Abstract: Methods and systems are provided for reporting to subscribers, wireless network events in a plurality of formats and languages depending upon the particular subscriber group to which a wireless subscriber belongs. When a subscriber requests a call, a switching node in the network invokes a trigger that identifies a location register for routing the call and sends a route request to the location register While processing the route request, if the location register detects an event that would prevent the call from being routed, the location register identifies the subscriber group of the wireless subscriber and determines a directory number associated with the identified subscriber group and the detected event. The location register then returns the determined directory number to the switching node Using the determined directory number, the switching node establishes the call to a message node, where a message associated with the determined directory number is executed.

Abstract: Methods and systems are provided for communicating data from wireline terminals to mobile terminals in a telecommunications network, which includes a home node associated with the mobile terminal and one or more visited nodes. To establish communication with a mobile terminal, a wireline terminal sends data to a server in the telecommunications network. The server identifies a mobile identification number associated with the mobile terminal, and based on the identified mobile identification number, the server determines a route that excludes the home node when the mobile terminal is out of the geographical area served by the home node. The server then establishes via the determined route a connection to the mobile terminal and sends to the mobile terminal the data received from the wireline terminal.

Abstract: Methods and systems are provided for reporting to subscribers, wireless network events in a plurality of formats and languages depending upon the particular subscriber group to which a wireless subscriber belongs. When a subscriber requests a call, a switching node in the network invokes a trigger that identifies a location register for routing the call and sends a route request to the location register. While processing the route request, if the location register detects an event that would prevent the call from being routed, the location register identifies the subscriber group of the wireless subscriber and determines a directory number associated with the identified subscriber group and the detected event. The location register then returns the determined directory number to the switching node. Using the determined directory number, the switching node establishes the call to a message node, where a message associated with the determined directory number is executed.

Abstract: A system and method is provided for establishing a call to a wireless directory number (982) which is either a non-geographic directory number or a non-dialable directory number. A call is initiated from a wireless telephone (155) to a geographic-based local access directory number (994, 996). An originating switching node (810) recognizes the local access directory number (994, 996) as an AIN trigger, and thereafter identifies a signaling node (820) that is associated with the dialed local access DN (994, 996). The signaling node (820) sends a location request that includes the local access DN (994, 996) to an HLR (130). The HLR (130) obtains the wireless DN (982) from an internal database (990) in which the wireless DN (982) is associated with the local access DN (994, 996). The HLR (130) utilizes the wireless DN (982) to receive a temporary local directory number (TLDN) from visitor location register (140).

Abstract: A system and method is provided for establishing a call to a wireless directory number that comprises either a non-geographic directory number or a non-diable directory number. A call is placed from a wireline telephone to a preselected geographic-based access directory number (DN). The originating switching node, which may be an AIN-capable SSP, recognizes the access DN as an AIN trigger, and thereafter identifies a signaling node, which may be an AIN-capable SCP, that is associated with the dialed access DN. The originating switching node is then controlled to provide dialtone and collect digits from the caller, the collected digits corresponding to the non-geographic or non-dialable wireless directory number. Thereafter, the originating switching node transmits the collected digits to the signaling node. The signaling node sends a location request that includes the wireless DN to an HLR, which returns a temporary local directory number (TLDN) in accordance with ANSI-41 processing protocols.

Abstract: A radiotelephone (10) simulates the call origination process performed by land-line telephones. Dial tone is generated (78) in response to an off-hook condition and removed when a first digit (54) is dialed. A timer process (84, 110) and a number analysis process (100) simultaneously evaluate dialed digits to detect the completion of dialing. The number analysis process (100) identifies seven, ten, and eleven digit, and indeterminate length phone number formats (64, 66, 52, 68). The ten digit format is recognized in response to remotely programmed (42) connected NPA codes. For most calls, the number analysis process (100) instantly detects a phone number's final digit (62). In a few cases the timer process (84, 110) detects the final digit through the absence of dialing activity for a predetermined duration. When the final digit (62) is detected, an origination message is transmitted to a cellular network.

Abstract: As demand for data services expands, users expect untethered (“wireless”) systems to provide a same level of service as their tethered (“wired”) systems. Described herein are systems and networks for providing high bandwidth wireless connectivity with user broadcast throughput of at least 1 Mbps. This connectivity is may be used in stationary, portable, and mobile computing environments. A communication system is described having a radio card for electrical communication with a transceiver. A wireless area network is described having a communication system and a wireless local area network adapted for broadcast communication with the communication system. The wireless local area network comprises one converter having a point-to-multipoint radio having at least a 10 MHz bandwidth, and another converter having a point-to-point radio having at least a 10 MHz bandwidth. The wireless local area network may form a cell of a plurality of cells in a wireless metropolitan network.

Abstract: A wireless telecommunication network communicates with a population of subscriber units. A portion of the subscriber units may be programmed to practice a less desirable service configuration, such as a default 13 kb/s vocoding process, even though capable of practicing a more desirable service configuration, such as enhanced variable rate coding (EVRC). Another portion of the subscriber units may not be capable of performing the more desirable service configuration. The network includes a database used to filter the application of a negotiation process during call setup for calls originating at the subscriber units. The negotiation process requests subscriber units to implement the more desirable service configuration. The database is automatically populated through an exchange of messages which occurs during a call setup process for incoming calls to the subscriber units.

Abstract: A radiotelephone (10) simulates the call origination process performed by land-line telephones. Dial tone is generated (78) in response to an off-hook condition and removed when a first digit (54) is dialed. A timer process (84, 110) and a number analysis process (100) simultaneously evaluate dialed digits to detect the completion of dialing. The number analysis process (100) identifies seven, ten, and eleven digit, and indeterminate length phone number formats (64, 66, 52, 68). The ten digit format is recognized in response to remotely programmed (42) connected NPA codes. For most calls, the number analysis process (100) instantly detects a phone number's final digit (62). In a few cases the timer process (84, 110) detects the final digit through the absence of dialing activity for a predetermined duration. When the final digit (62) is detected, an origination message is transmitted to a cellular network.

Abstract: An improved telephone system is provided for handling a long distance call made by a mobile modem 5 to a remote land-based terminal 7 as a local call. A register in the system examines the number of the cellular telephone, and the location of the mobile, as represented by the identity of the serving switch. The register then instructs the system to connect the mobile modem 5 to a hard-wired modem 37 local to the visited switch 11. The modem designated is one of a pool of geographically dispersed modems 39 connected to an alternative network 41 such as the TCP/IP based Internet. The call is completed as a local call with data flowing from the mobile modem 5 to the local hard-wired modem 37. From the hard-wired modem 37 the data is then routed over the alternative network 41 to the land-based terminal 7, which is also connected to the alternative network 41. Such an approach eliminates the long distances fee connected with the use of the public switched telephone network 31.

Abstract: A cellular radiotelephone system (10) includes mobile stations (28) which may be remotely programmed from a customer activation system (12) to effect activation and other programming needs. Mobile stations (28) are manufactured in a blank form that causes them to operate only in an inactive state. During activation, information describing the mobile station's electronic serial number (ESN) is collected along with area of use information. A mobile identification number (MIN) is assigned in response to the area of use information. A page message is directed to the mobile station operating in its inactive state, but the page message references the mobile station's ESN. While inactive, the mobile station (28) detects pages directed to its ESN. A remote programming session is then performed wherein digital user-specific programming data, including the newly assigned MIN, are transferred to the mobile station (28) over a voice channel using a control channel protocol (80).

Abstract: A multiple mode, personal, wireless communications system is disclosed which exists within a radiotelephone network serving general customers and provides unique additional services to a select group of customers equipped with special handsets, without impacting the general customers. The special handsets automatically switch between and operate in either analog or digital mode with the standard radiotelephone network and in an enhanced cordless mode when within range of independent pico cells, that are interconnected with the public switched telephone network. Each of the network transparent pico cells is controlled via a framework of overlay cells that operate independently of the radiotelephone network and use a unique control protocol on a relatively small number of reserved channels, with a use hierarchy that is reversed with respect to standard radiotelephone channels.

Abstract: Methods and systems are provided for establishing calls to wireless directory numbers (DNs) in a telecommunications network. When a call is directed to a wireless DN, a first node in the network identifies a signaling node associated with the wireless DN and sends the identified signaling node a request for a route to the wireless DN. If the wireless device associated with wireless DN is outside of its home area and is served by a visited node in the network, the signaling node determines a route that excludes the home node associated with the wireless DN and returns a temporary location directory number (TLDN) to the first node. Using the TLDN, the first node then establishes a connection to the visited node.

Abstract: A radiotelephone (10) simulates the call origination process performed by land-line telephones. Dial tone is generated (78) in response to an off-hook condition and removed when a first digit (54) is dialed. A timer process (84, 110) and a number analysis process (100) simultaneously evaluate dialed digits to detect the completion of dialing. The number analysis process (100) identifies seven, ten, and eleven digit, and indeterminate length phone number formats (64, 66, 52, 68). The ten digit format is recognized in response to remotely programmed (42) connected NPA codes. For most calls, the number analysis process (100) instantly detects a phone number's final digit (62). In a few cases the timer process (84, 110) detects the final digit through the absence of dialing activity for a predetermined duration. When the final digit (62) is detected, an origination message is transmitted to a cellular network.

Abstract: A multiple mode, personal, wireless communications system exists within a radiotelephone network serving general customers and provides additional services to a select group of customers. The system uses handsets (32) which automatically switch between a standard cellular radiotelephone mode of operation (1901) and an enhanced cordless mode (1420) when the handsets (32) are within range of pico cells (26) that are interconnected to the public switched telephone network (20). Each pico cell is controlled via a framework of overlay cells (10b) that operates independently of the radiotelephone network and uses a unique control protocol on a small number of reserved cellular channels. Each pico cell consists of a spectrally dynamic, non-capturing, frequency agile, multi-purpose base station (26) provided at customer-selected locations to cooperate with the overlay cell framework. Each pico cell is capable of supporting multiple handsets (32) and uses low power operation that achieves limited coverage.

Abstract: A private wireless communication system (56) is interconnected with a public switched telecommunications network (PSTN). The wireless system (56) includes a mobile telephone switching office (MTSO) (58). A first cell site (60) interconnects with the MTSO (58) through a first PSTN-provided T-1 transmission link 64. A second cell site (62) interconnects with the MTSO (58) through a second PSTN-provided T-1 transmission link (66), and with the first cell site (60) through a third PSTN-provided T-1 transmission link (68). Additionally, the first cell site (60) interconnects with a local exchange carrier (LEC) end office (72) of the PSTN through a fourth PSTN-provided T-1 transmission link (70). The first and second cell sites (60, 62) are located in a local service area (80) of the LEC end office (72), and the MTSO (58) is configured to selectively route communication signals over first, second, third, and fourth PSTN-provided T-1 links (64, 66, 68, 70).

Abstract: A method and system is provided for automatically retrieving cellular telephone data for analysis of call data associated with cellular telephone calls. Such method and system ensure reliable retrieval and reporting of information from cellular telephone switches for use in analyzing cellular telephone technology and data deployed in various regions of the country serviced by a service provider. Such system and method automatically download cellular telephone data from cellular switches of a telephone network at predetermined time periods. The cellular telephone data pertains to cellular calls routed through the switches. Certain elements of the cellular telephone data is chosen for storage in a central database and is reformatted for placement in tables in the central database. The tables have a format that enables the cellular telephone data to be selectively chosen for inclusion in various documents that summarize the cellular telephone data that is downloaded.

Abstract: A multiple mode, personal, wireless communications system exists within a radiotelephone network serving general customers and provides additional services to a select group of customers. The system uses handsets (32) which automatically switch between a standard cellular radiotelephone mode of operation (1901) and an enhanced cordless mode (1420) when the handsets (32) are within range of pico cells (26) that are interconnected to the public switched telephone network (20). Each pico cell is controlled via a framework of overlay cells (10b) that operates independently of the radiotelephone network and uses a unique control protocol on a small number of reserved cellular channels. Each pico cell consists of a spectrally dynamic, non-capturing, frequency agile, multi-purpose base station (26) provided at customer-selected locations to cooperate with the overlay cell framework. Each pico cell is capable of supporting multiple handsets (32) and uses low power operation that achieves limited coverage.

Abstract: In a multiple mode communication system (29), a radio communication device (22) selectively communicates, using a common pool of channels (42), through a cordless base station (30) and a cellular network having a plurality of cellular base stations (24). The radio communication device (22) determines and stores local station identifiers (88) for the cellular base stations (24) which are broadcasting message streams (48) over control channels (46) in a cordless radio coverage area (26) of the radio communication device (22). The radio communication device (22) transmits a message to the cordless base station (30) when a detected cellular base station identifier (51) matches one of the determined local station identifiers (88). The radio communication device (22) is prevented from transmitting a message when the detected cellular base station identifier (51) matches none of the local station identifiers (88).

Abstract: A multiple mode, personal, wireless communications system exists within a radiotelephone network serving general customers and provides additional services to a select group of customers. The system uses handsets (32) which automatically switch between a standard cellular radiotelephone mode of operation (1901) and an enhanced cordless mode (1420) when the handsets (32) are within range of pico cells (26) that are interconnected to the public switched telephone network (20). Each pico cell is controlled via a framework of overlay cells (10b) that operates independently of the radiotelephone network and uses a unique control protocol on a small number of reserved cellular channels. Each pico cell consists of a spectrally dynamic, non-capturing, frequency agile, multi-purpose base station (26) provided at customer-selected locations to cooperate with the overlay cell framework. Each pico cell is capable of supporting multiple handsets (32) and uses low power operation that achieves limited coverage.