Systematic Analysis of an Innovative DDR5 Connector Design

This article presents the systematic analysis of an innovative double data rate fifth-generation (DDR5) synchronous dynamic random-access memory connector design for motherboard applications. Building on component-level improvements, this article addresses challenges encountered during system integration. The gold finger stub length was adjusted from 2.16 to 0.46 mm, ensuring mechanical robustness while enhancing electrical performance. Simulations were conducted to evaluate the effects of this modification on DDR5’s total radiated power (TRP), insertion loss (IL), return loss (RL), and eye diagram analysis within a desktop motherboard setup. Practical tests, such as memory stability testing with MemTest on various motherboard configurations, validated the predicted improvements. The proposed design achieved stable operation at up to 9000 mega transfers per second (MT/s) for DDR5-8800 modules, demonstrating a 400–500 MHz improvement across all tested configurations. These findings bridge the gap between component-level and performance under system integration, providing meaningful guidance for improving DDR5 system efficiency and signal integrity in next-generation high-performance computing systems.

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Publication Details

Journal
IEEE Transactions on Electromagnetic Compatibility
Published
2025-06-19
DOI
https://doi.org/10.1109/temc.2025.3577371
Primary Topic
Engineering and Materials Science Studies
Type
article
Field-Weighted Citation Impact
0.00

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article

Systematic Analysis of an Innovative DDR5 Connector Design

Yuchen Lee, Shu-Hao Liang
IEEE Transactions on Electromagnetic Compatibility
Engineering and Materials Science Studies
article

Systematic Analysis of an Innovative DDR5 Connector Design

Yuchen Lee, Shu-Hao Liang
article en

Abstract

This article presents the systematic analysis of an innovative double data rate fifth-generation (DDR5) synchronous dynamic random-access memory connector design for motherboard applications. Building on component-level improvements, this article addresses challenges encountered during system integration. The gold finger stub length was adjusted from 2.16 to 0.46 mm, ensuring mechanical robustness while enhancing electrical performance. Simulations were conducted to evaluate the effects of this modification on DDR5’s total radiated power (TRP), insertion loss (IL), return loss (RL), and eye diagram analysis within a desktop motherboard setup. Practical tests, such as memory stability testing with MemTest on various motherboard configurations, validated the predicted improvements. The proposed design achieved stable operation at up to 9000 mega transfers per second (MT/s) for DDR5-8800 modules, demonstrating a 400–500 MHz improvement across all tested configurations. These findings bridge the gap between component-level and performance under system integration, providing meaningful guidance for improving DDR5 system efficiency and signal integrity in next-generation high-performance computing systems.

IEEE Transactions on Electromagnetic CompatibilityVol. 67(5)
National Taiwan University of Science and Technology (TW)
Ministry of Education, Libya
Affordable and clean energy
Openalex Percentile: Top 86%
Engineering and Materials Science Studies
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