Optical Engineering · 1999 · 17 citations · 12 references
EngineeringElectrical EngineeringOptical MaterialsOptoelectronicsPhotonicsIntegrated OpticsIntegrated PhotonicsOptical DetectorsOptical InstrumentationPhotonic Integrated CircuitsSemiconductor LasersBandwidthDetector ArraysMultichip ModulesOptical BackplanesOptical PackagingOptical TransceiversSemiconductor Detector ArraysVertical-cavity Surface-emitting Lasers
The concept of a three-dimensionally interconnected optical backplane for a high-performance system containing multichip module boards, operating at 850 nm, is introduced. The backplane reported here employs 2-D vertical-cavity surface-emitting lasers (VCSELs) and pho- todetector arrays as transceivers. By integrating 250-mm-pitch 2-D VC- SELs, microlenses, and photodetector arrays into our backplane design, we have demonstrated a multi-bus-line optical backplane and experi- mentally realized this architecture with 2-D VCSEL and detector arrays while using the third dimension as the signal-propagating direction. Such an approach greatly increases the aggregate bandwidth of the back- plane. Packaging issues such as misalignment, cross talk, and signal-to- noise ratio are studied. Eye diagrams up to 1.5 GHz were obtained with clear eyes, and the frequency response of a single bus line shows a bandwidth of 2.5 THz. © 1999 Society of Photo-Optical Instrumentation Engineers. (S0091-3286(99)00409-2)
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Coupled Wave Theory for Thick Hologram Gratings
H. Kogelnik · Bell System Technical Journal · 1969 · 4.8K citations