
TLS CipherSuites determine which cryptographic algorithms are used for key exchange, encryption, and integrity. The article explains the structure of cipher suites, their security levels and why the right selection is crucial for secure TLS communication.

The hybrid approach combines classic cryptographic methods with post-quantum-secure algorithms and thereby enables controlled and secure migration to post-quantum cryptography (PQC). This article explains why hybrid processes are currently recommended, how hybrid PQC mechanisms work and what role they play in a future-proof migration strategy.

The emergence of quantum computers introduces new risks for modern cryptography. This article explains how quantum adversaries threaten today’s encryption through attacks such as Harvest-now, Decrypt-later and quantum algorithms like Shor’s and Grover’s, and why organisations must act early to protect long-term sensitive data.

The security level of a cryptographic algorithm indicates how resistant it is to computational attacks. This article outlines how security levels are defined, how different evaluation approaches are used, and how security levels influence the selection of cryptographic algorithms.

Quantum computers fundamentally challenge today's cryptography. Many established cryptographic methods will lose their security in the long term. In order to continue protecting data in the future, it is crucial to understand the differences between classical cryptography, post-quantum cryptography (PQC), and quantum cryptography (QC).

In a connected enterprise, the question is no longer whether a cyberattack will happen, but when. Are you prepared, or could your IT infrastructure be at risk of a total blackout?
Misconfigurations are the fire hazards of the cloud. Cloud Security Posture Management (CSPM) detects risks early and strengthens transparency and security.