Abstract: A system and method for implementing M-TIF to integrate one or more non-IP tactical nodes as an integral part of a 5G network includes a tactical translator. The tactical translator provides I/O functionality, message encapsulation, message translation, and IP-to-non-IP address translation. The tactical translator may be interposed between a tactical gateway and a tactical proxy to securely bridge legacy non-IP waveforms with the 5G Core.

Abstract: A system and method for implementing M-TIF to integrate one or more tactical nodes as an integral part of a 5G network includes a tactical proxy to interface with a TWIF. The tactical proxy terminates wireless local area network interactions, eliminating the need for changes to the tactical waveform. Application layer messages between the tactical network node and tactical proxy are introduced to initiate, manage, and terminate sessions with the 5G Core.

Abstract: A system and method for identifying packets in a that may be stuck in a loop includes logically organizing the network as a tree and modifying packets with an artifice to identify the packets intended directionality within the tree. If the actual directionality conflicts with the intended directionality, a potential loop is indicated. The artifice is a flag in the link header, link address, or IP address associated with the packet.

Abstract: A network device includes at least one of a baseband interface or a loopback interface, a wireless radio frequency (RF) interface, and a processing circuit. The baseband interface is coupled to a first node. The wireless RF interface is coupled to a second node. The processing circuit assigns a routable address to the at least one of the baseband interface or the loopback interface, assigns a non-routable address to the first node based on the first node being a gateway interface, assigns a routable address to the first node based on the first node not being a gateway interface, and assigns a non-routable address to the second node based on the second node being coupled to the wireless RF interface.

Abstract: A communication system is enclosed. The communication system includes a communication sub-system configured to transmit and receive signals from one or more waveforms of a plurality of waveforms. The communication sub-system further contains one or more processors and memory with instructions that include receiving an artificial intelligence input configured to instruct the one or more processors to prepare an instantiation of a selected waveform. The instructions further include preparing the communication sub-system to transmit, receive, and instantiate the selected waveform. The communication system further includes an artificial intelligence engine in communication with the one or more processors configured to: receive operational data from one or more operation systems; determine, based on the operational data, the selected waveform; prepare the artificial intelligence input based on the selected waveform; and send the artificial intelligence input to the one or more processors.

Abstract: A system and method for identifying packets in a that may be stuck in a loop includes logically organizing the network as a tree and modifying packets with an artifice to identify the packets intended directionality within the tree. If the actual directionality conflicts with the intended directionality, a potential loop is indicated. The artifice is a flag in the link header, link address, or IP address associated with the packet.

Abstract: Systems, methods, and tangible computer-readable media are described for network routing of traffic. The system includes a source node for multicast traffic assignment across multiple networks. The source node chooses a first node and at least one different node for transmitting a message, the message to be transmitted from the source node to the first node, then to the at least one different node, then to a destination node.

Abstract: A system for optimizing an ad-hoc network. The system includes a plurality of nodes, wherein each node includes a computer implemented application configured to determine whether the present node is a link node such that the present node is the only node connecting at least one pair of nodes in the ad-hoc network, determine a connection number for the present node, wherein the connection number is the number of pairs of nodes connected by the present node not including pairs of nodes connected by link nodes, and determine whether the present node should be classified as an artery node based on the link node and connection number classifications.

Abstract: A method for reallocating bandwidth includes assigning a node to a position message slot, running an allocation algorithm, generating a table based on the allocation algorithm, selecting a row of the table, aligning a value of the row with a node identifier; and assigning the node to a mini-slot within the position message slot based on the aligning of the value of the row and the node identifier.

Abstract: For use with analog telecommunications equipment that responds to in-band stimuli, a system for, and method of suppressing an in-band stimulus and a telecommunications infrastructure employing the system or the method. In one embodiment, the system includes: (1) a stimulus detector, associated with the analog telecommunications equipment, that detects a presence of the in-band stimulus and (2) a stimulus suppressor, coupled to the stimulus detector, that alters the in-band stimulus to cause the analog telecommunications equipment to disregard the in-band stimulus.

Abstract: A dynamically configurable system and method for transcoding streaming data and a telecommunications infrastructure incorporating the system or the method. In one embodiment, the system includes: (1) first, second and third streaming conversion modules capable of converting data stream portions between internal data formats and (2) a transcoding controller, associated with the first, second and third streaming conversion modules, that determines source and destination data formats of the data stream and arranges ones of the first, second and third streaming conversion modules in an optimal series to convert portions of the data stream from the source data format through at least one of the internal data formats to the destination data format.