Quantum computing could undermine the encryption that keeps wireless communications safe—from base stations to smartphones. This article examines the vulnerabilities in radio access networks, the risks to base stations, and the strategies needed to achieve quantum resilience, including quantum key distribution, post-quantum cryptography, and hybrid approaches that combine classical and quantum security.

Quantum computing could soon render current mobile network encryption obsolete, putting subscriber data and trust at risk. This article outlines the legal, reputational, and operational dangers of delaying action, and provides a strategic roadmap for MNOs to assess vulnerabilities, adopt quantum-safe cryptography, upgrade infrastructure, and communicate their commitment to security in the post-quantum era.

Waiting for PQC standards to finalise could leave mobile networks exposed to future quantum threats—and behind competitors who act now. This article outlines the security and market risks of delaying, the trust and brand benefits of early adoption, and practical steps for infrastructure preparation, staff training, and strategic planning based on insights from early adopters.

The rise of quantum computing is forcing mobile operators to rethink network security. This guide explains how to prepare your 4G and 5G networks for post-quantum cryptography (PQC), covering infrastructure assessments, upgrade priorities, cost planning, and strategies to future-proof both access and core networks while balancing performance and budget.

Quantum computing could render current SIM card encryption obsolete. This article examines how ETSI, GSMA, and 3GPP are developing post-quantum cryptographic standards to safeguard mobile networks, enhance SIM security, and prepare the telecom industry for a quantum-ready future.

Quantum computing could undermine today’s messaging security within years. This article explains why telcos must deploy quantum-safe messaging by 2026, exploring the threats, enabling technologies like QKD, commercial benefits, implementation challenges, and the collaborative efforts needed to prepare for the quantum future.

Quantum computing could break the encryption protecting civil mobile networks within years. This article explains the vulnerabilities in current systems, the cost of inaction, and how adopting post-quantum cryptography can safeguard communications, future-proof infrastructure, and maintain user trust.

Encryption keeps your data safe from prying eyes. This beginner’s guide explains what encryption is, how it works, the differences between symmetric and asymmetric methods, and why it’s vital for digital privacy and security in today’s connected world.

Cryptographic hash functions act as digital fingerprints, ensuring the integrity and authenticity of data in everything from financial transactions to password storage. This guide explains SHA algorithms, HMAC, salting, and why hashing is essential for modern cybersecurity.

Symmetric key cryptography is one of the fastest and most widely used methods for securing data. This beginner’s guide explains how it works, the difference between block and stream ciphers, the history of DES and AES, real-world applications, vulnerabilities, and its future in the quantum era.