As the internet moves toward a future where quantum computers could break current encryption methods, the need for stronger, quantum-resistant encryption is growing. Quantum computers, which use quantum mechanics to perform complex calculations, could theoretically decrypt data that is currently considered secure. Tim Hudson, President of OpenSSL Corporation, notes that such quantum decryption capabilities may become available in the coming years, prompting both businesses and cybercriminals to prepare for this shift. Governments and regulatory bodies are beginning to require companies to adopt more advanced encryption methods to protect against these future threats. However, transitioning to quantum-safe encryption poses technical challenges. For example, quantum-safe algorithms often require larger data transfers, which can cause delays, especially on mobile or satellite networks. Larger digital signatures, needed for secure communications, may increase data volume and lead to network congestion. OpenSSL, a widely used open-source encryption library, is working on developing post-quantum cryptography to help secure the internet. The transition to quantum-safe encryption involves two key areas: key exchange and digital signatures. While key exchange methods using post-quantum algorithms are already being used in browsers and content delivery networks, digital signatures remain a challenge due to their larger size and potential impact on network performance. For businesses, managing this transition requires careful planning, especially with limited budgets. Chief Information Security Officers (CISOs) are advised to inventory their existing cryptographic systems before investing in new solutions. Critical components such as hardware security modules, firmware keys, and long-term embedded systems need to be secured early, as they can't be easily upgraded later. To ease the transition, businesses can use hybrid systems that combine traditional and post-quantum algorithms, ensuring compatibility with current infrastructure. Despite progress, challenges remain, particularly in funding and validating new encryption standards. Countries like the U.S. and Australia have set timelines for moving to quantum-safe encryption, but smaller organizations and embedded systems with long lifespans are often left without clear guidance. Open-source projects are helping to drive the transition by ensuring compatibility across different platforms, but more support is needed to keep pace with the growing demand. For the average user, the move to a quantum-safe internet will likely be invisible, with most changes happening behind the scenes. However, there may be some noticeable effects, such as slightly larger file transfers and more frequent software updates. Users are encouraged to keep their software up to date and be cautious of products that claim to be "quantum-safe" without proven security. For data that needs long-term confidentiality, using services that have already adopted post-quantum encryption is a wise choice.