Systems and methods that implement that an optical Ethernet cable compatible with an RJ45 Ethernet interface are described. One aspect includes a liner transmitter that linearly amplifies a first electrical Ethernet networking signal received from a network device via an RJ45 Ethernet interface. A laser diode converts the linearly amplified first electrical Ethernet networking signal into a first optical Ethernet networking signal and transmits the first optical Ethernet networking signal over a first optical communication channel. A photodetector receives a second optical Ethernet networking signal over a second optical communication channel and converts the second optical Ethernet networking signal to a second electrical Ethernet networking signal. A linear receiver receives the second electrical Ethernet networking signal, linearly amplifies the second electrical Ethernet networking signal, and transmits the linearly amplified second electrical Ethernet networking signal to the network device via the RJ45 Ethernet interface.

One embodiment is directed to an uplink signal combiner that is configured to receive, via the data network, data packets from the remote antenna units. Each of the data packets includes respective control data and respective user data. The respective control data include data for managing a communication link between a baseband unit and a respective remote antenna unit. The respective user data represents a respective uplink signal received by each of the remote antenna units from one or more mobile stations. The uplink signal combiner is configured to generate additional user data representing a first combined uplink signal by combining the user data extracted from the data packets. The uplink signal combiner is configured to transmit an additional data packet to the baseband unit. The additional data packet includes the additional user data and additional control data derived from the control data from the received data packets.

A passive optical network device comprising a casing, printed circuit board, and fiber optic transceiver system is provided. The fiber optic transceiver system comprises a fiber optic components device, fiber optic transceiver, and RF connector. During operation, the fiber optic components device converts optical signals from the fiber optic transceiver to digital signals, and then transmits the converted digital signals to external electronic systems via the hot-pluggable transceiver connection interface. The fiber optic components device converts digital signals from the external electronic systems to optical signals, and then transmits the optical signals to other external electronic systems via the fiber optic transceiver. The RF connector transmits RF signals from additional external electronic systems to the external electronic systems via the hot-pluggable transceiver connection interface. The RF connector transmits digital signals from the external electronic systems to the additional external electronic systems via the hot-pluggable transceiver connection interface.

A passive optical network device comprising a casing, printed circuit board, and fiber optic transceiver system is provided. The fiber optic transceiver system comprises a fiber optic components device, fiber optic transceiver, and RF connector. During operation, the fiber optic components device converts optical signals from the fiber optic transceiver to digital signals, and then transmits the converted digital signals to external electronic systems via the hot-pluggable transceiver connection interface. The fiber optic components device converts digital signals from the external electronic systems to optical signals, and then transmits the optical signals to other external electronic systems via the fiber optic transceiver. The RF connector transmits RF signals from additional external electronic systems to the external electronic systems via the hot-pluggable transceiver connection interface. The RF connector transmits digital signals from the external electronic systems to the additional external electronic systems via the hot-pluggable transceiver connection interface.

Systems and methods for performing broadband profile management in a cable network are disclosed. The method may include establishing a network connection with a cable modem termination System (CMTS) and discovering OFDM channels utilized by the cable network where each of the OFDM channels includes a plurality of OFDM subcarriers. In addition, a current set of profiles for the cable network is discovered and each of the profiles defines a modulation order for each of the plurality of OFDM subcarriers in each OFDM channel. Signal quality values are obtained for the plurality of OFDM subcarriers to generate a mapping between the signal quality values and the OFDM subcarriers, and a plurality of profiles are generated based upon the mapping between the signal quality values and the OFDM subcarriers. Then each of the cable modems is assigned to one of the plurality of profiles.

Systems and methods for performing broadband profile management in a cable network are disclosed. The method may include establishing a network connection with a cable modem termination System (CMTS) and discovering OFDM channels utilized by the cable network where each of the OFDM channels includes a plurality of OFDM subcarriers. In addition, a current set of profiles for the cable network is discovered and each of the profiles defines a modulation order for each of the plurality of OFDM subcarriers in each OFDM channel. Signal quality values are obtained for the plurality of OFDM subcarriers to generate a mapping between the signal quality values and the OFDM subcarriers, and a plurality of profiles are generated based upon the mapping between the signal quality values and the OFDM subcarriers. Then each of the cable modems is assigned to one of the plurality of profiles.

One embodiment is directed to an uplink signal combiner that is configured to receive, via the data network, data packets from the remote antenna units. Each of the data packets includes respective control data and respective user data. The respective control data include data for managing a communication link between a baseband unit and a respective remote antenna unit. The respective user data represents a respective uplink signal received by each of the remote antenna units from one or more mobile stations. The uplink signal combiner is configured to generate additional user data representing a first combined uplink signal by combining the user data extracted from the data packets. The uplink signal combiner is configured to transmit an additional data packet to the baseband unit. The additional data packet includes the additional user data and additional control data derived from the control data from the received data packets.