v4v-1024 v1.1.1: Design, Cryptanalysis, and Topological Architecture of an 8192-Bit Memory-Hard ARX Key Derivation Function.

While V4V-1024 adopts the 1024-byte block paradigm validated by Argon2 to enforce memory-hardness, it introduces fundamental mathematical departures [cite: July 26, 2026]: Unified 8192-Bit Permutation Core: Unlike Argon2, which divides its 1024-byte block into sub-matrices processed via BLAKE2b rounds, V4V-1024 applies a single, unified 64-round ARX permutation across all 128 words simultaneously using dynamic stride mixing [cite: July 26, 2026]. Golden Ratio Nonce Injection: Injects constant C = 0x9E3779B97F4A7C15 into every word transformation to eliminate null-block fixed points [cite: July 26, 2026]. Binary Pyramid Network Topology: Structures memory into an interconnected 1024-block pyramid where each node requires evaluating parent nodes, rendering GPU/ASIC acceleration ineffective [cite: July 26, 2026]. Single-Engine Constant-Time Design: Provides GPU resistance and side-channel immunity natively in a single pipeline without needing separate modes (like Argon2d/i/id) [cite: July 26, 2026]. V4V-1024 v1.1.1, an 8192-bit memory-hard cryptographic primitive and Key Derivation Function (KDF) engineered around a native Add-Rotate-Xor (ARX) core architecture [cite: July 26, 2026]. Designed to mitigate parallel hardware attacks, GPU cracking rigs, and side-channel vulnerabilities, V4V-1024 v1.1.1 combines deep sequential memory filling (M_fill), non-linear memory looping (M_loop), multi-stride permutation rounds, and an overarching 1024-block binary pyramid network architecture [cite: July 26, 2026]. Through an exhaustive suite of 33 rigorous empirical validation tests—including Shannon entropy, NIST SP 800-22 statistical evaluations (MonoBIT, Runs), Strict Avalanche Criterion (SAC), differential propagation, linear and non-linear cryptanalysis, and fuzzing—we demonstrate that v1.1.1 achieves near-ideal avalanche characteristics (49.95% to 49.98% SAC average), complete bit diffusion across 8192 bits within 3 rounds, and absolute immunity against collisions and length-extension attacks [cite: 2026-07, July 26, 2026].

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-07-27
DOI
https://doi.org/10.5281/zenodo.21628485
Primary Topic
Cryptographic Implementations and Security
Type
preprint
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preprint

v4v-1024 v1.1.1: Design, Cryptanalysis, and Topological Architecture of an 8192-Bit Memory-Hard ARX Key Derivation Function.

Marco Lazcano
Zenodo (CERN European Organization for Nuclear Research)
Cryptographic Implementations and Security
preprint

v4v-1024 v1.1.1: Design, Cryptanalysis, and Topological Architecture of an 8192-Bit Memory-Hard ARX Key Derivation Function.

Marco Lazcano
preprint en

Abstract

While V4V-1024 adopts the 1024-byte block paradigm validated by Argon2 to enforce memory-hardness, it introduces fundamental mathematical departures [cite: July 26, 2026]: Unified 8192-Bit Permutation Core: Unlike Argon2, which divides its 1024-byte block into sub-matrices processed via BLAKE2b rounds, V4V-1024 applies a single, unified 64-round ARX permutation across all 128 words simultaneously using dynamic stride mixing [cite: July 26, 2026]. Golden Ratio Nonce Injection: Injects constant C = 0x9E3779B97F4A7C15 into every word transformation to eliminate null-block fixed points [cite: July 26, 2026]. Binary Pyramid Network Topology: Structures memory into an interconnected 1024-block pyramid where each node requires evaluating parent nodes, rendering GPU/ASIC acceleration ineffective [cite: July 26, 2026]. Single-Engine Constant-Time Design: Provides GPU resistance and side-channel immunity natively in a single pipeline without needing separate modes (like Argon2d/i/id) [cite: July 26, 2026]. V4V-1024 v1.1.1, an 8192-bit memory-hard cryptographic primitive and Key Derivation Function (KDF) engineered around a native Add-Rotate-Xor (ARX) core architecture [cite: July 26, 2026]. Designed to mitigate parallel hardware attacks, GPU cracking rigs, and side-channel vulnerabilities, V4V-1024 v1.1.1 combines deep sequential memory filling (M_fill), non-linear memory looping (M_loop), multi-stride permutation rounds, and an overarching 1024-block binary pyramid network architecture [cite: July 26, 2026]. Through an exhaustive suite of 33 rigorous empirical validation tests—including Shannon entropy, NIST SP 800-22 statistical evaluations (MonoBIT, Runs), Strict Avalanche Criterion (SAC), differential propagation, linear and non-linear cryptanalysis, and fuzzing—we demonstrate that v1.1.1 achieves near-ideal avalanche characteristics (49.95% to 49.98% SAC average), complete bit diffusion across 8192 bits within 3 rounds, and absolute immunity against collisions and length-extension attacks [cite: 2026-07, July 26, 2026].

Zenodo (CERN European Organization for Nuclear Research)
Cryptographic Implementations and Security
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v4v-1024 v1.1.1: Design, Cryptanalysis, and Topological Architecture of an 8192-Bit Memory-Hard ARX Key Derivation Function. — Marco Lazcano · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS