Abstract: Apparatuses, methods, and systems of a base station of a satellite network managing a connection of a wireless device to the satellite network are disclosed. One method includes broadcasting location information of a satellite associated with the base station, broadcasting an effective communication range for wireless communications between the base station and the wireless device of a satellite beam, wherein the wireless device calculates a distance between the wireless device and a reference point associated with the satellite based on the broadcast location information of the satellite and a location of the wireless device, wherein the wireless device compares the calculated distance with the broadcast effective communication range, and determines a wireless signaling procedure to establish or maintain a wireless connection with the satellite network based on the comparison. The method further includes receiving, by the base station, the wireless signaling procedure from the wireless device.

Abstract: Apparatuses, methods, and systems for wireless communication are disclosed. One method includes dividing available wireless communications resources into a plurality of groups, connecting, by a wireless device, to a base station through a wireless satellite link, allocating, by the base station, a set of the plurality of groups to the wireless device, receiving, by the wireless device, a datum from a data source, assigning, by the wireless device, the datum to one or more of the allocated groups based on characteristics of the datum, and wirelessly communicating, by the wireless device, the datum to the base station according to the assigned one of the plurality of groups.

Abstract: Apparatuses, methods, and systems for coordinated satellite and terrestrial base station resource block allocation are disclosed. One method includes receiving, by a controller, a data demand of a terrestrial network of a terrestrial base station and a data demand of a satellite network of a satellite base station, generating, by the controller, a communication schedule comprising satellite resource block information of the satellite base station, wherein the satellite resource block information indicates time and frequency blocks of the communication schedule that the satellite base station is only allowed to use for wireless communication, wherein the time and frequency blocks of the terrestrial resource block information of the terrestrial base station do not overlap with the time and frequency blocks of the satellite resource block information, and allocating, by the satellite base station, radio frequency (RF) resources based on the satellite resource block information.

Abstract: Apparatuses, methods, and systems for coordinating satellite and terrestrial base station resource block suppression are disclosed.

Abstract: Apparatuses, methods, and systems for wireless communication are disclosed. One method includes dividing available wireless communications resources into a plurality of groups, connecting, by a wireless device, to a base station through a wireless satellite link, allocating, by the base station, a set of the plurality of groups to the wireless device, receiving, by the wireless device, a datum from a data source, assigning, by the wireless device, the datum to one or more of the allocated groups based on characteristics of the datum, and wirelessly communicating, by the wireless device, the datum to the base station according to the assigned one of the plurality of groups.

Abstract: Apparatuses, methods, and systems for providing function models to hubs, are disclosed. One method includes sensing, by a hub, local data, collecting the local data from the hub, creating function models based on the collected local data and non-local data collected from non-local data sources, dynamically creating non-local inputs based upon the local data from the hub and the non-local data collected from non-local data sources, transmitting the created function models to the plurality of hubs at a first timing, and dynamically transmitting the non-local inputs to each of the plurality of hubs at a second timing, and applying, by the hub, current locally sensed data and the dynamically transmitted non-local inputs to the created function models.

Abstract: Apparatuses, methods, and systems for coordinating satellite and terrestrial base station resource block suppression are disclosed.

Abstract: Apparatuses, methods, and systems for coordinating wireless communication are disclosed. One method includes generating, by a wireless radiator, a plurality of selectable directional wireless communication links capable of providing connectivity across a plurality of cells, wherein each of the cells is spatially different from other cells, and wherein each of the cells covers a cell area, wherein a plurality of hubs are located within the cell area, generating, by a controller, a cell map, wherein the cell map maps which of the directional wireless links, which of the plurality cells, and which of the hubs are active as a function of time, thereby supporting a wireless communication link between the base station and the hubs of the cell area corresponding with the active directional wireless link, and providing the cell map to the base station and the hubs of each of the cells.

Abstract: Apparatuses, methods, and systems for coordinating wireless communication are disclosed. One method includes generating, by a wireless radiator, a plurality of selectable directional wireless communication links capable of providing connectivity across a plurality of cells, wherein each of the cells is spatially different from other cells, and wherein each of the cells covers a cell area, wherein a plurality of hubs are located within the cell area, generating, by a controller, a cell map, wherein the cell map maps which of the directional wireless links, which of the plurality cells, and which of the hubs are active as a function of time, thereby supporting a wireless communication link between the base station and the hubs of the cell area corresponding with the active directional wireless link, and providing the cell map to the base station and the hubs of each of the cells.

Abstract: Apparatuses, methods, and systems for providing function models to hubs, are disclosed. One method includes sensing, by a hub, local data, collecting the local data from the hub, creating function models based on the collected local data and non-local data collected from non-local data sources, dynamically creating non-local inputs based upon the local data from the hub and the non-local data collected from non-local data sources, transmitting the created function models to the plurality of hubs at a first timing, and dynamically transmitting the non-local inputs to each of the plurality of hubs at a second timing, and applying, by the hub, current locally sensed data and the dynamically transmitted non-local inputs to the created function models.

Abstract: Apparatuses, methods, and systems for coordinating wireless communication are disclosed. One method includes generating, by a wireless radiator, a plurality of selectable directional wireless communication links capable of providing connectivity across a plurality of cells, wherein each of the cells is spatially different from other cells, and wherein each of the cells covers a cell area, wherein a plurality of hubs are located within the cell area, generating, by a controller, a cell map, wherein the cell map maps which of the directional wireless links, which of the plurality cells, and which of the hubs are active as a function of time, thereby supporting a wireless communication link between the base station and the hubs of the cell area corresponding with the active directional wireless link, and providing the cell map to the base station and the hubs of each of the cells.

Abstract: Apparatuses, methods, and systems for providing function models to hubs, are disclosed. One method includes sensing, by a hub, local data, collecting the local data from the hub, creating function models based on the collected local data and non-local data collected from non-local data sources, dynamically creating non-local inputs based upon the local data from the hub and the non-local data collected from non-local data sources, transmitting the created function models to the plurality of hubs at a first timing, and dynamically transmitting the non-local inputs to each of the plurality of hubs at a second timing, and applying, by the hub, current locally sensed data and the dynamically transmitted non-local inputs to the created function models.

Abstract: Apparatuses, methods, and systems for providing function models to hubs, are disclosed. One method includes sensing, by a hub, local data, collecting the local data from the hub, creating function models based on the collected local data and non-local data collected from non-local data sources, dynamically creating non-local inputs based upon the local data from the hub and the non-local data collected from non-local data sources, transmitting the created function models to the plurality of hubs at a first timing, and dynamically transmitting the non-local inputs to each of the plurality of hubs at a second timing, and applying, by the hub, current locally sensed data and the dynamically transmitted non-local inputs to the created function models.

Abstract: Apparatuses, methods, and systems for providing function models to hubs, are disclosed. One method includes sensing, by a plurality of hubs, local data, collecting the local data from the plurality of hubs, creating function models based on the collected local data and outside data collected from outside data sources, dynamically creating non-local inputs for each of the plurality of hubs based upon the local data from the plurality of hubs and the outside data collected, a location of the hub, a time, and an application the hub serves, transmitting the created function models to the plurality of hubs at a first timing, and dynamically transmitting the non-local inputs to each of the plurality of hubs at a second timing, and applying, by one or more of the plurality of hubs, current locally sensed data and the dynamically transmitted non-local inputs to the created function models.

Abstract: Apparatuses, methods, and systems for control of antenna steering of a wireless device, are disclosed. One method includes selecting beamforming direction settings of a multiple antenna array of a radio, retrieving spatial relationships between each of different beamforming directions, receiving, by the radio, a wireless signal from a base station and measuring signal metrics of the wireless signal, sensing motion of the wireless device, identifying a wireless connection direction for establishing a wireless connection with the base station based on the signal metrics, the plurality of beamforming direction settings used while receiving the wireless signal, and an orientation of the wireless device determined based on the sensed motion of the wireless device, and selecting a one of the plurality of beamforming direction settings for communicating with the base station based on the wireless connection direction, a beamforming setting that corresponds with the wireless connection.

Abstract: Apparatuses, methods, and systems for coordinating wireless communication are disclosed. One method includes generating, by a wireless radiator, a plurality of selectable directional wireless communication links capable of providing connectivity across a plurality of cells, wherein each of the cells is spatially different from other cells, and wherein each of the cells covers a cell area, wherein a plurality of hubs are located within the cell area, generating, by a controller, a cell map, wherein the cell map maps which of the directional wireless links, which of the plurality cells, and which of the hubs are active as a function of time, thereby supporting a wireless communication link between the base station and the hubs of the cell area corresponding with the active directional wireless link, and providing the cell map to the base station and the hubs of each of the cells.

Abstract: Apparatuses, methods, and systems for providing function models to hubs, are disclosed. One method includes sensing, by a plurality of hubs, local data, collecting the local data from the plurality of hubs, creating function models based on the collected local data and outside data collected from outside data sources, dynamically creating non-local inputs for each of the plurality of hubs based upon the local data from the plurality of hubs and the outside data collected, a location of the hub, a time, and an application the hub serves, transmitting the created function models to the plurality of hubs at a first timing, and dynamically transmitting the non-local inputs to each of the plurality of hubs at a second timing, and applying, by one or more of the plurality of hubs, current locally sensed data and the dynamically transmitted non-local inputs to the created function models.

Abstract: Apparatuses, methods, and systems for coordinating wireless communication are disclosed. One method includes generating, by a wireless radiator, a plurality of selectable directional wireless communication links capable of providing connectivity across a plurality of cells, wherein each of the cells is spatially different from other cells, and wherein each of the cells covers a cell area, wherein a plurality of hubs are located within the cell area, generating, by a controller, a cell map, wherein the cell map maps which of the directional wireless links, which of the plurality cells, and which of the hubs are active as a function of time, thereby supporting a wireless communication link between the base station and the hubs of the cell area corresponding with the active directional wireless link, and providing the cell map to the base station and the hubs of each of the cells.

Abstract: Apparatuses, methods, and systems for control of antenna steering of a wireless device, are disclosed. One method includes selecting beamforming direction settings of a multiple antenna array of a radio, retrieving spatial relationships between each of different beamforming directions, receiving, by the radio, a wireless signal from a base station and measuring signal metrics of the wireless signal, sensing motion of the wireless device, identifying a wireless connection direction for establishing a wireless connection with the base station based on the signal metrics, the plurality of beamforming direction settings used while receiving the wireless signal, and an orientation of the wireless device determined based on the sensed motion of the wireless device, and selecting a one of the plurality of beamforming direction settings for communicating with the base station based on the wireless connection direction, a beamforming setting that corresponds with the wireless connection.