Abstract: A display may include an array of pixels covered by lenticular lenses. The lenticular lenses may cause expansion of light primarily in a horizontal direction. To improve the perceived resolution of the display, the horizontal resolution of the pixels on the display may be increased. In one possible layout, each pixel includes one red sub-pixel, one blue sub-pixel, and one green sub-pixel. The sub-pixels may be non-square rectangular. The sub-pixels may be the same size or may have the same widths and different heights. Each pixel may be asymmetric about a horizontal axis. In a given row, the pixels may alternate between first and second layouts. The second layout may be a vertically flipped version of the first layout.

Abstract: A chassis includes a receiver frame for receiving a plurality of electronic components. The receiver frame includes a front end, a rear end, a top wall, and a bottom wall. The receiver frame also includes one or more apertures positioned in the bottom wall or the top wall at a location adjacent to the front end. The receiver frame also includes a plurality of air flow channels coupling openings in the front end to the one or more apertures such that air flow from the openings of the front end is first directed towards the rear end across the plurality of electronic components before being directed back towards the front end and then exiting the one or more apertures.

Abstract: A detachable guiding mechanism is selectively disposed inside an electronic device and located above a half-height expansion card of the electronic device. The detachable guiding mechanism includes a bridging component and a guiding component. The bridging component includes at least one connecting portion. The guiding component is detachably assembled with the bridging component. The guiding component includes a contacting surface, a first guiding surface, a second guiding surface and at least one fixing portion. The contacting surface contacts against or abuts adjacent to an upper edge of the half-height expansion card since the detachable guiding mechanism is located above the half-height expansion card. The first guiding surface and the second guiding surface are connected to the contacting surface to respectively form a first angle and a second angle. The fixing portion is disposed on the connecting portion to detachably assemble the guiding component with the bridging component.

Abstract: A detachable guiding mechanism is selectively disposed inside an electronic device and located above a half-height expansion card of the electronic device. The detachable guiding mechanism includes a bridging component and a guiding component. The bridging component includes at least one connecting portion. The guiding component is detachably assembled with the bridging component. The guiding component includes a contacting surface, a first guiding surface, a second guiding surface and at least one fixing portion. The contacting surface contacts against or abuts adjacent to an upper edge of the half-height expansion card since the detachable guiding mechanism is located above the half-height expansion card. The first guiding surface and the second guiding surface are connected to the contacting surface to respectively form a first angle and a second angle. The fixing portion is disposed on the connecting portion to detachably assemble the guiding component with the bridging component.

Abstract: An electromagnetic interference (EMI) shielding device includes first and second housing portions assembled along an assembly direction, at least two spaced-apart female fasteners fixed to one of the first and second housing portions, a plurality of male fasteners corresponding in number to the female fasteners and spacedly fixed to the other one of the first and second housing portions, and at least one grip member connected to one of the first and second housing portions. The grip member is applied with a force along the assembly direction or along a direction opposite to the assembly direction to engage or disengage the male and female fasteners.

Abstract: An electromagnetic interference (EMI) shielding device includes first and second housing portions assembled along an assembly direction, at least two spaced-apart female fasteners fixed to one of the first and second housing portions, a plurality of male fasteners corresponding in number to the female fasteners and spacedly fixed to the other one of the first and second housing portions, and at least one grip member connected to one of the first and second housing portions. The grip member is applied with a force along the assembly direction or along a direction opposite to the assembly direction to engage or disengage the male and female fasteners.

Abstract: A fixing means for a heat dissipater is provided to position the heat dissipater and a heat-generating element, which includes a heat-dissipating base and a positioning frame. The surface of the heat-dissipating base is provided with a plurality of heat-dissipating pieces. The center of the plurality of heat-dissipating pieces is provided with a sliding groove. Further, the positioning frame is formed into a T-lettered shape and constituted of a transverse rod and a pressing end. The pressing end is accommodated in the sliding groove of the base to abut against the surface of the base. Both side faces of the transverse rod are provided with a screw hole, respectively, for receiving a locking element.

Abstract: A heat dissipator for mounting on a heat-generating element includes a heat-dissipating body, a fan assembly, a bottom stand and a top stand. The heat-dissipating body is formed into a spherical body and constituted of a plurality of heat-dissipating pieces. The heat-dissipating body is provided with a sealed accommodating space therein for accommodating the fan assembly. Further, the bottom stand and the top stand are provided at the upper and lower ends of the heat-dissipating body, respectively. Further, the bottom of the fan assembly has a connecting seat for connecting to the bottom stand to fix the fan assembly. Finally, the bottom stand is provided with a heat-conducting block for adhering to the heat-generating element, thereby to conduct the heat generated by the operation of the heat-generating element to the heat-dissipating body. In this way, the heat can be uniformly dissipated to each heat-dissipating piece.

Abstract: A press-type fixing assembly for fixing a heat dissipator includes a seat body and a pressing body. The seat body has a bottom plate and a side plate that are connected with each other to form a L-lettered shape. Further, the bottom plate is provided with a positioning hole, and the side plate is provided with a through hole. The pressing body has a pressing plate. The lower end face of the pressing plate is connected to a post. The post correspondingly penetrates through the positioning hole, and the center of the post has a vertical partition. One end of the post has an engaging portion. With the post of the pressing body being pressed into the positioning hole of the seat body, the post can penetrate through the bottom plate via the elastic deformation of the partition. Finally, the post is engaged with the fixing hole of the connected substrate, thereby to rapidly fix the position of the heat dissipator.

Abstract: A fixing means for a heat dissipater is provided to position the heat dissipater and a heat-generating element, which includes a heat-dissipating base and a positioning frame. The surface of the heat-dissipating base is provided with a plurality of heat-dissipating pieces. The center of the plurality of heat-dissipating pieces is provided with a sliding groove. Further, the positioning frame is formed into a T-lettered shape and constituted of a transverse rod and a pressing end. The pressing end is accommodated in the sliding groove of the base to abut against the surface of the base. Both side faces of the transverse rod are provided with a screw hole, respectively, for receiving a locking element.