“Eye Pattern Estimation for Signal Integrity Analysis in EV PCB Designs”

This project presents an efficient Eye Pattern Estimation Method for enhancing signal integrity analysis in highspeed PCB designs. Eye patterns are critical for evaluating voltage and timing margins, providing insights into signal quality. The proposed method utilizes advanced computational algorithms to model and predict signal behavior under noise, jitter, and crosstalk conditions, enabling accurate simulation of highfrequency signal transmission. By incorporating adaptive filtering, it isolates key performance metrics such as eye height, eye width, and bit error rates, ensuring detailed analysis with minimal computational effort. Experimental results validate the method's effectiveness in improving design validation efficiency, reducing design cycle times, and enhancing the reliability of high-speed communication interfaces. This scalable approach addresses the growing demands of next-generation electronic systems, offering a practical and cost-effective solution for PCB designers.

Authors

Publication Details

Published
2025-04-29
DOI
https://doi.org/10.1109/aimla63829.2025.11040713
Primary Topic
Engineering Applied Research
Type
article
Field-Weighted Citation Impact
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“Eye Pattern Estimation for Signal Integrity Analysis in EV PCB Designs”

P. Gajendran, Kaundinya Gopinath, Arumugam Karthick, K Sivanandam et al.
Engineering Applied Research
article

“Eye Pattern Estimation for Signal Integrity Analysis in EV PCB Designs”

P. Gajendran, Kaundinya Gopinath, Arumugam Karthick, K Sivanandam, G Adhithyan
article en

Abstract

This project presents an efficient Eye Pattern Estimation Method for enhancing signal integrity analysis in highspeed PCB designs. Eye patterns are critical for evaluating voltage and timing margins, providing insights into signal quality. The proposed method utilizes advanced computational algorithms to model and predict signal behavior under noise, jitter, and crosstalk conditions, enabling accurate simulation of highfrequency signal transmission. By incorporating adaptive filtering, it isolates key performance metrics such as eye height, eye width, and bit error rates, ensuring detailed analysis with minimal computational effort. Experimental results validate the method's effectiveness in improving design validation efficiency, reducing design cycle times, and enhancing the reliability of high-speed communication interfaces. This scalable approach addresses the growing demands of next-generation electronic systems, offering a practical and cost-effective solution for PCB designers.

Openalex Percentile: Top 84%
Engineering Applied Research
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