A window system for use in a vehicle is disclosed. The window system may include a first layer electrically controlled to fade between states including an opaque state and a transparent state. The window system may include a second layer electrically controlled to display visual imagery on the window, where the first layer and second layer are configured to derive at least a portion of energy for their operation from a solar light source.

A window system for use in a vehicle is disclosed. The window system may include a first layer electrically controlled to fade between states including an opaque state and a transparent state. The window system may include a second layer electrically controlled to display visual imagery on the window, where the first layer and second layer are configured to derive at least a portion of energy for their operation from a solar light source.

A display apparatus includes a substrate; a lower conductive layer including a protective pattern and an auxiliary conductive pattern on the substrate; a buffer layer on the lower conductive layer; an active pattern on the buffer layer and overlapping the protective pattern; a first insulation layer on the active pattern; and a first conductive layer on the first insulation layer, the first conductive layer including a gate electrode overlapping the active pattern and a load matching line overlapping the auxiliary conductive pattern.

The present disclosure relates to a display apparatus. The display apparatus includes a case, a display panel mounted on the case, a sensor device disposed inside the case, and a decoration bezel detachably mounted on the case, wherein the sensor device includes a sensor bracket fixed to the case, and a sensor module movably mounted on the sensor bracket.

A display device includes a display module including in order along a first direction: a first non-folding area, a folding area at which the display device is foldable, and a second non-folding area, a first supporter on which the first non-folding area is disposed, a second supporter on which the second non-folding area is disposed, a first adhesive between the first non-folding area and the first supporter, and a second adhesive between the second non-folding area and the second supporter. Within the folding area, a first distance along the first direction between, the first adhesive and the second adhesive, is both: greater than a second distance along the first direction, between the first supporter and the second supporter, and smaller than a length of the folding area, along the first direction.

A display apparatus includes a substrate; a lower conductive layer including a protective pattern and an auxiliary conductive pattern on the substrate; a buffer layer on the lower conductive layer; an active pattern on the buffer layer and overlapping the protective pattern; a first insulation layer on the active pattern; and a first conductive layer on the first insulation layer, the first conductive layer including a gate electrode overlapping the active pattern and a load matching line overlapping the auxiliary conductive pattern.

The present invention relates to a display device and a method of controlling therefor. According to one embodiment of the present invention, a display device includes a memory configured to store at least one or more contents, at least one or more sensors, a network interface module configured to communicate with at least one or more lights, a display module configured to output the at least one or more contents stored in the memory, and a controller coupled with the memory, the sensor, the network interface module and the display module. In this case, the controller controls the display module to output specific content stored in the memory at specific timing and controls the network interface module to transmit a control signal to a specific light at the specific timing.

Provided are a display panel and a manufacturing method thereof, and a display device. The display panel includes: a base substrate including a display area and a peripheral area; a plurality of sub-pixels, each sub-pixel including a light-emitting element and a pixel driving circuit; a plurality of gate lines and light-emitting control lines; a gate driving circuit located at the display area and including cascaded multistage gate driving units, one or more stages include gate driving sub-circuits including a first and a second gate driving sub-circuit spaced apart by pixel driving circuits of a first group of sub-pixels; and a light-emitting control driving circuit located at the display area and including cascaded multistage light-emitting control driving units, one or more stages include light-emitting control driving sub-circuits including a first and a second light-emitting control driving sub-circuit spaced apart by pixel driving circuits of a second group of sub-pixels.

An electroluminescent (EL) display is disclosed. The EL display includes pixel units arranged in a matrix of N rows and M columns, N and M being natural numbers, scan lines configured to select pixel units of interest, data lines configured to provide data to selected pixel units, and a control line E_k configured to control immediately adjacent rows of pixel units coupled to (2k1)-th and 2k-th scan lines, respectively, k being a natural number from 1 to N/2.

Display modes are switched by a simple method in accordance with whether or not to display status information. An electronic device (1) includes a control section (20) which (i) causes status information (ST1 to ST4) of the electronic device to be displayed in at least either (a) an enlarged display mode in which to display the status information in a first display region (D1) or (b) an alternative display mode in which to display the status information in a second display region (D2) and causes a switchover accepting display (SW1) for accepting a switchover from the alternative display mode to the enlarged display mode to be displayed in the first display region.