This roadmap combines structured curriculum (week-by-week) and milestone checkpoints so you can track progress whether you study part-time or full-time.
Goal: Build computer, networking, and programming basics.
This roadmap combines structured curriculum (week-by-week) and milestone checkpoints so you can track progress whether you study part-time or full-time.
Goal: Build computer, networking, and programming basics.
This problem set guides you through building a basic HTTP server from scratch using Java's standard library, specifically the java.net.ServerSocket and java.net.Socket classes. The goal is to create a server that handles simple GET requests, parses incoming HTTP requests, and sends valid HTTP responses. We'll break it down into "tickets" – small, incremental tasks that build upon each other, simulating a real-world project workflow.
Prerequisites:
java.net, java.io, java.nio.file).curl (e.g., curl http://localhost:8080/) or a web browser.This problem set guides you through building a basic HTTP server from scratch using Node.js's http module. The goal is to create a server that handles simple GET requests, parses incoming HTTP requests, and sends valid HTTP responses. We'll break it down into "tickets" – small, incremental tasks that build upon each other, simulating a real-world project workflow.
Prerequisites:
http, fs, url).curl (e.g., curl http://localhost:8080/) or a web browser.This problem set guides you through building a basic HTTP server from scratch using Python's standard library (primarily the socket module). The goal is to create a server that can handle simple GET requests, parse incoming HTTP requests, and send valid HTTP responses. We'll break it down into "tickets" – small, incremental tasks that build upon each other, simulating a real-world project workflow.
Prerequisites:
curl (e.g., curl http://localhost:8080/) or a web browser.Assuming you have an AWS IAM console login with admin privileges (which gives you full access to create resources). We'll deploy your Next.js 14 app (with API routes as backend) using AWS Amplify for hosting the frontend and backend, and AWS RDS for a PostgreSQL database (replacing Supabase). AWS Amplify is beginner-friendly as it handles deployment, CI/CD, and scaling automatically.
Important Notes Before Starting:
This guide provides step-by-step instructions for creating a new database user in Atlas, including setting up authentication and assigning privileges.
This document provides an in-depth exploration of recursion, a programming technique where a function calls itself to solve smaller instances of a problem. We cover its concepts, mechanics, algorithms, visualization with Mermaid diagrams (using correct syntax), and implementation in JavaScript with examples. Additionally, we explore three practical use cases, compare recursion with iteration, and discuss optimization techniques like tail recursion and memoization.
Recursion involves a function solving a problem by breaking it into smaller subproblems of the same type, each solved by calling the function again. It relies on:
This document provides an in-depth exploration of the Hash Table data structure, covering its concepts, operations, algorithms, collision resolution techniques, and practical use cases. Each operation is explained, visualized with Mermaid diagrams (using correct syntax), and implemented in JavaScript with example usage. We also explore variations and three real-world use cases to demonstrate the hash table's utility.
A Hash Table (or hash map) is a data structure that maps keys to values using a hash function to compute an index into an array. It provides average-case O(1) time complexity for lookups, insertions, and deletions, making it ideal for fast data retrieval.
This document provides an in-depth exploration of the Queue data structure, covering its concepts, operations, algorithms, and practical use cases. Each operation is explained, visualized with Mermaid diagrams (using correct syntax), and implemented in JavaScript with example usage. Additionally, we explore variations like Circular Queues and Priority Queues, and three real-world use cases to demonstrate the queue's utility.
A Queue is a linear data structure that follows the First-In-First-Out (FIFO) principle, where elements are added (enqueued) at the rear and removed (dequeued) from the front. Queues are fundamental for managing tasks in order of arrival, such as job scheduling or breadth-first search.
This document provides an in-depth exploration of the Stack data structure, covering its concepts, operations, algorithms, and practical use cases. Each operation is explained, visualized with Mermaid diagrams (using correct syntax), and implemented in JavaScript with example usage. Additionally, we explore three real-world use cases with code examples to demonstrate the stack's utility.
A Stack is a linear data structure that follows the Last-In-First-Out (LIFO) principle, where elements are added (pushed) and removed (popped) from the same end, called the top. Stacks are simple yet powerful, used in scenarios requiring reversal, backtracking, or hierarchical processing.