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Postquant Labs Launches Quip.Network Testnet for Decentralized Quantum-Classical Optimization

Quantum Computing Report
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⚡ Quantum Brief
Postquant Labs launched a public testnet for a decentralized quantum-classical platform, attracting 13,000 early sign-ups. The network integrates quantum processors with blockchain, offering researchers low-cost access to distributed quantum computing. The platform features a dual-layer system: a Compute Layer for quantum-classical workloads and an Asset Layer for post-quantum security. It uses D-Wave’s Advantage2 annealing QPUs, optimized for logistics, manufacturing, and financial modeling. A hybrid Proof-of-Work protocol incentivizes quantum and classical hardware collaboration. QPUs solve optimization tasks while CPUs/GPUs verify results, earning QUIP tokens for participation and staking. The Asset Layer adds quantum-resistant security to Ethereum, Solana, and soon Bitcoin via WOTS+ cryptography. Users can protect assets without migrating funds, addressing historic quantum vulnerabilities in DeFi. The open-source project aims to standardize quantum-blockchain interactions. Founders emphasize transparency, with full documentation and code available to accelerate real-world quantum utility adoption.
Postquant Labs Launches Quip.Network Testnet for Decentralized Quantum-Classical Optimization

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Postquant Labs Launches Quip.Network Testnet for Decentralized Quantum-Classical Optimization Postquant Labs has officially launched the public testnet for Quip.Network, a decentralized platform designed to bridge the gap between quantum hardware and blockchain infrastructure. With over 13,000 early sign-ups, the network operates as a dual-layer ecosystem: a “Compute Layer” that serves as a trustless marketplace for quantum and classical processing, and an “Asset Layer” providing post-quantum security for existing blockchains. The launch aims to provide the global research community with a verifiable environment to experiment with distributed quantum computing without the high capital expenditure typically associated with private hardware access. Developed in consultation with D-Wave Quantum Inc., the initial compute subnet is optimized for complex optimization problems. The testnet specifically utilizes D-Wave’s Advantage2™ annealing quantum computers, a modality that has demonstrated competitive performance in logistics, manufacturing, and financial modeling. By integrating these QPUs into a blockchain-managed marketplace, Quip.Network allows users to submit workloads that are routed to quantum providers with excess capacity, effectively creating an “on-demand” cloud instance for quantum-classical hybrid tasks. The network’s unique “Proof-of-Work” protocol incentivizes a heterogeneous hardware mix. While QPUs handle the core optimization workloads, classical CPUs and GPUs participate by verifying the correctness of quantum solutions and securing the ledger. Participants compete for QUIP token incentives, which serve as the native utility for job fees, block rewards, and validator staking. This competitive model is designed to move “quantum advantage” away from theoretical claims and toward verifiable, real-world benchmarks achieved on a distributed scale. Beyond computation, the platform’s Asset Layer introduces a post-quantum security wrapper for established networks like Ethereum (EVM) and Solana, with Bitcoin support currently in development. Utilizing WOTS+ (Winternitz One-Time Signature plus) hash-based cryptography, Quip.Network allows users to secure assets against emerging quantum threats without requiring them to migrate funds to a new blockchain or navigate complex bridges. This “wrapper” approach addresses the “historic P2PK” vulnerability by providing a quantum-resistant vault that interfaces directly with existing decentralized finance (DeFi) ecosystems. By open-sourcing the entire codebase on GitHub, Postquant Labs is positioning Quip.Network as a community-hardened infrastructure. The project’s co-founders, Colton Dillion and Dr. Richard Carback, emphasize that the goal is to create a transparent standard for quantum blockchain interactions where research teams can submit and prove optimized work proofs for their own specific processors. This collaborative framework, supported by documentation on Gitbook, is intended to accelerate the transition from isolated lab experiments to a robust, globally accessible quantum utility layer. For technical documentation, node setup guides, and the open-source codebase, visit the official Quip.Network portal here and the full launch announcement here. April 4, 2026 Mohamed Abdel-Kareem2026-04-04T17:42:54-07:00 Leave A Comment Cancel replyComment Type in the text displayed above Δ This site uses Akismet to reduce spam. Learn how your comment data is processed.

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quantum-finance
quantum-optimization
quantum-computing
quantum-hardware
quantum-cryptography
quantum-advantage
d-wave

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Source: Quantum Computing Report