Abstract:
A chip substrate, a manufacturing method thereof, a gene sequencing chip, and a gene sequencing method. The chip substrate includes a base substrate; first electrode, located on the base substrate in an array; an insulating layer, located at gaps between two adjacent ones of the first electrodes, and partially covering the two adjacent ones of the first electrodes to form containing spaces being in one-to-one correspondence with the first electrodes; a capacitive dielectric layer, located on a side of the first electrodes away from the base substrate, and located in the containing spaces; and second electrodes, located on a side of the capacitive dielectric layer away from the base substrate, the capacitive dielectric layer includes a first region and a second region, an orthographic projection of the second electrodes on the base substrate is overlapped with an orthographic projection of the first region on the base substrate.
Abstract:
The present disclosure discloses a mask, which includes a first substrate and a second substrate. The mask further includes a polarity particle positioned between the first substrate and the second substrate. The polarity particle has a light absorption or light transmission effect. The first substrate includes a plurality of driving electrodes disposed toward the second substrate and arranged in an array. Each of the driving electrodes is configured to receive an electric signal and control the polarity particle to move to a designated driving electrode to form a pattern.
Abstract:
An in-vehicle rear-view display system is described, comprising: a display device comprising a dimming device configured to adjust luminance of light emitted from the display device based on a color change of the dimming device; a first control unit connected with the dimming device and configured to control the color change of the dimming device in accordance with a luminance change of an irradiation light. By arranging in the display device a dimming device capable of adjusting the luminance of light emitted from the display device, the first control unit can control the color change of the dimming device in accordance with the luminance change of the ambient light, and thereby control the luminance of light emitted from the display device so as to preventing glare. Meanwhile, the poor clarity of the screen caused by an anti-glare screen film added to the screen of the display device is avoided.
Abstract:
The present disclosure provides a touch display panel including a a display substrate, a touch electrode layer, and an insulating layer located between the display substrate and the touch electrode layer. The touch electrode layer includes a touch graph with grooves. The touch display panel further includes a transparent conducting film layer insulated from the touch electrode layer by the insulating layer.
Abstract:
A touch display panel and a display device are disclosed which achieve touch function and narrow bezel function while the required number of the vertical wiring is reduced and the aperture ratio of the touch display panel is increased. The touch display panel includes a substrate, a plurality of gate lines arranged laterally and a plurality of touch electrodes arranged in an array on the substrate, wherein, it further includes a plurality of signal leads which are arranged longitudinally and arranged to cross the gate lines and be insulated therefrom, each of the signal leads having a first and a second sub-signal leads; each of the first sub-signal leads is electrically connected to a gate line at an intersection to connect the gate line longitudinally to a gate driving circuit for controlling the operation of the touch display panel; each of the second sub-signal leads is electrically connected to a touch electrode to be used as a touch lead for the touch electrode; the first and second sub-signal leads are arranged to be disconnected from each other.
Abstract:
An electrophoretic particle, a method for manufacturing the electrophoretic particle, an electrophoretic microstructure and an electrophoretic display device are disclosed. The electrophoretic particle includes an electrophoretic particle body and a layer of photoluminescence material coated on the surface of the electrophoretic particle body. A method for manufacturing an electrophoretic particle includes: preparing a photoluminescence material; preparing an electrophoretic particle body; and forming a layer of photoluminescence material on the surface of the electrophoretic particle body.
Abstract:
A pixel unit, an array substrate and a LCD device including the array substrate are disclosed. The pixel unit includes a scan line, a signal line, a slit electrode, a coupling electrode cooperated with the slit electrode to generate an electric field, and a thin film transistor, a plurality of slits are formed on the slit electrode. The scan line and the signal line are intersected and overlapped with each other to define at least two sub-regions. The coupling electrode comprises at least two sub-electrodes respectively located in the at least two sub-regions. The slit electrode corresponds to all of the sub-regions and slits in different sub-regions extend along different directions.
Abstract:
A quantum dot electroluminescence display device and display apparatus are provided, and a electroluminescence structure (02) is provided in sub-pixel units of different colors of each pixel unit, a monochromatic quantum dot layer (03) is provided in at least one sub-pixel unit of a color of each pixel unit and located on a light exiting side of the electroluminescence structure of the at least one sub-pixel unit of a color, and the monochromatic quantum dot layer (03) emits monochromatic light corresponding to the color of sub-pixel unit after it is excited by light emitted from the electroluminescence structure (02).
Abstract:
A quantum dot electroluminescence display device and display apparatus are provided, and a electroluminescence structure (02) is provided in sub-pixel units of different colors of each pixel unit, a monochromatic quantum dot layer (03) is provided in at least one sub-pixel unit of a color of each pixel unit and located on a light exiting side of the electroluminescence structure of the at least one sub-pixel unit of a color, and the monochromatic quantum dot layer (03) emits monochromatic light corresponding to the color of sub-pixel unit after it is excited by light emitted from the electroluminescence structure (02).