Abstract: An OBI manager provides the reduction/elimination of optical beat interference (OBI). As will be described in more detail below, the OBI manager identifies OBI partners through an identification process performed via an RFoG network. An OBI partner may be two optical networking units (ONUs) that may interfere with one another when transmitting in the same time slot. Once the OBI partners are identified, the OBI manager may perform a mitigation process to mitigate possible OBI. For example, the OBI manager may organize the OBI partners to reduce OBI, such as by guaranteeing no OBI partners transmit at the same time.

Abstract: An OBI manager provides the reduction/elimination of optical beat interference (OBI). As will be described in more detail below, the OBI manager identifies OBI partners through an identification process performed via an RFoG network. An OBI partner may be two optical networking units (ONUs) that may interfere with one another when transmitting in the same time slot. Once the OBI partners are identified, the OBI manager may perform a mitigation process to mitigate possible OBI. For example, the OBI manager may organize the OBI partners to reduce OBI, such as by guaranteeing no OBI partners transmit at the same time.

Abstract: An OBI manager provides the reduction/elimination of optical beat interference (OBI). As will be described in more detail below, the OBI manager identifies OBI partners through an identification process performed via an RFoG network. An OBI partner may be two optical networking units (ONUs) that may interfere with one another when transmitting in the same time slot. Once the OBI partners are identified, the OBI manager may perform a mitigation process to mitigate possible OBI. For example, the OBI manager may organize the OBI partners to reduce OBI, such as by guaranteeing no OBI partners transmit at the same time.

Abstract: Methods, systems, and computer readable media can be operable to dynamically determine an optimal number of equalizer taps to be used at an upstream receiver based upon existing conditions on an upstream channel. Pre-equalizer coefficients associated with an upstream channel can be used to determine an optimal number of equalizer taps to be used at an upstream receiver. The number of equalizer taps can be dynamically determined for an individual customer premise equipment device or for a plurality of customer premise equipment devices using the same upstream channel.

Abstract: An OBI manager provides the reduction/elimination of optical beat interference (OBI). As will be described in more detail below, the OBI manager identifies OBI partners through an identification process performed via an RFoG network. An OBI partner may be two optical networking units (ONUs) that may interfere with one another when transmitting in the same time slot. Once the OBI partners are identified, the OBI manager may perform a mitigation process to mitigate possible OBI. For example, the OBI manager may organize the OBI partners to reduce OBI, such as by guaranteeing no OBI partners transmit at the same time.

Abstract: Methods, systems, and computer readable media can be operable to dynamically determine an optimal number of equalizer taps to be used at an upstream receiver based upon existing conditions on an upstream channel. Pre-equalizer coefficients associated with an upstream channel can be used to determine an optimal number of equalizer taps to be used at an upstream receiver. The number of equalizer taps can be dynamically determined for an individual customer premise equipment device or for a plurality of customer premise equipment devices using the same upstream channel.

Abstract: Methods, systems, and computer readable media can be operable to calculate modulation error ratio using feedback from error correction processing. An error correction value obtained through an error correction process can be added to a measured slicer error in order to calculate a modulation error ratio. An error correction value associated with a correctable error can be based upon the difference between a received symbol and a correct symbol. An error correction value associated with an uncorrectable error can be based upon a measured slicer error and the distance between constellation symbols in a constellation diagram.

Abstract: An apparatus for re-rotating and deinterleaving data includes (i) a first memory for storing D elements of rotated and interleaved data in D storage locations, (ii) a first addresser for addressing the first memory in order to read de-rotated and interleaved data out of the D storage locations and to write rotated and interleaved data into the D storage locations, (iii) a second memory for storing mD elements of the de-rotated and interleaved data read out of the first memory, wherein the de-rotated and interleaved data read out of the first memory are stored in mD storage locations of the second memory, and (iv) a second addresser for addressing the second memory in order to read de-rotated and de-interleaved data out of the mD storage locations and to write de-rotated and interleaved data from the first memory into the mD storage locations. The first addresser may include an address counter, an offset generator, and a modulo adder.