A field of cryptography that leverages principles of quantum mechanics to secure information. It offers potential for creating communication channels that are theoretically impossible to eavesdrop on without detection. This approach seeks to provide unparalleled security guarantees.
Context
‘Quantum Cryptography’ is gaining attention due to its potential to counteract future threats posed by quantum computers to current cryptographic standards. Discussions often center on the development of quantum-resistant algorithms and their integration into existing blockchain protocols. The race to secure digital assets against quantum advancements is a significant area of research and development.
This research pioneers quantum-derived, auditable randomness via distributed hash graphs, fundamentally enhancing cryptographic security and decentralized trust.
Léonne introduces a novel Proof-of-Consensus framework, leveraging topological networks and quantum cryptography to achieve scalable, decentralized, and quantum-resilient blockchain security.
A novel zero-knowledge proof system enables EdDSA-based blockchains to achieve quantum resistance for existing wallets without address changes or asset transfers.
The looming threat of quantum computing could compromise fundamental blockchain cryptography, risking widespread asset loss across the digital economy.
This research introduces classical-query setups for quantum cryptographic primitives, significantly lowering hardware demands and accelerating practical quantum-secure deployments.
A novel Proof-of-Randomness protocol leverages true random number generators for a physically fair and energy-efficient blockchain consensus, defining a new class of randomized algorithms.
New one-shot signature construction leverages indistinguishability obfuscation, resolving a decade-old cryptographic commitment problem and bolstering post-quantum security.
Researchers unveil the first standard-model one-shot signature, leveraging indistinguishability obfuscation to secure digital assets against quantum threats without coordination.
This framework introduces Proof-of-Consensus, leveraging topological networks and quantum mechanics to achieve scalable, secure, and decentralized blockchain systems.
New quantum-safe threshold ML-DSA signatures, using MPC, enable secure, collaborative signing for public blockchains, protecting against future quantum threats.
This research introduces quantum one-shot signatures, enabling provably secure, single-use digital commitments without relying on artificial oracle models.
A proposed quantum algorithm aimed to efficiently solve lattice problems, threatening post-quantum cryptographic foundations before a critical flaw was identified.
This research introduces Q-PnV, a quantum-enhanced consensus mechanism, to fortify consortium blockchains against future quantum computing threats, ensuring enhanced security and fairness.
Researchers introduce novel zero-knowledge protocols, secured by Learning With Errors, to withstand quantum superposition attacks, ensuring privacy in a post-quantum cryptographic landscape.
This research introduces verifiable one-time programs, unlocking secure, single-round quantum-assisted computation for critical blockchain and internet applications.
This research introduces verifiable one-time programs, enabling single-round secure computation with minimal quantum resources, accelerating practical quantum internet applications.
Léonne introduces a novel Proof-of-Consensus using topological networks and quantum dynamics, enabling scalable, secure, and decentralized blockchains.
This research introduces verifiable one-time programs, foundational for a novel single-round secure computation model, unlocking practical quantum-assisted cryptography with minimal resources.
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