Abstract: A foldable device may include a foldable layer and a hinge mechanism. The hinge mechanism may include a hinge cover fixedly coupled to a hinge base. A plurality of rotation pivots may be rotatably coupled to the hinge base and the hinge cover. A housing of a computing device may be coupled to the rotation pivots, such that, as the rotation pivots rotate into the hinge base and hinge cover, the computing device is unfolded, and as the rotation pivots rotate out of the hinge base and hinge cover, the computing device is folded. Rotation of the rotation pivots into and out of the hinge base and hinge cover may be restricted by one or more stopping mechanisms, so as to maintain a foldable display of the computing device within allowable bending limits.

Abstract: A flexible display that can be adjusted by an electromagnetic mechanism to remove a deformation is disclosed. The flexible display is attached to a body that is configurable in a folded configuration or an unfolded configuration by a hinge mechanism. When unfolded the flexible display includes a deformation (i.e., warp) in an area around the hinge mechanism. Accordingly, an electromagnet is included with the hinge mechanism to remove the deformation by attracting a magnetic element is disposed on a back surface of the flexible display.

Abstract: A foldable device may include a foldable layer and a hinge mechanism. The hinge mechanism may include a hinge cover fixedly coupled to a hinge base. A plurality of rotation pivots may be rotatably coupled to the hinge base and the hinge cover. A housing of a computing device may be coupled to the rotation pivots, such that, as the rotation pivots rotate into the hinge base and hinge cover, the computing device is unfolded, and as the rotation pivots rotate out of the hinge base and hinge cover, the computing device is folded. Rotation of the rotation pivots into and out of the hinge base and hinge cover may be restricted by one or more stopping mechanisms, so as to maintain a foldable display of the computing device within allowable bending limits.

Abstract: A flexible display that can be adjusted by an electromagnetic mechanism to remove a deformation is disclosed. The flexible display is attached to a body that is configurable in a folded configuration or an unfolded configuration by a hinge mechanism. When unfolded the flexible display includes a deformation (i.e., warp) in an area around the hinge mechanism. Accordingly, an electromagnet is included with the hinge mechanism to remove the deformation by attracting a magnetic element is disposed on a back surface of the flexible display.

Abstract: A display that is suitable for use with a mobile computing device is disclosed. The display includes multiple layers that are bonded in a stack that has side surfaces. Operation of the display may be negatively affected if the side surfaces are exposed to liquids or debris. Accordingly, a film affixed at, or close to, the top of the stack is folded around the side surfaces and attached to a back surface of the stack to cover the side surfaces. This covering can also block light if it is colored, and may help bind layers of the stack together to prevent delamination.

Abstract: An electronic device including a housing, a display component and an electronic component is provided. The housing includes a transparent cover and a middle frame, and the transparent cover is assembled to the middle frame. The display component is disposed in the housing. The electronic component is disposed in the housing, wherein the transparent cover has a flat portion and a connecting portion. The connecting portion curvingly extends from a side of the flat portion and includes at least one bonding surface, and a thickness of the flat portion is different from a thickness of the connecting portion.

Abstract: A portable electronic device including a supporting plate, a frame, and a sensing component is provided. The supporting plate has a first sensing side surface. The frame is assembled around the supporting plate and has a second sensing side surface facing the first sensing side surface. The sensing component is disposed between the first sensing side surface and the second sensing side surface. The sensing component is configured to sense a variation in a distance to the first sensing side surface or sense a variation in a distance to the second sensing side surface. Moreover, a sensing method is also provided.

Abstract: An electronic device and a physiological characteristic identifying module are provided. The electronic device includes a case, a physiological characteristic identifying element, a cover plate, a key cap, and an insulating static electricity shielding ring. The case has a first hole. The physiological characteristic identifying element is disposed in the first hole. The cover plate is disposed on the case and has a second hole. At least a portion of an upper surface of the physiological characteristic identifying element is exposed by the second hole. The key cap is disposed in the second hole and located above the upper surface. The insulating static electricity shielding ring is disposed on the rim of the physiological characteristic identifying element and covers an outer portion of the upper surface and at least a portion of a lateral surface of the physiological characteristic identifying element.

Abstract: An electronic device and a physiological characteristic identifying module are provided. The electronic device includes a case, a physiological characteristic identifying element, a cover plate, a key cap, and an insulating static electricity shielding ring. The case has a first hole. The physiological characteristic identifying element is disposed in the first hole. The cover plate is disposed on the case and has a second hole. At least a portion of an upper surface of the physiological characteristic identifying element is exposed by the second hole. The key cap is disposed in the second hole and located above the upper surface. The insulating static electricity shielding ring is disposed on the rim of the physiological characteristic identifying element and covers an outer portion of the upper surface and at least a portion of a lateral surface of the physiological characteristic identifying element.

Abstract: An electronic device and a physiological characteristic identifying module are provided. The electronic device includes a case, a physiological characteristic identifying element, a cover plate, a key cap, and an insulating static electricity shielding ring. The case has a first hole. The physiological characteristic identifying element is disposed in the first hole. The cover plate is disposed on the case and has a second hole. At least a portion of an upper surface of the physiological characteristic identifying element is exposed by the second hole. The key cap is disposed in the second hole and located above the upper surface. The insulating static electricity shielding ring is disposed on the rim of the physiological characteristic identifying element and covers an outer portion of the upper surface and at least a portion of a lateral surface of the physiological characteristic identifying element.

Abstract: A multi-sensing system, a portable electronic device, and a touch-sensing method are provided. The multi-sensing system includes a sensing sheet and a carrier. The sensing sheet includes a substrate, and a touch-sensing circuit and a force-sensing circuit disposed on the substrate, wherein an orthogonal projection of the force-sensing circuit on the substrate and an orthogonal projection of the touch-sensing circuit on the substrate are misaligned from each other. The carrier has a carrying space and a carrying shoulder adjacent to the carrying space, wherein the carrier carries the sensing sheet with the carrying shoulder. The carrying space is used to accommodate a display element. The touch-sensing circuit is located above the display element.

Abstract: An electronic device including a housing, a display component and an electronic component is provided. The housing includes a transparent cover and a middle frame, and the transparent cover is assembled to the middle frame. The display component is disposed in the housing. The electronic component is disposed in the housing, wherein the transparent cover has a flat portion and a connecting portion. The connecting portion curvingly extends from a side of the flat portion and includes at least one bonding surface, and a thickness of the flat portion is different from a thickness of the connecting portion.

Abstract: A multi-sensing system, a portable electronic device, and a touch-sensing method are provided. The multi-sensing system includes a sensing sheet and a carrier. The sensing sheet includes a substrate, and a touch-sensing circuit and a force-sensing circuit disposed on the substrate, wherein an orthogonal projection of the force-sensing circuit on the substrate and an orthogonal projection of the touch-sensing circuit on the substrate are misaligned from each other. The carrier has a carrying space and a carrying shoulder adjacent to the carrying space, wherein the carrier carries the sensing sheet with the carrying shoulder. The carrying space is used to accommodate a display element. The touch-sensing circuit is located above the display element.

Abstract: A portable electronic device including a supporting plate, a frame, and a sensing component is provided. The supporting plate has a first sensing side surface. The frame is assembled around the supporting plate and has a second sensing side surface facing the first sensing side surface. The sensing component is disposed between the first sensing side surface and the second sensing side surface. The sensing component is configured to sense a variation in a distance to the first sensing side surface or sense a variation in a distance to the second sensing side surface. Moreover, a sensing method is also provided.

Abstract: An electronic assembly includes a transparent adhesive layer, a transparent cover, a display module and a frame. The transparent adhesive layer has a first adhesive surface and a second adhesive surface opposite to the first adhesive surface, the second adhesive surface having a central region and a peripheral region around the central region. The transparent cover is adhered to the first adhesive surface of the transparent adhesive layer. The display module is adhered to the central region of the transparent adhesive layer. The frame has a border carrying part which is adhered to the peripheral region of the transparent adhesive layer.

Abstract: An electronic device and a physiological characteristic identifying module are provided. The electronic device includes a case, a physiological characteristic identifying element, a cover plate, a key cap, and an insulating static electricity shielding ring. The case has a first hole. The physiological characteristic identifying element is disposed in the first hole. The cover plate is disposed on the case and has a second hole. At least a portion of an upper surface of the physiological characteristic identifying element is exposed by the second hole. The key cap is disposed in the second hole and located above the upper surface. The insulating static electricity shielding ring is disposed on the rim of the physiological characteristic identifying element and covers an outer portion of the upper surface and at least a portion of a lateral surface of the physiological characteristic identifying element.

Abstract: An electronic element supporting base and an electronic device applying the same are provided. The electronic element supporting base comprises a fixing portion and a carrying part. The fixing portion is suitable for being fixed to a frame of the electronic device as a fulcrum for the electronic element supporting base. The carrying part is suitable for carrying a plurality of electronic elements, wherein a gap exists between the carrying part and the frame, and a gap exists between the carrying part and the circuit board. When the electronic device receives an impact, the suspended design of the electronic element supporting base allows the carrying part to oscillate through the gaps, and the electronic element supporting base will not be squeezed, which prevents the electronic elements on the electronic element supporting base from being shifted.

Abstract: An electronic element supporting base and an electronic device applying the same are provided. The electronic element supporting base comprises a fixing portion and a carrying part. The fixing portion is suitable for being fixed to a frame of the electronic device as a fulcrum for the electronic element supporting base. The carrying part is suitable for carrying a plurality of electronic elements, wherein a gap exists between the carrying part and the frame, and a gap exists between the carrying part and the circuit board. When the electronic device receives an impact, the suspended design of the electronic element supporting base allows the carrying part to oscillate through the gaps, and the electronic element supporting base will not be squeezed, which prevents the electronic elements on the electronic element supporting base from being shifted.

Abstract: An electronic assembly includes a transparent adhesive layer, a transparent cover, a display module and a frame. The transparent adhesive layer has a first adhesive surface and a second adhesive surface opposite to the first adhesive surface, the second adhesive surface having a central region and a peripheral region around the central region. The transparent cover is adhered to the first adhesive surface of the transparent adhesive layer. The display module is adhered to the central region of the transparent adhesive layer. The frame has a border carrying part which is adhered to the peripheral region of the transparent adhesive layer.

Abstract: The present invention relates to an antistatic structure for an optical disc device. An optical pick-up unit module of an optical disk device is installed on a chassis and the chassis is movably installed in a lower cover of the device. Furthermore, the antistatic structure includes at least one upper connecting portion capable of contacting with the optical pick-up unit module and at least one lower connecting portion capable of contacting with the lower cover. Whereby, the static electricity generated by the optical pick-up unit module can be conducted to the lower cover through the upper and lower connecting portions so as to attain the antistatic discharge (ESD) protection effectively.