Abstract:
A unifying network model with a structure and architecture configured to address security, interoperability, mobility, and resource management, including priority and quality of services is provided. The network of the network model is structured as a hierarchical mesh network, with dynamically generated routing tables. The configuration of the network model optimizes routing and distributes communication load. Every device on the network is capable of being both an endpoint and a forwarder of communications. The network model may include underlying networks that are represented with one of two models, the link model or the star model. The nodes are organized in a hierarchical relationship structure to optimizes throughput. The model may include a cryptographic method of dynamically assigning local network addresses.
Abstract:
There is provided cluster head selection in a communications network. A respective beacon signal is by a wireless device received from each one of at least one further wireless device. Each beacon signal comprises a cluster head capability metric. Each of the received cluster head capability metrics is compared to at least one qualifying criterion. One of the at least one further wireless devices is selected as the cluster head of the wireless device based on the comparison.
Abstract:
A network component to partition an Internet Protocol (IP) Radio Access Network (RAN) network. The network component may be configured to find one or more rings and one or more chains. The rings and/or the chains may be used to find one or more ring clusters. The network component may be configured to divide one or more of the ring clusters if they exceed a network node threshold number of network nodes. The network node may form a plurality of interior gateway protocol (IGP) areas using the ring clusters. The plurality of IGP areas may be refined based on a network node threshold and an aggregate site gateway (ASG) node threshold.
Abstract:
A Next Generation Data Network is described. It leverages the “cloud” for data management, low frequency data computation and analytics. The wireless network is a single frequency network that permits limited non-line of sight operation. The wireless network using packet switched beams, the beams are formed and switched electronically. It utilizes advanced signal processing to compensate for low transmit signal power and multipath reflections that can be frequency or flat fades.
Abstract:
A method for light-weight fork channels for clustering is disclosed. The method includes receiving, by a processing device, a message at a main channel used for group communication between processes executed by the processing device, identifying a fork channel identifier (ID) and a fork stack ID in a header of the message, processing the message with a fork stack corresponding to the fork stack ID in the header of the message, the fork stack comprising a subset of protocols of a main protocol stack of the main channel, and providing the message to a fork channel corresponding to the fork channel ID, wherein the fork channel to utilize the fork stack to separate messages for the fork channel from the main channel.
Abstract:
A Next Generation Data Network is described. It leverages the “cloud” for data management, frequency data computation and analytics. Training signals are transmitted in a number of different transmit directions and attempted to be received in a number of different receive directions in order to create a radio frequency map of transmit/receive directions that allow a communication path to be created between nodes of the network. The wireless network is a single frequency network that permits limited non-line-of-sight operation.
Abstract:
A Next Generation Data Network is described. It leverages the “cloud” for data management, frequency data computation and analytics. Nodes in the network are arranged into subnets with at least one node per subnet connected to a physical high-speed computer communication link. The wireless network using packet switched beams, the beams are formed and switched electronically. It utilizes advanced signal processing to compensate for low transmit signal power and multipath reflections that can be frequency or flat fades.
Abstract:
A Next Generation Data Network is described. It leverages the “cloud” for data management, low frequency data computation and analytics. The wireless network is a single frequency network that permits limited non-line of sight operation. The wireless network using packet switched beams, the beams are formed and switched electronically. It utilizes advanced signal processing to compensate for low transmit signal power and multipath reflections that can be frequency or flat fades.
Abstract:
Systems and methods for clustering emergency services routing proxies are provided. The described features allow a group of ESRPs running as individual servers or a group of virtual servers, to be referenced using a single URI. In one implementation, an emergency services routing proxy device includes an emergency services routing proxy node configured to route a call to a downstream entity, the call received from an upstream entity. The device further includes a cluster manager configured to receive registration information from the emergency services routing proxy node, the registration information including a routing service identifier. The cluster manager may be further configured to identify the emergency services routing proxy node for call routing based on a comparison of an identifier included in the call with the routing service identifier.
Abstract:
Message routing is implemented by a computer device. A global ring is connected via a network, wherein the global ring is associated with a distributed hash table (DHT) and includes a plurality of nodes which are divided exclusively into groups in advance. A first group of nodes is determined from the plurality of grouped nodes. Using the DHT for a message to be routed, a first node is located from the first group of nodes, as a routing destination.