Abstract:
PROBLEM TO BE SOLVED: To provide camera lens structures and display structures for electronic devices.SOLUTION: A camera may be mounted under a display in an electronic device. The display may include a polarizer layer, a color filter layer, and a thin-film-transistor layer. A layer of material such as a glass insert may be attached to an edge of the display. Openings may be formed in the layers of the display and the insert accommodates the camera. A sleeve structure may be mounted within an opening. The camera may include lens structures formed from a stack of lens elements. One or more layers of the display may be interposed within the lens structures. The glass insert may be mounted within a notch in the color filter layer and thin-film transistor layer or along a straight edge of the color filter layer and thin-film transistor layer.
Abstract:
PROBLEM TO BE SOLVED: To provide a light-weight nice-looking display.SOLUTION: The display comprises an upper polarizer with opening 22 formed in an opaque masking layer to allow light to pass through inactive portions 28A of the display such as peripheral portions of a display 14. The opaque masking layer may be formed on the upper polarizer, may be interposed between the upper polarizer and a color filter layer or may be interposed between the color filter layer and a thin-film transistor layer.
Abstract:
PROBLEM TO BE SOLVED: To provide camera lens structures and display structures for electronic devices.SOLUTION: A camera may be mounted under a display in an electronic device. The display may include a polarizer layer, a color filter layer, and a thin-film-transistor layer. A layer of material such as a glass insert may be attached to an edge of the display. Openings may be formed in the layers of the display and the insert accommodates the camera. A sleeve structure may be mounted within an opening. The camera may include lens structures formed from a stack of lens elements. One or more layers of the display may be interposed within the lens structures. The glass insert may be mounted within a notch in the color filter layer and thin-film transistor layer or along a straight edge of the color filter layer and thin-film transistor layer.
Abstract:
PROBLEM TO BE SOLVED: To mount a camera under a display in an electronic device.SOLUTION: Openings may be formed in a plurality of layers of a display 14, and an insert layer accommodates a camera 22. A sleeve structure 146 may be mounted within an opening. The camera 22 may include lens structures formed from a stack of lens elements. One or more layers of the display may be interposed within the lens structures. The glass insert layer may be mounted within a notch in a color filter layer 60 and a thin-film transistor layer 52 or along a straight edge of the color filter layer 60 and the thin-film transistor layer 52.
Abstract:
The described embodiments relate generally to control of rotational components in a computer system. In one embodiment, the rotational component includes a cooling fan assembly, the cooling fan assembly being controlled in accordance with resonant frequency avoidance data. The resonant frequency avoidance data being characteristic of the computer system such that when the cooling fan assembly operates in accordance with the resonant frequency avoidance data, the cooling fan assembly does not operate at a fan speed that is coincident with a natural resonant frequency of the computer system.
Abstract:
Abstract of the Disclosure A camera may be mounted under a display in an electronic device. The display may include a polarizer layer, a color filter layer, and a thin-film-transistor 5 layer. A layer of material such as a glass insert may be attached to an edge of the display. Openings may be formed in the layers of the display and the insert to accommodate the camera. A sleeve structure may be mounted within an opening. The camera may include lens structures formed from 10 a stack of lens elements. One or more layers of the display may be interposed within the lens structures. The glass insert may be mounted within a notch in the color filter layer and thin-film transistor layer or along a straight edge of the color filter layer and thin-film transistor 15 layer. The edge of the color filter layer may be recessed with respect to form a mounting shelf for the insert.
Abstract:
Abstract of the Disclosure A camera may be mounted under a display in an electronic device. The display may include a polarizer layer, a color filter layer, and a thin-film-transistor 5 layer. A layer of material such as a glass insert may be attached to an edge of the display. Openings may be formed in the layers of the display and the insert to accommodate the camera. A sleeve structure may be mounted within an opening. The camera may include lens structures formed from 10 a stack of lens elements. One or more layers of the display may be interposed within the lens structures. The glass insert may be mounted within a notch in the color filter layer and thin-film transistor layer or along a straight edge of the color filter layer and thin-film transistor 15 layer. The edge of the color filter layer may be recessed with respect to form a mounting shelf for the insert.
Abstract:
The described embodiments relate generally to control of rotational components in a computer system. In one embodiment, the rotational component includes a cooling fan assembly, the cooling fan assembly being controlled in accordance with resonant frequency avoidance data. The resonant frequency avoidance data being characteristic of the computer system such that when the cooling fan assembly operates in accordance with the resonant frequency avoidance data, the cooling fan assembly does not operate at a fan speed that is coincident with a natural resonant frequency of the computer system.
Abstract:
Abstract of the Disclosure A camera may be mounted under a display in an electronic device. The display may include a polarizer layer, a color filter layer, and a thin-film-transistor 5 layer. A layer of material such as a glass insert may be attached to an edge of the display. Openings may be formed in the layers of the display and the insert to accommodate the camera. A sleeve structure may be mounted within an opening. The camera may include lens structures formed from 10 a stack of lens elements. One or more layers of the display may be interposed within the lens structures. The glass insert may be mounted within a notch in the color filter layer and thin-film transistor layer or along a straight edge of the color filter layer and thin-film transistor 15 layer. The edge of the color filter layer may be recessed with respect to form a mounting shelf for the insert.
Abstract:
A key mechanism including one or more butterfly hinges. Each butterfly hinge may include a double wing design operative to move between a depressed position and non-depressed position. Hinged coupling mechanisms couple respective arms of the wings together. Additionally or alternatively, a key mechanism can include one or more half-butterfly hinges. Each half-butterfly hinge includes a double wing design operative to move between a depressed position and non-depressed position. A hinged coupling mechanism couples one set of corresponding arms of the wings together, while the other set of corresponding arms are not coupled together.