stopping the entire system for maintenance:

    docker compose stop
    docker compose rm -f
    docker compose pull
    docker compose up -d
    

    This stops all services, removes containers, pulls the latest images, and restarts the system.

  5. Developing with live updates:

    docker compose watch
    

    This watches for changes in your code and automatically updates the relevant services.

  6. Checking the status of services:

    docker compose ps
    

    This shows the current status of all services defined in your docker-compose.yml file.

These scenarios demonstrate how to use Docker Compose commands in combination to manage your AutoGPT Platform effectively.

Persisting Data

To persist data for PostgreSQL and Redis, you can modify the docker-compose.yml file to add volumes. Here's how:

  1. Open the docker-compose.yml file in a text editor.

  2. Add volume configurations for PostgreSQL and Redis services:

    services:
      postgres:
        # ... other configurations ...
        volumes:
          - postgres_data:/var/lib/postgresql/data
    
      redis:
        # ... other configurations ...
        volumes:
          - redis_data:/data
    
    volumes:
      postgres_data:
      redis_data:
    
  3. Save the file and run docker compose up -d to apply the changes.

This configuration will create named volumes for PostgreSQL and Redis, ensuring that your data persists across container restarts.

API Client Generation

The platform includes scripts for generating and managing the API client:

  • pnpm fetch:openapi: Fetches the OpenAPI specification from the backend service (requires backend to be running on port 8006)
  • pnpm generate:api-client: Generates the TypeScript API client from the OpenAPI specification using Orval
  • pnpm generate:api: Runs both fetch and generate commands in sequence

Manual API Client Updates

If you need to update the API client after making changes to the backend API:

  1. Ensure the backend services are running:

    docker compose up -d
    
  2. Generate the updated API client:

    pnpm generate:api
    

This will fetch the latest OpenAPI specification and regenerate the TypeScript client code.