This paper introduces Crux Chain, a novel blockchain architecture addressing the Blockchain Impossible Triangle—balancing decentralization, security, scalability, and resource efficiency. At its core, Crux Chain responds to the fundamental challenge of blockchain design: balancing resource constraints, security requirements, and operational feasibility in decentralized systems. The framework integrates Ladder Swapping, Proof of History, modular hashing, and a two-stage Bidding/Mean Average consensus mechanism to enable fast block finalization with significantly lower energy consumption than traditional Proof-of-Work models. Through traceable transaction streams, dynamic address reassignment, and efficient sharding with minimal redundancy, Crux Chain maintains robust data integrity while reducing computation and storage demands. Its interwoven structure enhances resistance to Sybil attacks, transaction malleability, and systemic vulnerabilities, while supporting multi-chain interoperability. A key feature is the balanced allocation of verification responsibilities between requesters and verifiers, by components such as the Crux/Shell design. This improves processing efficiency and reinforces decentralized trust. Beyond technical performance, Crux Chain aligns with ESG goals by lowering carbon emissions and promoting transparent, auditable transactions. Its modular, verifiable architecture also facilitates integration of Real World Assets (RWA) and Real Data Assets (RDA), supporting trusted tokenization and lifecycle management of physical and authenticated digital assets. Crux Chain offers a sustainable, high-performance blockchain foundation and outlines a pathway for further research in modular optimization, cross-chain security, and real-world implementation.

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Crux Chain: An Energy-Efficient Blockchain Framework

  • Yu Julian Fong Chuan

摘要

This paper introduces Crux Chain, a novel blockchain architecture addressing the Blockchain Impossible Triangle—balancing decentralization, security, scalability, and resource efficiency. At its core, Crux Chain responds to the fundamental challenge of blockchain design: balancing resource constraints, security requirements, and operational feasibility in decentralized systems. The framework integrates Ladder Swapping, Proof of History, modular hashing, and a two-stage Bidding/Mean Average consensus mechanism to enable fast block finalization with significantly lower energy consumption than traditional Proof-of-Work models. Through traceable transaction streams, dynamic address reassignment, and efficient sharding with minimal redundancy, Crux Chain maintains robust data integrity while reducing computation and storage demands. Its interwoven structure enhances resistance to Sybil attacks, transaction malleability, and systemic vulnerabilities, while supporting multi-chain interoperability. A key feature is the balanced allocation of verification responsibilities between requesters and verifiers, by components such as the Crux/Shell design. This improves processing efficiency and reinforces decentralized trust. Beyond technical performance, Crux Chain aligns with ESG goals by lowering carbon emissions and promoting transparent, auditable transactions. Its modular, verifiable architecture also facilitates integration of Real World Assets (RWA) and Real Data Assets (RDA), supporting trusted tokenization and lifecycle management of physical and authenticated digital assets. Crux Chain offers a sustainable, high-performance blockchain foundation and outlines a pathway for further research in modular optimization, cross-chain security, and real-world implementation.