Products

HS-SFP-GE-LH20-SM-1310 Gigabit Dual Fiber Single Mode SFP Optical Module

The optical module is composed of the functional circuit and optical interface of the optoelectronic device, which includes two parts: transmitting and receiving. The transmitting part is: the electrical signal input a certain bit rate is processed by the internal driver chip to drive the semiconductor laser (LD) or light emitting diode (LED) to emit the corresponding rate of the modulated optical signal, and the internal optical power automatic control circuit is provided to keep the output optical signal power stable. The receiving part is: the optical signal of a certain bit rate is input into the module and converted into an electrical signal by the optical detection diode, and the electrical signal of the corresponding bit rate is output after the preamplifier. The function of the optical module is photoelectric conversion, the sending end converts the electrical signal into an optical signal, and the receiving end converts the optical signal into an electrical signal after transmission through the optical fiber.

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HS-SFP-GE-SX05-MM-850 Gigabit Dual Fiber Multimode SFP Optical Module

The optical module is composed of the functional circuit and optical interface of the optoelectronic device, which includes two parts: transmitting and receiving. The transmitting part is: the electrical signal input a certain bit rate is processed by the internal driver chip to drive the semiconductor laser (LD) or light emitting diode (LED) to emit the corresponding rate of the modulated optical signal, and the internal optical power automatic control circuit is provided to keep the output optical signal power stable. The receiving part is: the optical signal of a certain bit rate is input into the module and converted into an electrical signal by the optical detection diode, and the electrical signal of the corresponding bit rate is output after the preamplifier. The function of the optical module is photoelectric conversion, the sending end converts the electrical signal into an optical signal, and the receiving end converts the optical signal into an electrical signal after transmission through the optical fiber.

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HS-SFP-FE-LH20-BIDI-1310 100Mbps Single Fiber Single Mode SFP Optical Module

The optical module is composed of the functional circuit and optical interface of the optoelectronic device, which includes two parts: transmitting and receiving. The transmitting part is: the electrical signal input a certain bit rate is processed by the internal driver chip to drive the semiconductor laser (LD) or light emitting diode (LED) to emit the corresponding rate of the modulated optical signal, and the internal optical power automatic control circuit is provided to keep the output optical signal power stable. The receiving part is: the optical signal of a certain bit rate is input into the module and converted into an electrical signal by the optical detection diode, and the electrical signal of the corresponding bit rate is output after the preamplifier. The function of the optical module is photoelectric conversion, the sending end converts the electrical signal into an optical signal, and the receiving end converts the optical signal into an electrical signal after transmission through the optical fiber.

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HS-SFP-FE-LH20-SM-1310-R 100Mbps Dual Fiber Single Mode SFP Optical Module

The optical module is composed of the functional circuit and optical interface of the optoelectronic device, which includes two parts: transmitting and receiving. The transmitting part is: the electrical signal input a certain bit rate is processed by the internal driver chip to drive the semiconductor laser (LD) or light emitting diode (LED) to emit the corresponding rate of the modulated optical signal, and the internal optical power automatic control circuit is provided to keep the output optical signal power stable. The receiving part is: the optical signal of a certain bit rate is input into the module and converted into an electrical signal by the optical detection diode, and the electrical signal of the corresponding bit rate is output after the preamplifier. The function of the optical module is photoelectric conversion, the sending end converts the electrical signal into an optical signal, and the receiving end converts the optical signal into an electrical signal after transmission through the optical fiber.

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1×2 Fiber optical fast connector

The optical splitter is a component of the EPON/GPON network. It is a passive device that connects the OLT and the ONU. Its function is to distribute the downstream data and centralize the upstream data. The optical splitter has one uplink optical interface and several downlink optical interfaces. The optical signals from the uplink optical interface are allocated to all downlink optical interfaces, and the optical signals from the downlink optical interface are allocated to the only uplink optical interface. When an optical signal is transferred from the uplink optical interface to the downlink optical interface, the optical power decreases. The same is true when the optical signal is transferred from the downlink optical interface to the uplink optical interface. The optical signal strength of each downlink optical interface can be the same or different. The optical splitter is centrally installed in the optical splitter box (indoor or outdoor type); When the ONU distribution is more dispersed or the number of fiber cores in the resident network is insufficient, the two-stage and multistage splitting methods can be used. The optical shunt ratio should be selected by considering the transmission distance of the EPON system, the number of users on the ONU band, and the bandwidth allocation in the PON system. In general, when FTTH mode and FTTB+LAN mode are used, the optical shunt ratio should be designed according to 1x32.

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1×2 Not Fiber optical fast connector

The optical splitter is a component of the EPON/GPON network. It is a passive device that connects the OLT and the ONU. Its function is to distribute the downstream data and centralize the upstream data. The optical splitter has one uplink optical interface and several downlink optical interfaces. The optical signals from the uplink optical interface are allocated to all downlink optical interfaces, and the optical signals from the downlink optical interface are allocated to the only uplink optical interface. When an optical signal is transferred from the uplink optical interface to the downlink optical interface, the optical power decreases. The same is true when the optical signal is transferred from the downlink optical interface to the uplink optical interface. The optical signal strength of each downlink optical interface can be the same or different. The optical splitter is centrally installed in the optical splitter box (indoor or outdoor type); When the ONU distribution is more dispersed or the number of fiber cores in the resident network is insufficient, the two-stage and multistage splitting methods can be used. The optical shunt ratio should be selected by considering the transmission distance of the EPON system, the number of users on the ONU band, and the bandwidth allocation in the PON system. In general, when FTTH mode and FTTB+LAN mode are used, the optical shunt ratio should be designed according to 1x32.

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1×4 Fiber optical fast connector

The optical splitter is a component of the EPON/GPON network. It is a passive device that connects the OLT and the ONU. Its function is to distribute the downstream data and centralize the upstream data. The optical splitter has one uplink optical interface and several downlink optical interfaces. The optical signals from the uplink optical interface are allocated to all downlink optical interfaces, and the optical signals from the downlink optical interface are allocated to the only uplink optical interface. When an optical signal is transferred from the uplink optical interface to the downlink optical interface, the optical power decreases. The same is true when the optical signal is transferred from the downlink optical interface to the uplink optical interface. The optical signal strength of each downlink optical interface can be the same or different. The optical splitter is centrally installed in the optical splitter box (indoor or outdoor type); When the ONU distribution is more dispersed or the number of fiber cores in the resident network is insufficient, the two-stage and multistage splitting methods can be used. The optical shunt ratio should be selected by considering the transmission distance of the EPON system, the number of users on the ONU band, and the bandwidth allocation in the PON system. In general, when FTTH mode and FTTB+LAN mode are used, the optical shunt ratio should be designed according to 1x32.

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1×8 Fiber optical fast connector

The optical splitter is a component of the EPON/GPON network. It is a passive device that connects the OLT and the ONU. Its function is to distribute the downstream data and centralize the upstream data. The optical splitter has one uplink optical interface and several downlink optical interfaces. The optical signals from the uplink optical interface are allocated to all downlink optical interfaces, and the optical signals from the downlink optical interface are allocated to the only uplink optical interface. When an optical signal is transferred from the uplink optical interface to the downlink optical interface, the optical power decreases. The same is true when the optical signal is transferred from the downlink optical interface to the uplink optical interface. The optical signal strength of each downlink optical interface can be the same or different. The optical splitter is centrally installed in the optical splitter box (indoor or outdoor type); When the ONU distribution is more dispersed or the number of fiber cores in the resident network is insufficient, the two-stage and multistage splitting methods can be used. The optical shunt ratio should be selected by considering the transmission distance of the EPON system, the number of users on the ONU band, and the bandwidth allocation in the PON system. In general, when FTTH mode and FTTB+LAN mode are used, the optical shunt ratio should be designed according to 1x32.

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1×16 Fiber optical fast connector

The optical splitter is a component of the EPON/GPON network. It is a passive device that connects the OLT and the ONU. Its function is to distribute the downstream data and centralize the upstream data. The optical splitter has one uplink optical interface and several downlink optical interfaces. The optical signals from the uplink optical interface are allocated to all downlink optical interfaces, and the optical signals from the downlink optical interface are allocated to the only uplink optical interface. When an optical signal is transferred from the uplink optical interface to the downlink optical interface, the optical power decreases. The same is true when the optical signal is transferred from the downlink optical interface to the uplink optical interface. The optical signal strength of each downlink optical interface can be the same or different. The optical splitter is centrally installed in the optical splitter box (indoor or outdoor type); When the ONU distribution is more dispersed or the number of fiber cores in the resident network is insufficient, the two-stage and multistage splitting methods can be used. The optical shunt ratio should be selected by considering the transmission distance of the EPON system, the number of users on the ONU band, and the bandwidth allocation in the PON system. In general, when FTTH mode and FTTB+LAN mode are used, the optical shunt ratio should be designed according to 1x32.

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