MLKEMSafe: 数学形式化证明密码原语、纯 Rust 无崩溃实现与绝对密钥清零

MLKEMSafe 采用纯 Rust 语言与 HACSpec 形式化密码规范构建内存安全且经过形式化数学证明的 FIPS 203 ML-KEM 实现，在底层机器汇编指令级别对内存空间安全性、算法功能正确性及严格常数时间执行做出数学论证。

MLKEMSafe Formal Verification & Memory-Safety Architecture

HACSpec specifications, Coq mathematical proofs, and automated DPA/CPA verification

Central System: Verified Rust Core - HACSpec / Coq Engine

Cryptographic Nodes

  • Formal Specification
  • Rust Safe Layer
  • Constant-Time Verifier
  • Arithmetic Masking Unit
  • Formal Proof Artifact

Architectural Layers & Protocols

  • High-Level Mathematical Specification (HACSpec / Coq Interactive Theorem Prover): Expressing FIPS 203 algorithms in formal logic, mathematically proving equivalence to NIST specs.
  • Memory-Safe Implementation (Safe Rust (no_std, zero unsafe blocks)): Eliminating buffer overflows, use-after-free, and concurrency race conditions at compile time.
  • Constant-Time Machine Code Verification (Jasmin / FaCT / ct-grind): Verifying that LLVM compiler optimizations do not introduce conditional branches on secrets.
  • Side-Channel Countermeasures (Higher-Order Masking & Random Twiddle Shuffling): Injecting random polynomial masks to neutralize Differential Power Analysis (DPA).

Key Metrics: 0 Unsafe (Unsafe Rust Blocks) | Provable (Functional Correctness) | Constant-Time (LLVM Optimization Guarantee) | DPA-Immune (First-Order Masking)

内存安全Rust与形式化验证（HACSpec/Coq）、栈清零与DPA/CPA侧信道功耗分析防御

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Memory-Safe Rust & Formal Verification (HACSpec/Coq), Stack Zeroization & Side-Channel Power Analysis DPA/CPA Defenses关键工程实践。

Core Engineering Areas

Technical Articles

Related Cluster Architecture Specifications