Abstract:
A pixel circuit includes a light-emitting device, a reset circuit, a write circuit, a compensation circuit, a light emission control circuit, and a drive circuit. The compensation circuit is configured to selectively transfer an uncompensated reference voltage or a compensated reference voltage to a third node, the compensated reference voltage being determined by the uncompensated reference voltage and a compensation voltage, the compensation voltage being related to a rated value of a power supply voltage. The light emission control circuit is configured to transfer a voltage at the third node to a first node to cause a change in voltage at the second node. The drive circuit is configured to control a magnitude of a drive current flowing through the light-emitting device based on the voltage at the second node and the power supply voltage.
Abstract:
A plug jack of a terminal device for an external component and a terminal device are provided. The plug jack of a terminal device for an external component includes a slot provided with a mouth, and a conductive layer connected to a low level is arranged on an inner wall of the slot.
Abstract:
There are provided a pixel circuit, an organic light emitting display panel and a display apparatus. The pixel circuit comprises: a light emitting device (01), a charging module (02), a driving module (03), and a testing module (04); an input terminal of the charging module (02) is connected to a data signal terminal (Data), a control terminal thereof is connected to a scan signal terminal (Gate), and an output terminal thereof is connected to a first input terminal (al) and a first output terminal (b1) of the testing module (04) respectively; a control terminal of the driving module (03) is connected to a second output terminal (b2) of the testing module (04), an input terminal thereof is connected to a first reference signal terminal (Ref1), and an output terminal thereof is connected to an input terminal of the light emitting device (01); and a control terminal of the testing module (04) is connected to a test signal terminal (TEST), a second input terminal (a2) thereof is connected to an output terminal of the light emitting device (01), and a third output terminal (b3) thereof is connected to a second reference signal terminal (Ref2), wherein the testing signal terminal (TEST) is used to provide a test signal switching between a displaying period of time and a testing period of time. The pixel circuit is capable of realizing that a current signal for driving the light emitting device (01) to emit light reaches the uniformity standard so that display luminance of pixels is uniform and quality of a display picture is ensured.
Abstract:
A frame-sealing adhesive composition and a method of preparing the same. The frame-sealing adhesive composition includes 1.45 wt % to 1.65 wt % of photochromic molecules based on the total weight of the frame-sealing adhesive composition, saild photochromic molecules are inert to polymeric materials. The method of producing a frame-sealing adhesive composition includes mixing 1.45 wt % to 1.65 wt % of photochromic molecules based on the total weight of the frame-sealing adhesive composition with a frame-sealing adhesive to form a stirred mixture; and degassing the stirred mixture.
Abstract:
The present disclosure provides a method for manufacturing a nanowire, a method for manufacturing a thin film transistor, a thin film transistor and a semiconductor device. The method for manufacturing the nanowire includes: preparing an insulating layer on a first surface of a substrate; preparing a sacrificial layer on a surface of the insulating layer away from the substrate, and patterning the sacrificial layer to form a guide trench; preparing an inducing particle in the guide trench; preparing a precipitation layer on a surface of the sacrificial layer away from the substrate and in the guide trench, the precipitation layer covering the inducing particle; processing the precipitation layer to precipitate a preset element in the precipitation layer along the guide trench under an induction of the inducing particle to form a nanowire; and removing the sacrificial layer.
Abstract:
The present application discloses an electronic device including a housing, support plates and a display panel. The housing is recessed inward to form one or more clearances penetrating the housing along a first direction. A number of the support plates is at least two, and one clearance is correspondingly arranged below adjoining parts of two adjacent support plates. The support plates are configured to support the display panel. The display panel is switchable between a folded position and an unfolded position. When the display panel is in the unfolded position, first surfaces of the support plates that abut against the display panel are flush. When the display panel is in the folded position, any two oppositely folded and adjacent support plates are separated by a part of the display panel that covers the any two oppositely folded and adjacent support plates when the display panel is in the unfolded position, and a part of the any two oppositely folded and adjacent support plates and a part of the display panel that covers the part of the any two oppositely folded and adjacent support plates when the display panel is in the unfolded position enter the clearance.
Abstract:
Provided is a display module, including: a shell; a display panel, wherein the display panel is disposed in the shell and is connected to the shell; a first light emitting component, wherein the first light emitting component is connected to the display panel and is configured to emit light of a target wavelength; and a fingerprint recognition sensor, wherein the fingerprint recognition sensor is disposed between the shell and the display panel and is fixedly connected to the shell; an orthographic projection of the fingerprint recognition sensor onto the display panel and an orthographic projection of the first light emitting component onto the display panel do not overlap; and the fingerprint recognition sensor is configured to recognize a fingerprint based on received light of the target wavelength reflected by an obstacle.
Abstract:
A mobile terminal bracket comprises: a support housing provided with a supporting cavity at front side thereof, the supporting cavity comprising a bottom wall, a first side wall and a second side wall opposite to each other, a third side wall and a fourth side wall opposite to each other, a protective film clearing hole on the first side wall, the second side wall provided with a fixing fastener, the third side wall and the fourth side wall separately provided with a sliding slot; a protective film retraction mechanism comprising a first roller in the support housing, a protective film twined on the first roller, a reset spring for rotating the first roller to reset, a pull rod connected to end of the protective film, the pull rod slidably assembled in the sliding slots of the third, fourth side wall and clipped to the fixing fastener.
Abstract:
The present disclosure relates to a wearable input device, a host, an input method and an electronic system. The wearable input device includes a body, and further includes a detection module, a positioning module, a communication module and a processor which are provided on the body. The detection module is configured to detect whether the body performs a tap action on an operation plane, and send a detection result to the processor; the positioning module is configured to determine a current position of the body on the operation plane, and send the current position to the processor; and the processor is configured to send the current position or a key value calculated according to the current position to a host via the communication module when the body performs the tap action.
Abstract:
Embodiments of this disclosure provide a flexible display device. The flexible display device comprises a flexible display panel and a folding mechanism. The folding mechanism comprises a first cabinet and a second cabinet overlapping each other, and a guiding mechanism. The second cabinet can move straight relative to the first cabinet through the guiding mechanism. The flexible display device further comprises a guiding portion and an adjusting lever in the second cabinet. The guiding portion is at a push-pull end of the second cabinet. The adjusting lever can move between the push-pull end and an end opposite to the push-pull end. One end of the flexible display panel is fixed to the push-pull end of the first cabinet, and the other end is fixed to the adjusting lever in an opposite direction. A locking mechanism fixes relative positions of the first cabinet, the second cabinet and the adjusting lever.