Abstract: A flexible screen assembly and a terminal are provided. The flexible screen assembly may include a first sliding element, a second sliding element, and a flexible screen. The second sliding element is slidably connected to the first sliding element, and may be slid to a first state of being overlapped with the first sliding element, and to a second state of being unfolded with respect to the first sliding element. The flexible screen is connected to the first sliding element and the second sliding element. In the first state, a portion of the flexible screen covers the second sliding element, and another portion is received into the first sliding element or the second sliding element. In the second state, the flexible screen is unfolded on the first sliding element and the second sliding element.

Abstract: The disclosure provides a touch operation assembly, includes: a first touch sensor and a second touch sensor both configured to generate a touch signal in response to a touch, and a judging module coupled to the first and second touch sensors and configured to: judge whether the second touch sensor generates a touch signal when detecting the first touch sensor generates a touch signal, and trigger a first operation if yes; and judge whether the first touch sensor generates a touch signal when detecting the second touch sensor generates a touch signal, and trigger a second operation if yes. Through combining the first and the second touch sensor, the touch operation assembly provides different operations based on the order that the touch signals detected, more operations are expanded with a limited physical structure, which enhances user operating experiences. The disclosure further provides an electronic device and a touch operating method.

Abstract: A flexible display device includes a casing, a circuit board, a first reel, a flexible display, and a connecting line. The circuit board is received in the casing. The first reel is rotatably arranged in the casing. The flexible display is at least partially received in the casing, and the flexible display can be wound around the first reel. The circuit board and the flexible display are connected via the connecting line. The connecting line can be wound around the first reel. A junction is formed in a position where the connecting line and the flexible display are connected. When the flexible display is fully unfolded outside the casing, the connecting line is at least partially wound around the first reel from the junction. When the flexible display is folded in the casing, both the flexible display and the connecting line are wound around the first reel.

Abstract: Disclosed are a supporting structure having a variable form and an electronic device having the same. A supporting structure may include a fixing module, a tail end module, and a flexible module connecting the fixing module and the tail end module. The flexible module may include multiple chain units. The chain unit may include a support plate having a support surface and a lower surface opposite to the support surface, and a driving portion extending along from a side of the support plate away from toward the lower surface of the support plate. The chain units are hingedly connected in series. Adjacent chain units may drive the support surfaces to construct different forms through interaction between the driving portions, thereby forming the supporting structure whose form can be flexibly changed.

Abstract: An electronic system denoising device, includes: a power source, a first signal processing unit, a second signal processing unit and an isolating transformer. The power source is coupled to the first signal processing unit, and to the second signal processing unit via the isolating transformer, and supplies power to the first signal processing unit and the second signal processing unit. The first signal processing unit includes a first signal output end and a first grounded end, and the first signal output end outputs data signals to the second signal processing unit. The first grounded end is coupled to a first ground wire; the second signal processing unit includes a second grounded end coupled to a second ground wire. The electronic system denoising device, via the isolating transformer, avoids impact to the second signal processing unit from ground noise caused by the return current of the first signal processing unit.

Abstract: A thin film transistor (TFT) array substrate structure based on organic light-emitting diodes (OLEDs) may include multiple sets of TFT components, capacitors, common electrodes, and data signal lines, all of which are formed on a substrate. Each set of TFT components includes a driving TFT, and the driving TFT has a gate, a source, and a drain. A drain frame extends from the drain and surrounds a pixel block of the TFT array substrate structure, and a transparent conductive film is arranged in a region surrounded by the drain frame and is in contact with the drain frame.

Abstract: A display module and an electronic device having the display module are provided. The display module (10) includes a substrate (20) and a flexible screen (30). The substrate (20) may include a front surface (22) having a first curvature, a back surface (24) opposite to the front surface (22), and a side surface (26) located beside the front surface (22) and having a second curvature, and the second curvature is larger than the first curvature. The flexible screen (30) may include a non-display region (38) and an effective region (36b) having a light-emitting element array (31), the effective region (36) may include a main portion (36a) bonded to the front surface (22) and an edge portion (36b) bonded to the side surface (26), and the non-display region (38) at least partly extends to the back surface (24).

Abstract: An electronic device has a front surface, a rear surface opposite to the front surface, and a first lateral surface connecting the front surface and the rear surface. The electronic device includes a first spindle, the flexible screen, and a functional element. The first spindle is rotatably provided at the first lateral surface, and can be rotated between a first position and a second position. The flexible screen is bent around the first spindle and can move as the first spindle is rotated. The functional element is provided at the first spindle. At the first position, the functional element faces the first lateral surface; at the second position, the functional element faces the front surface.

Abstract: A flexible screen module includes a casing, a flexible screen, a bracket, and a support member. The casing has an opening. The first rotating shaft has an axial direction and is accommodated in the casing. The flexible screen is capable of being wound around the first rotating shaft and is capable of being unwound from the first rotating shaft and extended out of the casing through the opening. A bracket is fixed to the flexible screen and is capable of being wound around the first rotating shaft along with the flexible screen. The bracket supports the flexible screen in the axial direction. A support member is capable of being wound in the casing and is capable of being extended out of the casing along with the flexible screen, the support member has a curve memory characteristic in the axial direction.

Abstract: A display module (10) and an electronic device having the display module are provided. The display module (10) includes a substrate (20) and a flexible screen (30). The substrate (20) may include a front surface (22) having a first curvature, a back surface (24) opposite to the front surface (22), and at least two side surfaces (26, 28, 29) located beside the front surface (22) and having a second curvature, and the second curvature is larger than the first curvature. The flexible screen (30) may include at least two non-display regions (38) and an effective region (36) having a light-emitting element array (31), the effective region (36) may include a main portion (36a) bonded to the front surface (22) and at least two edge portions (36b, 36c) bonded to the side surfaces, and the at least two non-display regions (38) extend to the back surface (24).

Abstract: A button module includes an operating member, a circuit board having a pattern for detecting touch operations on the operating member, a button arranged on the circuit board, and a light guiding component further including a front side, a back side opposite to the front side, a housing defined between the front and back sides, a recess defined in the back side for hosting a light source, a through hole extending through the front side and connecting the housing to the external space, and an optical path from an inner surface of the recess to the front side. The operating member, the circuit board and the button are located in the housing with the operating member at least partially hosted in the through hole and the button abutting the light guiding component. Light from the light source located in the recess extends along the optical path to the front side.

Abstract: A flexible screen module comprises a rotating shaft, a flexible screen and a connector. The rotating shaft has an external wall and a passage extending through the rotating shaft in an axial direction thereof, and one end of the flexible screen is fixed on the external wall and is rollable around the rotating shaft. The connector comprises a body, a first connecting part which is on one end of the body and electrically connected to the flexible screen, and a second connecting part on another end of the body, wherein the body at least partially passes through the passage, and the first and the second connecting parts are located outside two sides in the axial direction of the rotating shaft.

Abstract: A flexible screen protection structure includes a first flexible plate, a second flexible plate opposite to the first flexible plate, a side plate, a number of first trapezoidal bosses, and a number of second trapezoidal bosses. A gap is formed between the first flexible plate and the second flexible plate. The side plate surrounds peripheral sides of the first flexible plate and the second flexible plate, and closes the gap. The first trapezoidal bosses are densely distributed on the first flexible plate and located in the gap. Each first trapezoidal boss includes a large end attached to the first flexible plate and a small end facing the second flexible plate. The second trapezoidal bosses are densely distributed on the second flexible plate and located in the gap. Each second trapezoidal boss includes a large end attached to the second flexible plate and a small end facing the first flexible plate.

Abstract: The present disclosure provides an electronic bag. The electronic bag includes a bag body equipped with a strap. The electronic bag further includes a display screen and a first touch panel which is configured to control the display screen to display different patterns. The display screen is arranged on an external surface of the bag body. The first touch panel is arranged on the strap. A method for controlling the electronic bag is also disclosed.

Abstract: The present invention is suitable to the field of electronic technology, and provides a method of manufacturing a thin film transistor and a pixel unit thereof, wherein when the thin film transistor is manufactured, the gate metal layer is used as a mask, and exposed from the back of the substrate to position the channel and the source and drain of the thin film transistor, so that the channel is self-aligned with the gate, and the source and drain are self-aligned with the gate and are symmetrical, and the thin film transistor thus manufactured has a small parasitic capacitance, and the circuit manufactured therewith is fast in operation, and less prone to occurring short circuit or open circuit.

Abstract: A double-sided display and a method for controlling the same are provided. The double-sided display includes a plurality of pixel units and a plurality of circuits. The pixel units are disposed on each of a front side and a back side of the double-sided display, and the pixel units on the front side are opposite to the pixel units on the back side in a one-to-one manner. A pixel unit on the front side and a pixel unit on the back side opposite to the pixel unit on the front side are controlled by an identical circuit. Each of the circuits includes a switching transistor. The switching transistor includes a first input terminal connected to a scan line, a second input terminal connected to a data line, and an output terminal connected to the opposite pixel units on the front side and the back side.

Abstract: The present invention is applicable to the field of display technologies and provides a tiled OLED display, and the tiled OLED display includes an OLED front panel and a single-structure TFT driving backplane, where a protection substrate is disposed on a light-emitting side of the OLED front panel; the OLED front panel includes multiple OLED front panel units that are tiled to each other; and the OLED front panel unit is joined to the TFT driving backplane by using conductive film. In the present invention, by tiling the OLED front panel on the TFT backplane, production efficiency and a yield rate of the display are improved, thereby reducing a cost. By tiling the OLED front panel, a tiling gap is narrowed, thereby implementing seamless tiling. Compared with a traditional structure that uses an optical lens to eliminate a tiling gap, the yield rate of the tiled display is improved.