A collection of machine learning and pattern recognition implementations focusing on feature extraction, classification, clustering, and statistical analysis using real-world datasets. The project emphasizes end-to-end ML pipelines, from preprocessing to evaluation.
This repository contains multiple experiments and implementations covering core pattern recognition and data mining concepts, including supervised and unsupervised learning techniques, data preprocessing, and performance evaluation.
Key goals:
- Apply theoretical ML concepts to practical datasets
- Analyze algorithm behavior under different feature representations
- Evaluate model performance using quantitative metrics
- Feature extraction and dimensionality reduction
- Supervised classification and unsupervised clustering
- Distance-based and statistical learning methods
- Model training, testing, and evaluation
- Data preprocessing and normalization
Raw Dataset
|
v
Data Preprocessing
(cleaning, normalization)
|
v
Feature Extraction
(statistical / numerical features)
|
v
Model Training
(classification / clustering)
|
v
Evaluation
(accuracy, confusion matrix, error analysis)
- k-Nearest Neighbors (k-NN)
- Bayesian / probabilistic classifiers
- Distance-based similarity measures
- Clustering techniques (e.g., K-Means)
- Statistical pattern recognition methods
Language
- Python
Libraries
- NumPy
- Pandas
- Matplotlib
- Scikit-learn
ML Concepts
- Classification
- Clustering
- Feature Engineering
Evaluation
- Accuracy
- Confusion Matrix
- Error Analysis
Environment
- Jupyter Notebook
- Python Scripts
datasets/— input datasets for experimentsnotebooks/— Jupyter notebooks for analysis and visualizationsrc/— core algorithm implementationsresults/— plots, metrics, and outputsREADME.md— project documentation
pip install -U numpy pandas matplotlib scikit-learn jupyter
jupyter notebook
- Emphasis on algorithm correctness and data-driven evaluation
- Clean separation between data loading, feature extraction, and modeling
- Designed for experimentation and comparative analysis of ML techniques
- Add cross-validation and hyperparameter tuning
- Extend experiments to larger and more diverse datasets
- Compare classical ML methods with neural network baselines
- Automate experiment pipelines