Machine Learning Portfolio

Deploying Intelligence.

A curated collection of production-ready predictive models, from clinical diagnostics to market valuations.

HeartHealth AI

Clinical neural diagnostics using Logistic Regression and Explainable AI (XAI) to evaluate cardiovascular risk factors.

Python Flask Classification
Launch Dashboard

AgroYield Predictor

Machine learning model engineered to forecast agricultural crop yields based on soil metrics, rainfall, and environmental data.

Python Random Forest Regression
Launch Dashboard

Laptop Price Predictor

An automated valuation pipeline that predicts accurate retail prices for laptops based on Brand, Processor tier, RAM, SSD/HDD storage, and GPU.

Python XGBoost Regression
Launch Predictor
Educational Guide

Demystifying ML.

Machine Learning is teaching computers to learn from data rather than being explicitly programmed. Here are the three main paradigms.

Type 1: Task Driven

Supervised Learning

The algorithm is trained on a "labeled" dataset. This means the model acts like a student studying with an answer key. It learns the mathematical relationship between the input features (like patient symptoms or laptop specs) and the target output.

It is divided into two main categories:

  • Classification: Predicting a specific category or class.
    Example: Is this patient Low Risk or High Risk for heart disease?
  • Regression: Predicting a continuous number.
    Example: What will the exact retail price of this laptop be?
  • In my portfolio: HeartHealth AI uses Classification, while the AgroYield Predictor and Laptop Predictor use Regression!
Data Classification Graph
Type 2: Data Driven

Unsupervised Learning

The algorithm is given data without any labels or instructions on what to do with it. The system's job is to discover hidden patterns, groupings, or structures entirely on its own.

  • Use Cases: Customer Segmentation, Anomaly Detection (Fraud), DNA clustering.
  • How it works: It groups similar data points together into "clusters".
Data Clustering
Type 3: Environment Driven

Reinforcement Learning

An "agent" learns how to behave in an environment by performing actions and seeing the results. It operates on a reward system—getting positive feedback for good actions and negative feedback for bad ones, slowly learning the optimal strategy.

  • Use Cases: Self-Driving Cars, Chess AI, Robotics.
  • Analogy: Training a dog with treats!
AI Logic Map