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The integration of InGaP LEDs with CMOS on 200 mm silicon wafers

Authors :
Massachusetts Institute of Technology. Department of Materials Science and Engineering
Massachusetts Institute of Technology. Microphotonics Center
Fitzgerald, Eugene A
Michel, Jurgen
Wang, Bing
Lee, Kwang Hong
Wang, Cong
Wang, Yue
Made, Riko I.
Sasangka, Wardhana Aji
Nguyen, Viet Cuong
Lee, Kenneth Eng Kian
Tan, Chuan Seng
Yoon, Soon Fatt
Massachusetts Institute of Technology. Department of Materials Science and Engineering
Massachusetts Institute of Technology. Microphotonics Center
Fitzgerald, Eugene A
Michel, Jurgen
Wang, Bing
Lee, Kwang Hong
Wang, Cong
Wang, Yue
Made, Riko I.
Sasangka, Wardhana Aji
Nguyen, Viet Cuong
Lee, Kenneth Eng Kian
Tan, Chuan Seng
Yoon, Soon Fatt
Source :
SPIE
Publication Year :
2017

Abstract

The integration of photonics and electronics on a converged silicon CMOS platform is a long pursuit goal for both academe and industry. We have been developing technologies that can integrate III-V compound semiconductors and CMOS circuits on 200 mm silicon wafers. As an example we present our work on the integration of InGaP light-emitting diodes (LEDs) with CMOS. The InGaP LEDs were epitaxially grown on high-quality GaAs and Ge buffers on 200 mm (100) silicon wafers in a MOCVD reactor. Strain engineering was applied to control the wafer bow that is induced by the mismatch of coefficients of thermal expansion between III-V films and silicon substrate. Wafer bonding was used to transfer the foundry-made silicon CMOS wafers to the InGaP LED wafers. Process trenches were opened on the CMOS layer to expose the underneath III-V device layers for LED processing. We show the issues encountered in the 200 mm processing and the methods we have been developing to overcome the problems.

Details

Database :
OAIster
Journal :
SPIE
Notes :
application/pdf
Publication Type :
Electronic Resource
Accession number :
edsoai.on1469728518
Document Type :
Electronic Resource