Abstract: In some examples, the disclosure describes device that includes a motion sensor device, a transmitter device, and a processor to: determine a vibration pattern of the device based on data received from the motion sensor device, separate the vibration pattern into a user vibration pattern and external vibration pattern, and alter a power level of the transmitter based on the user vibration pattern.

Abstract: An electronic device may include a housing, an antenna radiator disposed within the housing, a transceiver to connect to the antenna radiator, and a magnet disposed on the antenna radiator. When the magnet is aligned with a magnetic element of an input pen, the magnet may cause the antenna radiator to move proximate to a metal structure of the input pen such that the metal structure and the antenna radiator form an extended antenna.

Abstract: Techniques for determining a working state of an electronic component of an electronic device are described. The electronic component is coupled to the electronic device via a connection interface and a connector. The electronic device further comprises a contact detection assembly. The contact detection assembly detects a position of the connector relative to a connection interface. Based on the position of the connector relative to the connection interface, a state of connection between the connector and the connection interface is determined.

Abstract: In an example implementation according to aspects of the present disclosure, a method may include monitoring a measurement from a sensor disposed within a computing device, filtering out noise from the measurement that is generated by a component of the computing device, determining a usage of the computing device, based on the post-filtered measurement, and adjusting a parameter of the computing device, based on the determined usage.

Abstract: An example electronic device includes a wireless communication component and a controller. The controller is to set an output power of the wireless communication component based on: whether a first external object is in proximity to a first side of the electronic device; whether the electronic device is stationary; and whether a second external object is in proximity to a second side of the electronic device, where the second side is opposite to the first side.

Abstract: Examples described herein relate to flexible antenna belts. For instance, a system may comprise a flexible antenna belt, where the flexible antenna belt is to transition between a closed position and an open position, and a flexible display coupled to the flexible antenna belt.

Abstract: An antenna includes a conductive monopole and a non-conductive slot. The non-conductive slot of the antenna has a shape complementary to a shape of the conductive monopole of the antenna. The conductive monopole of the antenna and the non-conductive slot of the antenna are 180-degree rotationally symmetric to one another about a center of the antenna.

Abstract: The present subject matter relates to examples of an antenna assembly that may include a SAR correction element. The antenna assembly may include a radiation body that can have transceiver portion and non-transceiver portion, such that the transceiver portion may send and receive a wireless signal. In one example, the SAR correction element may be electrically coupled between the non-transceiver portion and a ground plane in order to dissipate energy from the non-transceiver portion to the ground in way that the SAR correction element does not accumulate energy therein while dissipating the energy to the ground.

Abstract: Examples of slot antennas are described herein. In an example, the slot antenna includes a substrate and an antenna element disposed on the substrate to transmit and receive signals. The substrate is porous.

Abstract: The present disclosure relates to an electromagnetic interference shield. The electromagnetic interference shield comprises a composite film that comprises a first carbon layer comprising an electrically conducting carbon material; a second carbon layer comprising an electrically conducting carbon material; and a porous layer between the first carbon layer and second carbon layer.

Abstract: An example electronic device includes a wireless communication component and a controller. The controller is to set an output power of the wireless communication component based on: whether a first external object is in proximity to a first side of the electronic device; whether the electronic device is stationary; and whether a second external object is in proximity to a second side of the electronic device, where the second side is opposite to the first side.

Abstract: Dual band slot antenna is described. The dual band slot antenna includes a ground plane having a slot, a conductive patch, a dielectric substrate disposed between the conductive patch and the ground plane, and a coaxial cable fastened on the conductive patch to form a first loop region and a second loop region of different sizes for dual band operation.

Abstract: The present disclosure is drawn to an electronic device including a substrate, an electronic component carried by the substrate, an EMI protection film over-molded on the electronic component, and an adhesive layer directly adhering the EMI protection film to the electronic component. The EMI protection film includes a ferromagnetic material.

Abstract: An example base cover for a lower housing of a convertible computing device includes a first metallic structure positioned in the lower housing, and a second metallic structure electrically isolated from the first metallic structure. The second metallic structure is positioned in the lower housing and directly below an antenna slot defined in an upper housing of the convertible computing device when the upper housing is positioned over and parallel to the lower housing.

Abstract: Examples of an antenna are described herein. Some examples of the antenna include an antenna holder. In some examples, the antenna holder is situated on a metal cover and a metal surface is situated on a side of the antenna holder to create an in-phase image current on the metal cover.

Abstract: In example implementations, an antenna for a mobile device is provided. The antenna includes a printed circuit board and a plurality of metal members coupled to the printed circuit board. The printed circuit board is devoid of metal traces. The plurality of metal members is positioned along a length of the printed circuit board to operate at a desired frequency band when inserted into an opening along an outer edge perimeter of a metallic housing of the mobile device.

Abstract: Examples described herein relate to flexible antenna belts. For instance, a system may comprise a flexible antenna belt, where the flexible antenna belt is to transition between a closed position and an open position, and a flexible display coupled to the flexible antenna belt.

Abstract: Examples of slot antennas are described herein. In an example, the slot antenna includes a substrate and an antenna element disposed on the substrate to transmit and receive signals. The substrate is porous.

Abstract: An example base cover for a lower housing of a convertible computing device includes a first metallic structure positioned in the lower housing, and a second metallic structure electrically isolated from the first metallic structure. The second metallic structure is positioned in the lower housing and directly below an antenna slot defined in an upper housing of the convertible computing device when the upper housing is positioned over and parallel to the lower housing.

Abstract: Example implementations relate to radio frequency power controls. In some examples, a computing device may comprise a processing resource and a memory resource storing machine-readable instructions to cause the processing resource to measure an angle between a first sensor and a second sensor, determine a usage mode from a plurality of usage modes based on the measured angle between the first sensor and the second sensor, and alter a radio frequency (RF) power of the radio module based on the usage mode.