Abstract: Brightness irregularities that develop in a light emitting device due to is persion among pixels in the threshold values of TFTs used for supplying electric current to light emitting devices become obstacles to improved image quality of the light emitting device. As an image signal input to a pixel from a source signal line, a desired electric potential is applied to a gate electrode of a TFT for supplying electric current to an EL device, through a TFT having its gate and drain connected to each other. A voltage equal to the TFT threshold value is produced between the source and the drain of the TFT 105. An electric potential in which the image signal is offset by the amount of the threshold value is therefore applied to the gate electrode of the TFT. Further, TFTs are disposed in close proximity to each other within the pixel, so that dispersions in the TFT characteristics do not easily develop.

Abstract: The image display system forms an image by scanning with light from a light source of a luminaire. The image display system includes: an input unit configured to receive an image signal indicative of an instruction value of luminance of the light source; and a control unit configured to determine a target value of luminance of the light source based on the instruction value indicated by the image signal received by the input unit. The control unit is configured to perform an adjusting process of setting the target value to an adjusted value different from the instruction value when allowing the light source to emit light based on the image signal.

Abstract: A display device that can display an image along a curved surface is provided. In the display device, a first display panel and a second display panel overlap each other with a light-transmitting layer provided therebetween. The light-transmitting layer is positioned on a display surface side of the first display panel, and on a side opposite to the display surface of the second display panel. The light-transmitting layer has an average transmittance of 80% or more with respect to light in the wavelength range of 450 nm to 700 nm and a refractive index higher than that of air. A display region of the first display panel overlaps a region transmitting visible light of the second display panel with the light-transmitting layer provided therebetween. It is preferred that the display region of the first display panel not overlap with a region blocking visible light of the second display panel.

Abstract: The purpose of the invention is to realize the flexible display device of high reliability; specifically in a structure that a bending area is in a terminal area, and in that disconnection of the wiring does not occur in the bending area. The concrete structure is that: a display device having a display area, a driving circuit area and a bending area comprising: a first thin film transistor and a first interlayer insulating film are formed in the display area, a second thin film transistor and a second interlayer insulating film are formed in the driving circuit area, terminal wirings to connects the display area and the driving circuit area are formed in the bending area.

Abstract: An organic light-emitting diode display may have rounded corners. A negative power supply path may be used to distribute a negative voltage to a cathode layer, while a positive power supply path may be used to distribute a positive power supply voltage to each pixel in the display. The positive power supply path may have a cutout that is occupied by the negative power supply path to decrease resistance of the negative power supply path in a rounded corner of the display. To mitigate reflections caused by the positive power supply path being formed over tightly spaced data lines, the positive power supply path may be omitted in a rounded corner of the display, a shielding layer may be formed over the positive power supply path in the rounded corner, or non-linear gate lines may be formed over the positive power supply path.

Abstract: According to one embodiment, the touch drive device includes a plurality of drive electrodes arranged side by side to extend in a single direction, a detection electrode which extends in a direction crossing the direction in which the drive electrodes extend, and generates capacitances at intersections of the detection electrode and the drive electrodes, and a driver (DDI) which groups the drive electrodes into a plurality of drive electrode portions each including at least one drive electrode, and performs a touch scanning drive by supplying a touch drive signal (TSVCOM) having a pulse waveform for detection of a closely situated external object to a target drive electrode portion which is a selected one of the drive electrode portions. The number of the drive electrodes included in each of the drive electrode portions and the target drive electrode portion to which the touch drive signal. (TSVCOM) is supplied can be designated.

Abstract: An intelligent, self-learning display uses knowledgebase rules to determine how to deform its flexible, touch-sensitive upper surface into a three-dimensional representation of displayed content. The upper surface is deformed by selectively inflating balloons, pistons, or other devices embedded into a lower layer of the display, such that the inflated devices exert upward pressure on specific regions of the surface. The flexible upper surface consists of two sublayers that each contain a grid of small strips. The two grids are skewed such that the lower-sublayer strips fill in otherwise-visible gaps between upper-sublayer strips during a deformation. A user may use tactile feedback to adjust characteristics of the deformation, such as the deformation's height. A machine-learning mechanism records user adjustments in a corpus that is then used to train the display to more accurately deform its surface when representing three-dimensional content.

Abstract: A display has rows and columns of pixels (22). A data line (Dn) in each column provides image data signals to the pixels of that column. Each row has first and second control lines (select[m], monitor[m]) coupled to the gates of first and second respective transistors (SE, MO) in each pixel. A third transistor in each pixel serves as a drive transistor (DR) and is coupled in series with a light-emitting diode (30) between positive and ground power supply voltages (VDD, VSS). A display driver circuitry in the display characterizes each of the light-emitting diodes in a column using the data line in an adjacent column from that light-emitting diode. Each of the drive transistors in a column is characterized using the data line in that column and the data line in an adjacent column.

Abstract: A drive circuit, a drive method of the drive circuit and a display device are provided. The drive circuit includes a signal output module, a first level signal output end; and a plurality of switch modules. The signal output module includes N output ends for outputting a gate drive signal step by step to N scan lines. The switch modules each correspond to one of the scan lines. A control end of the i-th switch module is electrically connected with the i?1th scan line. A first connecting end is electrically connected with the corresponding i-th scan line. A second connecting end is electrically connected with the first level signal output end. Wherein, N is a positive integer, and i is a positive integer greater or less or equal to N.

Abstract: The embodiments of the present disclosure disclose an electroluminescent device, a display device and a manufacturing method thereof. The electroluminescent device comprises: a substrate; a micro light emitting diode unit, configured to emit light of a first color in a first direction; and an organic light emitting diode unit, configured to emit light of a second color in the first direction, wherein the micro light emitting diode unit and the organic light emitting diode unit are disposed on the substrate in a stack, such that light of the first color and light of the second color are mixed to generate mixed light, and the first direction is a direction towards the substrate or a direction away from the substrate.

Abstract: A flexible display device and a method of driving a flexible display device, in which the method of driving the flexible display device includes detecting a capacitance change with respect to at least some coordinates of a display area, determining whether bending is occurring through the detected capacitance change, and setting a driving mode in response to a result of the step of determining whether bending is occurring. The driving mode is converted into a bending mode when it is determined that bending is occurring, and the driving mode is set into a force touch mode when it is determined that bending is not occurring.

Abstract: Display device comprising a first radio interface which is connected to a processing stage of the display device for communication with a base station according to a first communication protocol for the purpose of controlling states of the processing stage and an additional interface which is connected to the processing stage for contactless communication according to a second communication protocol with a communication device which is different from the base station for the purpose of controlling states of the display device.

Abstract: A gate driving circuit comprising stages cascade-connected with each other and configured to output gate signals, a stage of the stages including a pull-up circuit configured to output a high voltage of a clock signal as a high voltage of a gate signal in response to a bootstrap voltage of a control node in a period of a frame period, a first discharging circuit configured to discharge a voltage of the control node to a first low voltage in response to a carry signal of at least one stage of the plurality of stages that is subsequent to the stage, and a second discharging circuit configured to discharge a voltage of the control node to a second low voltage being lower than the first low voltage in response to a carry signal of at least one stage of the plurality of stages that is subsequent to the stage.

Abstract: Methods, systems, and media for enhancing one or more publications by receiving live video captured by a user, the live video comprising video of a publication, the publication comprising copyrighted content; identifying at least one first trigger in the live video, identifying one or more first three-dimensional, interactive media associated with the at least one first trigger and pertaining to the copyrighted content, and presenting to the user the first three-dimensional, interactive media; and identifying at least one second trigger in the first three-dimensional, interactive media, identifying one or more second three-dimensional, interactive media associated with the at least one second trigger and pertaining to the copyrighted content, and presenting to the user the second three-dimensional, interactive media to progressively deepen and enrich the engagement with the copyrighted content of the publication.

Abstract: The disclosure provides a display panel, a method for making the display panel, and a method for controlling the display panel. The display panel comprises: multiple gate lines and multiple data line crossing the multiple gate lines to form multiple pixel regions; multiple pixel electrodes in the multiple pixel regions; multiple first thin film transistors in the multiple pixel regions, the gates of the multiple first thin film transistors are connected to the gate lines, and the sources and the drains are connected to the data lines and the pixel electrodes respectively; and a second thin film transistor between and connecting two adjacent pixel electrodes, wherein the second thin film transistor is in a non-conducting state when the display panel is under normal operation, and the second thin film transistor is in a conducting state when the display panel is under a power failure condition.

Abstract: A display module comprises a circuit board having a front face, a plurality of light-emitting elements electrically coupled to the front face of the circuit board, a polymer encapsulating member adhered to the front face of the circuit board, the polymer encapsulating member substantially covering at least a portion of the circuit board and a portion of the plurality of light-emitting elements, the polymer encapsulating member substantially sealing the portion of the circuit board and the portion of the plurality of light-emitting elements, and an ultraviolet-radiation diminishing component in the polymer encapsulating member or on one or more of at least a portion of the circuit board or at least a portion of each of the light-emitting elements, wherein the ultraviolet-radiation diminishing component filters, blocks, or reflects more ultraviolet radiation than would be filtered, blocked, or reflected by the polymer encapsulating member without the ultraviolet-radiation diminishing component.

Abstract: A rollable display device includes a display panel, a roller, a heat-dissipating member, a source circuit board, and a control circuit board. The display panel has the flexible characteristic. The roller winds or unwinds the display panel. The heat-dissipating member is coupled with the display panel to be received inside the roller. The source circuit board is electrically connected to the display panel, and the source circuit board is disposed on the heat-dissipating member to be received inside the roller. The control circuit board is electrically connected to the source circuit board to provide a control signal to the source circuit board side, and the control circuit board is disposed on the heat-dissipating member to be received inside the roller.

Abstract: An organic light emitting display device that includes: a pixel unit that displays an image by receiving a data signal, a scan signal, a first pixel power, and a second pixel power; a regulator that receives first input voltage from the outside and boosts the received first input voltage to generate the first pixel power and inverts the received first input voltage to generate second pixel power; a driver driving unit that includes a power generator and a signal generator generating the data signal and the scan signal. Further, a switching unit that selectively connects the pixel unit with the regulator or the pixel unit with the driver driving unit; and a control unit that transmits the first pixel power and the second pixel power generated by the regulator or the driver driving unit to the pixel unit.

Abstract: A circuit and method for detecting pixel potential of a display panel and a display panel is provided. The circuit comprises a multiplexed output selector, at least one detection circuit and at least one signal amplifier. The detection circuit comprises a first TFT receiving a test signal and being connected to the multiplexed output selector. The multiplexed output selector is configured to selectively conduct the first data line, which is connected to a currently-detected sub-pixel unit, to the first TFT in accordance with a reverse clock signal to transmit a pixel potential signal of the currently-detected sub-pixel unit to the first TFT to control the first TFT to transmit the test signal to the signal amplifier. The signal amplifier is configured to receive and amplify the test signal to obtain and output a received signal. The present disclosure is able of measuring real pixel potential of the display panel.

Abstract: A display device includes a display part; a driving part; and a display control part, the display control part being configured to provide a transition period between first and second driving periods in switching from the first driving period to the second driving period, the first driving period allowing the display part to be driven at a first frame frequency, the second driving period allowing the display part to be driven at a second frame frequency, the transition period including a period where the display part is driven at at least one frame frequency with a value between the first and second frame frequencies, the transition period including positive and negative periods that last for different total durations, the positive period allowing the display part to be driven at a positive voltage, the negative period allowing the display part to be driven at a negative voltage.

Abstract: A display device that performs image correction in accordance with external light environment is provided. The display device includes a host device and an optical sensor. In addition, the display device includes a processing circuit. The host device has a function of performing arithmetic processing using a neural network on software and a function of performing supervised learning with the neural network. The processing circuit has a function of performing arithmetic processing using a neural network on hardware. The optical sensor has a function of obtaining illuminance of external light. The obtained illuminance of external light is inputted to the host device, and a luminance and color tone preferred by users are regarded as teacher data, whereby learning is performed on the neural network of the host device. A weight coefficient obtained through the learning is used as a weight coefficient of the neural network of the processing circuit.

Abstract: The display device includes a display panel, gate line driving circuitry that includes gate drivers provided for each of gate lines, a control circuit, and a signal processing circuit. The control circuit supplies a control signal to at least one gate driver corresponding to a gate line to be scanned first in a unit period in which the gate lines are scanned. The gate driver which received the control signal is driven on the basis of the control signal, and the gate drivers in subsequent stages are each driven on the basis of a scanning signal of the gate driver in a preceding stage. The signal processing circuit outputs, on the basis of a scanning signal of at least one gate driver corresponding to a gate line to be scanned last in the unit period and the control signal, a detection signal that indicates whether the gate driver is normal.

Abstract: A video decoding device includes a demultiplexer which demultiplexes Supplemental-Enhancement-Information having information indicating segments where a refresh has completed in a current picture, the segments including an intra-encoded-segment in the current picture, and a video bitstream including video data of an encoded slice; an extractor which extracts the information from a message which is part of the demultiplexed Supplemental-Enhancement-Information; and a video decoder which decodes image data from the demultiplexed video bitstream.

Abstract: A display includes a plurality of pixels and a drive circuit. The plurality of pixels are disposed in a two-dimensional fashion, and each include one or more light emitting devices. The drive circuit drives the plurality of pixels to emit light in a time-division manner. The plurality of pixels have a plurality of groups of two or more pixels as respective light emitting units. The pixels in each of the groups emit the light within a frame period in a predetermined light emitting sequence. The plurality of light emitting units include two or more types of light emitting units in which the light emitting sequences differ from one another.

Abstract: A two-panel display device includes first source driver ICs arranged at one side of a first display area, supplying a first data voltage, second source driver ICs arranged at one side of a second display area arranged to adjoin the first display area, supplying a second data voltage, and at least one or more read out ICs arranged between the first display area and the second display area, being supplied with sensing voltages sensed in the first and second display areas, wherein the first source driver ICs are arranged in a direction opposite to the read out ICs with the first display area interposed therebetween, and the second source driver ICs are arranged in a direction opposite to the read out ICs with the second display area interposed therebetween.

Abstract: A method of displaying an image by using a display device. The method includes: grouping pixels included in a display unit into pixel blocks, generating a first accumulated stress map representing a degree of a deteriorated performance of the pixels included in the pixel blocks based on first image data of a current frame image, and determining a shiftable range of the current frame image by analyzing the first accumulated stress map. The first image data is corrected to second image data in which the current frame image is shifted within the shiftable range.

Abstract: Cooling of an electronic device that includes a first portion and a second portion is provided. The first portion and the second portion are rotatable relative to each other. A first sensor measures a first temperature at a first location within or on the electronic device continuously or intermittently. A second sensor measures a second temperature at a second location within or on the electronic device continuously or intermittently. A processor identifies a first state of the electronic device or a second state of the electronic device. The processor controls operation of the electronic device based on the first measured temperature and the second measured temperature when the electronic device is in the identified first state and controls the operation of the electronic device based on the first measured temperatures but not based on the second measured temperatures when the electronic device is in the identified second state.

Abstract: A driver includes: an interface unit that receives image data; an error detection unit that performs error detection on the received image data; and a drive circuit that drives an electro-optical panel based on the image data. The driver outputs a result of the error detection to an external device.

Abstract: A laser beam scanning (“LBS”) display device is configured with an optical system that includes a laser beam emitter configured to emit a laser beam. The optical system also includes a driver configured to generate a driving signal for controlling a mirror, such as a microelectromechanical systems (“MEMS”) mirror. The optical system also includes an output limiter configured to limit an amplitude of the driving signal provided to the mirror to a bounded range. The output limiter might be implemented as hardware, software, or a combination of hardware and software.

Abstract: The present disclosure provides a method of driving a display panel, a driving circuit, a display panel, and a display device. The method comprises: when a scene change is detected, determining whether a time when the scene change occurs is in a process of scanning a frame of display screen of a first scene; and if so, controlling a gate driving circuit to re-scan respective gate lines on the display panel sequentially, and controlling a source driving circuit to input display signals of a second scene to respective pixels connected to the respective gate lines, the second scene being different from the first scene.

Abstract: A system and method for reducing performance penalties of a host that is supplying a host memory buffer (HMB) for use by a storage device. The method may include modeling desired HMB access timing by the storage device in an initial offline analysis for multiple classes of workloads, periodically updating the access timing data stored in the storage device based on actual use and using the current HMB access timing information to modify storage device access to the HMB on the host. The system may include a storage device controller that quantifies different HMB access timing for different host workloads based on individual HMB regions.

Abstract: A control device is disclosed, the control device configured to control a display module and comprising a judgment module and a storage module, wherein the judgment module is configured to receive a reference voltage and to receive a supply voltage of the display module, and is configured to judge whether the display module is supplied with power or not according to the reference voltage and the supply voltage; and the storage module is connected with the judgment module and is connected with a display screen of the display module, the storage module is configured to store a preset image, and where the display module is supplied with power, the storage module transmits the preset image to the display screen so that the display screen displays the preset image. A control method and a display device are also disclosed.

Abstract: Disclosed are methods, assemblies and devices useful for identifying the location and/or motion of a mobile device in a specified area, for assisting in mapping a specified area and also to methods, assemblies and devices for determining a location of anchors found at fixed locations in a specified area.

Abstract: A display panel includes a substrate, a pixel structure, a receiver antenna structure and a transmitter antenna structure. The pixel structure includes multiple pixels arranged in an array. The receiver antenna structure provides first signals to the pixels, and includes multiple receiver antennas. The transmitter antenna structure transmits wireless signals to the receiver antenna structure such that the receiver antenna structure generates the first signals, and includes multiple transmitter antennas. Each transmitter antenna one-to-one corresponds to one receiver antenna. The transmitter and receiver antenna structures may be disposed on different sides of the substrate, and each receiver antenna may have a corresponding hole formed on the substrate for filling a ferrite structure to enhance transmission efficiency thereof.

Abstract: A brightness compensation method for a display apparatus, and a display apparatus are disclosed. The brightness compensation method includes: for each row of display units, turning on the row S times during a display time of one frame; inputting, to each display unit in the row a pixel data signal of the frame corresponding to the display unit, when the row is turned on for the i-th time; inputting, to a to-be-compensated display unit in the row, a compensation signal, and controlling other display unit than the to-be-compensated display unit in the row to present black, when the row is turned on for each time other than the i-th time; wherein both S and i are integers, S?2, 1?i?S; for every two adjacent rows of display units, a time interval of same turning-ons of the latter and the former is the same.

Abstract: A backup power circuit is provided. The backup power circuit includes a backup power branch array that includes N backup power branches that are coupled in parallel; and each backup power branch include a capacitor component and a unilateral conductive element, where the unilateral conductive element is configured to cut off a current path between capacitor components in the N backup power branches that are coupled in parallel, so that when some backup power branches are short-circuited, it can be ensured that backup power functions of other backup power branches are not affected, and backup power effects of the backup power branches are improved.

Abstract: According to one or more embodiments of the present invention, an image processing system includes a cross-point synapse array that includes multiple row wires, multiple column wires, and multiple cross-point devices, a cross-point device at each intersection of the row wires and the column wires. The image processing system further includes an image sensor array that includes multiple pixel unit circuits, each pixel unit circuit is connected to a corresponding row wire of the cross-point synapse array, wherein the pixel unit circuit generates a voltage output based on an input light. The image processing system further includes a pixel unit controller that adjusts an exposure time of the pixel unit circuits based on voltage outputs from the pixel unit circuits respectively.

Abstract: The present disclosure relates to a display device and a driving method of a display device. In one embodiment, the display device includes: a display panel having a plane area and at least one curved area outside of the plane area; a timing controller; and a data driver. The timing controller includes: an image analyzer which analyzes a portion of the image signal corresponding to the at least one curved area and a luminance controller which controls the portion of the image signal corresponding to the at least one curved area to increase a luminance of the at least one curved area. The luminance of the at least one curved area may be increased based on the viewing angle to increase the luminance uniformity of the display panel, thereby minimizing the deterioration of the image quality due to the curved area.

Abstract: A color complementation method for a WOLED display device includes: determining at least two target output brightnesses; measuring and adjusting the WOLED display device by using the at least two target output brightnesses, respectively, to obtain data to be used; wherein the measuring and adjusting includes: allowing an output brightnesses of the WOLED display device to be same as each of the target output brightnesses, and adjusting output brightnesses of sub-pixels and obtaining the output brightnesses of the sub-pixels at a preset chromaticity coordinate as color complementation brightnesses of the sub-pixels; generating, according to the data to be used, correlations between the output brightnesses of the WOLED display device and the color complementation brightnesses of the sub-pixels; according to the correlations, performing color complementation of the WOLED display device.

Abstract: A display device including a display panel including a plurality of pixels connected to a plurality of data lines and a plurality of gate lines crossing the plurality of data lines; a data driver comprising a plurality of terminals in contact with a plurality of pads on the display panel through a conductive adhesive member and configured to detect a resistance value of the plurality of terminals; and a timing controller configured to transfer the resistance value to an external controller.

Abstract: A source driver includes a buffer unit including a plurality of unit buffers corresponding to a plurality of source lines, where each of the plurality of unit buffers includes a plurality of input terminals and an output terminal connected to at least one of the plurality of source lines, and a decoder unit configured to receive image data and a plurality of gamma voltages, and input at least one of the plurality of gamma voltages to the plurality of input terminals of each of the plurality of unit buffers, using the image data. The decoder unit inputs two or more of the gamma voltages, having different magnitudes, to the plurality of input terminals of each of first unit buffers among the plurality of unit buffers, and the first unit buffers output a gradation voltage higher than a first voltage and lower than a second voltage.

Abstract: A rollable display device includes a rollable display and a first protection film disposed on a first surface of the rollable display. The first protection film extends beyond a first display edge of the rollable display. The rollable display device further includes a second protection film disposed on a second surface of the rollable display facing the first surface of the rollable display. The second protection film extends beyond the first display edge of the rollable display. The rollable display device additionally includes a first adhesive layer disposed between the rollable display and the first protection film. The rollable display device further includes second adhesive layer disposed between the rollable display and the second protection film, and a first adhesion part disposed adjacent to the first display edge of the rollable display and between the first protection film and the second protection film.

Abstract: A liquid crystal device (LCD) includes from the viewing side: a first electrode layer; a viewing side first liquid crystal (LC) alignment layer; an LC layer; a non-viewing side second LC alignment layer; and a second electrode layer; wherein one of the electrode layers is a common electrode layer and the other of the electrode layers is a segmented electrode layer, and at least one of the first and second LC alignment layers is a bistable alignment layer that is switchable between a first alignment state and a second alignment state. The LCD is operated by applying a first voltage pulse to the segmented electrode layer and applying a second voltage pulse to the common electrode layer (Vcom pulse), the first and second voltage pulses combining to form a resultant voltage pulse. The bistable alignment layer switches from the first alignment state to the second alignment state when a magnitude of the resultant voltage pulse exceeds a switching voltage threshold.

Abstract: The present invention discloses a driving system of a display screen and a driving method thereof, the driving system includes: a temperature detecting circuit, for detecting a temperature of a display area of a display screen; a compensation calculation circuit, coupled to the temperature detection circuit, for calculating a compensation control signal of a display voltage of the temperature; and a data driving circuit, coupled to the compensation calculation circuit, for generating a display voltage signal matching the display voltage compensation control signal and transmitting to the display screen. By the driving system, the brightness of the display screen changed with the temperature can be avoided effectively, and the display quality is ensured.

Abstract: Disclosed are a gate driving circuit of an irregular screen panel and a driving method. The gate driving circuit comprises: a first array substrate row driving circuit driving a scan line, which extends from the left side of the notch area to the notch area; a second array substrate row driving circuit driving a scan line, which extends from the right side of the notch area to the notch area; a third array substrate row driving circuit driving a scan line, which extends from the left side of the non-notch area to a right side thereof, and a scan line driven by a fourth array substrate row driving circuit is between adjacent scan lines driven by the third array substrate row driving circuit; the fourth array substrate row driving circuit driving a scan line, which extends from the right side of the non-notch area to the left side thereof.

Abstract: A non-transitory computer-readable recording medium stores therein a visualization program that causes a computer to execute a process including: generating a plurality of conversion vectors, from a plurality of vectors generated from plural pieces of input data, by a dimensional compression in a positional relation between the plurality of vectors; and plotting the plurality of conversion vectors.

Abstract: A liquid crystal display according to an exemplary embodiment of the present invention includes a substrate, a plurality of pixels arranged in a matrix on the substrate where each pixel includes a switching element, a plurality of gate lines that are connected to the switching elements and extend in a row direction, and a gate driver that is connected to the gate lines and is formed on the substrate as an integrated circuit. In the liquid crystal display, the gate driver includes a first region and a second region that is not aligned with the first region.

Abstract: A display of an electric device includes a plurality of separated transparent electrode blocks, which are configured to provide one or more of supplemental features such as touch recognition. Signal paths between the transparent electrode blocks and the driver for the supplemental feature are implemented with a plurality of conductive lines placed under one or more planarization layers. The conductive lines implementing the signal paths are routed across the display area, directly toward a non-display area where drive-integrated circuits are located.

Abstract: The present disclosure relates to an OLED display panel and an OLED display device in which a GIP driving circuit is arranged in an active area in order to minimize a bezel size and a GIP signal is applied to the GIP driving circuit arranged in the active area using a single-sided COF, and the OLED display panel includes: an active area including data lines, scan lines intersecting the data lines, and sub-pixels arranged at each intersection; stages of a GIP driving circuit distributed and arranged in a plurality of unit pixel regions corresponding to the scan lines in the active area to supply scan pulses to the scan lines; and a non-active area including a pad part, a link part and a LOG part, wherein the pad part includes a gate pad part for supplying various control signals to the stages of the GIP driving circuit, and a data pad part for supplying a data voltage to each data line, and wherein the non-active area includes a plurality of signal lines extended from the gate pad part via the link part to the

Abstract: The present disclosure provides a display panel and a display device. The display panel has a display area and an information notification area. The display panel includes: a first organic light-emitting device arranged in the display area; a pixel driving circuit arranged in the display area, and the pixel driving circuit is configured to receive a first power voltage; and at least one second organic light-emitting device arranged in the information notification area. Each of the at least one second organic light-emitting device is electrically connected to a control circuit, and the control circuit is configured to receive a second power voltage. The second power voltage is less than the first power voltage.