ποΈ Serious Development Path#
Perfect for: βI want to build this myselfβ β’ βThis is my class assignmentβ β’ βI want to understand ML frameworks deeplyβ
π― What Youβll Build#
A complete ML framework from scratch, including:
Your own tensor library with operations and autograd
Neural network components (layers, activations, optimizers)
Training systems that work on real datasets (CIFAR-10)
Production features (compression, monitoring, benchmarking)
End result: A working ML framework you built and understand completely.
π Quick Start (5 minutes)#
Step 1: Get the Code#
git clone https://github.com/your-org/tinytorch.git
cd TinyTorch
Step 2: Setup Environment#
# Activate virtual environment
source bin/activate-tinytorch.sh
# Install dependencies
make install
# Verify everything works
tito system doctor
Step 3: Start Building#
# Open first assignment
cd modules/source/01_setup
jupyter lab setup_dev.py
Step 4: Build β Test β Export β Use#
# After implementing code in the notebook:
tito export # Export your code to tinytorch package
tito test setup # Test your implementation
# Now use YOUR own code:
python -c "from tinytorch.core.setup import hello_tinytorch; hello_tinytorch()"
# π₯ TinyTorch! Built by: [Your Name]
π Learning Path (Progressive Complexity)#
ποΈ Foundation (Weeks 1-2)#
Build the core infrastructure:
Module 01: Setup & CLI
Professional development workflow with
tito
CLIUnderstanding package architecture and exports
Quality assurance with automated testing
Module 01: Tensors
Multi-dimensional arrays and operations
Memory management and data types
Foundation for all ML operations
Module 02: Activations
ReLU, Sigmoid, Tanh, Softmax functions
Understanding nonlinearity in neural networks
Mathematical foundations of deep learning
π§± Building Blocks (Weeks 3-4)#
Create neural network components:
Module 03: Layers
Dense (linear) layers with matrix multiplication
Weight initialization strategies
Building blocks that stack together
Module 04: Networks
Sequential model architecture
Composition patterns and forward propagation
Creating complete neural networks
Module 05: CNNs
Convolutional operations for computer vision
Understanding spatial processing
Building blocks for image classification
π― Training Systems (Weeks 5-6)#
Complete training infrastructure:
Module 06: DataLoader
Efficient data loading and preprocessing
Real dataset handling (CIFAR-10)
Batching, shuffling, and memory management
Module 07: Autograd
Automatic differentiation engine
Computational graphs and backpropagation
The magic that makes training possible
Module 08: Optimizers
SGD, Adam, and learning rate scheduling
Understanding gradient descent variants
Convergence and training dynamics
Module 09: Training
Complete training loops and loss functions
Model evaluation and metrics
Checkpointing and persistence
β‘ Production & Performance (Weeks 7-8)#
Real-world deployment:
Module 10: Compression
Model pruning and quantization
Reducing model size by 75%+
Deployment optimization
Module 11: Kernels
High-performance custom operations
Hardware-aware optimization
Understanding framework internals
Module 12: Benchmarking
Systematic performance measurement
Statistical validation and reporting
MLPerf-style evaluation
Module 13: MLOps
Production deployment and monitoring
Continuous learning and model updates
Complete production pipeline
π οΈ Development Workflow#
The tito
CLI System#
TinyTorch includes a complete CLI for professional development:
# System management
tito system doctor # Check environment health
tito system info # Show module status
# Module development
tito export # Export dev code to package
tito test setup # Test specific module
tito test --all # Test everything
# NBGrader integration
tito nbgrader generate setup # Create assignments
tito nbgrader release setup # Release to students
tito nbgrader autograde setup # Auto-grade submissions
Quality Assurance#
Every module includes comprehensive testing:
100+ automated tests ensure correctness
Inline tests provide immediate feedback
Integration tests verify cross-module functionality
Performance benchmarks track optimization
π Proven Student Outcomes#
Real Results
After 6-8 weeks, students consistently:
β
Build multi-layer perceptrons that classify CIFAR-10 images
β
Implement automatic differentiation from scratch
β
Create custom optimizers (SGD, Adam) that converge reliably
β
Optimize models with pruning and quantization
β
Deploy production ML systems with monitoring
β
Understand framework internals better than most ML engineers
Test Coverage: 200+ tests across all modules ensure student implementations work
π― Why This Approach Works#
Build β Use β Understand#
Every component follows this pattern:
π§ Build: Implement
ReLU()
from scratchπ Use:
from tinytorch.core.activations import ReLU
- your code!π‘ Understand: See how it enables complex pattern learning
Real Data, Real Systems#
Work with CIFAR-10 (not toy datasets)
Production-style code organization
Performance and engineering considerations
Professional development practices
Immediate Feedback#
Code works immediately after implementation
Visual progress indicators and success messages
Comprehensive error handling and guidance
Professional-quality development experience
π Ready to Start?#
Choose Your Module#
New to ML frameworks? β Start with Setup Have ML experience? β Jump to Tensors Want to see the vision? β Try Activations
Get Help#
π¬ Discussions: GitHub Discussions for questions
π Issues: Report bugs or suggest improvements
π§ Support: Direct contact with TinyTorch team
π Ready to build your own ML framework? Your PyTorch-understanding self is 8 weeks away!