Abstract: A device and a method for processing a waited display picture of an OLED display device are provided. The device includes a block dividing unit for dividing a waited display picture into multiple blocks; an average grayscale determining unit for determining an average grayscale value of each block; a high grayscale determining unit for determining a block having an average grayscale value greater than a preset threshold value as a high grayscale block; an adjacent grayscale determining unit for determining an adjacent grayscale value of each high grayscale block; and a regulation unit for adjusting grayscale values of pixels of each high grayscale block. The present invention adjusts grayscale values using a block as a unit. Besides, the difference of luminous efficiency or light transmittance of different color components is also considered so as to effectively improve the life of the OLED display device.

Abstract: The present disclosure discloses a pixel circuit, a display panel comprising the pixel circuit, and a display device comprising the pixel circuit. The pixel circuit comprises a first transistor, a second transistor, a third transistor, a fourth transistor, and a fifth transistor. The lifetime of the circuit can be prolonged by the pixel circuit with threshold voltage compensation function of the present disclosure. The pixel circuit can not only be used in large sized display device driven through SE mode, but also be used in medium or small sized display device driven through PE mode.

Abstract: A method for controlling an electronic apparatus, a handheld electronic apparatus, and a monitoring system are provided. An image within an image capturing range is displayed on a display unit by an image capturing unit. A digital stamp in the image is detected. The digital stamp corresponds to a single or multiple controllable devices. A control interface corresponding to the digital stamp is displayed on the image. An operation action a user executes on the control interface is detected so as to control the controllable device corresponding to the digital stamp.

Abstract: A data stream generation and transmission system is provided. The system includes a cable, a data stream generation device, and a wireless transmission device connected to the data stream generation device through the cable. The data stream generation device includes a storage component and a data stream generation module. The storage component stores wireless network configuration data. The data stream generation module generates a data stream. The wireless transmission device includes a wireless module, wherein the data stream generation device is adapted to send the wireless network configuration data and the data stream to the wireless transmission device through the cable, and the wireless transmission device is adapted to use the wireless network configuration data to configure the wireless module and use the wireless module to transmit the data stream wirelessly.

Abstract: A method of driving active-matrix organic light-emitting diode (AMOLED) panels includes: (A) dividing a current frame of a current image corresponding to an i-th color component into a plurality of sub-frames, wherein i?[1,N], and N is a total number of the color component; (B) obtaining a sequence of the sub-frames of a previous frame of a previous image corresponding to the i-th color component, wherein the previous frame has been divided into a plurality of sub-frames by the same way with the current frame; (C) determining the sequence of the sub-frames of the current frame in accordance with the sequence of the sub-frames of the previous frame, wherein the sequence of the sub-frames (SF) of the current image is same with or is different from that of the previous frame; and (D) controlling the panel to display in accordance with the sequence of the sub-frames of the current frame determined by corresponding color components.

Abstract: A method of grayscale compensation to defects on a display panel includes: (A) obtaining a set of coordination of the defect on the display panel, and determining a defect area where the defect locates based on the set of coordination; (B) obtaining a gamma curve of the defect, a gamma curve of a background of the defect area, and a standard gamma curve of the background of the display panel; (C) obtaining a standard gamma curve of the defect and a standard gamma curve of the background of the defect area; and (D) calculating a grayscale-compensation value for each grayscale of the defect, based on the standard gamma curve and the standard gamma curve of the background of the defect area. The present invention is to reduce calculation, and to achieve the best compensation to defects on a display panel.

Abstract: A method of grayscale compensation to defects on a display panel includes: (A) obtaining a set of coordination of the defect on the display panel, and determining a defect area where the defect locates based on the set of coordination; (B) obtaining a gamma curve of the defect, a gamma curve of a background of the defect area, and a standard gamma curve of the background of the display panel; (C) obtaining a standard gamma curve of the defect and a standard gamma curve of the background of the defect area; and (D) calculating a grayscale-compensation value for each grayscale of the defect, based on the standard gamma curve and the standard gamma curve of the background of the defect area. The present invention is to reduce calculation, and to achieve the best compensation to defects on a display panel.

Abstract: A naked-eye 3D liquid crystal display panel and a driving method for the same are provided. The naked-eye 3D liquid crystal display panel includes a first substrate, a second substrate disposed oppositely, and a liquid crystal layer. A side of the first substrate adjacent to the liquid crystal layer provides with a driving electrode layer. A side of the second substrate adjacent to the liquid crystal layer provides with a common electrode layer. The driving electrode layer and the common electrode layer respectively receive an AC voltage driving signal, which are the same in frequency and opposite in polarity such that the liquid crystal layer is tilted to form a 3D display. Accordingly, the voltage output requirement of the driving circuit of the 3D liquid crystal display panel 10 when displaying 3D is reduced such that the driving stability and load capacity of the driving circuit is improved.

Abstract: A naked-eye 3D liquid crystal display panel and a driving method for the same are provided. The naked-eye 3D liquid crystal display panel includes a first substrate, a second substrate disposed oppositely, and a liquid crystal layer. A side of the first substrate adjacent to the liquid crystal layer provides with a driving electrode layer. A side of the second substrate adjacent to the liquid crystal layer provides with a common electrode layer. The driving electrode layer and the common electrode layer respectively receive an AC voltage driving signal, which are the same in frequency and opposite in polarity such that the liquid crystal layer is tilted to form a 3D display. Accordingly, the voltage output requirement of the driving circuit of the 3D liquid crystal display panel 10 when displaying 3D is reduced such that the driving stability and load capacity of the driving circuit is improved.

Abstract: A partition includes at least two stands (1) spaced apart from each other, wherein each of the stands (1) includes a first panel (11), a second panel (12) corresponding to the first panel (11) and a lateral plate (13) connecting the first panel (11) and the second panel (12); at least one inner plate (3), wherein two sides of the inner plate (3) are respectively fixed to and between the two stands (1); and two outer plates (4, 5) respectively fixed to and between the first panel (11) of each stand (1) and the second panel (12) of each stand (1), wherein the two outer plates (4, 5) and the inner plate (3) form two spaces (6, 7) respectively. The inner plate 3 separates the two spaces (6, 7), so the partition is capable of performing better sound insulation effects and is more convenient to be assembled.

Abstract: A motion detection device is provided. The motion detection device includes a first image recording unit, a first storage unit, a motion detection unit, a depth calculation unit, and a determination unit. The first image recording unit is configured to record a first video. The first storage unit is configured to store the first video. The motion detection unit is configured to detect a moving object in the first video. The depth calculation unit is configured to calculate a depth of the moving object. The determination unit is configured to determine whether or not the moving object is a concerned event according to the depth of the moving object.

Abstract: An electrophoretic display apparatus and an image-updating method thereof are provided. The electrophoretic display apparatus comprises a display panel and a source driver. The display panel comprises a plurality of pixels and a plurality of source lines, and each pixel electrode is electrically coupled to an AC common voltage through a corresponding capacitor. The capacitor comprises a plurality of charged particles. The source driver comprises a first data-latching circuit and a second data-latching circuit. Each of the data-latching circuits comprises a transistor, a capacitor and an inverter. The first data-latching circuit receives image data and a data shift-register output pulse. The second data-latching circuit is electrically coupled between an output terminal of the first data-latching circuit and a source line and is used for receiving a data output pulse.

Abstract: An electrophoretic display system includes an electrophoretic display panel, a timing controller, a data driver, and a gate driver. The data driver includes a first serial-to-parallel converter and a data converter. The first serial-to-parallel converter receives a plurality of first series data and converts the first series data into a plurality of second series data. The quantity of the second series data is more than the quantity of the first series data. The data converter receives the second series data and is electrically connected to the electrophoretic display panel. Besides, the data converter converts the second series data into display voltages, and the quantity of the display voltages is more than the quantity of the second series data. The gate driver is electrically connected to the electrophoretic display panel and the timing controller and controlled by the timing controller to provide gate driving voltages to the electrophoretic display panel.

Abstract: The present disclosure provides a scan driving circuit of a liquid crystal display (LCD) panel, the LCD panel, and a driving method of the LCD panel. The scan driving circuit of the LCD panel includes a plurality of driving assemblies that are successively cascaded. Each of the driving assemblies includes a first driving unit, a second driving unit, and a first controllable switch. The first driving unit includes a first pull-up control unit, a first pull-up switch, a first pull-down control unit, and a first pull-down switch. A pre-charge signal is input to an input end of the first pull-up control unit, a reference low level signal is input to an output end of the first pull-up control unit via the first pull-down control unit, and the output end of the first pull-up control unit is also coupled to a control end of the first pull-up switch. A first scanning clock signal is input to an input end of the first pull-up switch.

Abstract: The present invention relates to a gate driving circuit, and a array substrate and a display using the same.

Abstract: A shoe structure includes a shoe body knitted from at least one yarn in unitary structure with only one opening for receiving a foot of a wear therein. The shoe body includes an upper section, a sole section, and a rear section connected by knitting without any sewing portion when the shoe body is formed. The upper section corresponds to fore and lateral portions of the foot. The sole section supports a sole portion of the foot. The rear section corresponds to a heel portion of the foot, wherein the shoe body consists of multiple courses and wales formed by the at least one yarn. The wales in the upper section extend along a direction perpendicular to a receiving direction of the opening into the shoe body.

Abstract: The present invention relates to a gate driving circuit, and a array substrate and a display using the same.

Abstract: The present invention relates to a gate driving circuit, and an array substrate and a display panel thereof, wherein gate driving circuit includes multi-level gate driving units. A gate driving unit of each level comprises a starting unit, an energy storage unit, a pull-up unit, a first pull-down unit, a second pull-down unit and a third pull-down unit, wherein the second pull-down unit is coupled to the energy storage unit and a gate line, and configured to intermittently generate a second control signal based on a driving voltage, a clock pulse signal and a second reference voltage, and to pull the driving voltage and a gate signal on the gate line down to the second reference voltage.

Abstract: A data stream generation and transmission system is provided. The system includes a cable, a data stream generation device, and a wireless transmission device connected to the data stream generation device through the cable. The data stream generation device includes a storage component and a data stream generation module. The storage component stores wireless network configuration data. The data stream generation module generates a data stream. The wireless transmission device includes a wireless module, wherein the data stream generation device is adapted to send the wireless network configuration data and the data stream to the wireless transmission device through the cable, and the wireless transmission device is adapted to use the wireless network configuration data to configure the wireless module and use the wireless module to transmit the data stream wirelessly.