Abstract: In some implementations, a first network device may receive, from a second network device associated with a first core network, a communication associated with a low power wide area (LPWA) technology. The first network device may convert the communication associated with the LPWA technology from a first protocol associated with the first core network to a second protocol associated with a second core network different from the first core network. The first network device may transmit, to a third network device associated with the second core network, the communication associated with the LPWA technology.

Abstract: A system described herein may provide for multiple levels of authentication, such that a User Equipment (“UE”) may receive secure content from an application server, which may include or may be implemented by a multi-access edge computing (“MEC”) system. As described herein, a user associated with a UE may register the UE and/or a particular application with an authentication system and/or the application server. The registration of the UE and/or the application may establish a “trust” relationship between the authentication system and the UE, such that a user-level authentication performed by the UE, such as biometric authentication, may be accepted by the authentication system and/or the application system as an authentication of the user.

Abstract: A system described herein may provide for multiple levels of authentication, such that a User Equipment (“UE”) may receive secure content from an application server, which may include or may be implemented by a multi-access edge computing (“MEC”) system. As described herein, a user associated with a UE may register the UE and/or a particular application with an authentication system and/or the application server. The registration of the UE and/or the application may establish a “trust” relationship between the authentication system and the UE, such that a user-level authentication performed by the UE, such as biometric authentication, may be accepted by the authentication system and/or the application system as an authentication of the user.

Abstract: A system described herein may provide for multiple levels of authentication, such that a User Equipment (“UE”) may receive secure content from an application server, which may include or may be implemented by a multi-access edge computing (“MEC”) system. As described herein, a user associated with a UE may register the UE and/or a particular application with an authentication system and/or the application server. The registration of the UE and/or the application may establish a “trust” relationship between the authentication system and the UE, such that a user-level authentication performed by the UE, such as biometric authentication, may be accepted by the authentication system and/or the application system as an authentication of the user.

Abstract: A system described herein may use automated techniques, such as machine learning techniques, to analyze device snapshots from a group of User Equipment (“UEs”), and determine trouble conditions that are experienced by the UEs. The system may identify markers of the trouble conditions based on the snapshots, and may use these markers to predict or identify trouble conditions at other UEs based on snapshots received from the other UEs. Further, once a trouble condition is predicted or identified at the other UEs, the trouble condition may be proactively addressed, without requiring an explicit request from the other UEs to address the trouble condition.

Abstract: A system described herein may use automated techniques, such as machine learning techniques, to analyze device snapshots from a group of User Equipment (“UEs”), and determine trouble conditions that are experienced by the UEs. The system may identify markers of the trouble conditions based on the snapshots, and may use these markers to predict or identify trouble conditions at other UEs based on snapshots received from the other UEs. Further, once a trouble condition is predicted or identified at the other UEs, the trouble condition may be proactively addressed, without requiring an explicit request from the other UEs to address the trouble condition.

Abstract: A system described herein improves user equipment (“UE”) access to call and data services provided by a network carrier by updating settings on the UE based device data from the UE. The updates may modify the UE hardware configuration, including activating or deactivating different network radios of the UE, enable or disable different call or data services accessed through the different network radios, and/or modify parameters controlling UE network selection and switching (e.g., handoff). In doing so, the system may improve the user experience when accessing wireless services of the network carrier and resolve quality issues whether due to poor signal strength, congested networks, or excessive network switching.

Abstract: A system described herein improves user equipment (“UE”) access to call and data services provided by a network carrier by updating settings on the UE based device data from the UE. The updates may modify the UE hardware configuration, including activating or deactivating different network radios of the UE, enable or disable different call or data services accessed through the different network radios, and/or modify parameters controlling UE network selection and switching (e.g., handoff). In doing so, the system may improve the user experience when accessing wireless services of the network carrier and resolve quality issues whether due to poor signal strength, congested networks, or excessive network switching.

Abstract: Voltage-binning of individual integrated circuits is achieved by operating those integrated circuits at a plurality of required clock frequencies and for each of those frequencies determining the minimum supply voltage level which produces a pass result for a series of applied test vectors.

Abstract: Voltage-binning of individual integrated circuits is achieved by operating those integrated circuits at a plurality of required clock frequencies and for each of those frequencies determining the minimum supply voltage level which produces a pass result for a series of applied test vectors.

Abstract: Voltage-binning of individual integrated circuits is achieved by operating those integrated circuits at a plurality of required clock frequencies and for each of those frequencies determining the minimum supply voltage level which produces a pass result for a series of applied test vectors.

Abstract: Voltage-binning of individual integrated circuits is achieved by operating those integrated circuits at a plurality of required clock frequencies and for each of those frequencies determining the minimum supply voltage level which produces a pass result for a series of applied test vectors.

Abstract: A data processing apparatus and method are provided for controlling level shifting. The data processing apparatus comprises a first component provided within a first voltage domain and operable to receive. a first supply voltage, and a second component provided within a second voltage domain and operable to receive a second supply voltage. At least one of the first and second supply voltages are dynamically variable. The data processing apparatus further comprises an interface cell between the first and second voltage domains which is operable to receive a signal issued by the first component in the first voltage domain and destined for the second component. The interface cell comprises level shifting logic operable to convert the signal issued by the first component into a corresponding signal to be propagated to the second component in the second voltage domain.