Abstract: An electronic device includes a body having a first region and a second region at least partially adjacent to the first region; an optical sensor located at least partially within a range of light exposure in the first region for light-based imaging; and an adjuster configured to reduce relative visual perception differences between the first region and the second region of the electronic device.

Abstract: An electronic device includes a functional assembly configured to switch a state of the electronic device from a first state to a second state if a predefined criteria is met. The first state indicates that the electronic device is allowed to change its posture, while the second state indicates that the electronic device needs to maintain a current posture.

Abstract: An electronic device includes a display assembly for displaying images and including a first part and a second part disposed at different sides of a first deformable part of the display assembly, where a first deformability of at least a part of the display assembly includes capability to change a relative angle between the first part and the second part; and a fixing assembly coupled to the display assembly for fixedly connect the display assembly, the fixing assembly including at least a first fixing element. At least a part of at least one of the first fixing element or the display assembly has a second deformability including capability to change a length in a preset direction.

Abstract: An electronic device includes a display assembly for displaying images and including a first part and a second part disposed at different sides of a first deformable part of the display assembly, where a first deformability of at least a part of the display assembly includes capability to change a relative angle between the first part and the second part; and a fixing assembly coupled to the display assembly for fixedly connect the display assembly, the fixing assembly including at least a first fixing element. At least a part of at least one of the first fixing element or the display assembly has a second deformability including capability to change a length in a preset direction.

Abstract: A support frame, a display device and mounting method thereof. The support frame includes a main body and a protrusion disposed at a side of the main body; the main body includes a first portion located on the protrusion and a second portion located under the protrusion, a thickness of the first portion is at least equal to a thickness of a touch cover plate; a thickness of the second portion is at least equal to a thickness of a backlight module; and a thickness of the protrusion is at least equal to a thickness of a display panel.

Abstract: A support frame, a display device and mounting method thereof. The support frame includes a main body and a protrusion disposed at a side of the main body; the main body includes a first portion located on the protrusion and a second portion located under the protrusion, a thickness of the first portion is at least equal to a thickness of a touch cover plate; a thickness of the second portion is at least equal to a thickness of a backlight module; and a thickness of the protrusion is at least equal to a thickness of a display panel.

Abstract: A stress detection device and a detection method for a light-transmissive structure are disclosed. The stress detection device for a light-transmissive structure comprises: a light source, a first polarizer, a light intensity distribution state detection unit and a stress distribution state analysis unit; wherein the light source emits uniform polarized light; during detection, the first polarizer and the light sources are located at opposite sides of the light-transmissive structure, respectively; the light intensity distribution state detection unit is configured to obtain a light intensity distribution state of the polarized light emitted from the first polarizer; the stress distribution state analysis unit is configured to obtain a stress distribution state of the light-transmissive structure according to the light intensity distribution state.

Abstract: A stress detection device and a detection method for a light-transmissive structure are disclosed. The stress detection device for a light-transmissive structure comprises: a light source, a first polarizer, a light intensity distribution state detection unit and a stress distribution state analysis unit; wherein the light source emits uniform polarized light; during detection, the first polarizer and the light sources are located at opposite sides of the light-transmissive structure, respectively; the light intensity distribution state detection unit is configured to obtain a light intensity distribution state of the polarized light emitted from the first polarizer; the stress distribution state analysis unit is configured to obtain a stress distribution state of the light-transmissive structure according to the light intensity distribution state.

Abstract: A light emitting element comprises: a printed circuit board, a chip disposed on a first face of the printed circuit board, a first encapsulation body and a second encapsulation body. The first encapsulation body covers the chip, and the second encapsulation body covers a second face of the printed circuit board or a part of the second face of the printed circuit board. A first pipe and a second pipe are extended respectively from two positions of the first encapsulation body and are respectively connected to two positions of the second encapsulation body. Fluid is encapsulated within the first encapsulation body, the first pipe, the second encapsulation body and the second pipe.

Abstract: A light emitting element comprises: a printed circuit board, a chip disposed on a first face of the printed circuit board, a first encapsulation body and a second encapsulation body. The first encapsulation body covers the chip, and the second encapsulation body covers a second face of the printed circuit board or a part of the second face of the printed circuit board. A first pipe and a second pipe are extended respectively from two positions of the first encapsulation body and are respectively connected to two positions of the second encapsulation body. Fluid is encapsulated within the first encapsulation body, the first pipe, the second encapsulation body and the second pipe.