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TinyTorch/modules/transformer
Vijay Janapa Reddi cd89364a69 Add difficulty ratings to all module README files
- Add Module Info sections with difficulty ratings to all README.md files
- Use consistent 4-star difficulty scale:  Beginner,  Intermediate,  Advanced,  Expert
- Include time estimates, prerequisites, and next steps for each module
- Maintain clear separation: README.md = student experience, module.yaml = system metadata
- Difficulty progression: Setup () → Tensor/Activations/Layers () → Networks/CNN/DataLoader () → Transformer ()
- Help students plan their learning journey and set appropriate expectations
2025-07-11 23:53:43 -04:00
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Transformer Module

📊 Module Info

  • Difficulty: Expert
  • Time Estimate: 8-12 hours
  • Prerequisites: Tensor, Layers, Networks, Autograd, Training modules
  • Next Steps: Advanced NLP, Large Language Models

Status: 🚧 Coming Soon

Overview

The Transformer module will be a lightweight implementation of transformer architecture, teaching students how modern attention-based models work from the ground up.

Learning Goals

  • Understand attention mechanisms and their computational complexity
  • Implement multi-head attention from scratch
  • Learn about positional encoding and layer normalization
  • Explore transformer architecture design patterns
  • Understand memory and computational optimization for attention

Module Dependencies

This module builds on:

  • tensor - For all computations
  • layers - For feed-forward networks
  • networks - For composing transformer blocks
  • autograd - For training attention models
  • training - For training transformer models

Planned Components

  • Attention mechanism implementation
  • Multi-head attention
  • Positional encoding
  • Layer normalization
  • Transformer blocks
  • Complete transformer architecture
  • Memory optimization techniques
  • Attention visualization tools

Systems Focus

  • Memory management for attention matrices
  • Computational complexity analysis
  • Parallelization of multi-head attention
  • Optimization techniques (sparse attention, linear attention)
  • Scaling considerations for large sequences

This module will be implemented after the core modules (tensor, layers, networks, autograd, training) are complete.