The present invention provides a method for manufacturing a PDLC display device and a PDLC display device. The method for manufacturing a PDLC display device according to the present invention provides a black matrix and a base plate that collectively delimit a plurality of pixel cavities and fills a mixture of PDLC and red QDs, a mixture of PDLC and green QDs, and PDLC respectively into the plurality of pixel cavities to form a PDLC substrate, which is laminated with an array substrate, and installed with a blue light backlight module, so as to form a PDLC display device. Light leakage and color mixture can be eliminated and processes related to alignment layers and polarizers can be saved to thereby increase the manufacturing efficiency and lower the manufacturing cost. The PDLC display device according the present invention is manufactured with the above-described method and demonstrates at least four displaying modes of red, green, blue, and indistinctness, allowing for use in applications where unique effects are required, and helping eliminate light leakage and color mixture and also requiring no alignment layer and polarizer so that the manufacturing efficiency is high and the manufacturing cost is low.

The present invention provides a touch panel device that utilizes a touch panel driving process that suitably prevents discoloration of an on-cell touch panel. A touch panel-equipped display device includes a touch panel and a touch panel controller. In the touch panel, drive electrodes and sense electrodes are formed in the same layer. The touch panel controller generates drive signals in a manner that keeps an integrated value of differences in electric potential between the drive electrodes and the sense electrodes less than a prescribed value during prescribed periods in which the touch panel is driven.

Provided is a lighting device comprising: a plurality of LED light sources formed on a printed circuit board; and a reflective unit stacked on the printed circuit board in a structure in which the LED light sources penetrate, wherein the reflective unit comprises a first reflective film and a second reflective film disposed to oppose to each other, and a first adhesive pattern layer which bonds the first and second reflective films, and in which a plurality of unit air cells having a first air area formed in an inner part thereof are closely disposed to communicate with each other. According to the present invention, it is advantageous that the improvement of luminance as well as the improvement of light reflectance can be maximized by providing the reflective unit having an air area to a surface of the printed circuit board.

Provided are a pressure-sensitive adhesive composition, a pressure-sensitive adhesive optical laminate, a pressure-sensitive adhesive polarizing plate and a display device. The pressure-sensitive adhesive composition offers a pressure-sensitive adhesive that has excellent durability and processability in manufacturing due to increased hardness even when the pressure-sensitive adhesive layer is formed thinner than a typical adhesive composition, and that can prevent a pressure mark and leakage of the pressure-sensitive adhesive, as well as a bending problem generated when applied on an optical member such as a polarizing plate, etc.

An electronic-ink display device includes a cover plate, an electronic-ink display, a frame, and a water-proof glue. The electronic-ink display is disposed on the cover plate. The frame is disposed on a periphery area of the cover plate and surrounds the electronic-ink display to form a trench. Then, the water-proof glue fills the trench.

An adhesive film of the present invention comprises a (meth)acrylate-based copolymer and a cross-linking agent, and a gel fraction thereof is approximately 50-95%, and a ratio of change G′ in storage modulus thereof, represented by the following formula 1, is 20% or less. [Formula 1] G′=(G7−G1)/G1×100 (In formula 1, G1 is a storage modulus at 25° C. when the adhesive film is matured at 23° C. and a relative humidity (RH) of 55% for one day, and G7 represents a storage modulus at 25° C. when the adhesive film is matured at 23° C. and an RH of 55% for seven days.)

The present invention provides an image display panel including an image display unit and an optical film including a polarizing film provided on a viewing side of the image display unit via a pressure-sensitive adhesive layer, wherein the pressure-sensitive adhesive layer has a degree of swelling with oleic acid of more than 130% and 190% or less, and the image display panel has a flat edge face. The image display panel with a bezel can preventing peeling-off of the pressure-sensitive adhesive layer even when placed in a humidified environment in a state where fat and oil or cream components are in contact with the elastic intermediate layer. The image display panel of the present invention can prevent peeling-off of the pressure-sensitive adhesive layer even when placed in a humidified environment in a state where fat and oil or cream components are in contact with the elastic intermediate layer.

The present application provides a display cover, a manufacturing method of the display cover, and a display device. The display cover includes: a substrate; a light shielding layer; and an optical adhesive layer. The substrate includes a visible region and a non-visible region, and the non-visible region is provided with at least one notch. The light shielding layer is disposed in the notch in the non-visible region. The optical adhesive layer covers the light shielding layer and the visible region of the substrate. By arranging the light shielding layer in the notch, the present application eliminates an ink level difference caused by coating the light shielding layer in conventional techniques, so that the optical adhesive layer is completely attached to the substrate to avoid generating air bubbles and improve production yields of the display cover.

The embodiments of the present disclosure provide a liquid crystal display device. The liquid crystal display device includes: a display panel, including a display region and a non-display region surrounding the display region; a back plate, arranged opposite to the display panel, where the back plate comprises a bottom wall and a side wall extending from the bottom wall to one side of the display panel; a backlight source, arranged between the display panel and the back plate, where the backlight source comprises a light source arranged on the bottom wall of the back plate and a diffusion plate arranged on a light emitting side of the light source; and a middle frame, where the middle frame comprises a first support part, and a second support part connected with one side, deviating from the display panel, of the first support part.

According to one embodiment, a light control device includes a first substrate including a plurality of first control electrodes disposed in an effective area, and a plurality of feed lines disposed in a peripheral area, a second substrate, and a first liquid crystal layer. The first control electrodes are transparent electrodes. Each of the first control electrodes includes, in the effective area, first segments crossing a first direction at a first angle, second segments crossing the first direction at a second angle, and third segments crossing the first direction at a third angle. The first control electrode is electrically connected to the feed line. The first to third angles are different from each other.