Abstract: An exemplary method includes establishing, by a sending device, a communication session with a receiving device, the communication session configured to transfer an array of related, sequenced data blocks from the sending device to the receiving device. The method includes sending one or more parameter messages including parameters associated with the array of data blocks. The method includes receiving one or more parameter acknowledgement messages to the one or more parameter messages, the one or more parameter acknowledgement messages including a plurality of memory addresses of the receiving device, the plurality of memory addresses including a respective memory address for each data block of the array of data blocks. The method includes sending the array of data blocks to the receiving device, each data block of the array of data blocks sent to the respective memory address using a remote direct memory access (RDMA) protocol.

Abstract: An exemplary method includes establishing, by a sending device, a communication session with a receiving device, the communication session configured to transfer an array of related, sequenced data blocks from the sending device to the receiving device. The method includes sending one or more parameter messages including parameters associated with the array of data blocks. The method includes receiving one or more parameter acknowledgement messages to the one or more parameter messages, the one or more parameter acknowledgement messages including a plurality of memory addresses of the receiving device, the plurality of memory addresses including a respective memory address for each data block of the array of data blocks. The method includes sending the array of data blocks to the receiving device, each data block of the array of data blocks sent to the respective memory address using a remote direct memory access (RDMA) protocol.

Abstract: An exemplary method includes a first physical computing device of a virtual reality system acquiring, from a capture device physically disposed at a vantage point in relation to a three-dimensional (“3D”) scene, surface data for the 3D scene, the surface data including a first instance of a multi-bit frame, separating the first instance of the multi-bit frame into a most significant byte (“MSB”) frame and a least significant byte (“LSB”) frame, compressing the MSB frame, and transmitting the LSB frame and the compressed MSB frame to a second physical computing device of the virtual reality system by way of the network interface.

Abstract: An exemplary method includes a first physical computing device of a virtual reality system acquiring, from a capture device physically disposed at a vantage point in relation to a three-dimensional (“3D”) scene, surface data for the 3D scene, the surface data including a first instance of a multi-bit frame, separating the first instance of the multi-bit frame into a most significant byte (“MSB”) frame and a least significant byte (“LSB”) frame, compressing the MSB frame, and transmitting the LSB frame and the compressed MSB frame to a second physical computing device of the virtual reality system by way of the network interface.

Abstract: The electrical connector of this invention is for terminating the wires of a cable into an electrical insert positioned within a connector backshell at an angle to the direction of the cable. A wireing space at the rear of the backshell is provided to terminate the wires within the insert. The connector is used to provide a connector interface for a cable running along one surface of a bulkhead and turning at an angle through the bulkhead to a receptacle or connector face extending from the other face of the bulkhead. The connector face receives an associated electrical interface device. The electrical connector of this invention provides the connector in a minimum amount of clearance space on both sides of the bulkhead. Grounding and shielding of a shielded portion of the cable to the connector is also provided within the minimum clearance space. A tie cord attaches the wires of the cable to a neck of the hollow shaft of the connector backshell to provide stress relief for the wires.

Abstract: The high-speed electrical transmission cable connector assembly of this invention includes an electrical connector having a connector backshell with an internal cavity for receiving an electrical insert to interface with an electrical interface device. An adequate amount of space is provided by the internal cavity within the backshell for routing wires of the transmission cable through a neck in an entrance side of the backshell to terminate within the insert. The backshell has a truncated side and a short lateral side for saving space and weight of the electrical connector. A grounding terminal is carried within the internal cavity of the backshell adjacent to the neck on a short neck side for grounding wires within a short distance inside the backshell. An attachment and release mechanism is provided for connecting and disconnecting the interface device to the electrical insert within the backshell.