Language Lab is an exploration of language model implementation. The project examines transformer neural networks through code, breaking down complex computational approaches into observable components.
Language models represent an approach to processing and generating text using mathematical transformations. This implementation looks at one possible method of constructing such a model, examining how text can be converted into numerical representations and processed through neural network architectures.
The project involves:
- Constructing a transformer neural network structure
- Exploring text tokenization methods
- Implementing computational approaches to language processing
- Investigating how mathematical models might interpret textual information
No guarantees are made about the effectiveness or completeness of this approach. It represents one perspective among many possible implementations of language model techniques.
π Community Invitation: Help Shape the Future of Language-Lab!
This project is an evolving exploration of language models and transformer architectures. While functional, it's far from complete. We see immense potential for expansion and innovation!
- Create more sophisticated model architectures
- Develop comprehensive evaluation metrics
- Build interactive visualization tools
- Create more robust error handling
- Develop comprehensive test suites
Whether you're interested in machine learning, NLP, or just curious about transformers, there's room for your expertise. .
- Model Architecture Understanding
- Technical Learning Goals
- Code as Documentation
- Transformer neural networks
- Language model exploration
- Experimental implementation
- Open-source research
- Python-based project
- Self-Attention Mechanism
- Feed-Forward Networks
- Layer Normalization
- Residual Connections
- Word-Level Tokenization
- Frequency-Based Vocabulary
- Special Token Handling
- Python 3.8+
- PyTorch
- Other dependencies listed in
requirements.txt
# Clone the repository
git clone https://github.com/kierenaw/language-lab.git
cd language-lab
# Create a virtual environment
python3 -m venv venv
source venv/bin/activate
# Install dependencies
pip install -r requirements.txt
To start training the language model from scratch:
# Basic training with default parameters
python src/training/train.py
# Customize training parameters
python src/training/train.py \
--epochs 20 \
--batch-size 512 \
--lr-min 1e-6 \
--cycle-epochs 3
Before training, use the learning rate finder to optimize your learning rate:
# Run learning rate range test
python scripts/lr_rate_finder.py \
--start-lr 1e-7 \
--end-lr 10 \
--num-iterations 100
# This generates lr_finder.png to help select optimal learning rate
If your training was interrupted, easily resume from the last checkpoint:
# Resume training from a specific checkpoint
python src/training/train.py \
--resume checkpoints/checkpoint_epoch_5.pt \
--epochs 10 # Additional epochs to train
# Resume with a custom run ID
python src/training/train.py \
--resume checkpoints/checkpoint_epoch_5.pt \
--run-id my_continued_training
- Use
--batch-size
to adjust based on your GPU memory - Experiment with
--lr-min
and--cycle-epochs
for better convergence - Monitor
checkpoints/
for saved models and configurations
Engage with your trained language model:
# Basic chat with default settings
python scripts/chat.py
# Customize chat generation
python scripts/chat.py \
--model checkpoints/best_model.pt \
--temperature 0.8 \
--max-length 100
--model
: Path to model checkpoint (default: best_model.pt)--temperature
: Controls randomness (0.0 = deterministic, 1.0 = very random)--max-length
: Maximum tokens to generate
π€ Language Model Chat Interface
Type 'quit' to exit, 'help' for commands.
You: Once upon a time in a distant kingdom
Model: Once upon a time in a distant kingdom, there lived a wise and benevolent ruler who was beloved by all his subjects. The kingdom was known for its prosperity, its rich culture, and the harmony that existed between its people...
You: Write a poem about artificial intelligence
Model: In circuits deep and algorithms bright,
A mind emerges, dancing with light.
Silicon dreams and neural streams combine,
Where human thought and machine design align...
The Learning Rate Finder helps you determine the optimal learning rate for training your model:
# Run learning rate range test
python src/training/lr_finder.py --plot-path lr_range_test.png
# Analyze the generated plot to find the optimal learning rate
# Look for the point where the loss starts to decrease rapidly
Customize your training process with advanced command-line options:
# Basic training with default parameters
python src/training/train.py \
--epochs 20 \
--batch-size 512 \
--lr-min 1e-6 \
--cycle-epochs 3
# Advanced training configuration
python src/training/train.py \
--epochs 50 \
--batch-size 256 \
--learning-rate 3e-4 \
--weight-decay 1e-5 \
--gradient-clip 1.0 \
--warmup-steps 1000 \
--checkpoint-dir ./custom_checkpoints
Leverage the flexible DataProcessor
for different data sources:
# Example: Processing text from Project Gutenberg books
from src.data_processor import DataProcessor
# Initialize processor with default book collection
processor = DataProcessor()
# Get processed text chunks
texts = processor.process_texts(chunk_size=1000)
# Custom chunk size and processing
custom_texts = processor.process_texts(chunk_size=500)
Explore model generations with the interactive chat script:
# Chat with a trained model
python scripts/chat.py \
--model checkpoints/latest_model.pt \
--temperature 0.7 \
--max-length 100
# Interactive mode with more verbose output
python scripts/chat.py \
--model checkpoints/latest_model.pt \
--verbose \
--interactive
Understand and manipulate text representations:
from src.models.tokenizer import SimpleTokenizer
# Initialize tokenizer
tokenizer = SimpleTokenizer(vocab_size=5000)
# Fit tokenizer on a corpus of texts
tokenizer.fit(["Your training texts here"])
# Encode and decode text
text = "Hello, world!"
encoded_text = tokenizer.encode(text, max_length=20)
decoded_text = tokenizer.decode(encoded_text)
-
CUDA/GPU Errors
- Ensure PyTorch is installed with CUDA support
- Check CUDA and GPU driver compatibility
- Fallback to CPU mode if GPU is unavailable
-
Memory Constraints
- Reduce batch size if encountering out-of-memory errors
- Use gradient accumulation for larger effective batch sizes
-
Performance Optimization
- Use
torch.compile()
for PyTorch 2.0+ performance gains - Consider mixed-precision training with
torch.cuda.amp
- Use
Contributions are welcome! Please read our CONTRIBUTING.md for details on our code of conduct and the process for submitting pull requests.
- Fork the repository
- Create a feature branch
- Commit your changes
- Push to the branch
- Create a Pull Request
This project is licensed under the MIT License. See LICENSE for details.