Abstract: Systems and methods are described for implementing a distributed unit in a radio access network that synchronizes its clock with a radio unit. A distributed unit may be deployed in a location where it cannot receive timing information from a satellite or may lack the equipment to obtain and process satellite signals. The clock of the distributed unit may thus drift relative to the clocks of the radio units, which may cause the distributed unit to mistime its transmissions of data to radio units for delivery to user devices. The distributed unit may prevent clock drift by obtaining timing information from the radio units, determining an amount of clock drift that is occurring, and applying a correction factor to keep the distributed unit clock synchronized with the radio unit clock. The distributed unit may determine how often to synchronize based on the severity and variability of the clock drift.

Abstract: Systems and methods are described for implementing a distributed unit in an open radio access network that manages its workload to reduce the risk of missing a radio unit timeslot. A distributed unit may receive data from a centralized unit and transmit the data to a radio unit, which may transmit the data to user devices during fixed timeslots. The distributed unit must therefore transmit data to the radio unit for delivery during each timeslot to prevent “dead air” and potential connectivity issues. The distributed unit thus monitors its workload, determines whether its risk of missing a window for transmitting data to the radio unit satisfies a criterion, and then if necessary reduces its workload until the criterion is no longer satisfied. The distributed unit may communicate with an access and mobility management function or other network component to facilitate workload management.

Abstract: A device may determine one or more parameters relating to a network. The device may detect a trigger to alter a hybrid automatic repeat request (HARQ) configuration for the network based on the one or more parameters relating to the network. The device may determine an alteration to the HARQ configuration based on detecting the trigger to alter the HARQ configuration. The device may communicate with a distributed unit or a centralized unit of the network to cause the alteration to the HARQ configuration.

Abstract: Mitigating interference between transmitters and receivers associated with satellite systems and mobile wireless systems may include receiving information associated with the transmitter, determining a distance between the transmitter and the receiver based on the received information, determining if the distance is less than a distance threshold, estimating an interference level based on determining that the distance is less than the distance threshold, determining if the estimated interference level exceeds an interference threshold, computing an angle between an antenna of the transmitter and the receiver based upon determining that the estimated interference exceeds the interference threshold, and directing, when receiving a signal, a main lobe of a receive antenna pattern of the receiver towards the signal, and forming nulls in the receive antenna pattern in a direction of at least one side lobe of a transmit pattern of the transmitter.

Abstract: Systems, methods, and devices for assigning user equipment to frequency bands on multiband advanced wireless communication networks. The system may include a multiband controller configured to obtain signal quality indicators from user equipment devices for signals received by the user equipment devices from a first remote radio head for a first frequency band having a maximum frequency greater than 24 GHz and a second remote radio head having a minimum frequency at least 2 GHz greater than the maximum frequency, and in response to the signal quality indicators, issue a command to a user equipment device included in the user equipment devices and operating in the first frequency band to switch to operating in the second frequency band.

Abstract: A device may determine one or more parameters relating to a network. The device may detect a trigger to alter a hybrid automatic repeat request (HARQ) configuration for the network based on the one or more parameters relating to the network. The device may determine an alteration to the HARQ configuration based on detecting the trigger to alter the HARQ configuration. The device may communicate with a distributed unit or a centralized unit of the network to cause the alteration to the HARQ configuration.

Abstract: A device may determine one or more parameters relating to a network. The device may detect a trigger to alter a hybrid automatic repeat request (HARQ) configuration for the network based on the one or more parameters relating to the network. The device may determine an alteration to the HARQ configuration based on detecting the trigger to alter the HARQ configuration. The device may communicate with a distributed unit or a centralized unit of the network to cause the alteration to the HARQ configuration.

Abstract: Mitigating interference between transmitters and receivers associated with satellite systems and mobile wireless systems may include receiving information associated with the transmitter, determining a distance between the transmitter and the receiver based on the received information, determining if the distance is less than a distance threshold, estimating an interference level based on determining that the distance is less than the distance threshold, determining if the estimated interference level exceeds an interference threshold, computing an angle between an antenna of the transmitter and the receiver based upon determining that the estimated interference exceeds the interference threshold, and directing, when receiving a signal, a main lobe of a receive antenna pattern of the receiver towards the signal, and forming nulls in the receive antenna pattern in a direction of at least one side lobe of a transmit pattern of the transmitter.

Abstract: Systems, methods, and devices for assigning user equipment to frequency bands on multiband advanced wireless communication networks. The system may include a multiband controller configured to obtain signal quality indicators from user equipment devices for signals received by the user equipment devices from a first remote radio head for a first frequency band having a maximum frequency greater than 24 GHz and a second remote radio head having a minimum frequency at least 2 GHz greater than the maximum frequency, and in response to the signal quality indicators, issue a command to a user equipment device included in the user equipment devices and operating in the first frequency band to switch to operating in the second frequency band.

Abstract: Mitigating interference between transmitters and receivers associated with satellite systems and mobile wireless systems may include receiving information associated with the transmitter, determining a distance between the transmitter and the receiver based on the received information, determining if the distance is less than a distance threshold, estimating an interference level based on determining that the distance is less than the distance threshold, determining if the estimated interference level exceeds an interference threshold, computing an angle between an antenna of the transmitter and the receiver based upon determining that the estimated interference exceeds the interference threshold, and directing, when receiving a signal, a main lobe of a receive antenna pattern of the receiver towards the signal, and forming nulls in the receive antenna pattern in a direction of at least one side lobe of a transmit pattern of the transmitter.

Abstract: Systems, methods, and devices for assigning user equipment to frequency bands on multiband advanced wireless communication networks. The system may include a multiband controller configured to obtain signal quality indicators from user equipment devices for signals received by the user equipment devices from a first remote radio head for a first frequency band having a maximum frequency greater than 24 GHz and a second remote radio head having a minimum frequency at least 2 GHz greater than the maximum frequency, and in response to the signal quality indicators, issue a command to a user equipment device included in the user equipment devices and operating in the first frequency band to switch to operating in the second frequency band.

Abstract: Systems, methods, and devices for assigning user equipment to frequency bands on multiband advanced wireless communication networks. The system may include a multiband controller configured to obtain signal quality indicators from user equipment devices for signals received by the user equipment devices from a first remote radio head for a first frequency band having a maximum frequency greater than 24 GHz and a second remote radio head having a minimum frequency at least 2 GHz greater than the maximum frequency, and in response to the signal quality indicators, issue a command to a user equipment device included in the user equipment devices and operating in the first frequency band to switch to operating in the second frequency band.

Abstract: A device may determine one or more parameters relating to a network. The device may detect a trigger to alter a hybrid automatic repeat request (HARQ) configuration for the network based on the one or more parameters relating to the network. The device may determine an alteration to the HARQ configuration based on detecting the trigger to alter the HARQ configuration. The device may communicate with a distributed unit or a centralized unit of the network to cause the alteration to the HARQ configuration.

Abstract: Mitigating interference between transmitters and receivers associated with satellite systems and mobile wireless systems may include receiving information associated with the transmitter, determining a distance between the transmitter and the receiver based on the received information, determining if the distance is less than a distance threshold, estimating an interference level based on determining that the distance is less than the distance threshold, determining if the estimated interference level exceeds an interference threshold, computing an angle between an antenna of the transmitter and the receiver based upon determining that the estimated interference exceeds the interference threshold, and directing, when receiving a signal, a main lobe of a receive antenna pattern of the receiver towards the signal, and forming nulls in the receive antenna pattern in a direction of at least one side lobe of a transmit pattern of the transmitter.

Abstract: Methods, systems, and devices are described for making scaling adjustments with respect to a fractional subsystem in a wireless communications system. To handle the effects of scaling associated with fractional bandwidth systems, different adjustments may be made to maintain certain quality of service (QoS) requirements, for example. Scaling adjustments may include identifying a scaling factor for the fractional subsystem and a parameter and/or a timer associated with the fractional subsystem. An adjustment associated with the parameter and/or timer may be determined based on the scaling factor. The adjustment may be applied with respect to the parameter and/or timer for at least a portion of the fractional subsystem or another portion of the wireless communications system.

Abstract: A method, an apparatus, and a machine-readable medium are provided for wireless communication in which at least two modems are selected from a set of modems for the wireless communication based on quality of service requirements for and an energy consumption of the wireless communication. In addition, the selected at least two modems are utilized concurrently for the wireless communication.

Abstract: Systems and methods for extending header fields are disclosed. The header field may be extended without changing the current size of the header. Reserve bits may be used to indicate the use of an extended header and the extended header may be store in a variety of locations within the frame, including the frame payload or pad bits.

Abstract: An apparatus for capturing a signal of interest, e.g., PSS and/or SSS, captures data transmitted by a first RAT by obtaining access to a receive chain for a second RAT during a measurement gap for the first RAT. The signal of interest transmitted by the first RAT is captured during the measurement gap using the receive chain for the second RAT. Access to a receive chain for the second RAT may be obtained in any one of several ways. For example, access may be obtained by 1) requesting receive chain access for the second RAT for LTE measurements through a virtual flow, 2) entering into a power save mode, 3) tuning to a non-operating channel, 4) setting network allocation vector (NAV) at or above a threshold value, or 5) entering a measurement mode during which the receive chain for the second RAT is prevented from performing WLAN operations.

Abstract: An apparatus for capturing a signal of interest, e.g., PSS and/or SSS, captures data transmitted by a WWAN by obtaining access to a WLAN receive chain for a period of time corresponding to a measurement gap. The signal of interest transmitted by the WWAN is captured during the measurement gap using the WLAN receive chain. Access to a WLAN receive chain may be obtained in any one of several ways. For example, access may be obtained by 1) requesting WLAN receive chain access for LTE measurements through a virtual flow, 2) entering into a power save mode, 3) tuning to a non-operating WLAN channel, 4) setting network allocation vector (NAV) at or above a threshold value, or 5) entering a measurement mode during which the WLAN receive chain is prevented from performing WLAN operations.

Abstract: A multiple input and multiple output device includes a first input switch, a second input switch, a first set of analog interference cancellation (AIC) circuits, and a second set of AIC circuits. The first input switch is configured to select one of a first transmit input of first transmit inputs or a first transmit input of second transmit inputs. The second input switch is configured to select one of a second transmit input of the first transmit inputs or a second transmit input of the second transmit inputs. The first set of AIC circuits and the second set of AIC circuits are coupled to the first input switch and to the second input switch. The first set of AIC circuits is configured to output a first cancellation signal. The second set of AIC circuits is configured to output a second cancellation signal.