37 results about "Over-the-air programming" patented technology

Methods and apparatus for automatically selecting a wireless communication network by user equipment using a “steered” PLMN are disclosed. A home network identification, a list of prioritized roaming network identifications, and a steered network identification are stored in memory (e.g. a SIM or USIM) of the user equipment. In an automatic network selection procedure, a scanning operation is performed to receive one or more network identifications corresponding to one or more available wireless communication networks in a coverage area. The user equipment attempts to select a wireless communication network in the coverage area by comparing the received network identifications from the scanning operation with the steered network identification. If a match between a received network identification and the steered network identification is identified, a wireless communication network corresponding to the received network identification that matches the steered network identification is selected and registered with by the user equipment. This procedure is performed in lieu of use of the list of prioritized roaming network identifications of the user equipment. By setting the steered network identification via an over-the-air programming procedure when necessary (e.g. on a per region basis), a home network operator may “steer” user equipment to any desired network immediately and efficiently.

Systems and methods for providing centralized notification for over the air programming. The centralized notification system includes a central server that generates a message to be delivered to a mobile device. The centralized notification system includes an active server in communication with the central server that receives the message from the central server. The active server communicates with a network element that communicates with the mobile device. The active server queries the network element to determine availability of the mobile device. If the availability of the mobile device is returned from the network device, the message is directly routed to the mobile device, otherwise, the message is routed to a passive server. The passive server monitors message traffic for an event that provides availability information about the mobile device and automatically delivers the message to the mobile device in response thereto.

A system and a method for performing over the air programming (“OTAP”) to update computer code in a remote computer. The method includes transmitting computer code over the air to the remote device and writing the computer code to at least one memory device located in the remote device. In one embodiment, the remote device is a cellular phone and the computer code is transmitted over a cellular phone network.

An improved method for programming a mobile telephone over the air within a mobile telephone communication network is disclosed. The mobile telephone communication network includes an over-the-air function, a customer service center, a mobile switching center, a base station controller, and multiple base transceiver stations. The over-the-air function, using the mobile switching center, the base station controller, and one of the base transceiver stations for transport, initially sends a request over the air to a mobile telephone within the mobile telephone communication network to interrogate the mobile telephone's protocol capability. In response to the request, the mobile telephone sends a protocol capability response message over the air back to the over-the-air function. The protocol capability response message includes a BAND_MODE_CAP field that describes the band and mode capability information of the mobile telephone. In addition, the protocol capability response message may also includes a SERVICE_OPTION field that describes the service options supported by the mobile telephone.

A reconfigurable wireless transceiver and method of use are disclosed. As one example, a reconfigurable wireless transceiver is disclosed, which includes a transmitter unit, a plurality of receiver units, and a processing unit coupled to the plurality of receiver units. A first receiver unit of the plurality of receiver units receives a first signal at a first frequency, and determines a strength level of the first signal. A second receiver unit of the plurality of receiver units searches for a second signal at a second frequency, detects the second signal at the second frequency, and determines a strength level of the detected second signal. The processing unit determines if the strength level of the detected second signal is greater than a predetermined value, and enables the second receiver unit to receive a third signal at substantially the second frequency, if the strength level of the detected second signal is greater than the predetermined value. The predetermined value may be substantially equal to the signal strength of the received first signal, and the third signal may be associated with over-the-air programming or tasking. As a second example, a method for reconfiguring a wireless transceiver is disclosed, which includes receiving a first signal in a first frequency band, determining a signal strength of the received signal, searching for a second signal in a second frequency band, detecting the second signal, determining a signal strength of the detected second signal, comparing the signal strength of the received first signal with a predetermined signal strength value, and enabling reception of the detected second signal and disabling reception of the first signal, if the signal strength of the detected second signal is greater than the predetermined signal strength value.

A system and method for updating a program of a mobile device using an over-the-air programming mechanism is provided and adopted to a network including an upgrade package processor for generating an upgrade package for a program and an upgrade package server allowing a recipient device to download the upgrade package. The program upgrade method of the present invention includes generating, at the upgrade package processor, the upgrade package on the basis of differences between a first and second versions of the program; notifying, at the upgrade package server, at least one recipient device of an issuance of the upgrade package; downloading, at the recipient device, the upgrade package from the upgrade package server; installing the upgrade package in a non-volatile memory; generating the second version of the program by merging the upgrade package and the first version previously installed in the nonvolatile memory; and loading the second version on a volatile memory in response to an upgrade command.

A system that incorporates the subject disclosure may perform, for example, receiving an over-the-air programming message that includes programming data for use by the mobile communication device, decrypting the over-the-air programming message utilizing a first keyset to generate a decrypted over-the-air programming message, determining a schedule for providing messages from a secure device processor to a secure element of the mobile communication device where the secure device processor is separate from the secure element and in communication with the secure element, and providing the decrypted over-the-air programming message to the secure element according to the schedule. Other embodiments are disclosed.

Methods and apparatus for automatically selecting a wireless communication network by user equipment using a “steered” PLMN are disclosed. A home network identification, a list of prioritized roaming network identifications, and a steered network identification are stored in memory (e.g. a SIM or USIM) of the user equipment. In an automatic network selection procedure, a scanning operation is performed to receive one or more network identifications corresponding to one or more available wireless communication networks in a coverage area. The user equipment attempts to select a wireless communication network in the coverage area by comparing the received network identifications from the scanning operation with the steered network identification. If a match between a received network identification and the steered network identification is identified, a wireless communication network corresponding to the received network identification that matches the steered network identification is selected and registered with by the user equipment. This procedure is performed in lieu of use of the list of prioritized roaming network identifications of the user equipment. By setting the steered network identification via an over-the-air programming procedure when necessary (e.g. on a per region basis), a home network operator may “steer” user equipment to any desired network immediately and efficiently.

A reconfigurable wireless transceiver and method of use are disclosed. As one example, a reconfigurable wireless transceiver is disclosed, which includes a transmitter unit, a plurality of receiver units, and a processing unit coupled to the plurality of receiver units. A first receiver unit of the plurality of receiver units receives a first signal at a first frequency, and determines a strength level of the first signal. A second receiver unit of the plurality of receiver units searches for a second signal at a second frequency, detects the second signal at the second frequency, and determines a strength level of the detected second signal. The processing unit determines if the strength level of the detected second signal is greater than a predetermined value, and enables the second receiver unit to receive a third signal at substantially the second frequency, if the strength level of the detected second signal is greater than the predetermined value. The predetermined value may be substantially equal to the signal strength of the received first signal, and the third signal may be associated with over-the-air programming or tasking. As a second example, a method for reconfiguring a wireless transceiver is disclosed, which includes receiving a first signal in a first frequency band, determining a signal strength of the received signal, searching for a second signal in a second frequency band, detecting the second signal, determining a signal strength of the detected second signal, comparing the signal strength of the received first signal with a predetermined signal strength value, and enabling reception of the detected second signal and disabling reception of the first signal, if the signal strength of the detected second signal is greater than the predetermined signal strength value.

A system that incorporates the subject disclosure may perform, for example, receiving an over-the-air programming message that includes programming data for use by the mobile communication device, decrypting the over-the-air programming message utilizing a first keyset to generate a decrypted over-the-air programming message, determining a schedule for providing messages from a secure device processor to a secure element of the mobile communication device where the secure device processor is separate from the secure element and in communication with the secure element, and providing the decrypted over-the-air programming message to the secure element according to the schedule. Other embodiments are disclosed.

A system that incorporates the subject disclosure may perform, for example, receiving an over-the-air programming message that is utilizing a hypertext transfer protocol where the over-the-air programming message including programming data for use by the mobile communication device, converting the over-the-air programming message to a short message service transport protocol to generate an adjusted message that includes the programming data, and providing the adjusted message to a universal integrated circuit card of the mobile communication device via a baseband proxy operating in a device processor of the mobile communication device. Other embodiments are disclosed.

A system and method supporting over-the-air programming of access device such as, for example, a mobile multimedia handset and a wireless personal digital assistant (PDA) via a broadband access gateway, is disclosed. The broadband access gateway may receive identifying information from the access device via a personal area network and / or a wireless local area network, and may transfer the identifying information to a wide area network or a third party content provider, via a broadband network. The broadband access gateway may enable the registration of the access device with the wide area network, and may receive firmware / software updates and / or provisioning parameters via the broadband network. The gateway may then transfer the firmware / software update and / or provisioning parameters to the access device via the personal area network and / or wireless local area network.

A dual-satellite emergency locator beacon and method for programming and updating such emergency locator beacons over the air. The system uses a second commercial satellite as the carrier for the data back to the beacon together with the means of coupling these parts together. The system can be manually updated or can be part of a registration system that gets automatically updated. In a second embodiment a method and apparatus for implementing emergency locator beacon registration is provided. The system provides data concerning the user into a backend service which can be utilized to provide all necessary information needed to register the emergency beacon.

A method for programming computer code at a remote platform having a local computer. A home device sends a computer code to the local computer via wireless transmission wherein the computer code is stored within an alternate area of a flash memory. Once a complete copy of the computer code is recognized at the local computer the integrity of the computer code is checked and if proper, a new boot address is assigned at the local computer. At this time the local computer is rebooted such that when the computer restarts the alternate computer code is used thus effectively updating the computer software.