Glass-Interposer Electromagnetic Bandgap Structure With Defected Ground Plane for Broadband Suppression of Power/Ground Noise Coupling
| Autor: | Joungho Kim, Srikrishna Sitaraman, Gapyeol Park, Youngwoo Kim, Rao Tummala, Dong-Hyun Kim, Subin Kim, Junyong Park, Kyungjun Cho, Jonghyun Cho, Pulugurtha Markondeya Raj |
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| Rok vydání: | 2017 |
| Předmět: |
010302 applied physics
Coupling Physics Band gap business.industry Electrical engineering Metamaterial 020206 networking & telecommunications 02 engineering and technology Stopband 01 natural sciences Industrial and Manufacturing Engineering Electronic Optical and Magnetic Materials Computational physics Power (physics) 0103 physical sciences Dispersion (optics) 0202 electrical engineering electronic engineering information engineering Ground noise Electrical and Electronic Engineering business Ground plane |
| Zdroj: | IEEE Transactions on Components, Packaging and Manufacturing Technology. 7:1493-1505 |
| ISSN: | 2156-3985 2156-3950 |
| Popis: | In this paper, we propose glass-interposer (GI) electromagnetic bandgap (EBG) structure with defected ground plane (DGP) for efficient and broadband suppression of power/ground noise coupling. We designed, fabricated, measured, and analyzed a GI-EBG structure with DGP for the first time. The proposed GI-EBG structure with DGP is thoroughly analyzed using the dispersion characteristics and estimated stopband edges, $f_{L}$ and $f_{U}$ . We experimentally verified that the proposed GI-EBG structure with DGP achieved power/ground noise isolation bandgap (below −30 dB) between $f_{L}$ of 5.7 GHz and $f_{U}$ of 11 GHz. Estimation of $f_{L}$ and $f_{U}$ using dispersion analysis, full 3-D electromagnetic (EM) simulation results, and measurement results achieved good correlation. Effectiveness of the proposed GI-EBG structure with DGP on suppression of the power/ground noise coupling to high-speed through glass via (TGV) channel is verified with 3-D EM simulation. As a result, the proposed EBG structure successfully and efficiently suppressed the power/ground noise coupling and improved the eye diagram of the TGV channel. Lastly, we embedded thin alumina film in the proposed EBG structure and achieved even broader power/ground noise suppression between 2.1 and 14.7 GHz. |
| Databáze: | OpenAIRE |
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