Abstract: A radio frequency system package may include waveguides and loading blocks. The loading blocks may include dielectric material having a high dielectric constant between 13 and 20. Additionally, the loading blocks may be made of mold, epoxy, or the like material, and the loading blocks may fit into a region cut out of the waveguides. Moreover, the loading blocks may lower the cut-off frequency for wireless communication otherwise provided by the waveguides without the loading blocks (e.g., 28 GHz). In particular, the loading blocks may facilitate communication in low mmWave frequencies, such as 24 GHz.

Abstract: Example implementations relate to heat-sink chambers. For instance, in an example a heat-sink can include a body including a first surface and a second surface, where the body defines: a chamber that extends from the first surface through a portion of a total thickness of the body; an opening in the second surface; and a channel that extends from the chamber through a remaining portion of the total thickness of the body to the opening to couple the chamber to the opening.

Abstract: Examples of a chassis component are described herein. In an example, the chassis component can have a recess having a mesh structure and a working fluid disposed therein. A conductive cover can seal the recess with the mesh structure and the working fluid therein.

Abstract: Examples of devices and methods for controlling speed of cooling elements are discussed. The device comprises a first temperature reader to measure an ambient temperature in the vicinity of the device. The device further comprises a processor to control a speed of a cooling element of the device based on a comparison of the ambient temperature with a first threshold temperature.

Abstract: An electronic device and a method for controlling a fan operation are provided. A containing space of the electronic device has a fan module and a deformation sensor. The deformation sensor detects whether a fan housing of the fan module is deformed. The deformation sensor transmits a deformation signal to a controller when detecting that the fan housing is deformed. The controller drives a fan blade of the fan module to stop running after receiving the deformation signal.

Abstract: A heat dissipation module adapted for an electronic device is provided. The heat dissipation module includes a heat dissipation structure and a heat dissipation fan. The heat dissipation structure is disposed in a casing of the electronic device and has a heat dissipation portion and an extending portion, wherein the extending portion has a slot, and a heat dissipation flow channel is formed between the heat dissipation portion and the casing. The heat dissipation fan is detachably assembled to the extending portion to be adjacent to the heat dissipation portion, wherein the heat dissipation fan covers the slot, the slot is connected to the heat dissipation flow channel, the heat dissipation fan is adapted to provide a heat dissipation air flow, and a part of the heat dissipation air flow passes through the slot and the heat dissipation flow channel in sequence.

Abstract: An electronic device and a method for controlling a fan operation are provided. A containing space of the electronic device has a fan module and a deformation sensor. The deformation sensor detects whether a fan housing of the fan module is deformed. The deformation sensor transmits a deformation signal to a controller when detecting that the fan housing is deformed. The controller drives a fan blade of the fan module to stop running after receiving the deformation signal.