Abstract: An active optical adapter plate comprises a main body, the main body comprises at least a through hole and at least a photoelectric detection area, the through hole is disposed on an end face of the main body and configured to insert an optical fiber to provide an optical path for an emission light of a laser; the photoelectric detection area is disposed on the end face of the main body having the through hole, and comprises a photoelectric detector used for detecting a reflected light of the emission light of the laser and converting the detected reflected light into an electrical signal.

Abstract: An active optical adapter plate comprises a main body, the main body comprises at least a through hole and at least a photoelectric detection area, the through hole is disposed on an end face of the main body and configured to insert an optical fiber to provide an optical path for an emission light of a laser; the photoelectric detection area is disposed on the end face of the main body having the through hole, and comprises a photoelectric detector used for detecting a reflected light of the emission light of the laser and converting the detected reflected light into an electrical signal.

Abstract: An optical communication apparatus comprises a laser, a laser driver chip, a photodetector, an amplifier chip, an assembling plate and at least two I/O interfaces. The laser, the laser driver chip, the photodetector and the amplifier chip are disposed on the assembling plate. The laser is connected to the laser driver chip via transmission lines and the photodetector is connected to the amplifier chip via transmission lines. A plurality of conducting vias are formed in the assembling plate, the laser driver chip and the amplifier chip are respectively connected to different I/O interfaces via electrical transmission lines passing through the conducting vias. The laser is connected to an optical fiber to transmit optical signals, and the photodetector is connected to another optical fiber to receive optical signals. A method of assembling such an optical communication apparatus is also provided.

Abstract: An optical communication apparatus comprises a laser, a laser driver chip, a photodetector, an amplifier chip, an assembling plate and at least two I/O interfaces. The laser, the laser driver chip, the photodetector and the amplifier chip are disposed on the assembling plate. The laser is connected to the laser driver chip via transmission lines and the photodetector is connected to the amplifier chip via transmission lines. A plurality of conducting vias are formed in the assembling plate, the laser driver chip and the amplifier chip are respectively connected to different I/O interfaces via electrical transmission lines passing through the conducting vias. The laser is connected to an optical fiber to transmit optical signals, and the photodetector is connected to another optical fiber to receive optical signals. A method of assembling such an optical communication apparatus is also provided.

Abstract: An optical fiber assembly and a method of assembly thereof. The optical fiber assembly includes a support plate defining an array of support plate through holes, and an alignment template plate defining an array of alignment template plate through holes. At least one support plate through hole or alignment template plate through hole may be flared. At least one support plate through hole or alignment template plate through hole may include a compliant film.

Abstract: An optical fiber assembly and a method of assembly thereof. The optical fiber assembly includes a support plate defining an array of support plate through holes, and an alignment template plate defining an array of alignment template plate through holes. At least one support plate through hole or alignment template plate through hole may be flared. At least one support plate through hole or alignment template plate through hole may include a compliant film.