DocumentCode
811017
Title
Design rules for highly parallel free-Space optical interconnects
Author
Kirk, Andrew G. ; Plant, David V. ; Ayliffe, Michael H. ; Châteauneuf, Marc ; Lacroix, Frederic
Author_Institution
Dept. of Electr. & Comput. Eng., McGill Univ., Montreal, Que., Canada
Volume
9
Issue
2
fYear
2003
Firstpage
531
Lastpage
547
Abstract
Recently, a number of successful free-space chip-to-chip and board-to-board optical interconnects have been demonstrated. Here, we present some of the design rules that can be derived as a result of this work and also as a result of numerical and theoretical analyzes. We draw a number of conclusions. In the area of optoelectronic very large scale integration (VLSI) design, we suggest that differential electrical and optical transceiver designs provide the best performance. In the area of optical design, we present scaling and system partitioning laws for clustered optical relays and determine the interconnect distances at which microlens or macrolens systems are more suitable. We also show that the ease with which two modules can be aligned can be related to the optical invariant of the system and is, thus, a function of the size of the detector and the numerical aperture of the detector optics. Finally, we show that when multiple optical components must be aligned, very high individual component tolerances are required if the system as a whole is to have a high chance of success.
Keywords
VLSI; integrated optoelectronics; lenses; microlenses; optical design techniques; optical interconnections; optical receivers; optical transmitters; printed circuit accessories; surface emitting lasers; transceivers; board-to-board optical interconnects; clustered optical relays; design rules; detector optics; detector size; differential electrical transceiver designs; free-space chip-to-chip optical interconnects; highly parallel free-space optical interconnects; interconnect distances; macrolens systems; microlens systems; multiple optical components; numerical analyzes; numerical aperture; optical design; optical invariant; optical transceiver designs; optoelectronic very large scale integration design; scaling; system partitioning laws; very high individual component tolerances; Apertures; Integrated optics; Lenses; Microoptics; Optical design; Optical interconnections; Protective relaying; Relays; Transceivers; Very large scale integration;
fLanguage
English
Journal_Title
Selected Topics in Quantum Electronics, IEEE Journal of
Publisher
ieee
ISSN
1077-260X
Type
jour
DOI
10.1109/JSTQE.2003.812482
Filename
1239020
Link To Document