Xin Huang

Title: Innovations of Inventor Xin Huang

Introduction

Xin Huang is a notable inventor based in Sunnyvale, CA, who has made significant contributions to the field of semiconductor technology. His work primarily focuses on the assessment of time-dependent dielectric breakdown, a critical aspect in the reliability of electronic devices. With a patent portfolio that includes innovative techniques, Huang is recognized for his expertise in this specialized area.

Latest Patents

Huang holds a patent titled "Full-chip assessment of time-dependent dielectric breakdown." This patent outlines techniques for analyzing layout designs to identify matching patterns that correspond to pre-calculated patterns in a database. Each of these pre-calculated patterns has a time-to-failure characteristic value that is pre-computed based on a model of electric current path generation and evolution. The patent emphasizes the determination of time-to-failure characteristic values for matching patterns, allowing for the identification and rectification of patterns most susceptible to time-dependent dielectric breakdown.

Career Highlights

Xin Huang is currently employed at Mentor Graphics Corporation, where he applies his expertise in semiconductor technology. His work has been instrumental in advancing the understanding of dielectric breakdown, which is crucial for the development of reliable electronic components. Huang's innovative approaches have contributed to the enhancement of product performance and longevity in the semiconductor industry.

Collaborations

Huang collaborates with Valeriy K Sukharev, a talented engineer who brings her own expertise to their projects. Together, they work on developing solutions that address the challenges associated with time-dependent dielectric breakdown in semiconductor devices.

Conclusion

In summary, Xin Huang is a distinguished inventor whose work in semiconductor technology has led to significant advancements in the assessment of time-dependent dielectric breakdown. His contributions are vital for the ongoing development of reliable electronic devices.