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Credits & Acknowledgments
TinyTorch stands on the shoulders of giants.
This project draws inspiration from pioneering educational ML frameworks and owes its existence to the open source community's commitment to accessible ML education.
Core Inspirations
MiniTorch
minitorch.github.io by Sasha Rush (Cornell Tech)
TinyTorch's pedagogical DNA comes from MiniTorch's brilliant "build a framework from scratch" approach. MiniTorch pioneered teaching ML through implementation rather than usage, proving students gain deeper understanding by building systems themselves.
What MiniTorch teaches: Automatic differentiation through minimal, elegant implementations
How TinyTorch differs: Extends to full systems engineering including optimization, profiling, and production deployment across Foundation → Architecture → Optimization tiers
When to use MiniTorch: Excellent complement for deep mathematical understanding of autodifferentiation
Connection to TinyTorch: Modules 05-07 (Autograd, Optimizers, Training) share philosophical DNA with MiniTorch's core pedagogy
micrograd
github.com/karpathy/micrograd by Andrej Karpathy
Micrograd demonstrated that automatic differentiation—the heart of modern ML—can be taught in ~100 lines of elegant Python. Its clarity and simplicity inspired TinyTorch's emphasis on understandable implementations.
What micrograd teaches: Autograd engine in 100 beautiful lines of Python
How TinyTorch differs: Comprehensive framework covering vision, language, and production systems (20 modules vs. single-file implementation)
When to use micrograd: Perfect 2-hour introduction before starting TinyTorch
Connection to TinyTorch: Module 05 (Autograd) teaches the same core concepts with systems engineering focus
nanoGPT
github.com/karpathy/nanoGPT by Andrej Karpathy
nanoGPT's minimalist transformer implementation showed how to teach modern architectures without framework abstraction. TinyTorch's transformer modules (12, 13) follow this philosophy: clear, hackable implementations that reveal underlying mathematics.
What nanoGPT teaches: Clean transformer implementation for understanding GPT architecture
How TinyTorch differs: Build transformers from tensors up, understanding all dependencies from scratch
When to use nanoGPT: Complement to TinyTorch Modules 10-13 for transformer-specific deep-dive
Connection to TinyTorch: Module 13 (Transformers) culminates in similar architecture built from your own tensor operations
tinygrad
github.com/geohot/tinygrad by George Hotz
Tinygrad proves educational frameworks can achieve impressive performance. While TinyTorch optimizes for learning clarity over speed, tinygrad's emphasis on efficiency inspired our Optimization Tier's production-focused modules.
What tinygrad teaches: Performance-focused educational framework with actual GPU acceleration
How TinyTorch differs: Pedagogy-first with explicit systems thinking and scaffolding (educational over performant)
When to use tinygrad: After TinyTorch for performance optimization deep-dive and GPU programming
Connection to TinyTorch: Modules 14-19 (Optimization Tier) share production systems focus
Academic Foundation
Machine Learning Systems
mlsysbook.ai by Prof. Vijay Janapa Reddi (Harvard University)
TinyTorch began as hands-on exercises for the ML Systems textbook. The book's emphasis on systems engineering—memory hierarchies, performance optimization, production deployment—shaped TinyTorch's three-tier structure and systems-focused learning objectives.
What ML Systems Book teaches: Comprehensive textbook on production ML systems engineering
How TinyTorch differs: TinyTorch is the hands-on implementation companion
When to use: Parallel reading with TinyTorch for theoretical depth and production context
Connection to TinyTorch: TinyTorch modules directly implement concepts from ML Systems Book chapters
What Makes TinyTorch Unique
TinyTorch combines inspiration from these projects into a comprehensive ML systems course:
- Comprehensive Scope: Only educational framework covering Foundation → Architecture → Optimization
- Systems Thinking: Every module includes profiling, complexity analysis, production context
- Historical Validation: Milestone system proving implementations through ML history (1957 → 2018)
- Pedagogical Scaffolding: Progressive disclosure, Build → Use → Reflect methodology
- Production Context: Direct connections to PyTorch, TensorFlow, and industry practices
Recommended Learning Path
For maximum educational value, we recommend:
- Start with micrograd (2 hours) — Understand autograd fundamentals
- Read Deep Learning Book Ch 6 — Mathematical foundations
- Begin TinyTorch (varies by path) — Build complete ML systems
- Reference ML Systems Book — Parallel reading for production context
- Explore tinygrad — Performance optimization and GPU programming
This progression takes you from mathematical foundations → systems implementation → production optimization.
Open Source Gratitude
TinyTorch exists because of open source software:
Core Dependencies:
- NumPy: Numerical computing foundation
- Jupyter: Interactive development environment
- PyTorch: Reference implementation and validation framework
- Rich: Beautiful CLI interfaces
Development Tools:
- Jupyter Book: Documentation and course website
- pytest: Testing infrastructure
- GitHub: Version control and collaboration
Community Contributors
TinyTorch is built by students, educators, and ML engineers who believe in accessible systems education.
View all contributors on GitHub
How to Contribute
TinyTorch is open source and welcomes contributions:
- Found a bug? Report it on GitHub Issues
- Improved documentation? Submit a pull request
- Built something cool? Share it in GitHub Discussions
License
TinyTorch is released under the MIT License, ensuring it remains free and open for educational use.
Thank you to everyone building the future of accessible ML education.