Abstract: Methods and systems use traffic channels to extend wireless coverage areas. In an embodiment, an access node transmits a standard pilot signal over a pilot channel. The access node initially operates in a standard transmission mode, wherein the access node transmits a standard traffic signal over a traffic channel at a first power level. The access node makes a determination to operate in an alternative transmission mode involving the access node generating and transmitting a modified traffic signal comprising (i) a standard traffic signal and (ii) a modified pilot signal. The access node transmits the modified traffic signal at a second power level that is greater than the first power level.

Abstract: While a first and second entity are engaging in a communication session on a wireless link, the first entity may be sending a series of power control commands (PCCs) directed to the second entity at a first transmission rate. Additionally, the first entity may monitor an actual and expected transmission-power adjustment of the second entity. Based on this monitored actual and expected transmission-power adjustment, the first entity may decide to alter the PCC transmission scheme for the second entity. For instance, if the monitored actual and expected transmission-power adjustment differs by a threshold extent, the power-controlling entity may decide to increase the PCC transmission rate for the power-controlled entity and/or increase the transmission-power adjustment instructed by PCCs directed to the second entity. In response, the first entity may begin sending the series of PCCs directed to the second entity according to the altered PCC transmission scheme.

Abstract: A method of operating a wireless communication system is disclosed. The method includes receiving power status information for resource blocks of a plurality of wireless links, where the resource blocks comprise frequency apportioned timeslots used for exchanging wireless communications between wireless access nodes and user devices. The method also includes processing the power status information to identify ones of the resource blocks which exceed a power threshold, determining scheduling instructions for the resource blocks to reduce the power status information for the ones of the resource blocks to below the power threshold, and transferring the scheduling instructions to at least a first wireless access node for controlling a first wireless link based on the scheduling instructions.

Abstract: A method and system of paging a mobile station. In response to receiving a request to set up a communication with a mobile station, a radio network controller (RNC) may identify a last-known location of the mobile station. The RNC may then identify two or more paging areas based on the mobile station's last-known location. In turn, the RNC may determine an indication of traffic for each of the identified paging areas. For example, the RNC may determine an indication of traffic for a paging area by (a) determining a number of communication requests received by BTSs located in the paging area within a given time period, (b) determining a number of BTSs located in the paging area, and (c) dividing the number of communication requests by the number of BTSs. Thereafter, the RNC may page the mobile station in the identified paging area having the highest indication of traffic.

Abstract: Methods and computer-readable media are provided to determine which sector the mobile device will bias during soft handoff. Signals are received from multiple sectors, and for a first quantity of time slots of a frame, the signals are inspected to determine whether a quality threshold is met. Based on whether the quality threshold is met, each sector is assigned a power control command indicating that either a decrease or increase of output power is recommended when a subsequent signal is sent to the mobile device. For a second quantity of time slots, the overall power control command sent to the sectors corresponds to the power control command assigned to the sector that has communicated the highest quality signals for the first quantity of time slots of the frame.

Abstract: An access network may receive an incoming communication for an idle access terminal having a last-known location in a first service area of the access network. In response to receiving the incoming communication, the access network may determine whether the last-known location is proximate to a border between the first service area and a second service area of the access network. If so, the access network may define a border paging area encompassing one or more coverage areas within the second service area that are proximate to the last-known location. In turn, the access network may determine a representative paging-channel occupancy of the border paging area. Based on the representative paging-channel occupancy, the access network may then select a time at which to initiate a border page of the access terminal in the border paging area and then perhaps initiate the border page at the selected time.

Abstract: Systems and methods are disclosed herein for adjusting a control channel timer based on control communication traffic on a control channel. In a particular embodiment, a method provides exchanging data packets with a wireless network over a wireless traffic channel assigned to a wireless device. The method further provides monitoring control communications from the wireless network over a wireless control channel and adjusting a control channel timer that indicates a time period that the wireless device should continue to monitor the control communications based on a level of control communication traffic. The method further provides releasing the assigned traffic channel in response to the expiration of a dormancy timer. In response to the release of the traffic channel, the method provides starting the control channel timer. In response to the expiration of the control channel timer, the method provides stopping the monitoring of the control communication traffic.

Abstract: Disclosed herein are methods for comparative-throughput triggered handoff. According to one embodiment of the method, the RAN may determine that a higher priority AT is receiving a lower level of throughput than a lower priority AT in the same sector, and as a response, the RAN will cause the higher priority AT to hand off from the current serving sector. According to another embodiment of the method, the RAN may identify which of the ATs being served in a particular sector are receiving lower than a threshold level of throughput, and subsequently determine the highest service priority level of these identified ATs. The RAN will then cause one or more of the identified ATs that have the highest service priority level to hand off from the current serving sector.

Abstract: Disclosed herein are methods and systems for managing usage of traffic-channel resources in an access network, which are preferably resources that are reserved during a traffic channel assignment (TCA) process. An exemplary method comprises (i) a base station determining a usage level of at least one traffic-channel resource in a coverage area of the access network; (ii) based at least in part on the determined usage level, updating one or more TCA parameters affecting expected usage of the traffic-channel resource resulting from the TCA process; and (iii) performing the TCA process according to the updated TCA parameters. Preferably the usage level is determined for Medium Access Control Identifiers (MAC_IDs). Further, the access-channel occupancy (ACO) may be determined and the base station may further base the updating of TCA parameters on the ACO. In an exemplary embodiment, the updated TCA parameters include the TCA count and/or the TCC wait timer.

Abstract: A wireless communication system uses a series of repeating overhead time cycles that each comprise a plurality of time slots. The system exchanges overhead information with wireless communication devices during individual time slots. The communication system wirelessly receives a registration request for wireless communication service from a wireless communication device. The communication system processes loading information for the overhead time cycles or a quality of service level of the wireless communication device to assign the wireless communication device to one of the overhead time cycles. The communication system wirelessly indicates the assigned overhead time cycle to the wireless communication device. The communication device monitors the overhead time slots during the assigned one of the overhead time cycles and does not monitor the overhead time slots during the not assigned overhead time cycles.

Abstract: A method and corresponding apparatus or system is disclosed for managing operating in a cellular wireless communication system. The method involves detecting a threshold transition of user devices (generally any wireless communication devices) that are actively operating in a given wireless coverage area into a state of soft handoff between the given coverage area and another coverage area, and perhaps a resulting threshold increase in total transmission power in the given coverage area, and responsively forcing out of the given coverage area at least one user device that is in soft handoff with the given coverage area. The method may thereby help to avoid or minimize an undesirable cyclic power increase effect that could lead to power overload.

Abstract: Methods and apparatus are provided for a wireless communication device (WCD) to utilize one or more search windows to capture both an earliest-received signal and a strongest received signal. In an embodiment, in a first time period, the WCD detects an arrival time of an earliest-received signal and an arrival time of a strongest received signal in one or more search windows for each of at least one set of signals. The WCD then centers a first search window based on the arrival time of the earliest-received signal and centers a second search window based on the arrival time of the strongest received signal for each of the at least one set of signals. In a second time period, the WCD searches for signals using the first and second search windows.

Abstract: What is disclosed is a method of operating a wireless access system. The method includes exchanging wireless communications with a plurality of user devices using a first transmit diversity configuration, receiving multipath information from the user devices for the wireless communications, and processing the multipath information to determine a second transmit diversity configuration. The method also includes transferring an indicator of the second transmit diversity configuration to the user devices, and exchanging further wireless communications with the user devices using the second transmit diversity configuration.

Abstract: A two-stage method is used to page a target mobile station. A wireless network transmits an initial page message into a plurality of wireless coverage areas (e.g., the wireless coverage areas defined by a paging zone) that includes the target mobile station's last reported location. The initial page message is received by a plurality of mobile stations, which then transmit a plurality of responses. The plurality of responses includes a target response from the target mobile station. The wireless network determines the target wireless coverage area that received the target response and then transmits a supplemental page message into the target wireless coverage area. The initial page message may be a very short message, such as a page indicator, that does not identify the target mobile station. The supplemental page message may be a longer message that identifies the target mobile station and the reason for the page.

Abstract: A method and system of controlling switching of an access terminal between cells of an access network that includes a first BTS serving a first cell and a second BTS serving a second cell. While the first BTS is receiving from the access terminal one or more consecutive requests for current service in the first cell and serving the access terminal, the second BTS receives from the access terminal a request for future service in the second cell. In response, the second BTS prepares to serve the access terminal in the second cell. After the second BTS has finished preparing, the first BTS sends to the access terminal an instruction to stop sending requests for current service in the first cell (e.g., a DRCLock bit message). The second BTS then receives from the access terminal a request for current service in the second cell, and begins serving the access terminal.

Abstract: What is disclosed is a method of operating a wireless communication device. The method includes, while at an initial location, entering a first wireless communication mode that requires tuning to a first frequency spectrum. In response to entering the first wireless communication mode, the method includes setting a timer for monitoring a second wireless communication mode. When the timer expires, the method includes determining if a present location of the wireless communication device is beyond a threshold distance from the initial location. If the present location is beyond the threshold distance from the initial location, then the method includes tuning away from the first frequency spectrum to a second frequency spectrum for the second wireless communication mode and monitoring information for the second wireless communication mode, and if the present location is not beyond the threshold distance from the initial location, then resetting the timer for monitoring the second wireless communication mode.

Abstract: A power control command (PCC) transmission scheme is disclosed. In one embodiment, the PCC transmission scheme may involve an access network engaging in a respective existing communication session with each of a plurality of existing access terminals and sending a respective existing series of power control commands (PCCs) directed to a respective existing access terminal according to a respective existing time schedule. The transmission scheme may further involve the access network deciding to initiate a new communication session with a new access terminal and, in response to the deciding, assigning a new time schedule for sending a new series of PCCs directed to the new access terminal that differs from at least one respective existing time schedule. The transmission scheme may further involve engaging in the new communication session with the new access terminal and sending the new series of PCCs according to the new time schedule.

Abstract: A method and apparatus for handing off packet-transmission between sectors of a wireless communication system is disclosed herein. During transmission of a packet from an access network to an access terminal, the access terminal determines that the packet should theoretically be transmitted to the access terminal in fewer timeslots in another sector than the number of allowed timeslots remaining for the packet transmission in a current sector. In response, the access terminal abandons packet transmission in the current sector and hands off to the other sector, in an effort to increase throughput and save air interface resources.

Abstract: A supporting node maintains a retransmission database that stores information about the historical retransmission rates of user terminals served by the network. The supporting network node provides the information about the retransmission rates of the user terminals to the base stations that are serving the user terminals. When a user terminal is being scheduled to receive a downlink transmission, the scheduler at the base station may use historical retransmission rates of the user terminal to select transmission parameters, e.g. modulation and coding scheme (MCS) and/or transport block (TBS), for the downlink transmission.

Abstract: A mobile station and a radio access network (RAN) use a single-channel forward link and a single-channel reverse link for a communication session. If the quality of the communication session degrades, the single-channel forward link is replaced with a multi-channel forward link and/or the single-channel reverse link is replaced with a multi-channel reverse link. The multi-channel forward link may include a first forward link channel and a second forward link channel, each with a higher coding gain than that of the single-channel forward link, to provide an aggregate data rate that is substantially the same as that of the single-channel forward link. The multi-channel reverse link may include a first reverse link channel and a second reverse link channel, each with a higher coding gain than that of the single-channel reverse link, to provide an aggregate data rate that is substantially the same as that of the single-channel reverse link.