Abstract: A display device is provided, in which operation characteristics of an internal compensation pixel are applied to a degradation compensation modeling to achieve accurate degradation compensation. The display device can include a display panel including an internal compensation pixel, a data driver configured to apply a data voltage to the display panel, and a controller configured to compensate for image data based on a degradation compensation modeling. The degradation compensation modeling includes a degradation compensation modeling representing operation characteristics of the internal compensation pixel during a light-emission period, and a degradation compensation modeling representing operation characteristics of the internal compensation pixel during a sensing period. The compensated image data is provided to the data driver.

Abstract: A display device can include a display panel including a plurality of pixels, a data driver configured to apply a reference data voltage to the display panel in a sensing mode, a current sensor configured to, in the sensing mode, lower a high potential driving voltage supplied to the display panel, sense a driving current of the display panel while the reference data voltage and the lowered driving voltage are applied and convert the sensed driving current into sensing data. Additionally, the display device includes a controller configured to calculate a compensation factor based on the sensing data. Further, in a display mode, the compensation factor is used to compensate image data. In addition, provided is a method for compensating for degradation of a display device.

Abstract: A light emitting display panel and a device light emitting display device including the same including a substrate, a thin film transistor disposed on the substrate layer and comprising a first active layer a first gate electrode and the first electrode pattern, a first insulating layer disposed on the thin film transistor, a conductive pattern disposed on the first insulation layer, a second insulating layer disposed on the conductive pattern, a first electrode disposed on the second insulating film, and contacted to the first electrode pattern, and a bank exposing a portion of the top surface of the first electrode, wherein the first electrode and the conducting pattern is used as an electrode of storage capacitor and the conducting pattern is overlapped with a top surface of the first electrode not overlapped with the bank.

Abstract: A method including identifying the operation mode of the electronic device as a first operation mode, sensing a change of setting corresponding to the first operation mode, determining whether to update setting information about the setting, based on at least one of a changing pattern or a change history of a user, and when the operation mode is identified later as the first operation mode, providing the user with the first operation mode with the plurality of updated settings including the setting information about the updated setting is provided.

Abstract: A light emitting display panel and a device light emitting display device including the same including a substrate, a thin film transistor disposed on the substrate layer and comprising a first active layer a first gate electrode and the first electrode pattern, a first insulating layer disposed on the thin film transistor, a conductive pattern disposed on the first insulation layer, a second insulating layer disposed on the conductive pattern, a first electrode disposed on the second insulating film, and contacted to the first electrode pattern, and a bank exposing a portion of the top surface of the first electrode, wherein the first electrode and the conducting pattern is used as an electrode of storage capacitor and the conducting pattern is overlapped with a top surface of the first electrode not overlapped with the bank.

Abstract: A display device comprises: a pixel array including pixels connected to gate lines; a gate driver that sequentially supplies scan signals to the gate lines by using a plurality of stages connected in cascade; and a driving voltage generator that supplies first and second driving voltages to the gate driver and inverts the first and second driving voltages of opposite phases at given intervals, wherein an nth stage (n is a natural number), among the stages of the gate driver, comprises: a start controller that charges a Q1 node in a period when an (n?1)th scan signal and a first clock signal are synchronized, and charges a Q1B node in a period when an (n?1)th carry signal, opposite in phase to the (n?1)th scan signal, and the first clock signal are synchronized; a first node controller that charges a Q2 node or a Q2B node in response to a voltage at the Q1 node; a first output control transistor that outputs an nth scan signal through a Q node in response to a voltage at the Q2 node; and a second output contro

Abstract: Disclosed herein is an adhering structure of different materials. The adhering structure can be used for integrally adhering a non-ferrous metal plate and a steel metal plate to each other. A tubular element is configured to penetrate through an adhesion hole of the non-ferrous metal plate and to support a surface of the steel metal plate. A welding part is formed in an internal hollow of the tubular element and includes an inner surface portion of the tubular element and forms a surface portion of the steel metal plate. The welding part is formed from a material that provides a molten pool of a filler metal during a welding process.

Abstract: A display device comprises: a pixel array including pixels connected to gate lines; a gate driver that sequentially supplies scan signals to the gate lines by using a plurality of stages connected in cascade; and a driving voltage generator that supplies first and second driving voltages to the gate driver and inverts the first and second driving voltages of opposite phases at given intervals, wherein an nth stage (n is a natural number), among the stages of the gate driver, comprises: a start controller that charges a Q1 node in a period when an (n?1)th scan signal and a first clock signal are synchronized, and charges a Q1B node in a period when an (n?1)th carry signal, opposite in phase to the (n?1)th scan signal, and the first clock signal are synchronized; a first node controller that charges a Q2 node or a Q2B node in response to a voltage at the Q1 node; a first output control transistor that outputs an nth scan signal through a Q node in response to a voltage at the Q2 node; and a second output contro

Abstract: The present application describes a method of inhibiting tumor growth including contacting the tumor with a compound that inhibits activity of RhoJ protein.