Title :
Photolithographic packaging with selectively occupied repeated transfer (PL-Pack with SORT) for scalable film optical link multichip-module (S-FOLM)
Author :
Yoshimura, Tetsuzo ; Kumai, Koichi ; Mikawa, Takashi ; Ibaragi, Osamu ; Bonkohara, Manabu
Author_Institution :
Electron. Syst. Integration Technol. Res. Dept., Assoc. of Super-Adv. Electron. Technol. (ASET), Tokyo, Japan
fDate :
1/1/2002 12:00:00 AM
Abstract :
"Photolithographic packaging (PL-pack) with selectively occupied repeated transfer (SORT)" is proposed for optoelectronic microsystem integration. PL-pack with SORT integrates different types of thin-film device pieces into one substrate with desired configurations using an all-photolithographic process. A process design example is presented for a scalable film optical link multichip-module (S-FOLM). A preliminary estimation reveals that PL-Pack with SORT will achieve III-V epitaxial material saving of <1/100 and module cost reduction of <1/10, compared with flip-chip-bonding-based packaging. The result indicates that the process will save on cost and resources simultaneously. A critical issue is how to simplify the procedure for distributing thin-film device pieces onto a substrate. SORT is found to reduce the distribution step count typically by factor of <1/10-1/10000 compared with the conventional one-by-one method. PL-pack with SORT will be extended to the 3R process (reduce, reuse, recycle), which is generally applied to a variety of device/module fabrications
Keywords :
integrated circuit manufacture; integrated optoelectronics; multichip modules; optical interconnections; photolithography; thin film devices; 3R process; PL-Pack with SORT; all-photolithographic process; cost saving; multichip-module; optoelectronic MCM; optoelectronic microsystem integration; photolithographic packaging; scalable film optical link MCM; selectively occupied repeated transfer; thin-film device; Costs; III-V semiconductor materials; Optical fiber communication; Optical films; Optical materials; Packaging; Process design; Recycling; Substrates; Thin film devices;
Journal_Title :
Electronics Packaging Manufacturing, IEEE Transactions on
DOI :
10.1109/TEPM.2002.1000479