Abstract: A system includes a camera and a processor. The processor is programmed to determine a first location of the vehicle using wireless signals; responsive to determining that the first location is within an urban area, capture an image of a fixed-location device along a roadway using the camera; identify a device location of the fixed-location device; and update the first location in comparison with the device location to generate a second location of the vehicle.

Abstract: A vehicle includes a modem and a processor. The processor is programmed to provision the modem, over a local network connection, to perform vehicle-to-vehicle communications, the provisioning being performed independent of access to a cellular communications network, and once provisioned, communicate with a second vehicle over a direct vehicle-to-vehicle connection. The modem may be tested utilizing a Protocol Implementation Conformance Statement (PICS) separating test cases for use of a PC5 interface only, for use of a Uu interface only, and for a hybrid for use of Uu and PC5.

Abstract: A system includes a camera and a processor.

Abstract: A vehicle includes a modem and a processor. The processor is programmed to provision the modem, over a local network connection, to perform vehicle-to-vehicle communications, the provisioning being performed independent of access to a cellular communications network, and once provisioned, communicate with a second vehicle over a direct vehicle-to-vehicle connection. The modem may be tested utilizing a Protocol Implementation Conformance Statement (PICS) separating test cases for use of a PC5 interface only, for use of a Uu interface only, and for a hybrid for use of Uu and PC5.

Abstract: A cellular vehicle-to-everything (C-V2X) [including V2V] communication system obtains location and time data from one or more GNSS signals and retrieves cellular synchronization information (including but not limited to 3GPP MIP and/or SIB) from a pre-loaded database and uses the information to establish a C-V2V connection with another vehicle. Synchronization may be repeated after expiration of a time period. The time period may be selected according to a location and velocity of the vehicle. Other sources of time data may be used when GNSS signals are not available, such as an internal crystal clock or timing from a cellular base station.

Abstract: A cellular vehicle-to-everything (C-V2X) [including V2V] communication system obtains location and time data from one or more GNSS signals and retrieves cellular synchronization information (including but not limited to 3GPP MIP and/or SIB) from a pre-loaded database and uses the information to establish a C-V2V connection with another vehicle. Synchronization may be repeated after expiration of a time period. The time period may be selected according to a location and velocity of the vehicle. Other sources of time data may be used when GNSS signals are not available, such as an internal crystal clock or timing from a cellular base station.

Abstract: Technology for maintaining connectivity between a user equipment (UE) and a secondary (e)NodeB when connectivity is lost between the UE and a primary (e)NodeB is disclosed. The UE can start a first timer for monitoring a connection between the UE and the primary (e)NodeB. The UE can start a second timer for monitoring a connection between the UE and the secondary (e)NodeB. The UE can detect radio link failure (RLF) between the UE and the primary (e)NodeB after expiry of the first timer at the UE. The UE can maintain the connection with the secondary (e)NodeB while the second timer is unexpired, wherein the secondary (e)NodeB is configured to behave like the primary (e)NodeB or become the primary (e)NodeB depending on a capability of the UE and for a selected period of time after the connectivity between the UE and the primary (e)NodeB is lost.

Abstract: Technology for maintaining connectivity between a user equipment (UE) and a secondary (e)NodeB when connectivity is lost between the UE and a primary (e)NodeB is disclosed. The UE can start a first timer for monitoring a connection between the UE and the primary (e)NodeB. The UE can start a second timer for monitoring a connection between the UE and the secondary (e)NodeB. The UE can detect radio link failure (RLF) between the UE and the primary (e)NodeB after expiry of the first timer at the UE. The UE can maintain the connection with the secondary (e)NodeB while the second timer is unexpired, wherein the secondary (e)NodeB is configured to behave like the primary (e)NodeB or become the primary (e)NodeB depending on a capability of the UE and for a selected period of time after the connectivity between the UE and the primary (e)NodeB is lost.

Abstract: Systems and methodologies are described that facilitate network management and optimization. As described herein, a network and a device communicating with the network can exchange network management information, thereby supporting a Self Organized Network (SON) architecture for improved network management and optimization performance. A Non-Access Stratum (NAS) layer protocol and/or an Internet Protocol (IP) application, in combination with a set of associated network management messages, can be utilized to exchange network management information between a device and a network. As further described herein, various procedures can be utilized to install a SON policy to a device in order to define device behavior for operations such as collecting and reporting information related to network management. Additionally, a set of standardized events can be defined, based on which a device can detect the occurrence of an event and report the occurrence to an associated network.

Abstract: A method, an apparatus, and a computer program product for wireless communication are provided in which a communication event is detected, one or more aspects of the detected communication event are analyzed and at least one of the one or more aspects of the detected communication event is stored on an user equipment in a log.

Abstract: Systems and methodologies are described that facilitate network management and optimization. As described herein, a network and a device communicating with the network can exchange network management information, thereby supporting a Self Organized Network (SON) architecture for improved network management and optimization performance. A Non-Access Stratum (NAS) layer protocol and/or an Internet Protocol (IP) application, in combination with a set of associated network management messages, can be utilized to exchange network management information between a device and a network. As further described herein, various procedures can be utilized to install a SON policy to a device in order to define device behavior for operations such as collecting and reporting information related to network management. Additionally, a set of standardized events can be defined, based on which a device can detect the occurrence of an event and report the occurrence to an associated network.

Abstract: The present disclosure provides a novel technology that involves improved primer design. These primer pairs have a wide range of applications and provide high sensitivity and specificity.

Abstract: The invention provides methods and compositions for the repair or regeneration of osteochondral tissue. The methods and compositions provide an effective amount of isolated differentiable human Very Small Embryonic Like Stem Cells (hVSELs) sufficient for regeneration or repair of an osteochondral tissue. The compositions can be administered directly to the tissue or administered systemically.

Abstract: Systems and methodologies are described that facilitate network management and optimization. As described herein, a network and a device communicating with the network can exchange network management information, thereby supporting a Self Organized Network (SON) architecture for improved network management and optimization performance. A Non-Access Stratum (NAS) layer protocol and/or an Internet Protocol (IP) application, in combination with a set of associated network management messages, can be utilized to exchange network management information between a device and a network. As further described herein, various procedures can be utilized to install a SON policy to a device in order to define device behavior for operations such as collecting and reporting information related to network management. Additionally, a set of standardized events can be defined, based on which a device can detect the occurrence of an event and report the occurrence to an associated network.

Abstract: A method, an apparatus, and a computer program product for wireless communication are provided in which a communication event is detected, one or more aspects of the detected communication event are analyzed and at least one of the one or more aspects of the detected communication event is stored on an user equipment in a log.

Abstract: As a communication is engaged upon a mobile device, data can be relayed through a base station. Determining which base station the mobile device should use can be based upon location and velocity of the mobile device. Other factors can be taken into account in determining a base station, such as power output of the mobile device and base station, load balancing, mobile device trends, and the like. Based upon these various factors, a determination can be made if the mobile device should transfer base stations.