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Image Generation Documentation

Complete documentation for Bike4Mind's AI image generation system, covering architecture, implementation, extension, and troubleshooting.

Documentation Overview

This documentation suite provides comprehensive coverage of the image generation system:

📋 Architecture Overview

Comprehensive system architecture and design patterns:

  • System overview and component interactions
  • Supported models (OpenAI, BFL, etc.)
  • Data flow and processing pipelines
  • Storage architecture and security
  • Real-time updates and error handling

🔧 Implementation Guide

Detailed code examples and implementation patterns:

  • Model configuration and validation
  • Frontend React components and state management
  • Backend services and API endpoints
  • Provider implementations (OpenAI, BFL)
  • Usage examples and best practices

🚀 Extension Guide

How to add new AI image providers:

  • Step-by-step provider integration
  • Parameter schemas and validation
  • Frontend UI components
  • API key management
  • Testing and deployment

🐛 Troubleshooting Guide

Common issues and solutions:

  • Generation failures and timeouts
  • Parameter validation errors
  • Storage and URL issues
  • WebSocket and real-time problems
  • Credit and billing issues
  • Debugging tools and monitoring

Quick Start

For Developers

  1. Read the Architecture Overview to understand the system
  2. Follow the Implementation Guide for code examples
  3. Use the Troubleshooting Guide when issues arise

For Extension Development

  1. Start with the Extension Guide
  2. Review existing provider implementations
  3. Follow the deployment checklist

For Operations

  1. Review the monitoring section in Troubleshooting
  2. Set up health checks and alerts
  3. Monitor key metrics and error rates

System Capabilities

Supported Providers

  • OpenAI: GPT-Image-1
  • BlackForest Labs (BFL): FLUX PRO, FLUX PRO Ultra, FLUX PRO Fill
  • Extensible: Easy integration of new providers

Key Features

  • Unified Interface: Single API for all providers
  • Real-time Updates: WebSocket progress notifications
  • Flexible Parameters: Model-specific parameter validation
  • Credit Management: Integrated billing and usage tracking
  • Image Editing: Advanced editing with masks and prompts
  • Storage Integration: S3 with signed URLs and public access

Technical Highlights

  • Async Processing: Queue-based background generation
  • Provider Abstraction: Factory pattern for easy extension
  • Type Safety: Comprehensive TypeScript interfaces
  • Error Handling: Robust error recovery and user feedback
  • Performance: Optimized for scale and reliability

Common Workflows

Basic Image Generation

await handleImageGenerationCommand({
params: "A beautiful landscape",
model: ImageModels.FLUX_PRO_ULTRA,
currentSession,
workBenchFiles: [],
queryClient,
});

Image Editing

await handleImageEditCommand({
params: "Change the sky to sunset",
image: sourceImageUrl,
workBenchFiles: [maskFile],
model: ImageModels.FLUX_PRO_FILL,
currentSession,
queryClient,
});

Model Configuration

const { setLLM } = useLLM();

// Configure for BFL FLUX PRO Ultra
setLLM({
model: ImageModels.FLUX_PRO_ULTRA,
aspect_ratio: '16:9',
safety_tolerance: 4,
prompt_upsampling: true,
});

Architecture Highlights

Layered Design

Frontend Layer    → React components, state management
API Layer → Next.js routes, authentication
Service Layer → Business logic, credit management
Provider Layer → AI service implementations
Infrastructure → Queue, storage, WebSocket

Provider Pattern

The system uses a factory pattern to abstract different AI providers:

const service = aiImageService(vendor, apiKey, logger);
const images = await service.generate(prompt, options);

This design makes it easy to:

  • Add new providers without changing existing code
  • Handle provider-specific parameters and constraints
  • Implement consistent error handling and monitoring
  • Scale to support multiple AI services

Best Practices

Development

  • Follow existing code patterns and interfaces
  • Implement comprehensive error handling
  • Add proper TypeScript types for all new features
  • Write tests for new functionality

Performance

  • Use optimistic updates for immediate user feedback
  • Implement proper loading states and progress indicators
  • Optimize image storage and delivery
  • Monitor and cache frequently accessed data

Security

  • Validate all user inputs comprehensively
  • Implement proper content moderation
  • Use secure API key management
  • Follow principle of least privilege for access control

User Experience

  • Provide clear error messages and recovery options
  • Show real-time progress during generation
  • Implement proper loading and error states
  • Handle edge cases gracefully

Contributing

When contributing to the image generation system:

  1. Read the Documentation: Understand the architecture and patterns
  2. Follow Conventions: Use existing code patterns and TypeScript interfaces
  3. Test Thoroughly: Write unit and integration tests
  4. Update Documentation: Keep documentation current with changes
  5. Monitor Impact: Ensure changes don't affect system performance

Support

For questions or issues with the image generation system:

  1. Check Documentation: Start with this documentation suite
  2. Review Logs: Check server logs and browser console
  3. Use Debug Tools: Utilize the debugging utilities provided
  4. Test Isolation: Isolate issues to specific components or providers
  5. Monitor Metrics: Check system health and performance metrics

Next: Start with the Architecture Overview to understand the system design.