Abstract: A speaker can have a main body with a generally spheroidal shape, which can be supported standing on its end. The speaker can include a subwoofer that faces forward. A plurality of mid-range drivers can be distributed around the sub-woofer, facing generally forward and radially outward. A plurality of tweeters can be distributed around the sub-woofer, facing generally forward and generally outward. The outer housing portion of the speaker can be covered with a fabric material. A user interface ring 162 can be touch sensitive to receive input, and can have a plurality of lights that can be illuminated separately to convey information to the user.

Abstract: In various embodiments, crowd sourcing techniques are provided to enable RTT-based positioning of UE. To address issues of discovering which beacons (e.g., Wi-Fi APs, cellular base stations, BLE transmitters, etc.) support measurement of RTT (e.g., according to IEEE 802.11mc, 3GPP Release 16, etc.), beacon RTT capabilities may be crowd-sourced from UE and maintained by a cloud-based location platform in a beacon database (or more specifically, a RTT database portion thereof). To address the issue of determining physical antenna positions, RTT measurements may be crowd-sourced from UE for those beacons that are RTT capable, and used by a trilateration algorithm (e.g., a WLS multilateration algorithm) to determine physical antenna positions, which also may be maintained in the beacon database. Accuracy of the trilateration may be enhanced by obtaining raw GNSS measurements (e.g., psuedoranges) from the UE, and performing a cloud-based RTK GNSS position fix for the UE.

Abstract: In various embodiments, crowd sourcing techniques are provided to enable RTT-based positioning of UE. To address issues of discovering which beacons (e.g., Wi-Fi APs, cellular base stations, BLE transmitters, etc.) support measurement of RTT (e.g., according to IEEE 802.11mc, 3GPP Release 16, etc.), beacon RTT capabilities may be crowd-sourced from UE and maintained by a cloud-based location platform in a beacon database (or more specifically, a RTT database portion thereof). To address the issue of determining physical antenna positions, RTT measurements may be crowd-sourced from UE for those beacons that am RTT capable, and used by a trilateration algorithm (e.g., a WLS multilateration algorithm) to determine physical antenna positions, which also may be maintained in the beacon database. Accuracy of the trilateration may be enhanced by obtaining raw GNSS measurements (e.g., psuedoranges) from the UE, and performing a cloud-based RTK GNSS position fix for the UE.

Abstract: In various embodiments, crowd sourcing techniques are provided to enable RTT-based positioning of UE. To address issues of discovering which beacons (e.g., Wi-Fi APs, cellular base stations, BLE transmitters, etc.) support measurement of RTT (e.g., according to IEEE 802.11mc, 3GPP Release 16, etc.), beacon RTT capabilities may be crowd-sourced from UE and maintained by a cloud-based location platform in a beacon database (or more specifically, a RTT database portion thereof). To address the issue of determining physical antenna positions, RTT measurements may be crowd-sourced from UE for those beacons that are RTT capable, and used by a trilateration algorithm (e.g., a WLS multilateration algorithm) to determine physical antenna positions, which also may be maintained in the beacon database. Accuracy of the trilateration may be enhanced by obtaining raw GNSS measurements (e.g., pseudoranges) from the UE, and performing a cloud-based RTK GNSS position fix for the UE.

Abstract: A donor substrate for transferring a single-crystal thin layer made of a first material, onto a receiver substrate. The donor substrate comprises: —a buried weakened plane delimiting an upper portion and a lower portion of the donor substrate, —in the upper portion, a first layer, a second layer adjacent to the buried weakened plane, and a stop layer between the first layer and the second layer the first layer composed of the first material, the stop layer being formed of a second material, —an amorphized sub-portion, made amorphous by ion implantation, having a thickness less than that of the upper portion, and including at least the first layer; the second layer comprising at least one single-crystal sub-layer, adjacent to the buried weakened plane. Two embodiments of a method may be used for transferring a single-crystal thin layer from the donor substrate.

Abstract: In various embodiments, crowd sourcing techniques are provided to enable RTT-based positioning of UE. To address issues of discovering which beacons (e.g., Wi-Fi APs, cellular base stations, BLE transmitters, etc.) support measurement of RTT (e.g., according to IEEE 802.11mc, 3GPP Release 16, etc.), beacon RTT capabilities may be crowd-sourced from UE and maintained by a cloud-based location platform in a beacon database (or more specifically, a RTT database portion thereof). To address the issue of determining physical antenna positions, RTT measurements may be crowd-sourced from UE for those beacons that am RTT capable, and used by a trilateration algorithm (e.g., a WLS multilateration algorithm) to determine physical antenna positions, which also may be maintained in the beacon database. Accuracy of the trilateration may be enhanced by obtaining raw GNSS measurements (e.g., psuedoranges) from the UE, and performing a cloud-based RTK GNSS position fix for the UE.

Abstract: In various embodiments, crowd sourcing techniques are provided to enable RTT-based positioning of UE. To address issues of discovering which beacons (e.g., Wi-Fi APs, cellular base stations, BLE transmitters, etc.) support measurement of RTT (e.g., according to IEEE 802.11mc, 3GPP Release 16, etc.), beacon RTT capabilities may be crowd-sourced from UE and maintained by a cloud-based location platform in a beacon database (or more specifically, a RTT database portion thereof). To address the issue of determining physical antenna positions, RTT measurements may be crowd-sourced from UE for those beacons that are RTT capable, and used by a trilateration algorithm (e.g., a WLS multilateration algorithm) to determine physical antenna positions, which also may be maintained in the beacon database. Accuracy of the trilateration may be enhanced by obtaining raw GNSS measurements (e.g., pseudoranges) from the UE, and performing a cloud-based RTK GNSS position fix for the UE.

Abstract: In various embodiments, crowd sourcing techniques are provided to enable RTT-based positioning of UE. To address issues of discovering which beacons (e.g., Wi-Fi APs, cellular base stations, BLE transmitters, etc.) support measurement of RTT (e.g., according to IEEE 802.11mc, 3GPP Release 16, etc.), beacon RTT capabilities may be crowd-sourced from UE and maintained by a cloud-based location platform in a beacon database (or more specifically, a RTT database portion thereof). To address the issue of determining physical antenna positions, RTT measurements may be crowd-sourced from UE for those beacons that are RTT capable, and used by a trilateration algorithm (e.g., a WLS multilateration algorithm) to determine physical antenna positions, which also may be maintained in the beacon database. Accuracy of the trilateration may be enhanced by obtaining raw GNSS measurements (e.g., psuedoranges) from the UE, and performing a cloud-based RTK GNSS position fix for the UE.

Abstract: A user interface arrangement includes a user interface having a plurality of movable sliders. Each of the sliders corresponds to a respective category of infotainment content. A processor is communicatively coupled to the user interface. The processor presents each of the categories of infotainment content in proportions dependent upon positions of the sliders.

Abstract: A user interface arrangement includes a user interface having a plurality of movable sliders. Each of the sliders corresponds to a respective category of infotainment content. A processor is communicatively coupled to the user interface. The processor presents each of the categories of infotainment content in proportions dependent upon positions of the sliders.

Abstract: A user interface arrangement includes a user interface having a plurality of movable sliders. Each of the sliders corresponds to a respective category of infotainment content. A processor is communicatively coupled to the user interface. The processor presents each of the categories of infotainment content in proportions dependent upon positions of the sliders.

Abstract: An infotainment system is for a vehicle having a body defining an interior space. The infotainment system includes a playback device receiving and processing a plurality of sets of infotainment data. The infotainment data is organized in a hierarchy. The playback device transmits a plurality of sound signals. Each sound signal corresponds to a respective one of the sets of infotainment data. A plurality of speakers are communicatively coupled to the playback device. Each speaker is disposed at a different respective location within the interior space. Each of the speakers is adapted to receive a respective one of the sound signals and convert the respective sound signal into a corresponding audible sound. A user interface is communicatively coupled to the playback device. The user interface enables a user to navigate between levels of the hierarchy of infotainment data by making selections. Each of the selections corresponds to a respective one of the sets of infotainment data.

Abstract: There is provided a system and method of providing personalized content to a user based on the user's interests and the user's geographical location. The method includes receiving media files from a portable device associated with the user and generating a user profile based on the media files. The method also includes receiving a geographical location of the user from a global positioning system (GPS) device. The method also includes receiving content from a service provider based on the user profile and the geographical location. The method also includes providing the content to the user through an infotainment interface included in a vehicle. The content delivered to the user may include media files such as music or audio/visual files that correspond with the user profile. The content may also include messages about events near the user's geographical location that correspond with the user profile.

Abstract: Exemplary embodiments of the present invention relate to a mobile information display system that may be configured by a user to have customized interface screens and to display individualized content. For example, upon starting of the ignition system, the mobile information display system may access a remote server using a radio network interface to download interface screens that have previously been designed by a user. Further, the mobile information display system may download information and content from the remote server, or from other websites, including, for example, navigational information, destination information, calendar and alarm entries, e-mail messages, voice mail messages, personal networking pages, internet phone service, internet audio programs, and internet video programs, among others.

Abstract: An infotainment system is for a vehicle having a body defining an interior space. The infotainment system includes a playback device receiving and processing a plurality of sets of infotainment data. The infotainment data is organized in a hierarchy. The playback device transmits a plurality of sound signals. Each sound signal corresponds to a respective one of the sets of infotainment data. A plurality of speakers are communicatively coupled to the playback device. Each speaker is disposed at a different respective location within the interior space. Each of the speakers is adapted to receive a respective one of the sound signals and convert the respective sound signal into a corresponding audible sound. A user interface is communicatively coupled to the playback device. The user interface enables a user to navigate between levels of the hierarchy of infotainment data by making selections. Each of the selections corresponds to a respective one of the sets of infotainment data.