Vision Language Models. Building VLMs with Hugging Face Merve Noyan, Andrés Marafioti, Miquel FarrĂŠ

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Spis treści książki

• Foreword
• Preface
  • Who Is This Book For?
  • What You Will Learn
  • Conventions Used in This Book
  • Using Code Examples
  • OReilly Online Learning
  • How to Contact Us
  • Acknowledgments
• 1. Introduction to Vision and Language
  • Brief Introduction to Computer Vision
    • Signal Decomposition Techniques
    • Filters and Feature Extraction Kernels
    • From Filters to Convolutional Neural Networks
    • Other Basic Convolutional Neural NetworkBased Pipelines
  • Transfer Learning
    • Computer Vision Backbones
      • ResNet
      • MobileNet
      • U-Net
      • Going from image to text and back
    • Transformers and Their Origins in Language
      • Recurrent neural networks and long-short-term memory
      • The boom of transformers in text
    • Vision Transformers
      • Vision transformer variations
      • Connecting images and text: CLIP
    • Modern Vision Language Models
  • Brief Introduction to Hugging Face Open Source Ecosystem
    • Hugging Face Hub
    • Libraries
      • Transformers
      • Accelerate
      • Datasets
    • Coding Example: Searching for Images from Text
  • Summary
• 2. Vision Language Model Applications
  • Image Captioning
  • Visual Question Answering
  • Visual Reasoning
  • Visual Language Retrieval
  • Document Understanding
  • Document Visual Question Answering
  • Video Understanding
  • Instance Localization with Vision Language Models
    • Zero-Shot Object Detection
    • Object Counting
    • Image Segmentation
  • Summary
• 3. Vision Language Model Training
  • A Birds-Eye View of Training Vision Language Models
    • The How: What Different Training Paradigms Do
    • The When: A Models Training Stages
  • Training Vision Language Models
    • First Things First: Training Data
    • Lets Architect Our Vision Language Model
      • Making our vision language model learn
      • Training our model
    • Loading More Than One Sample at a Time
      • Naive padding
      • Constrained padding
      • Naive packing
      • Naive greedy knapsack algorithm
    • Training with a Real Batch Size
      • The uh-oh moment: Where do the images go?
      • The plan: Placeholder tokens
      • From plan to code
      • A few more practice details
      • The new training loop: In action
    • Inferring with Our Trained Model
    • Making Inference Faster with Key-Value Cache
      • The basic idea of the key-value cache
      • Prefill versus decode
      • Trade-offs and why you should care
    • Dealing with High-Resolution Images
      • Tiling: More pixels, same architecture
      • Pixel shuffle: The compression spell
  • Summary
• 4. Training Data and Preprocessing for VLMs
  • Looking at the Data
    • Image-Text Datasets
    • Video-Text Datasets
    • Vision-Language-Action Datasets
  • Building a Dataset
    • Data Sourcing at Scale
      • Navigating the legal and ethical minefield
      • Where pretraining and post-training data diverge
    • Data Filtering at Scale
      • Finding good filtering proxies
      • Check for corrupt samples
    • Sample Diversity at Scale
      • Taxonomy development
      • Content categorization
    • Data Annotation and Quality Validation at Scale
      • Choosing your annotation approach
      • Building your own synthesis pipeline
      • Real-world hybrid approaches
    • Preparing the Dataset for Consumption
  • Dataset Mixtures: The Hidden Hyperparameter
    • Mixture Ingredients and Proportions
    • Task-Driven Mixture Design
    • Ablations and Evaluation
      • Ablation methodology
      • Measuring mixture impact
  • Summary
• 5. Post-Training Vision Language Models
  • Supervised Fine-Tuning
  • Parameter Efficient Fine-Tuning
    • Training with Quantization
    • Introduction to Transformers Reinforcement Learning
      • Supervised fine-tuning example
      • Multimodal alignment
  • Reinforcement Learning from Human Feedback
    • Direct Preference Optimization and Mixed Preference Optimization
    • Group Relative Policy Optimization
  • Summary
• 6. Core Architectures of Vision Language Models
  • The Key to Combining Information: Multimodal Attention
    • Self-Attention: Finding Relationships Within a Sequence
    • Cross-Attention: Bridging Two Different Streams
  • Modern VLM Blueprints: Connecting Pretrained Models
    • The Adapter Approach: Cross-Attention
      • The perceiver resampler: Compressing visual features
      • Gated cross-attention: Injecting vision into the LLM
    • The Unified Sequence Approach: Self-Attention
    • Comparing Architectures: Which Way to Go?
  • Foundational Concepts in VLM Design
    • The Fusion Framework: Early or Late?
      • Early fusion: Integrating from the ground up
      • Late fusion: Independent strengths, unified decisions
      • Connecting the spectrum to modern architectures
    • The Encoder-Decoder Pattern: Where It All Started
  • Summary
• 7. Deploying Models for Inference at Scale
  • Inference Optimization for VLMs
    • Understanding the KV Cache
      • Memory cost
      • KV cache memory by model
  • Attention Optimizations: FlashAttention and Beyond
    • Understanding GPU Memory: The Foundation of All Inference Optimization
    • The Attention Bottleneck and FlashAttention to the Rescue
    • Using Optimized Attention
  • Quantization for VLMs
    • Why Quantization Helps: Bandwidth, Not Compute
    • Weight-Only Quantization
    • The Outlier Problem
    • Quantization Methods
      • bitsandbytes
      • Beyond bitsandbytes: Production-ready methods
    • The VLM Quantization Asymmetry
    • Practical Notes
    • torchao
  • Exporting Models to Different Runtimes
    • ONNX
    • TensorRT: Maximum GPU Performance
    • Browser Deployment with transformers.js
  • Packaging and Deploying in Real Environments
    • It Runs
    • Efficient Deployment with vLLM
      • Running vLLM with a VLM
        • A few flags worth understanding
        • Client code
        • Common friction points
    • Production Optimizations
      • Prefix caching
      • Disaggregated vision encoder
      • Alternative approach: Triton + TensorRT-LLM
  • On-Device/Edge Deployment
    • The Edge Landscape
    • MLX on Apple Silicon
    • Llama.cpp
    • Mobile Deployment
    • PEFT Adapters for Edge Customization
    • Hybrid Patterns
  • Summary
• 8. Document AI
  • Introduction to Document AI
    • Information Extraction
      • Generative information extraction
      • Information extraction with understanding models
    • Document Parsing
    • Picking the Right Model
    • Multimodal Document Retrieval
      • Architecture of single- and multivector models
      • Differences between single-vector and multivector retrieval models
  • Approaches in Solving Document AI Problems
    • Early Document AI Models for Information Extraction and Document Classification
      • LayoutLMv3
      • Donut
    • Code Examples: Document AI with Modern Vision Language Models
      • Fine-tuning KOSMOS2.5 with transformers
      • Fine-tuning SmolVLM2 with TRL
    • Document RAG
      • Document retrieval
      • Building e2e document RAG pipeline
  • Summary
• 9. Video-Language Models
  • Foundations
    • Video-Language Tasks
      • Video classification
      • Text-to-video retrieval
      • Captioning, summarization, and video QA
    • From Images to Video: Core Concepts
      • What can we learn from 3D CNNs?
      • Motion as an explicit signal
      • Attention over time (the transformer revolution)
    • The Evolution to Video-Language Models
  • Temporal Modeling
    • Core Challenges in Temporal Modeling
    • Attention Mechanisms for Video
      • Spatiotemporal attention: Three strategies
      • Cross-modal attention: When language guides vision
      • Temporal position encoding
      • Putting it all together
  • Video-Language Models in Practice
    • Picking the Right Output Mode
    • Retrieval Pipelines That Scale
      • Step 1: Segment videos
      • Step 2: Embed segments and build a FAISS index
      • Step 3 (optional): Retrieve then rerank
    • Video-RAG: Retrieval-Augmented Video QA
    • Fine-Tuning a Video-Language Model for Your Domain
      • Whats different from image-VLM fine-tuning?
      • Dataset format
      • Training
  • Efficiency in Video-Language Models
    • Token Efficiency
    • Training Efficiency
  • Summary
• 10. Any-to-Any Models
  • Introducing the Three Approaches
    • Unified Vocabulary Models
    • Hybrid Models
    • Modular Models
  • Unified Vocabulary Models
    • Monolithic Architecture
      • How the monolithic approach works
      • In practice: DeepSeeks Janus-Pro (a transitional architecture)
    • Factorized Heads
      • Asymmetric pattern: Continuous in, discrete out
      • Multicodebook generation
      • How do heads generate RVQ codes?
      • In practice: Qwen2.5-Omni (Thinker-Talker)
  • Hybrid Multiobjective Models
    • Variational Autoencoders
    • Connecting Continuous Latents to Language Models Through Diffusion
    • Putting It All Together: From Prompt to Generated Output
      • Diffusion pseudocode
  • Late-Conditioning Models
    • Conditioning Interfaces: How to Represent Intent
    • Connectors: Bridging the Gap
    • How Generators Use Conditioning
    • Hands On: Qwen-Image-Edit, a Modular Diffusion Editor
  • Training
    • Task Balance and Data Mixing
    • Staged Training: Divide and Conquer
      • Connector-first (alignment before joint training)
      • First understanding and then generation (sequential training)
      • Gradual unmasking (for discrete models)
      • Staged training example: Qwen2.5-Omni
    • Architecture Specific Loss Functions
    • Getting Your Hands Dirty
      • Training scripts
      • Cheat sheet for training
  • Summary
• 11. Advanced Topics and Cutting-Edge Research
  • Agentic Vision Language Models
    • Introduction to Agents
      • The ReAct loop
      • Evaluating agents
    • Introduction to Smolagents
      • First toy example
      • Leveraging Hugging Face Spaces as tools
      • Connecting your model
    • Computer Use Agents
      • Using Holo2-Localization
      • Using ScaleCUA for agentic computer use
      • Vision browser example
  • Vision-Language-Action Models
    • Closing the Perception-Action Loop
      • What VLAs actually do
      • Dataset requirements
    • From VLM to VLA
      • The action expert
      • From input to output, step by step
    • Model Landscape Overview
      • 0.6: VLAs that learn from experience
      • GR00T N1.5: Foundation VLA for humanoids
      • SmolVLA: The efficient
  • Summary
• Index

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