Get in Touch

Course Outline

1. Introduction to Advanced Stable Diffusion

  • Course objectives and learning path.
  • Review of diffusion models.
  • Overview of Stable Diffusion architecture.
  • Latent Diffusion Models (LDMs).
  • Evolution of Stable Diffusion models (SD 1.x, SDXL, and newer architectures).
  • Enterprise use cases and applications.

2. Deep Learning Foundations for Diffusion Models

  • Fundamentals of the diffusion process.
  • Forward and reverse diffusion.
  • Noise prediction.
  • Denoising U-Net architecture.
  • Variational Autoencoders (VAE).
  • CLIP text encoder.
  • Cross-attention mechanisms.

3. Understanding Stable Diffusion Architecture

  • Pipeline components.
  • Text encoding process.
  • Latent space representation.
  • Scheduler algorithms.
  • Sampling methods.
  • Image decoding workflow.

4. Advanced Prompt Engineering

  • Prompt structure and syntax.
  • Positive and negative prompts.
  • Prompt weighting.
  • Token emphasis.
  • Prompt interpolation.
  • Prompt optimization strategies.
  • Reproducible image generation.

5. Advanced Image Generation Techniques

  • Image-to-Image generation.
  • Inpainting.
  • Outpainting.
  • High-resolution generation.
  • Multi-stage refinement.
  • Batch image generation.
  • Controlled randomization using seeds.

6. Conditional Image Generation

  • ControlNet architecture.
  • Pose-guided generation.
  • Depth-guided generation.
  • Edge detection conditioning.
  • Segmentation guidance.
  • Reference image conditioning.
  • Multi-ControlNet workflows.

7. LoRA, DreamBooth and Model Fine-Tuning

  • Transfer learning concepts.
  • Fundamentals of LoRA.
  • DreamBooth training.
  • Textual Inversion.
  • Custom embeddings.
  • Fine-tuning datasets.
  • Evaluating custom models.

8. Advanced Model Training

  • Dataset preparation.
  • Data augmentation.
  • Caption generation.
  • Training pipelines.
  • Distributed training.
  • Mixed precision training.
  • Checkpoint management.

9. Hyperparameter Optimization

  • Learning rate selection.
  • Batch size optimization.
  • Scheduler selection.
  • CFG Scale optimization.
  • Sampling steps.
  • Regularization techniques.
  • Model evaluation metrics.

10. Performance Optimization

  • GPU optimization.
  • CUDA optimization.
  • Memory-efficient attention.
  • xFormers optimization.
  • Quantization techniques.
  • FP16 and BF16 inference.
  • Efficient batching.

11. Scaling Stable Diffusion Workloads

  • Multi-GPU training.
  • Distributed inference.
  • Large-scale dataset management.
  • Cloud GPU deployment.
  • Model serving strategies.
  • Performance benchmarking.

12. Integrating Stable Diffusion with Deep Learning Frameworks

  • Hugging Face Diffusers.
  • PyTorch integration.
  • TensorFlow interoperability.
  • ONNX Runtime.
  • TensorRT optimization.
  • Accelerate library.
  • Pipeline customization.

13. Building Production Pipelines

  • API development.
  • Batch inference services.
  • Workflow automation.
  • Queue-based generation.
  • Model versioning.
  • Production deployment strategies.

14. Image Quality Enhancement

  • Upscaling techniques.
  • Super-resolution.
  • Face restoration.
  • Artifact reduction.
  • Image refinement workflows.
  • Post-processing pipelines.

15. Responsible AI and Model Safety

  • Bias in generative models.
  • Ethical image generation.
  • Copyright considerations.
  • AI-generated content disclosure.
  • Safety filters.
  • Prompt moderation.
  • Responsible deployment practices.

16. Troubleshooting and Debugging

  • Diagnosing generation failures.
  • Resolving CUDA errors.
  • Memory management issues.
  • Improving image consistency.
  • Debugging custom pipelines.
  • Performance troubleshooting.

17. Monitoring and Model Evaluation

  • Measuring generation quality.
  • Benchmarking models.
  • Comparing checkpoints.
  • Logging experiments.
  • Experiment tracking.
  • Model reproducibility.

18. Advanced Applications

  • Product design visualization.
  • Marketing content generation.
  • Character design.
  • Architectural visualization.
  • Medical imaging research.
  • Scientific visualization.
  • Creative AI workflows.

19. Integrating Stable Diffusion with Other AI Models

  • Large Language Models (LLMs).
  • Vision-Language Models (VLMs).
  • Image captioning.
  • Retrieval-Augmented Generation (RAG) for multimodal systems.
  • AI agent workflows.
  • Multi-model orchestration.

20. Best Practices for Enterprise Deployment

  • Infrastructure planning.
  • GPU resource management.
  • Security considerations.
  • Model governance.
  • CI/CD for AI models.
  • Maintenance and upgrades.

21. Hands-on Workshop and Summary

  • Building a complete image generation pipeline.
  • Fine-tuning a custom Stable Diffusion model.
  • Creating an automated generation workflow.
  • Performance optimization exercises.
  • Model evaluation and comparison.
  • Review of key concepts.
  • Questions and answers.
  • Next steps and further learning resources.

Requirements

  • Strong understanding of deep learning concepts and architectures.
  • Familiarity with Stable Diffusion and text-to-image generation.
  • Proficiency in Python programming and experience with PyTorch.

Audience

  • Data scientists and machine learning engineers.
  • Deep learning researchers.
  • Computer vision experts.
 21 Hours

Number of participants


Price per participant

Upcoming Courses

Related Categories