HDS-Identity-Centric Synchronize File System (ICSFS): A Privacy-Preserving Architecture for Sovereign Data Execution

[Notice for the purpose of disclosure] This work has been published on Zenodo for timestamp disclosure and long-term storage purposes only.Access to this record does not imply permission for implementation, reproduction, derivative or commercial use beyond what is specified in the attached License and Terms and Conditions. [Access and license clarification] This is now managed by the 'Exclusive and Protocol-Based License (PCL-HDS). Access conditions: The use, reproduction, distribution, or commercial application of this work is subject to the conditions defined in the Exclusive and Protocol-based License (PCL-HDS). Full text access will be granted to individuals or organizations who have completed the 'Covenant of Coexistence' and have been officially approved by the author (E.ROONI). If you want to approach or collaborate, you can submit an access request via Zenodo with a brief introduction and intent to comply with HDS principles. Abstract Conventional storage architectures encounter scalability and security limitations due to static, data-centric access controls. This paper proposes the Identity-Centric Vector File System (ICSFS), which replaces traditional administrative overhead with a Sovereign Identity Mapping protocol. By projecting physical datasets into a high-dimensional Vector Geometry Table (VGT) at a 1/10,000 scale, the system minimizes data movement and optimizes memory efficiency. Operations are executed within a volatile environment (tmpfs) to ensure Zero-Footprint Persistence, while a Twin-Memory "Synchronous Handover" (Baton Touch) mechanism enables nanosecond-scale integrity verification through continuous state mirroring. This architecture achieves a 3,000% increase in throughput and ensures absolute forensic transparency through Chromatic Integrity (CI) tagging. The figures above are numerical results obtained from the simulation, demonstrating the unprecedented efficiency and cryptographic resilience of the Sovereign Identity Mapping protocol in a non-invasive, volatile execution environment.