A comprehensive collection of machine learning algorithms implemented from scratch and with industry-standard libraries
"Transforming complex machine learning concepts into clear, implementable blueprints for aspiring data scientists, seasoned professionals, and curious minds alike."
This repository serves as both a personal portfolio showcase and a comprehensive learning resource, demonstrating hands-on implementation of fundamental ML algorithms. Each project is crafted with attention to detail, from data preprocessing to result visualization, making it perfect for recruiters, students, and fellow practitioners.
Machine-learning-blueprints/
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βββ π 01-Linear-Regression/
β βββ linrear_regression.ipynb
β βββ salary_data.csv
β βββ linear_regression_result.png
β βββ README.md
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βββ π³ 02-Decision-Trees/
β βββ Descision_Tree.ipynb
β βββ iris.csv
β βββ decision_tree_result.png
β βββ README.md
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βββ π― 03-k Nearest Neighbors/
β βββ knn.ipynb
β βββ iris.csv
β βββ knn_confusion_matrix.png
β βββ README.md
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βββ π² 04-Naive-Bayes/
β βββ Naive_bayes.ipynb
β βββ iris_dataset_preview.png
β βββ iris_pairplot.png
β βββ Naive_bayes_confusion_matrix.png
β βββ README.md
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βββ β‘05-Support-Vector-Machine/
β βββ Support_Vector_Machine.ipynb
β βββ svm_confusion_matrix.png
β βββ svm_decision_boundary.png
β βββ README.md
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βββ π 06-Logistic-Regression/
β βββ Logistic_Regression.ipynb
β βββ User_Data.csv
β βββ logistic_regression_result.png
β βββ README.md
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βββ π§ 07-Backpropagation/
β βββ Backpropagation.ipynb
β βββ User_Data.csv
β βββ backpropagation_result.png
β βββ README.md
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βββ π 08-Ensemble/
β βββ Ensemble.ipynb
β βββ ensemble_confusion_matrix.png
β βββ ensemble_feature_importance.png
β βββ ensemble_accuracy_comparison.png
β βββ README.md
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βββ π― 09-KMeans-Clustering/
β βββ KMEANS.ipynb
β βββ kmeans_clusters.png
β βββ kmeans_elbow.png
β βββ kmeans_silhouette.png
β βββ README.md
β
βββ README.md
The cornerstone of predictive modeling, linear regression establishes relationships between variables through elegant mathematical simplicity. This implementation demonstrates both simple and multiple regression techniques with comprehensive statistical analysis.
π― Key Achievement:
Beautiful visualization showcasing perfect linear relationships and prediction accuracy
π Explore Full Implementation β
Nature-inspired decision-making algorithm that splits data based on feature importance. This project showcases the interpretability power of tree-based models with stunning visualizations of decision boundaries.
π Visualization Magic:
Interactive tree structure revealing the algorithm's decision-making process
The intuitive algorithm that classifies based on proximity - "tell me who your neighbors are, and I'll tell you who you are." This implementation explores different distance metrics and optimization techniques.
π Performance Analytics:
Precision-crafted confusion matrix showcasing classification excellence
Harness the power of Bayes' theorem for classification tasks. This project features comprehensive analysis of the famous Iris dataset with beautiful statistical visualizations.
πΊ Dataset Deep Dive:
π Explore Probabilistic Magic β
The geometric genius of machine learning, SVMs find optimal decision boundaries with mathematical precision. This implementation showcases both classification and the beauty of kernel tricks.
β‘ Dual Power Visualization:
Left: Elegant decision boundaries | Right: Classification performance metrics
Where linear regression meets classification through the elegant sigmoid function. This project demonstrates the power of logistic regression in binary and multiclass scenarios.
Smooth probability curves showcasing classification confidence
The foundation of deep learning - understanding how neural networks learn through gradient descent and backpropagation. This implementation builds networks from scratch.
Visualizing the learning process through gradient flow
π Dive Deep Into Neurons β
The wisdom of crowds applied to machine learning. This comprehensive project explores Random Forests, Gradient Boosting, and Voting classifiers with detailed performance comparisons.
π Triple Threat Analysis:
Performance Matrix | Feature Insights | Model Comparison
Discover hidden patterns in data without labels. This project showcases the complete clustering pipeline from optimal cluster selection to comprehensive evaluation metrics.
π― Clustering Trinity:
Cluster Visualization | Elbow Method | Silhouette Analysis
π Uncover Hidden Patterns β
graph TD
A[Machine Learning Blueprints] --> B[Supervised Learning]
A --> C[Unsupervised Learning]
A --> D[Model Evaluation]
B --> E[Regression Algorithms]
B --> F[Classification Methods]
B --> G[Neural Networks]
C --> H[Clustering Techniques]
D --> I[Cross Validation]
D --> J[Performance Metrics]
D --> K[Visualization Skills]
E --> L[Linear & Logistic Regression]
F --> M[Trees, SVM, Naive Bayes, KNN]
G --> N[Backpropagation & Deep Learning]
H --> O[K-Means & Pattern Discovery]
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