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.

A computing grid including an interconnect network including input ports and output ports; a plurality of egress ports; a plurality of configurable data routing junctions; a plurality of logical elements interconnected using the plurality of configurable data routing junctions; a plurality of ingress ports. In an embodiment at least one compute graph is projected onto the computing grid as a configuration of various elements of the computing grid.

Disclosed herein is a memory device and a method of descrambling and decoding encoded data. In one aspect, encoded data is received. A scrambling seed is obtained from the encoded data prior to decoding the encoded data. The encoded data is descrambled according to the scrambling seed, and the descrambled data is decoded. The descrambled data may be decoded according to statistics of the descrambled data.

Disclosed herein is a memory device and a method of descrambling and decoding encoded data. In one aspect, encoded data is received. A scrambling seed is obtained from the encoded data prior to decoding the encoded data. The encoded data is descrambled according to the scrambling seed, and the descrambled data is decoded. The descrambled data may be decoded according to statistics of the descrambled data.

A method for performing in-band operations, administration, and management (OAM) using fixed bytes. According to one aspect, data packets are selected from a packet flow according to a sampling rate. A network device's OAM information is inserted into a fixed length field of each selected packet as a selected packet is processed by the network device.

A method for performing in-band operations, administration, and management (OAM) using fixed bytes. According to one aspect, data packets are selected from a packet flow according to a sampling rate. A network device's OAM information is inserted into a fixed length field of each selected packet as a selected packet is processed by the network device.

A data transfer system is configured to transfer data from a data transmitting site to a data receiving site. The data transfer system includes a low-side network, at least one high-side network, and a one-way data (OWD) link. The OWD link is configured to perform unidirectional data transfer from the low-side network to the at least one high-side network. The OWD link continuously synchronizes the low-side network with the at least one high-side network while continuously transferring data through the OWD link.

A device that includes a plurality of transceivers configurable to simultaneously operate with a combination of bonded and unbonded transceivers. A first transceiver of the plurality of transceivers is operable at a first data rate, and a second transceiver of the plurality of transceivers is simultaneously operable at a second data rate that is different than the first data rate. The first and second transceivers are operable as bonded transceivers and wherein a third transceiver, of the plurality of transceivers, is simultaneously operable at a third data rate and the third transceiver is not bonded with any other transceiver.

A data transfer system is configured to transfer data from a data transmitting site to a data receiving site. The data transfer system includes a low-side network, at least one high-side network, and a one-way data (OWD) link. The OWD link is configured to perform unidirectional data transfer from the low-side network to the at least one high-side network. The OWD link continuously synchronizes the low-side network with the at least one high-side network while continuously transferring data through the OWD link.

A computing grid including an interconnect network including input ports and output ports; a plurality of egress ports; a plurality of configurable data routing junctions; a plurality of logical elements interconnected using the plurality of configurable data routing junctions; a plurality of ingress ports. In an embodiment at least one compute graph is projected onto the computing grid as a configuration of various elements of the computing grid.