DocumentCode :
1265856
Title :
An ultracompact, 2-cc-size, low-power 2.5-Gb/s optical receiver module incorporating an MU receptacle
Author :
Hirose, Masaki ; Ishihara, Noboru ; Akazawa, Yukio ; Ichino, Haruhiko
Author_Institution :
NTT Electron., Kanagawa, Japan
Volume :
17
Issue :
11
fYear :
1999
fDate :
11/1/1999 12:00:00 AM
Firstpage :
2349
Lastpage :
2355
Abstract :
This paper describes an ultracompact, -3-V-supply, 2.5-Gb/s optical receiver module. For miniaturization of a gigabit-class receiver module, we used multichip configuration and bump technology, and we incorporated a miniature unit-coupling (MU) receptacle for small-size optical interface. To eliminate required external adjustment devices in the module for reduction of module size and assembling cost, we introduced new circuit techniques; the multistage automatic offset canceling technique is used for the postamplifier, and the sample-and-hold phase-locked loop (PLL) technique is employed for the clock and data recovery circuits. All the ICs were designed to operate at a low DC power supply of -3 V. The IC current was reduced by using 0.5-μm Si bipolar process technology. The volume is only 2 cc (9×30.3× 7.7 mm3), including the MU receptacle. The experimental results show that the receiver has a wide dynamic range, from more than -2 to -19.4 dBm in optical input. These results were obtained without making any external adjustments. The module consumes a total power of 0.64 W
Keywords :
integrated optoelectronics; low-power electronics; multichip modules; optical phase locked loops; optical receivers; sample and hold circuits; 0.5 mum; 0.64 W; 2.5 Gbit/s; 30.3 mm; 7.7 mm; 9 mm; MU receptacle; PLL; Si; Si bipolar process technology; assembling cost; bump technology; clock; data recovery circuits; external adjustment devices; gigabit-class receiver module; low DC power supply; miniature unit-coupling receptacle; miniaturization; module size; multichip configuration; multistage automatic offset canceling technique; postamplifier; sample-and-hold phase-locked loop technique; small-size optical interface; ultracompact 2-cc-size low-power 2.5-Gb/s optical receiver module; wide dynamic range; Circuits; High speed optical techniques; Optical fiber networks; Optical network units; Optical receivers; Phase locked loops; Power supplies; SONET; Synchronous digital hierarchy; Wavelength division multiplexing;
fLanguage :
English
Journal_Title :
Lightwave Technology, Journal of
Publisher :
ieee
ISSN :
0733-8724
Type :
jour
DOI :
10.1109/50.803029
Filename :
803029
Link To Document :
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