DocumentCode
3350166
Title
Emitter base junction ESD reliability of an epitaxial base silicon germanium heterojunction bipolar transistor
Author
Voldman, Steven H. ; Lanzerotti, Louis D. ; Johnson, Robb
Author_Institution
Microelectron. Div., IBM Corp., Essex Junction, VT, USA
fYear
2001
fDate
2001
Firstpage
79
Lastpage
84
Abstract
With the growth of the high-speed data rate transmission, optical interconnect, and wireless marketplaces, heterojunction devices will play a central role in these communication systems. Heterojunction base-emitter design, bandgap engineering and technology scaling will each play a key role in the ability to achieve faster devices for the wired and wireless markets. As these structures are scaled, the sensitivity of these devices to electrostatic overstress (EOS), electrostatic discharge (ESD) and electromagnetic emissions (EMI) becomes a concern. Emitter-base design influences the ESD sensitivity and device performance of heterojunction bipolar transistor (HBT) devices. In this paper, the ESD sensitivity of the emitter-base junction of a SiGe HBT device is discussed. The evaluation of process variations and device design spacings on ESD robustness is evaluated for both positive and negative stress conditions as a function of the salicide location, emitter-base spacing, and collector opening
Keywords
Ge-Si alloys; electromagnetic interference; electrostatic discharge; energy gap; heterojunction bipolar transistors; microwave bipolar transistors; semiconductor device metallisation; semiconductor device reliability; semiconductor device testing; semiconductor materials; vapour phase epitaxial growth; EMI; EOS; ESD; ESD robustness; ESD sensitivity; SiGe; SiGe HBT; bandgap engineering; collector opening; communication systems; device design spacings; device performance; electromagnetic emissions; electrostatic discharge; electrostatic overstress; emitter base junction ESD reliability; emitter-base design; emitter-base spacing; epitaxial base silicon germanium heterojunction bipolar transistor; heterojunction base-emitter design; heterojunction bipolar transistors; heterojunction devices; high-speed data rate transmission; negative stress conditions; optical interconnect; positive stress conditions; process variations; salicide location; technology scaling; wireless marketplace; Design engineering; Earth Observing System; Electromagnetic devices; Electrostatic discharge; Heterojunction bipolar transistors; Optical interconnections; Photonic band gap; Reliability engineering; Silicon; Wireless sensor networks;
fLanguage
English
Publisher
ieee
Conference_Titel
Physical and Failure Analysis of Integrated Circuits, 2001. IPFA 2001. Proceedings of the 2001 8th International Symposium on the
Print_ISBN
0-7803-6675-1
Type
conf
DOI
10.1109/IPFA.2001.941460
Filename
941460
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