Number Theory and Cryptography: Securing the Future of Digital Communication

Pankaj Pachauri

Number Theory and Cryptography: Securing the Future of Digital Communication

Authors: Pankaj Pachauri

Published: 2025-02-21 14:13:46.195

Abstract

This paper explores the critical role number theory plays in developing cryptographic techniques that are essential for digital communication security. Five main areas of focus are covered: the role of prime numbers, modular arithmetic, elliptic curves, quantum-resistant cryptographic strategies, and emerging applications of number theory. The research uses qualitative methodologies including literature review, interviews with experts, and cryptographic simulations that focus on identifying optimum methods in generating prime numbers, advanced modular arithmetic, and innovations within elliptic curve cryptography. Findings point to the critical necessity of developing quantum-resistant algorithms that can oppose future threats and new number-theoretic applications such as homomorphic encryption. While practical deployment challenges persist, this study contributes to the theoretical and applied advancements in cryptographic systems, emphasizing the necessity of ongoing innovation to safeguard digital security.

Keywords

Quantum-Resistant Algorithms, Digital Security, Homomorphic Encryption, Number Theory

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How to Cite

Pankaj Pachauri, (2025-02-21 14:13:46.195). Number Theory and Cryptography: Securing the Future of Digital Communication. Abhi International Journal of Mathematical Science, Volume hJHWKRPYd65OJwN6Zw4y, Issue 1.

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Abhi International Journal of
Mathematical Science ( AIJMS )