This project implements automated testing for the OpenCart e-commerce platform using Cypress and the Page Object Model (POM) design pattern. It provides comprehensive end-to-end testing of critical user journeys including account management, shopping experience, and affiliate program features. Features Tested User Registration and Authentication New user registration User login and logout Form validation E-commerce Functionality Product search Shopping cart management Checkout process Affiliate Program Affiliate account registration Form submission and validation Technologies Used Cypress (v10+) JavaScript ES6+ Page Object Model (POM) OpenCart Demo Site as Testing Environment Project Structure ├── cypress │ ├── Integration │ │ └── PageClass │ │ └── AffiliateTesting.js # Main test file │ └── support │ └── PageClass │ ├── AffiliatePage.js # Affiliate page actions │ ├── Checkout.js # Checkout process actions │ ├── HomePage.js # Homepage actions │ ├── LoginPage.js # Login functionality │ ├── LogoutPage.js # Logout functionality │ └── Register.js # Registration process └── cypress.config.js # Cypress configuration Page Objects HomePage.js

URL navigation Logo visibility verification Cart button verification Account dropdown handling Register.js

User registration form handling Newsletter subscription Privacy policy agreement Registration success verification LoginPage.js

Email and password input Login button interaction Success/failure verification LogoutPage.js

Logout action Post-logout navigation Checkout.js

Product search Cart management Address details input Order placement and verification AffiliatePage.js

Affiliate form completion Payment method selection Terms agreement Success verification Test Scenarios

1. Complete User Journey it('should perform the complete workflow', () => { // User Registration homePage.EnterURL(); homePage.VerifyLogoVisibility(); homePage.GoToRegisterPage(); registerPage.EnterFirstName('robin'); // ... additional registration steps

   // Logout & Login logoutPage.Logout(); homePage.GoToLoginPage(); loginPage.EnterEmail('robin25june.com'); // ... login steps

   // Shopping & Checkout checkout.SearchHP(); checkout.AddToCartButton(); // ... checkout process });

2. Affiliate Registration it('Affiliate Page', () => { // Login homePage.EnterURL(); loginPage.EnterEmail('robin25june.com'); // ... login steps

   // Affiliate Registration affiliatePage.clickOnAffiliate(); affiliatePage.FillAffiliateForm({ company: 'robin Inc.', website: 'www.robin.com', // ... additional form details }); affiliatePage.VerifyAffiliateSuccess(); }); Setup and Running Tests Prerequisites Node.js (v12 or higher) npm (Node Package Manager) Installation Clone the repository:

git clone https://github.com/robin-test-coder/Construct_Week_Unit3_Project.git Navigate to project directory:

cd Construct_Week_Unit3_Project Install dependencies:

npm install Running Tests Headless mode:

npx cypress run Test Runner (Interactive mode):

npx cypress open Best Practices Implemented Page Object Model for improved maintainability Consistent waiting strategies using cy.wait() Descriptive test and method naming Reusable methods for common actions Robust element selection using IDs and reliable selectors Comprehensive error handling and verification Lessons Learned Effective use of Cypress for e-commerce testing Implementation of Page Object Model in JavaScript Handling of complex user journeys and form submissions Best practices for test organization and maintenance Future Enhancements Add API testing layer Implement data-driven testing Add visual regression tests Integrate with CI/CD pipeline Contributing Fork the repository Create your feature branch: git checkout -b feature/AmazingFeature Commit your changes: git commit -m 'Add some AmazingFeature' Push to the branch: git push origin feature/AmazingFeature Open a pull request Notes This project uses the OpenCart demo site for testing purposes Test data is currently hardcoded and should be moved to fixtures for production use Some tests may need adjustment based on the demo site's state Author robin kushwaha Java Programming Concepts Project Overview This project demonstrates key Java programming concepts including interface implementation, geometric shape calculations, and autoboxing/unboxing operations. It serves as an educational resource for understanding object-oriented programming in Java.

Table of Contents Shape Implementation Autoboxing and Unboxing Project Structure How to Run Concepts Covered Shape Implementation Overview Demonstrates the use of interfaces and implementing classes to create a geometric shape calculator.

Components Shape Interface

interface Shape { double area(); double perimeter(); } Implementing Classes

Circle Rectangle Square Triangle Features Calculation of area and perimeter for different shapes Implementation of interface methods Use of constructors for initialization Display methods for each shape Example Usage Circle circle = new Circle(5.0); circle.display();

Rectangle rectangle = new Rectangle(4.0, 6.0); rectangle.display(); Autoboxing and Unboxing Overview Demonstrates automatic conversion between primitive types and their corresponding wrapper classes.

Features Autoboxing: Converting primitives to wrapper objects Unboxing: Converting wrapper objects back to primitives Examples with multiple data types (int, double) Example Usage // Autoboxing int primitiveInt = 10; Integer autoboxedInteger = primitiveInt;

// Unboxing Integer autoboxedIntValue = 20; int unboxedInt = autoboxedIntValue; Project Structure Project_Construct_Week/ ├── ShapeDemo.java ├── AutoboxingUnboxing.java └── README.md How to Run Prerequisites Java Development Kit (JDK) 8 or higher Java IDE (Eclipse, IntelliJ IDEA) or command line compiler Running the Shape Demo javac Project_Construct_Week/ShapeDemo.java java Project_Construct_Week.ShapeDemo Running the Autoboxing/Unboxing Demo javac Project_Construct_Week/AutoboxingUnboxing.java java Project_Construct_Week.AutoboxingUnboxing Concepts Covered

1. Object-Oriented Programming Interfaces Class implementation Method overriding Encapsulation
2. Java Type System Primitive types Wrapper classes Automatic type conversion
3. Mathematical Concepts Geometric formulas Math class usage Precision in calculations Example Output Shape Demo Circle: Radius: 5.0 Area: 78.53981633974483 Perimeter: 31.41592653589793

Rectangle: Width: 4.0, Height: 6.0 Area: 24.0 Perimeter: 20.0 ... Autoboxing/Unboxing Demo Autoboxing Example: Primitive int: 10 Autoboxed Integer: 10

Unboxing Example: Autoboxed Integer: 20 Unboxed int: 20 ... Learning Outcomes Understanding interface implementation in Java Practicing object-oriented design principles Learning about Java's type system and automatic conversions Implementing mathematical concepts in programming Author Robin