Abstract:
A liquid crystal display includes: a substrate including a plurality of pixel areas; a thin film transistor disposed on the substrate; a pixel electrode connected with the thin film transistor; and a roof layer disposed facing the pixel electrode, wherein a plurality of microcavities are disposed between the pixel electrode and the roof layer, and a liquid crystal layer including liquid crystal molecules is disposed in the plurality of microcavities, and wherein each microcavity includes a first area and a second area partitioned by a liquid crystal injection hole formation area, and a first alignment layer in the first area and a second alignment layer in the second area are formed of different materials.
Abstract:
A time multiplexing multi-view point three dimensional image display device includes a display panel that includes a plurality of pixels arranged in a matrix form, where each pixel displays one color of a plurality of primary colors, and a view point division unit that divides the 3D image displayed by the display panel into two or more view points. The display panel includes a plurality of dots, each dot includes a set of pixels in which each pixel shows a different primary color. Each dot displays a 3D image for a view point during a frame set that includes a plurality of frames. The view point division unit moves in a row direction when the frame changes in the frame set, and at least one pixel one of the dot is selected in each frame of the frame set.
Abstract:
The display device includes: a substrate; a thin-film transistor disposed on the substrate; a passivation layer covering the thin-film transistor; a capping layer disposed on the passivation layer; and a pixel electrode disposed on the capping layer and connected to the thin-film transistor, wherein a thickness of the capping layer is determined according to: d1=(λ/2)×(1/2n), where d1 denotes the thickness of the capping layer, λ denotes a wavelength within visible wavelength range, and n denotes a ratio of refractive indices of the passivation layer to the capping layer.
Abstract:
A display device includes: a light unit for emitting blue light; a color conversion panel on the light unit; a display panel between the light unit and the color conversion panel, the display panel comprising transistors; and column spacers between the transistors and the color conversion panel, the column spacers overlapping the transistors. The color conversion panel includes: a substrate; color conversion layers between the substrate and the display panel, the color conversion layers comprising semiconductor nanocrystals; a transmission layer between the substrate and the display panel; and polarization layers between the color conversion layers and the display panel and between the transmission layer and the display panel. The column spacers include a pigment that absorbs blue light.
Abstract:
A time multiplexing multi-view point three dimensional image display device includes a display panel that includes a plurality of pixels arranged in a matrix form, where each pixel displays one color of a plurality of primary colors, and a view point division unit that divides the 3D image displayed by the display panel into two or more view points. The display panel includes a plurality of dots, each dot includes a set of pixels in which each pixel shows a different primary color. Each dot displays a 3D image for a view point during a frame set that includes a plurality of frames. The view point division unit moves in a row direction when the frame changes in the frame set, and at least one pixel one of the dot is selected in each frame of the frame set.
Abstract:
A 3-dimensional image display device includes: a backlight unit; a barrier panel above the backlight unit and including unit barriers which selectively blocks light; a lenticular lens array above the barrier panel and including lenticular lenses, each having a principal point; a liquid crystal panel above the lenticular lens array; an eye tracking sensor which detects a position of eyes of a viewer and a distance between the principal point of the lenticular lenses and the eyes; and a controller which controls the backlight unit, the barrier panel and the liquid crystal panel based on an output of the eye tracking sensor, where the controller turns on and off the unit barriers such that light passes through the principal point of the lenticular lenses to apply a right-eye image to a right eye of the viewer and apply a left-eye image to a left eye of the viewer.