EqX Field-RAM Architecture and Its Differences from Conventional Memory

EqX Field-RAM Architecture and Its Differences from Conventional Memory While electronic memory technologies over the past decades have heavily relied on binary (Base-2) storage structures based on conventional transistors and capacitors, the EqX Field-RAM architecture introduces a revolutionary paradigm utilizing a Field-State Mapping system that transforms data into phase-state fields with structural error-mitigation distribution. Results from hardware-level RTL simulation and full-address stress testing demonstrate that this memory achieves flawless performance and data integrity with a zero bit error rate (BER=0BER=0) across the fully simulated address space, while seamlessly completing timing verification (Static Timing Analysis via OpenSTA v3.1.0) on a native silicon environment. Key Highlights and Major Differences from Current RAM: Field-State Lattice Storage Architecture: Unlike conventional RAM (such as SRAM or DRAM), which directly stores electrical charges or single-bit switch states, EqX Field-RAM employs a data field mapping structure, providing high flexibility and mitigating the risk of data loss at the hardware level. Zero-Error State (BER=0BER=0): Verified through randomized full-address write-and-read stress testing with zero escaped errors, eliminating the overhead of complex external Error Correction Code (ECC) circuitry. Timing Closure Feasibility: Designed to fully support logic synthesis and clock signal verification (STA) workflows without signal integrity bottlenecks, making it an ideal candidate for mission-critical systems and next-generation high-performance computing. Contact : [email protected]

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-02
DOI
https://doi.org/10.5281/zenodo.23883933
Primary Topic
Low-power high-performance VLSI design
Type
article
Field-Weighted Citation Impact
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article

EqX Field-RAM Architecture and Its Differences from Conventional Memory

Bhattharawut Bhoomarat
1 links
Zenodo (CERN European Organization for Nuclear Research)
Low-power high-performance VLSI design
article

EqX Field-RAM Architecture and Its Differences from Conventional Memory

Bhattharawut Bhoomarat
article en

Abstract

EqX Field-RAM Architecture and Its Differences from Conventional Memory While electronic memory technologies over the past decades have heavily relied on binary (Base-2) storage structures based on conventional transistors and capacitors, the EqX Field-RAM architecture introduces a revolutionary paradigm utilizing a Field-State Mapping system that transforms data into phase-state fields with structural error-mitigation distribution. Results from hardware-level RTL simulation and full-address stress testing demonstrate that this memory achieves flawless performance and data integrity with a zero bit error rate (BER=0BER=0) across the fully simulated address space, while seamlessly completing timing verification (Static Timing Analysis via OpenSTA v3.1.0) on a native silicon environment. Key Highlights and Major Differences from Current RAM: Field-State Lattice Storage Architecture: Unlike conventional RAM (such as SRAM or DRAM), which directly stores electrical charges or single-bit switch states, EqX Field-RAM employs a data field mapping structure, providing high flexibility and mitigating the risk of data loss at the hardware level. Zero-Error State (BER=0BER=0): Verified through randomized full-address write-and-read stress testing with zero escaped errors, eliminating the overhead of complex external Error Correction Code (ECC) circuitry. Timing Closure Feasibility: Designed to fully support logic synthesis and clock signal verification (STA) workflows without signal integrity bottlenecks, making it an ideal candidate for mission-critical systems and next-generation high-performance computing. Contact : [email protected]

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 26%
Low-power high-performance VLSI design
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