OIKAN: Optimized Interpretable Kolmogorov-Arnold Networks
Project description
OIKAN: Optimized Interpretable Kolmogorov-Arnold Networks
Overview
OIKAN (Optimized Interpretable Kolmogorov-Arnold Networks) is a neuro-symbolic ML framework that combines modern neural networks with classical Kolmogorov-Arnold representation theory. It provides interpretable machine learning solutions through automatic extraction of symbolic mathematical formulas from trained models.
Key Features
- 🧠 Neuro-Symbolic ML: Combines neural network learning with symbolic mathematics
- 📊 Automatic Formula Extraction: Generates human-readable mathematical expressions
- 🎯 Scikit-learn Compatible: Familiar
.fit()and.predict()interface - 🚀 Production-Ready: Export symbolic formulas for lightweight deployment
- 📈 Multi-Task: Supports both regression and classification problems
Scientific Foundation
OIKAN is based on Kolmogorov's superposition theorem, which states that any multivariate continuous function can be represented as a composition of single-variable functions. We leverage this theory by:
- Using neural networks to learn optimal basis functions
- Employing SVD projection for dimensionality reduction
- Applying symbolic regression to extract interpretable formulas
Quick Start
Installation
Method 1: Via PyPI (Recommended)
pip install -qU oikan
Method 2: Local Development
git clone https://github.com/silvermete0r/OIKAN.git
cd OIKAN
pip install -e . # Install in development mode
Regression Example
from oikan.model import OIKANRegressor
from sklearn.model_selection import train_test_split
# Initialize model with optimal architecture
model = OIKANRegressor(
hidden_dims=[16, 8], # Network architecture
num_basis=10, # Number of basis functions
degree=3, # Polynomial degree
dropout=0.1 # Regularization
)
# Fit model (sklearn-style)
model.fit(X_train, y_train, epochs=200, lr=0.01)
# Get predictions
y_pred = model.predict(X_test)
# Save interpretable formula to file with auto-generated guidelines
# The output file will contain:
# - Detailed symbolic formulas for each feature
# - Instructions for practical implementation
# - Recommendations for production deployment
model.save_symbolic_formula("regression_formula.txt")
Example of the saved symbolic formula instructions: outputs/regression_symbolic_formula.txt
Classification Example
from oikan.model import OIKANClassifier
# Similar sklearn-style interface for classification
model = OIKANClassifier(hidden_dims=[16, 8])
model.fit(X_train, y_train)
probas = model.predict_proba(X_test)
# Save classification formulas with implementation guidelines
# The output file will contain:
# - Decision boundary formulas for each class
# - Softmax application instructions
# - Production deployment recommendations
model.save_symbolic_formula("classification_formula.txt")
Example of the saved symbolic formula instructions: outputs/classification_symbolic_formula.txt
Architecture Details
OIKAN's architecture consists of three main components:
-
Basis Function Layer: Learns optimal single-variable transformations
- B-spline bases for smooth function approximation
- Trigonometric bases for periodic patterns
- Polynomial bases for algebraic relationships
-
Neural Composition Layer: Combines transformed features
- SVD projection for dimensionality reduction
- Dropout for regularization
- Skip connections for gradient flow
-
Symbolic Extraction Layer: Generates interpretable formulas
- L1 regularization for sparse representations
- Symbolic regression for formula extraction
- LaTeX export for documentation
Contributing
We welcome contributions! Key areas of interest:
- Model architecture improvements
- Novel basis function implementations
- Improved symbolic extraction algorithms
- Real-world case studies and applications
- Performance optimizations
Please see CONTRIBUTING.md for guidelines.
Citation
If you use OIKAN in your research, please cite:
@software{oikan2025,
title = {OIKAN: Optimized Interpretable Kolmogorov-Arnold Networks},
author = {Zhalgasbayev, Arman},
year = {2025},
url = {https://github.com/silvermete0r/OIKAN}
}
License
This project is licensed under the MIT License - see the LICENSE file for details.
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