Files
TinyTorch/book/learning-progress.md
Vijay Janapa Reddi 06b35c34bd Fix training pipeline: Parameter class, Variable.sum(), gradient handling
Major fixes for complete training pipeline functionality:

Core Components Fixed:
- Parameter class: Now wraps Variables with requires_grad=True for proper gradient tracking
- Variable.sum(): Essential for scalar loss computation from multi-element tensors
- Gradient handling: Fixed memoryview issues in autograd and activations
- Tensor indexing: Added __getitem__ support for weight inspection

Training Results:
- XOR learning: 100% accuracy (4/4) - network successfully learns XOR function
- Linear regression: Weight=1.991 (target=2.0), Bias=0.980 (target=1.0)
- Integration tests: 21/22 passing (95.5% success rate)
- Module tests: All individual modules passing
- General functionality: 4/5 tests passing with core training working

Technical Details:
- Fixed gradient data access patterns throughout activations.py
- Added safe memoryview handling in Variable.backward()
- Implemented proper Parameter-Variable delegation
- Added Tensor subscripting for debugging access(https://claude.ai/code)
2025-09-28 19:14:11 -04:00

6.3 KiB

Track Your Progress

Monitor Your Learning Journey

Track your capability development through 16 essential ML systems skills

Purpose: Monitor your capability development through the 21-checkpoint system. Track progress from foundation skills to production ML systems mastery.

Track your progression through 21 essential ML systems capabilities. Each checkpoint represents fundamental competencies you'll master through hands-on implementation—from tensor operations to production-ready systems.

How to Track Your Progress

🎯 Capability-Based Learning

Use TinyTorch's 21-checkpoint system to monitor your capability development. Track progress from foundation skills to production ML systems mastery.

📖 See Essential Commands for complete progress tracking commands and workflow.

Your Learning Path Overview

TinyTorch organizes learning through four major phases, each building essential ML systems capabilities:

📖 See Complete Course Structure for the full learning timeline and detailed module descriptions.

Student Learning Journey

Typical Student Progression

  • Week 1-2: Foundation capabilities (Environment, Tensors, Activations)
  • Week 3-4: Core learning systems (Layers, Losses, Autograd)
  • Week 5-6: Training and optimization (Optimizers, Training loops)
  • Week 7-8: Advanced architectures (Spatial processing, Attention)
  • Week 9-12: Production systems (Profiling, Optimization, Deployment)

Study Approaches

  • Full Implementation (8-12 weeks): Build every component from scratch
  • Guided Study (4-6 weeks): Study solution notebooks with implementation exercises
  • Quick Exploration (2 weeks): Focus on key concepts with provided implementations

📖 See Quick Start Guide for immediate hands-on experience with your first module.

21 Core Capabilities

Track progress through essential ML systems competencies:

:class: note
Each checkpoint validates mastery of fundamental ML systems skills.
Checkpoint Capability Question Modules Required Status
00 Can I set up my environment? 01 Setup
01 Can I manipulate tensors? 02 Foundation
02 Can I add nonlinearity? 03 Intelligence
03 Can I build network layers? 04 Components
04 Can I measure loss? 05 Networks
05 Can I compute gradients? 06 Learning
06 Can I optimize parameters? 07 Optimization
07 Can I train models? 08 Training
08 Can I process images? 09 Vision
09 Can I load data efficiently? 10 Data
10 Can I process text? 11 Language
11 Can I create embeddings? 12 Representation
12 Can I implement attention? 13 Attention
13 Can I build transformers? 14 Architecture
14 Can I profile performance? 14 Deployment
15 Can I accelerate algorithms? 15 Acceleration
16 Can I quantize models? 16 Quantization
17 Can I compress networks? 17 Compression
18 Can I cache computations? 18 Caching
19 Can I benchmark competitively? 19 Competition
20 Can I build complete language models? 20 TinyGPT Capstone

📖 See Essential Commands for progress monitoring commands.


Capability Development Approach

Foundation Building (Checkpoints 0-3)

Capability Focus: Core computational infrastructure

  • Environment configuration and dependency management
  • Mathematical foundations with tensor operations
  • Neural intelligence through nonlinear activation functions
  • Network component abstractions and forward propagation

Learning Systems (Checkpoints 4-7)

Capability Focus: Training and optimization

  • Loss measurement and error quantification
  • Automatic differentiation for gradient computation
  • Parameter optimization with advanced algorithms
  • Complete training loop implementation

Advanced Architectures (Checkpoints 8-13)

Capability Focus: Specialized neural networks

  • Spatial processing for computer vision systems
  • Efficient data loading and preprocessing pipelines
  • Natural language processing and tokenization
  • Representation learning with embeddings
  • Attention mechanisms for sequence understanding
  • Complete transformer architecture mastery

Production Systems (Checkpoints 14-15)

Capability Focus: Performance and deployment

  • Profiling, optimization, and bottleneck analysis
  • End-to-end ML systems engineering
  • Production-ready deployment and monitoring

Start Building Capabilities

Begin developing ML systems competencies immediately:

Begin Capability Development

Start with foundational capabilities and progress systematically

15-Minute Start → Begin Setup →

Track Your Progress

To monitor your capability development and learning progression, use the TITO checkpoint commands.

📖 See Essential Commands for complete command reference and usage examples.

Approach: You're building ML systems engineering capabilities through hands-on implementation. Each capability checkpoint validates practical competency, not just theoretical understanding.