Atharv Gyan

Explore how quantum algorithms can enhance cybersecurity through quantum random number generators and other advanced cryptographic techniques. Discuss the potential for quantum computers to break current encryption methods and the future of quantum-resistant cryptography. Quantum computing is a rapidly advancing field with significant implications for cybersecurity. Exploration of how quantum algorithms can enhance cybersecurity and the potential impact of quantum computers on current cryptographic methods, along with the future of quantum-resistant cryptography. Quantum Random Number Generators (QRNGs) Enhancing Security with True Randomness: Traditional Random Number Generators (RNGs): Most current RNGs are pseudo-random, meaning they rely on algorithms to generate numbers that appear random but are actually deterministic if the initial conditions are known. Quantum Random Number Generators: QRNGs leverage the inherent unpredictability of quantum mechanics to produce true randomnes

Variables 1. Declaration var Historically, variables were declared using the var keyword. However, it has some scoping issues and is generally replaced by let and const in modern JavaScript. javascript var x = 10; let Introduced in ES6, let allows you to declare block-scoped variables. This means the variable is only available within the block it is defined. javascript let y = 20; const Also introduced in ES6, const is used to declare block-scoped variables that are read-only. Once a value is assigned to a const variable, it cannot be reassigned. javascript const z = 30; 2. Variable Scope Global Scope: Variables declared outside of any function or block are in the global scope and can be accessed from anywhere in the code. Function Scope: Variables declared within a function using var are confined to the function scope. Block Scope: Variables declared with let or const within a block (denoted by {}) are confined to that block. javascript if (true) {   var a = 40;  // global scope (if