Abstract: Systems, methods, and software for providing parameters to user devices in wireless access systems are provided herein. In one example, a method of operating a wireless communication system is provided. The method includes providing wireless access to communication services to a user device in a sector of wireless coverage. The method also includes identifying an azimuth angle within the sector of wireless coverage corresponding to a position of the user device, and processing at least the azimuth angle of the user device to identify at least one parameter for the wireless access provided to the user device. The method also includes transferring the at least one parameter to the user device.

Abstract: Disclosed is a method and system for monitoring antenna deterioration. When a signal is transmitted by a base station antenna at a tower-top of a cellular base station, a measurement antenna positioned at the tower-top receives the signal. The signal is measured to determine the signal power and the actual gain of the base station antenna is determined by comparing the determined signal power to the input power of the signal before it was transmitted by the base station antenna.

Abstract: Disclosed herein are systems and methods for adjusting a sensitivity threshold of a wireless communication device (WCD). In an embodiment, a WCD measures both a signal power level of a received signal and a noise power level. The WCD also makes a sensitivity-adjustment determination, which includes (i) a determination that the signal power level is less than a current sensitivity threshold of the receiver of the WCD and (ii) a determination that a signal-to-noise ratio (SNR) of the signal power level to the noise power level is greater than an SNR threshold. Responsive to making the sensitivity-adjustment determination, the WCD adjusts its receiver from having the current sensitivity threshold to having an adjusted sensitivity threshold that is less than or equal to the signal power level.

Abstract: A mobile station measures a pseudonoise (PN) offset and a signal strength of a spread spectrum signal transmitted by a given sector of a spread spectrum communication system. The measured PN offset differs from a nominal PN offset of the given sector. The mobile station transmits a measurement message that includes the measured PN offset and the measured signal strength. The spread spectrum communication system receives the measurement message and determines a location associated with the mobile station (e.g., based on location coordinates included in the measurement message). The spread spectrum communication system determines the nominal PN offset of the given sector based on the measured PN offset and the location associated with the mobile station. If the given sector is a valid handoff destination, the spread spectrum communication system transmits to the mobile station a handoff instruction that identifies the given sector by the measured PN offset.

Abstract: A mobile station receives system time information from a source base transceiver station (BTS) in a spread spectrum communication system. The mobile station estimates a distance between the mobile station and the source BTS. The mobile station calculates a propagation delay based on the estimated distance. The mobile station develops a propagation-delay-adjusted time reference based on the system time information and the calculated propagation delay. The mobile station uses the propagation-delay-adjusted time reference to search for a target pseudonoise (PN) offset corresponding to a target BTS in the spread spectrum communication system. The mobile station may be closer to the target BTS than the source BTS.

Abstract: Embodiments disclosed herein provide systems and methods for carrier frequency assignment based on transmit power differentials. In a particular embodiment, a method comprises determining first power levels of first carrier frequencies transmitted from a first wireless network base station and determining second power levels of second carrier frequencies transmitted from a second wireless network base station. The method further comprises determining transmit power differentials between the first power levels and the second power levels for corresponding ones of the first and second carrier frequencies. The method further comprises assigning a wireless communication device to one of the first carrier frequencies based on the transmit power differentials.

Abstract: Embodiments disclosed herein provide systems and methods for selecting a carrier frequency mode based on wireless device mobility. In a particular embodiment, a method comprises, in a wireless access node, providing wireless communication access to a plurality of wireless communication devices over a plurality of carrier frequencies. The method further provides determining a mobility level of the plurality of wireless communication devices and selecting one of a first communication mode or a second communication mode for at least one of the plurality of carrier frequencies based on the mobility level, wherein the first communication mode allows full wireless access functionality and the second communication mode allows less than full wireless access functionality. The method further provides exchanging communications on the at least one of the plurality of carrier frequencies using the one of the first communication mode or the second communication mode that is selected.

Abstract: In order to provide better wireless service to wireless communication devices (WCDs) at different altitudes (e.g., on different levels of a high-rise structure), a radio access network (RAN) may include antennas that are configured to provide coverage at these different altitudes. The RAN may assign resources, such as transmit power or frequencies, to wireless coverage areas serving particular altitude ranges in a proportion that is commensurate with the number of WCDs being served by these particular altitude ranges. As a result, RAN and WCD performance may improve.

Abstract: In order to provide better wireless service to wireless communication devices (WCDs) at different altitudes (e.g., on different levels of a high-rise structure), a radio access network (RAN) may include antennas that are configured to provide coverage at these different altitudes. The RAN may assign an initial transmit power to a particular WCD based on the particular WCD's altitude. For instance, if the particular WCD is above a threshold altitude, the RAN may set the initial transmit power to the WCD to a lower value. However, if the WCD is below the threshold altitude, the RAN may set the initial transmit power to the WCD to a higher value, to overcome low-altitude signal obstructions. As a result, RAN and WCD performance may improve.

Abstract: In order to provide wireless service to wireless communication devices (WCDs) at different altitudes (e.g., on different levels of a high-rise structure), a radio access network (RAN) may include antennas aimed to direct coverage at different heights. The RAN may advertise the presence of wireless coverage areas that provide elevated coverage primarily to the WCDs above a threshold altitude. Similarly, the RAN may advertise the presence of wireless coverage areas that provide ground floor coverage primarily to WCDs below the threshold altitude. In this way, when a WCD is handed off to a new wireless coverage area, that wireless coverage area may be suited to provide coverage at the WCD's altitude.