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FOR IMMEDIATE RELEASE No. 2920
Mitsubishi Electric Develops DFB Laser Diode for 25Gbps Optical-fiber Communication in 100Gbps Systems
Will contribute to low power consumption, high performance, and simplified design for optical-fiber communication transceivers
TOKYO, March 19, 2015- Mitsubishi Electric Corporation (TOKYO: 6503) announced today that it has developed a distributed feed-back (DFB) laser diode for 25Gbps optical-fiber communication in 100Gbps systems operating in a wide range of temperatures from -20 to 85 degree Celsius. Four DFB laser diodes can be mounted on 100Gbps high-speed communication transceivers for optical fiber communication to achieve lower power consumption and enhanced communication performance for increased efficiency in data centers. The new DFB laser diode will also help to simplify the requirements for transceiver design.
Mitsubishi Electric will present its new laser diode at the Optical Fiber Communication Conference and Exposition 2015 (OFC 2015), which is scheduled to be held at the Los Angeles Convention Center in Los Angeles, California from March 22 to 26.
Mitsubishi Electric will present its new laser diode at the Optical Fiber Communication Conference and Exposition 2015 (OFC 2015), which is scheduled to be held at the Los Angeles Convention Center in Los Angeles, California from March 22 to 26.
Features
1) | High output power even at high temperatures, low power consumption and high performance
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2) | Wide-ranging temperature operability and high-quality modulation waveform help to simplify the designs of 100Gbps transmission systems
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In the effort to develop a DFB laser with high-speed response suited to 25Gbps operation, a current-blocking structure with semi-insulating semiconductors that have high electrical resistance by doping impurity showed promise, but high output power was not possible because of poor current injection efficiency in the active region. In response, Mitsubishi Electric developed the new current-blocking structure with semi-insulating semiconductors that realize efficient current injection in the active region.
Future Development
We will continue to develop DFB lasers to realize wider temperature range operation and higher conversion efficiency from electric current to optical output power. It attributes to high-density packaging and low power consumption of communication transceivers.
We will continue to develop DFB lasers to realize wider temperature range operation and higher conversion efficiency from electric current to optical output power. It attributes to high-density packaging and low power consumption of communication transceivers.
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