Abstract: A method in a wireless dock includes querying a first wireless networking database to identify a first set of available channels, querying a second wireless networking database to identify a second set of available channels, and sending location and device attributes. The method also includes receiving a list of permissible frequencies and power levels, sending to a client device at least a portion of the list of the permissible frequencies and the power levels for use of selected channels selected from the first set of the available channels and the second set of the available channels, and communicating with the client device using selected frequencies and power levels selected from the at least the portion of the list of the permissible frequencies and the power levels.

Abstract: In accordance with embodiments of the present disclosure, a wireless network interface may include a transmit/receive path comprising an antenna for transmitting and receiving wireless transmissions and a baseband controller communicatively coupled to the transmit/receive path and configured to receive fused sensor information indicative of environmental conditions detected by a plurality of sensors and, based on the fused sensor information, tune one or more parameters of the transmit/receive path.

Abstract: A system, method, and computer-readable medium for performing a geo-tagged beaconing operation. With the geo-tagged beaconing operation, Wi-Fi nodes include geographic information within beacon frames generated by the nodes. In various embodiments, the Wi-Fi nodes include one or more of networking equipment access points, client devices and dedicated Wi-Fi endpoints. Enables a device attempting a Wi-Fi connection to determine its location based upon the geographic information contained within the beacon frame. Upon detecting its location, the Wi-Fi radio then dynamically selects one or more Wi-Fi mode and/or power calibration setting.

Abstract: In accordance with embodiments of the present disclosure, an information handling system may include a processor, a user interface, and a flexible integrated circuit. The user interface may include a user interface comprising a display, a touch sensor overlaid on the display and configured to detect tactile touches on the user interface, a cover overlaid on the touch sensor, and an antenna array comprising a plurality of antennas. The flexible integrated circuit may be configured to couple the antenna array to the processor, the flexible integrated circuit comprising a radio-frequency module for controlling radio-frequency communications to and from the antenna array and a baseband controller for controlling communication of information between the processor and the antenna.

Abstract: Systems and methods are provided that may be implemented to utilize multiple sensors to intelligently control RF transmit power and specific absorption rate (SAR) produced from a wireless-enabled information handling system platform in the presence of a detected nearby human body. The disclosed systems and methods may be implemented in one example to avoid the poor performance and user experience that results from a reduction in the information handling system platform radio transmit power when it is not necessary (due to false detection of a human body), or that results when the platform transmit power is reduced too much and/or too quickly when nearby proximity of an actual human body is detected.

Abstract: Systems and methods are provided that may be implemented to optimize or otherwise control radio module transmit power performance from a given wireless-enabled information handling system platform based on a set of system-specific RF parameter values that are provisioned and stored on the information handling system platform and that uniquely represent particular RF characteristics (e.g., such as specific device environment, system chassis configuration, etc.) of the given information handling system.

Abstract: A portable information handling system having plural radios, each radio having a dedicated antenna and interfaced with a common shared antenna. A controller tunes the shared antenna to support a multi-antenna configuration of one of the radios, such as a MIMO configuration, based upon one or more predetermined conditions, such as data communication supported by the radios, signal strength associated with the radios, proximity sensing at the information handling system housing, and a rotational relationship of rotationally coupled housing portions.

Abstract: An information handling system, a display panel, and a method for providing optical communication of signals within a display panel is provided. The information handling system comprises a radio frequency (RF) transceiver subsystem, an antenna subsystem, and a display panel, the display panel for displaying graphic images, the display panel comprising an optical communication channel coupled to the RF transceiver subsystem and the antenna subsystem, the optical communication channel for communicating transmit signals from the RF transceiver subsystem to the antenna subsystem and for communicating receive signals from the antenna subsystem to the RF transceiver subsystem.

Abstract: An information handling system, a display panel, and a method for providing optical communication of signals within a display panel is provided. The information handling system comprises a radio frequency (RF) transceiver subsystem, an antenna subsystem, and a display panel, the display panel for displaying graphic images, the display panel comprising an optical communication channel coupled to the RF transceiver subsystem and the antenna subsystem, the optical communication channel for communicating transmit signals from the RF transceiver subsystem to the antenna subsystem and for communicating receive signals from the antenna subsystem to the RF transceiver subsystem.

Abstract: A method in a wireless dock includes querying a first wireless networking database to identify a first set of available channels, querying a second wireless networking database to identify a second set of available channels, and sending location and device attributes. The method also includes receiving a list of permissible frequencies and power levels, sending to a client device at least a portion of the list of the permissible frequencies and the power levels for use of selected channels selected from the first set of the available channels and the second set of the available channels, and communicating with the client device using selected frequencies and power levels selected from the at least the portion of the list of the permissible frequencies and the power levels.

Abstract: A portable information handling system has plural antennae integrated in a housing proximate a touchscreen display. An antenna controller interfaced with the touchscreen display alters performance settings of the plural antennae, such as impedance tuning settings and selection of one or more antenna as active and/or idle. Touchscreen display touched locations and touch area sizes are associated in a table with predetermined performance settings for lookup by the antenna controller.

Abstract: A portable information handling system has plural antennae integrated in a housing proximate a touchscreen display. An antenna controller interfaced with the touchscreen display alters performance settings of the plural antennae, such as impedance tuning settings and selection of one or more antenna as active and/or idle. Touchscreen display touched locations and touch area sizes are associated in a table with predetermined performance settings for lookup by the antenna controller.

Abstract: A system, method, and computer-readable medium for performing a geo-tagged beaconing operation. With the geo-tagged beaconing operation, Wi-Fi nodes include geographic information within beacon frames generated by the nodes. In various embodiments, the Wi-Fi nodes include one or more of networking equipment access points, client devices and dedicated Wi-Fi endpoints. Enables a device attempting a Wi-Fi connection to determine its location based upon the geographic information contained within the beacon frame. Upon detecting its location, the Wi-Fi radio then dynamically selects one or more Wi-Fi mode and/or power calibration setting.

Abstract: A method in a wireless dock includes querying a first wireless networking database to identify a first set of available channels, querying a second wireless networking database to identify a second set of available channels, and sending location and device attributes. The method also includes receiving a list of permissible frequencies and power levels, sending to a client device at least a portion of the list of the permissible frequencies and the power levels for use of selected channels selected from the first set of the available channels and the second set of the available channels, and communicating with the client device using selected frequencies and power levels selected from the at least the portion of the list of the permissible frequencies and the power levels.

Abstract: Systems and methods are provided that may be implemented to utilize multiple sensors to intelligently control RF transmit power and specific absorption rate (SAR) produced from a wireless-enabled information handling system platform in the presence of a detected nearby human body. The disclosed systems and methods may be implemented in one example to avoid the poor performance and user experience that results from a reduction in the information handling system platform radio transmit power when it is not necessary (due to false detection of a human body), or that results when the platform transmit power is reduced too much and/or too quickly when nearby proximity of an actual human body is detected.

Abstract: Systems and methods are provided that may be implemented to utilize multiple sensors to intelligently control RF transmit power and specific absorption rate (SAR) produced from a wireless-enabled information handling system platform in the presence of a detected nearby human body. The disclosed systems and methods may be implemented in one example to avoid the poor performance and user experience that results from a reduction in the information handling system platform radio transmit power when it is not necessary (due to false detection of a human body), or that results when the platform transmit power is reduced too much and/or too quickly when nearby proximity of an actual human body is detected.

Abstract: Systems and methods are provided that may be implemented to optimize or otherwise control radio module transmit power performance from a given wireless-enabled information handling system platform based on a set of system-specific RF parameter values that are provisioned and stored on the information handling system platform and that uniquely represent particular RF characteristics (e.g., such as specific device environment, system chassis configuration, etc.) of the given information handling system.

Abstract: Systems and methods are provided that may be implemented to utilize multiple sensors to intelligently control RF transmit power and specific absorption rate (SAR) produced from a wireless-enabled information handling system platform in the presence of a detected nearby human body. The disclosed systems and methods may be implemented in one example to avoid the poor performance and user experience that results from a reduction in the information handling system platform radio transmit power when it is not necessary (due to false detection of a human body), or that results when the platform transmit power is reduced too much and/or too quickly when nearby proximity of an actual human body is detected.

Abstract: Systems and methods may be implemented with MIMO antenna architectures (e.g., such as 2×2, 3×3, 4×4, etc.) of a given mobile information handling system to selectively use dynamic MIMO configuration and/or reconfiguration to select only a subset of the available multiple antenna elements or all of the available multiple antenna elements for receive and/or transmit operation based on the interference characteristics of the given mobile information handling system and/or based on the current radio frequency (RF) band currently being used for wireless communications by the mobile information handling system.

Abstract: Systems and methods may be implemented with MIMO antenna architectures (e.g., such as 2×2, 3×3, 4×4, etc.) of a given mobile information handling system to selectively use dynamic MIMO configuration and/or reconfiguration to select only a subset of the available multiple antenna elements or all of the available multiple antenna elements for receive and/or transmit operation based on the interference characteristics of the given mobile information handling system and/or based on the current radio frequency (RF) band currently being used for wireless communications by the mobile information handling system.