Abstract:
A foldable mobile terminal, including: an upper shell (11) and a lower shell (21) that are hinged, and a flexible panel (30) disposed on inner surfaces of the upper shell (11) and the lower shell (21); at least one of the upper shell (11) and the lower shell (21) can be pivoted inwardly or outwardly to an adjustable angle with respect to an hinge axis; a region of the upper shell (11) closer to the hinge axis includes an upper cavity (111), and a region of the lower shell (21) closer to the hinge axis includes a lower cavity (211); a region of the flexible panel (30) closer to the hinge axis includes a bending portion (301) and the the flexible panel (30) can be bent at the bending portion (301); upon at least one of the upper shell (11) and the lower shell (21) is pivoted inwardly with respect to the hinge axis, the bending portion (301) is received in the upper cavity (111) and the lower cavity (211), so as to maintain a relatively large bending radius, and prevent the flexible panel from being broken.
Abstract:
A liquid crystal display (LCD) panel, an LCD and a manufacturing method thereof. The LCD panel comprises a first substrate (1) and a second substrate (2) arranged opposite to each other; a liquid crystal layer (3) is disposed between the first substrate (1) and the second substrate (2); the first substrate (1) comprises a plurality of pixel regions; each pixel region comprises a transmission section (4) and a reflection section (5); the first substrate is provided with a reflective layer (6) disposed in the reflection section (5); polymers (30) formed by polymerization of ultraviolet curable monomers are uniformly distributed in the liquid crystal layer (3) of the reflection section (5). The LCD panel adopts a single cell gap and controls the phase retardation amount of reflected light emitted out from the reflection section (5) through the polymers (30), so that phase of the reflected light can match with the phase of transmitted light emitted out from the transmission section (6).
Abstract:
An array substrate includes a substrate (10), a plurality of pixel regions (30) and a black matrix (15) separating the pixel regions (30) formed on the substrate (10); corresponding to a region where the black matrix (15) is located, the substrate (10) is provided with a thin film transistor. The pixel region (30) includes a first electrode (17) and a second electrode (20) configured for generating an electric field therebetween to drive liquid crystals. The second electrode (20) is disposed above the first electrode (17). The pixel region (30) further includes a color resist layer (16) disposed between a gate insulation layer (12) and the second electrode (20) and distributed in the pixel region (30). A method of manufacturing the array substrate and a display device are further disclosed.