Abstract:
A directional backlight unit and a three-dimensional (3D) image display device including the directional backlight unit are provided. The directional backlight unit includes: a light guide plate, a light source configured to irradiate an incident surface of the light guide plate with a plurality of color lights, and a grating that includes a sub-grating configured to react to all of the plurality of color lights. The directional backlight unit may further include a color filter that corresponds to a plurality of color lights emitted from each sub-grating.
Abstract:
A directional backlight unit is provided, including a light guide plate, a light source, and a grating that is formed on a light-emitting surface of the light guide plate. The grating is configured such that an intensity of one ray of light, of the light irradiated by the light source and diffracted and emitted by the grating, is greater than a sum of intensities of all other rays of light, of the light irradiated by the light source and diffracted and emitted by the grating.
Abstract:
A method of generating directional rays and apparatuses performing the method are disclosed. A backlight may include a light source configured to generate a ray, a light guide plate configured to transfer the ray to a display panel, and a directional pixel configured to generate a plurality of directional rays by scattering the ray, in which each of the directional rays may be incident at a corresponding subpixel in the display panel.
Abstract:
A mobile terminal and a control method based on a user input for the same are provided. A text string contained in content may be erased according to the user input, and the erased text string is stored. When the user input is entered at the erasure region, a result of comparison between the stored text string and the user input is output. The control method includes detecting a first input, identifying color distribution of an input region corresponding to the first input, and erasing at least one object in the input region by applying the most commonly used color to the input region based on the identified color distribution.
Abstract:
According to an aspect of an embodiment, provided is a micro semiconductor chip transferring substrate including: a mold including a plurality of recesses formed to be recessed in a certain depth from an upper surface; and a surface energy reduction pattern formed in region between the plurality of recesses, on the upper surface, the surface energy reduction pattern including a plurality of uneven patterns. When the micro semiconductor chips are aligned by a wet alignment method, by such surface energy reduction pattern, sliding of the micro semiconductor chips toward the inside of the recesses may be improved.
Abstract:
Provided are a semiconductor device including a passivation layer and a method of fabricating an electronic apparatus including the semiconductor device. The semiconductor device includes a semiconductor device layer including at least one electrode provided at an upper portion thereof and a passivation layer at least partially covering the at least one electrode.
Abstract:
A micro light-emitting element includes a first conductivity type semiconductor layer including a lower surface on which an uneven pattern is formed, an active layer provided on the first conductivity type semiconductor layer, a second conductivity type semiconductor layer provided on the active layer, at least one electrode provided on the second conductivity type semiconductor layer, and a transparent coating layer including a first surface covering the lower surface of the first conductivity type semiconductor layer, and a second surface facing the first surface and having a second surface roughness that is less than a first surface roughness of the lower surface of the first conductivity type semiconductor layer.
Abstract:
Provided are a color conversion structure, a display apparatus, and a method of manufacturing a color conversion structure. The color conversion structure includes a bank structure including a groove, a color conversion layer accommodated in the groove, and a cover layer provided on the color conversion layer.
Abstract:
A multi-use transfer mold and a method of manufacturing a display apparatus are provided. The multi-use transfer mold includes a transfer substrate and a plurality of grooves provided in the transfer substrate, wherein each of the grooves includes a transfer area for accommodating a transfer micro-light-emitting device and a preliminary area for accommodating a preliminary micro-light-emitting device, wherein the preliminary area is connected to the transfer area.
Abstract:
A display apparatus includes a driving substrate including a plurality of grooves, micro light-emitting devices provided in the plurality of grooves and configured to emit light of a first color, and a color conversion layer provided on the micro light-emitting devices and configured to convert the light of the first color into light of at least one second color, wherein the color conversion layer includes light blocking patterns spaced apart from the micro light-emitting devices and spaced apart from each other on a same plane, a nano-porous layer provided between adjacent ones of the light blocking patterns, spaced apart from the micro light-emitting devices, and including a plurality of nano-pores, and quantum dots impregnated in the nano-porous layer and configured to convert the light of the first color into the light of the at least one second color.