Abstract: Systems, methods, and apparatuses, including electronic devices and computer-readable storage media, for adaptively switching wireless connections between antennas of a wearable electronic device and a host electronic device. One device includes a wearable electronic device with a first and second housing, each housing including two or more antennas. The wearable electronic device is configured to establish and monitor a wireless cross-link between two antennas in different housings, or between antennas in one housing and antennas of a host electronic device. The wearable electronic device can monitor the integrity of the wireless cross-link, and establish an updated cross-link in response to the wireless cross-link not meeting a predetermined integrity threshold. The wearable electronic device can monitor a wireless cross-head link between housings of a wearable electronic device at the same time as a wireless cross-body link between the wearable electronic device and the host electronic device.

Abstract: Systems, methods, and apparatuses, including electronic devices and computer-readable storage media, for adaptively switching wireless connections between antennas of a wearable electronic device and a host electronic device. One device includes a wearable electronic device with a first and second housing, each housing including two or more antennas. The wearable electronic device is configured to establish and monitor a wireless cross-link between two antennas in different housings, or between antennas in one housing and antennas of a host electronic device. The wearable electronic device can monitor the integrity of the wireless cross-link, and establish an updated cross-link in response to the wireless cross-link not meeting a predetermined integrity threshold. The wearable electronic device can monitor a wireless cross-head link between housings of a wearable electronic device at the same time as a wireless cross-body link between the wearable electronic device and the host electronic device.

Abstract: Systems, methods, and apparatuses, including electronic devices and computer-readable storage media, for adaptively switching wireless connections between antennas of a wearable electronic device and a host electronic device. One device includes a wearable electronic device with a first and second housing, each housing including two or more antennas. The wearable electronic device is configured to establish and monitor a wireless cross-link between two antennas in different housings, or between antennas in one housing and antennas of a host electronic device. The wearable electronic device can monitor the integrity of the wireless cross-link, and establish an updated cross-link in response to the wireless cross-link not meeting a predetermined integrity threshold. The wearable electronic device can monitor a wireless cross-head link between housings of a wearable electronic device at the same time as a wireless cross-body link between the wearable electronic device and the host electronic device.

Abstract: The present disclosure provides a metal structure, or antenna radiator, for an accessory that is configured to function as both an antenna and an input control. The device may be a wearable device with a first surface shaped to be in contact with the human body and a second surface shaped to be exposed when the device is being worn. The antenna radiator may be located internally within the housing of the device and coupled to a printed circuit board (“PCB”). The PCB may be located between the antenna radiator and the surface of the housing such that the PCB may shield the antenna radiator from antenna loss due to the human body. An electric field may extend between the PCB and the antenna radiator. The fringe electric field may improve cross-head and cross-body connectivity between the accessory and another device.

Abstract: Systems, methods, and apparatuses, including electronic devices and computer-readable storage media, for adaptively switching wireless connections between antennas of a wearable electronic device and a host electronic device. One device includes a wearable electronic device with a first and second housing, each housing including two or more antennas. The wearable electronic device is configured to establish and monitor a wireless cross-link between two antennas in different housings, or between antennas in one housing and antennas of a host electronic device. The wearable electronic device can monitor the integrity of the wireless cross-link, and establish an updated cross-link in response to the wireless cross-link not meeting a predetermined integrity threshold. The wearable electronic device can monitor a wireless cross-head link between housings of a wearable electronic device at the same time as a wireless cross-body link between the wearable electronic device and the host electronic device.

Abstract: In one aspect of the present subject matter, systems and methods are disclosed that allow for the detection of which of a user's hands is currently holding an electronic device. Based on such detection, an appropriate tuning correction may be applied to a first antenna and/or a second antenna of the electronic device to correct for any detuning caused by the user's hand.

Abstract: The present disclosure is related to an antenna system for a vehicle, such as a vehicle that has a non-metallic roof. The antenna system includes two metallic supports coupled to the roof. Additionally, the antenna system includes a first MIMO antenna pair. A first antenna of the first MIMO antenna pair is coupled to a first support of the two metallic supports, and a second antenna of the first MIMO antenna pair is coupled to a second support of the two metallic supports. The antenna system further includes a second MIMO antenna pair. A first antenna of the second MIMO antenna pair is coupled to the first support of the two metallic supports, and a second antenna of the second MIMO antenna pair is coupled to the second support of the two metallic supports. Yet further, the two metallic supports of the antenna system are physically separated from each other.

Abstract: In one aspect of the present subject matter, systems and methods are disclosed that allow for the detection of which of a user's hands is currently holding an electronic device. Based on such detection, an appropriate tuning correction may be applied to a first antenna and/or a second antenna of the electronic device to correct for any detuning caused by the user's hand.

Abstract: According to an implementation, a computing device includes electronic circuitry, and an antenna and heat venting chamber having an antenna radiating element disposed in at least a first plane, a ground plane element disposed in at least a second plane, a first side wall member defining a plurality of perforations, and a second side wall member having a portion that is disposed opposite to the first side wall member, where the portion of the second side wall member defines at least one opening. The computing device includes a cooling system configured to vent heat generated by the electronic circuitry through the antenna and heat venting chamber.

Abstract: In one aspect of the present subject matter, systems and methods are disclosed that allow for the detection of which of a user's hands is currently holding an electronic device. Based on such detection, an appropriate tuning correction may be applied to a first antenna and/or a second antenna of the electronic device to correct for any detuning caused by the user's hand.

Abstract: According to an implementation, a computing device includes electronic circuitry, and an antenna and heat venting chamber having an antenna radiating element disposed in at least a first plane, a ground plane element disposed in at least a second plane, a first side wall member defining a plurality of perforations, and a second side wall member having a portion that is disposed opposite to the first side wall member, where the portion of the second side wall member defines at least one opening. The computing device includes a cooling system configured to vent heat generated by the electronic circuitry through the antenna and heat venting chamber.

Abstract: The present disclosure is related to an antenna system for a vehicle, such as a vehicle that has a non-metallic roof. The antenna system includes two metallic supports coupled to the roof. Additionally, the antenna system includes a first MIMO antenna pair. A first antenna of the first MIMO antenna pair is coupled to a first support of the two metallic supports, and a second antenna of the first MIMO antenna pair is coupled to a second support of the two metallic supports. The antenna system further includes a second MIMO antenna pair. A first antenna of the second MIMO antenna pair is coupled to the first support of the two metallic supports, and a second antenna of the second MIMO antenna pair is coupled to the second support of the two metallic supports. Yet further, the two metallic supports of the antenna system are physically separated from each other.

Abstract: The present disclosure is related to an antenna system for a vehicle, such as a vehicle that has a non-metallic roof. The antenna system includes two metallic supports coupled to the roof. Additionally, the antenna system includes a first MIMO antenna pair. A first antenna of the first MIMO antenna pair is coupled to a first support of the two metallic supports, and a second antenna of the first MIMO antenna pair is coupled to a second support of the two metallic supports. The antenna system further includes a second MIMO antenna pair. A first antenna of the second MIMO antenna pair is coupled to the first support of the two metallic supports, and a second antenna of the second MIMO antenna pair is coupled to the second support of the two metallic supports. Yet further, the two metallic supports of the antenna system are physically separated from each other.

Abstract: A wireless communication device and method (600) with enhanced antenna farm, is disclosed. The method (600) comprises: providing (610) a double molded rear housing including a first shot module including an antenna farm located on an interior shell surface and a second shot module; providing (620) a front housing including a user interface configured to allow a user to perform a desired function; and locating (630) a controller between the front and the rear housing, the controller configured to control the operations of a wireless communication device. Advantageously, the method provides a common platform that is universal and easily customizable for any region or desired feature set. Advantageously, the method contributes to allowing an antenna designer enhanced freedom to design an antenna farm, by using the interior shell surface (20) to place antennas.

Abstract: An antenna system for reception and transmission of radio frequency (RF) signals and a method for tuning the antenna system are provided. The antenna system includes a ground plane, a first element and a second element. The first element includes a driven unbalanced antenna element that resonates within at least one predetermined first frequency band to transmit and receive radio frequency (RF) signals modulated at one or more frequencies within the at least one predetermined first frequency band. The second element is non-resonating within the at least one predetermined first frequency band and is located within an antenna volume of the first element to create a partial loop response within the antenna volume of the first element by capacitively coupling to the first element when connected to the ground plane.

Abstract: Embodiments include systems and methods for controlling radiation of radio frequency (RF) energy by a wireless communication device that includes a transmitter, an antenna, a vector field sensor, and a processing system. The transmitter produces an analog RF signal, and the antenna radiates the analog RF signal into an environment. The vector field sensor senses an intensity of a vector field resulting from the analog RF signal radiated by at least the antenna (and possibly other portions of the device). The processing system determines whether a value representing the intensity is greater than a first threshold, and when the value is greater than the first threshold, the processing system causes the radiated RF energy produced by the wireless communication device to be decreased.

Abstract: A wireless communication device or a split band diversity antenna arrangement (10, 20, 30 or 41) has a first multi-band antenna (22 or 14) located at a bottom portion (11) of the wireless communication device and selectively coupled to a diversity receiver (26), a second multi-band antenna (24 or 12) located at a top portion (13) of the wireless communication device and selectively coupled to a dual band transceiver (28), a band splitter (25) splitting an input from the first antenna into a first output and a second output where the first output serves as an input to the diversity receiver, and a band combiner (27) that combines the second output of the band splitter with a signal from the second antenna to provide an input signal to the dual band transceiver.

Abstract: An antenna system for reception and transmission of radio frequency (RF) signals and a method for tuning the antenna system are provided. The antenna system includes a ground plane, a first element and a second element. The first element includes a driven unbalanced antenna element that resonates within at least one predetermined first frequency band to transmit and receive radio frequency (RF) signals modulated at one or more frequencies within the at least one predetermined first frequency band. The second element is non-resonating within the at least one predetermined first frequency band and is located within an antenna volume of the first element to create a partial loop response within the antenna volume of the first element by capacitively coupling to the first element when connected to the ground plane.

Abstract: Embodiments include systems and methods for controlling radiation of radio frequency (RF) energy by a wireless communication device that includes a transmitter, an antenna, a vector field sensor, and a processing system. The transmitter produces an analog RF signal, and the antenna radiates the analog RF signal into an environment. The vector field sensor senses an intensity of a vector field resulting from the analog RF signal radiated by at least the antenna (and possibly other portions of the device). The processing system determines whether a value representing the intensity is greater than a first threshold, and when the value is greater than the first threshold, the processing system causes the radiated RF energy produced by the wireless communication device to be decreased.

Abstract: A wireless communication device or a split band diversity antenna arrangement (10, 20, 30 or 41) has a first multi-band antenna (22 or 14) located at a bottom portion (11) of the wireless communication device and selectively coupled to a diversity receiver (26), a second multi-band antenna (24 or 12) located at a top portion (13) of the wireless communication device and selectively coupled to a dual band transceiver (28), a band splitter (25) splitting an input from the first antenna into a first output and a second output where the first output serves as an input to the diversity receiver, and a band combiner (27) that combines the second output of the band splitter with a signal from the second antenna to provide an input signal to the dual band transceiver.