An electronic device includes: a housing; a display provided at a front side thereof; and a stand provided at a back side thereof. The housing has a transition wall between back and bottom walls, which extends further to the front as further downwardly separated from the back wall. The transition wall has a recessed part and a ventilation hole communicated with the recessed part. The stand is attached to the housing so that the stand can move between a closed state where the stand approaches the back wall and an open state where a bottom end part of the stand is separated away from the back wall so that the stand can support the housing at an angle from a placement surface. The stand is configured so that the bottom end part of the stand covers part of the recessed part when the stand is in the closed state.

A portable electronic device including a first body, a second body and a supporting mechanism is provided. The first body has a bottom surface and an opening located at the bottom surface. The second body is pivoted to the first body and has a rear surface and a magnetic part located at the rear surface. The supporting mechanism is disposed in the first body corresponding to the opening. The rear surface of the second body is rotated toward the bottom surface of the first body to allow the supporting mechanism to be magnetically attracted to the magnetic part. Afterwards, the rear surface of the second body is rotated away from the bottom surface of the first body, and the supporting mechanism is driven by the second body to move out of the first body via the opening. When the supporting mechanism is locked, a support shaft supports the second body.

Conventional laptop computers may utilize a door-hinge style or in a bezel-behind-base style hinge to connect a display with a keyboard of the laptop computer. Typically, these hinges present an undesirable discontinuous visual impression to the user. In the disclosed technology, a leading edge of a display abuts a leading edge a keyboard. The disclosed sliding double-pivot hinge places a pivot axis parallel and coincident with the abutting interface, the leading edges of the display and the keyboard remain abutting throughout a rotational range of motion of the display with reference to the keyboard. The resulting visual impression to the user is that the display is contiguous with the keyboard regardless of the display angle. Further, the disclosed sliding double-pivot hinge may be used in a kickstand to permit the kickstand to rotate up to 180 degrees to fold back on itself and lay flat against an associated computing device.

Examples are disclosed relating to computing device hinge assemblies. In one example, a hinge assembly comprises a hinge frame affixed to one substrate and a hinge arm member affixed to another substrate. The hinge arm member comprises first and second arcuate arm guide slots. An arm support member, moveably coupling the hinge arm member to the hinge frame, comprises a first side comprising a first arcuate support guide slot receiving a first frame guide of the hinge frame, and a second side comprising a second arcuate support guide slot receiving a second frame guide. First and second arcuate inner support guides are received within the first and second arcuate arm guide slots of the hinge arm member. An elongated bridge member connects the first side of the arm support member to the second side, with the bridge member comprising a unitary structure fabricated from bulk metallic glass.

A computing device is described. In an example implementation, the computing device includes a housing including a display screen on a front surface, the housing and display screen being collectively positionable in a plurality of physical orientations, an input device that includes a first selection mechanism and a second selection mechanism, the first selection mechanism being actuatable to adjust a setting of an output of an application displayed on the display screen, the second selection mechanism being actuatable to adjust the setting of the output of the application displayed on the display screen, and an orientation sensor configured to determine which physical orientation of the plurality of physical orientations that the display screen is positioned in, and change a first input polarity of the first selection mechanism to correspond to the determined physical orientation of the display screen.

A notebook cooler with a pressurizing function comprises a cooler body and one or more soft sealing elements detachably disposed on the cooler body. A notebook is placed on the soft sealing element, an airtight space is defined by the bottom of the notebook, the soft selling element and the cooler body, and a cooling fan is disposed in the airtight space. The circular soft sealing element is laid on the notebook cooler, so that an airtight space is defined by the bottom of the notebook, the soft sealing element and the cooler body; a turbofan sucks air from the bottom of the cooler and presses the air into the airtight space; and the cooler can press air into the notebook via cooling holes in the bottom of the notebook to effectively accelerate air circulation in the notebook, so that elements in the notebook can be rapidly cooled.

In an example implementation, a mobile communication device assembly includes a housing having an opening configured and sized to support a display screen of a mobile communication device. A controller is mounted in the housing and configured to communicably couple to the mobile communication device. An angular adjustment assembly is mounted in the housing and including a first motor electrically coupled to the controller; a first gear assembly driveably coupled to the first motor; and a support member coupled to the first gear assembly and extendable, with the first gear assembly, from a first position flush with the housing to a second position angularly extended from the housing.

An electronic device includes a first body, a first pivot structure, a second body, a first plate, a second plate, a third plate, a second pivot structure, and a third pivot structure. The first body includes a first region and a second region. The second body includes a third region and a fourth region. The second body is pivotally connected to the first body by the first pivot structure. The first plate is disposed corresponding to the first region. The second plate is disposed corresponding to the third region. The third plate is disposed corresponding to the fourth region. One side of the third plate is adjacent to the second plate, and the other side of the third plate is detachably coupled to the first plate. The second pivot structure connects the first body and the first plate. The third pivot structure connects the second body and the second plate.

The present disclosure relates to a resilient protective case for mobile computer devices. In particular, the protective case includes a unitary body having a one piece assembly. The unitary body includes an outer frame having retaining members for securing the mobile computer device therein and a backside support member disposed between two side portions of the outer frame. The backside support member includes an upper slot and a lower slot. An integrated strap is disposed in the backside support member, separating the upper slot from the lower slot.

A hinge device for supporting an electronic device includes a first portion and a second portion movable relative to the first portion with a biasing element supported by one or the first portion or the second portion. The first portion has an arcuate groove, and the second portion has an arcuate rail configured to complementarily mate with the arcuate groove and slide therein. The biasing element contacts a leading edge of the other of the first portion or second portion, and the first portion and second portion are bistable in a closed state relative to one another and an open state relative to one another based at least partially on a surface profile of the biasing element applying a radial force to the leading edge.