PQCEVM: 原生后量子预编译指令、Gas 计费代数多项式算子与抗量子二层 Rollup

PQCEVM 制定以太坊改进提案 (EIPs)、研发深度优化 Gas 消耗的 EVM 原生预编译合约，并构建面向 FIPS 203 ML-KEM 与 FIPS 204 ML-DSA 的零知识证明 Rollup 二层扩容架构，实现大规模去中心化抗量子智能合约执行。

PQCEVM Execution Environment & Precompile Architecture

Gas-metered lattice arithmetic precompiles, stateless signature verifiers, and rollup bridges

Central System: EVM PQC Execution Engine - Precompile Address 0x15-0x18

Cryptographic Nodes

  • ML-DSA-65 Precompile
  • ML-KEM-768 Precompile
  • Gas Metering Controller
  • Calldata Compression Unit
  • ZK-STARK Quantum Rollup

Architectural Layers & Protocols

  • EVM Execution Layer (Ethereum Virtual Machine Bytecode & Precompile Dispatch): Routing post-quantum cryptographic calls to native Go/Rust/C++ host functions for maximum throughput.
  • Gas Optimization Subsystem (Precompile Gas Scheduling (EIP-Draft)): Pricing ML-DSA verification at predictable, sustainable gas limits (under 60,000 gas per verification).
  • Calldata Compression & DA (EIP-4844 Data Availability Blobs): Publishing large post-quantum public keys and signatures into ephemeral data blobs, slashing transaction fees by 90%.
  • Quantum-Resilient Layer-2 Rollups (ZK-STARK Validity Proofs / Lattice Rollups): Aggregating thousands of post-quantum transactions into single succinct proofs verified on Layer-1.

Key Metrics: < 55k Gas (ML-DSA-65 Verify Cost) | 100% (EVM Precompile Compatibility) | EIP-4844 (Blob Storage Integration) | STARK-PQC (Layer-2 Scaling Architecture)

后量子以太坊虚拟机、格密码预编译合约（EIP草案）与抗量子智能合约

深入剖析 NIST FIPS 203/204/205 标准、格密码学、侧信道攻击防护及后量子计算防御架构中的Post-Quantum Ethereum Virtual Machine, Lattice Precompiles (EIP Drafts) & Quantum-Immune Smart Contracts关键工程实践。

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