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Machine Learning

Python with machine learning

Gain expertise in Machine Learning using Python and learn how intelligent systems analyze data, recognize patterns, and make data-driven predictions. This program combines theoretical concepts with hands-on implementation to help learners build scalable machine learning models for real-world business applications.

Course Curriculum — 46 topics

Python Basics

Core Python syntax, indentation rules, comments and writing clean readable code for machine learning workflows.

Functions & Data Structures

Defining functions, working with lists, tuples, sets and dictionaries for data manipulation in ML pipelines.

OOP Concepts

Classes, objects, inheritance, encapsulation and polymorphism applied to machine learning codebases.

Python Libraries for ML

Overview of NumPy, Pandas, Matplotlib, Seaborn and Scikit-learn for machine learning development.

ML Fundamentals

Core concepts of machine learning, how models learn from data and the difference between AI, ML and deep learning.

Types of Machine Learning

Supervised, unsupervised, semi-supervised and reinforcement learning — definitions, differences and use cases.

Industry Applications

Real-world ML applications across healthcare, finance, retail, logistics and recommendation systems.

ML Workflow

End-to-end machine learning workflow from data collection and preprocessing to model training and deployment.

Data Cleaning

Identifying and fixing inconsistent, duplicate and incorrect data entries to prepare clean datasets for ML.

Handling Missing Values

Detecting missing data and applying imputation strategies including mean, median, mode and KNN imputation.

Feature Scaling & Encoding

Normalizing and standardizing numerical features. Encoding categorical variables using label and one-hot encoding.

Data Transformation Techniques

Log transformation, binning, polynomial features and other transformations to improve model performance.

Regression Algorithms

Linear regression, polynomial regression, ridge and lasso regression for predicting continuous outcomes.

Classification Models

Logistic regression, KNN, SVM and naive Bayes for classifying data into discrete categories.

Decision Trees

Building and visualizing decision tree models. Understanding splitting criteria, depth and pruning techniques.

Random Forest Algorithms

Ensemble learning with random forests. Bagging, feature importance and hyperparameter tuning for forests.

Clustering Techniques

Overview of clustering approaches including partitional, hierarchical and density-based clustering methods.

K-Means Clustering

Implementing K-Means, choosing optimal K with the elbow method and evaluating cluster quality.

Dimensionality Reduction

Reducing feature space using PCA and t-SNE while preserving the most important variance in data.

Pattern Recognition

Identifying recurring patterns and structures in unlabeled data using unsupervised learning techniques.

Introduction to Semi-Supervised Learning

Overview of semi-supervised learning and how it bridges the gap between supervised and unsupervised approaches.

Labeled vs Unlabeled Data Concepts

Understanding the role of labeled and unlabeled data and why semi-supervised learning is useful with limited labels.

Semi-Supervised Learning Techniques

Core semi-supervised methods including label propagation, label spreading and consistency regularization.

Self-Training & Pseudo Labeling

Using a model's own predictions as labels for unlabeled data to iteratively improve training performance.

Graph-Based Learning Methods

Representing data as graphs and propagating labels through edges to classify unlabeled nodes.

Real-World Semi-Supervised Applications

Applying semi-supervised learning to text classification, image recognition and medical diagnosis with limited labels.

Model Training with Limited Data

Strategies for training effective ML models when labeled data is scarce including augmentation and transfer learning.

Introduction to Reinforcement Learning

What reinforcement learning is, how agents learn through trial and error and key RL terminology.

Agents, Environments & Rewards

Understanding the RL framework — agents interacting with environments to maximize cumulative reward signals.

Markov Decision Process (MDP) Basics

Formalizing RL problems using states, actions, transitions and reward functions in the MDP framework.

Q-Learning Fundamentals

Understanding Q-values, the Bellman equation and implementing Q-learning for discrete action spaces.

Policy & Value-Based Learning

Comparing policy gradient methods and value-based approaches like DQN for solving RL problems.

Exploration vs Exploitation Strategies

Balancing exploration of new actions and exploitation of known rewards using epsilon-greedy and other strategies.

Real-Time Reinforcement Learning Applications

Applying RL to game playing, robotics control, recommendation systems and autonomous decision-making.

Performance Metrics

Accuracy, precision, recall, F1 score, ROC-AUC and RMSE for evaluating classification and regression models.

Cross Validation

K-fold and stratified cross-validation techniques to reliably estimate model generalization performance.

Hyperparameter Tuning

Grid search, random search and Bayesian optimization for finding optimal model hyperparameters.

Bias & Variance Concepts

Understanding the bias-variance tradeoff, overfitting, underfitting and techniques to achieve model balance.

Scikit-learn Fundamentals

Overview of Scikit-learn API, estimators, transformers and the fit-predict workflow for ML models.

Model Development

Building, training and evaluating classification and regression models using Scikit-learn on real datasets.

Pipeline Creation

Building end-to-end ML pipelines with Scikit-learn Pipeline and ColumnTransformer for clean reproducible workflows.

Practical ML Implementation

Applying Scikit-learn to solve real business problems including churn prediction and price forecasting.

Predictive Analytics Projects

Building end-to-end predictive models on real datasets including sales forecasting and customer segmentation.

Industry Case Studies

Solving industry problems using ML across healthcare diagnosis, fraud detection and demand forecasting.

Business Problem Solving

Framing business problems as ML tasks, selecting appropriate algorithms and communicating results to stakeholders.

Model Deployment Basics

Exporting trained models with joblib and pickle. Serving predictions via FastAPI and deploying to cloud platforms.

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