Why Quant.Bond?
"Quantum computation is a distinctively new way of harnessing nature. It will be the first tech that allows useful tasks to be performed in collaboration between parallel universes." — Davi Deutsch
Last updated
"Quantum computation is a distinctively new way of harnessing nature. It will be the first tech that allows useful tasks to be performed in collaboration between parallel universes." — Davi Deutsch
Last updated
The quantum future is already here. Quantum computing offers unprecedented opportunities to revolutionize optimization, morAI, and cryptography, but it also introduces significant challenges—particularly to the security of the digital infrastructure we rely on today. Quant.Bond was created to address these challenges and unlock the full potential of quantum and post-quantum algorithms through a decentralized, community-driven approach.
Traditional cryptographic systems face an imminent threat from quantum computers, which have the potential to break current encryption standards. Quant.Bond facilitates the rapid development and testing of post-quantum and quantum-safe algorithms, ensuring the world remains ahead in protecting sensitive data. This is particularly crucial for the crypto space, safeguarding everyone's data and financial assets against future vulnerabilities.
The results of all experiments on Quant.Bond are streamed transparently, allowing contributors to see exactly how algorithms perform in real time. This ensures accountability, trust, and a collaborative spirit across the platform.
Quantum computing isn’t just a threat to blockchain; it’s also an opportunity. Quant.Bond uses the power of blockchain to decentralize funding and testing while fostering algorithms that will make both blockchain and traditional systems both quantum-ready and quantum-secure.
CYSTEL leads the way in Quantum GRC (Governance, Risk, and Compliance), helping organizations prepare for the quantum revolution in cybersecurity, AI, and computing. The "store now, decrypt later" threat highlights the urgency, as quantum decryption capabilities could emerge within years. DARPA predicts practical quantum computing in five years, raising challenges like GDPR compliance, outdated banking systems, and international trade complexities. Proactive adaptation is crucial—organizations must quickly adopt NIST's post-quantum cryptography framework and work with quantum experts to stay ahead. Sectors such as biotech, pharma, defense, telecom, and banking must prioritize the transition as data-driven demands grow.
As the global economy becomes more interconnected, funding research into post-quantum cryptographic schemes is essential. Without sufficient investment, the risks posed by quantum computing could outpace the solutions required to protect sensitive systems. Research ensures the creation of resilient algorithms, fosters innovation in cybersecurity, and secures the integrity of critical infrastructure against emerging threats.
Careful Execution: Every component of the system must be updated meticulously to avoid new vulnerabilities.
Research Continuity: With the very unlikely scenario that the NIST standards will be final, ongoing research is essential to maintain preparedness for future breakthroughs.
Timeline: Fully transitioning a supply chain to post-quantum readiness will take approximately seven years, and in general, for other industries and specialized applications, this process requires considerable time and careful planning.
Developing robust post-quantum cryptography requires a structured approach:
Mathematical Foundations: Explore novel mathematical problems that are computationally hard for quantum computers to solve, such as lattice-based, code-based, or isogeny-based structures.
Algorithm Design: Build efficient algorithms based on these problems, balancing security, performance, and practicality.
Security Analysis: Conduct rigorous testing against both classical and quantum attacks to ensure cryptographic soundness.
Implementation: Optimize the algorithms for real-world systems, ensuring compatibility with existing protocols and infrastructure.
Standardization: Collaborate with global entities like NIST to define widely accepted standards for interoperability.
Continuous Research: Even after standardization, ongoing research is critical to address new vulnerabilities and emerging quantum capabilities.
Transitioning to post-quantum security in an organization requires:
Scan for Vulnerabilities: Identify risks in current systems and protocols.
Review and Analyze: Assess gaps in security compliance and potential quantum risks.
Evaluate and Select Solutions: Compare post-quantum cryptographic schemes to find suitable replacements.
Form a Team, Implement, and Test: Assemble an expert team to deploy and rigorously test selected solutions.
Ensure No Disruptions: Monitor systems to confirm the transition didn't break any existing functionality.
The journey to post-quantum security demands bold investments in research and development. Beyond merely addressing current risks, funding helps future-proof systems, maintains compliance across borders, and ensures the trust of customers and stakeholders. The rapid pace of technological change leaves no room for complacency; the only way forward is through proactive research and collaboration to build a secure quantum future.
