Abstract:
In the invention, a liquid crystal display device having a configuration for preventing breakage of a liquid crystal display panel when outer dimensions and thickness of a liquid crystal display device for cellular phones are reduced is disclosed. In the configuration of the invention, a liquid crystal display panel including a TFT substrate and a color filter substrate is mounted within a mold. In the part where a liquid crystal is sealed, the TFT substrate and the color filter substrate are laminated. However, a part of the TFT substrate only is mechanically weak against an external force from the backside of the mold. By forming holes in corners of the mold corresponding to the location of the TFT substrate only, deformation of the mold due to the external force from the backside of the mold does not affect the TFT substrate. Thereby, breakage of the TFT substrate can be prevented.
Abstract:
A liquid crystal display (LCD) module includes an LCD panel, and a mold frame receiving the LCD panel, the mold frame comprising a support on which the LCD panel is located, a first guide disposed near a first corner of the mold frame, the first guide receiving a first corner of the LCD panel, and a second guide disposed near a second corner of the mold frame, the second guide receiving a second corner of the LCD panel, wherein the first guide and the second guide are asymmetrical.
Abstract:
A backlight unit includes a plurality a plurality of lamps, each having a first electrode and a second electrode. An alternating current (AC) signal having a high voltage is intermittently applied to the first electrode and the second electrode is connected to a ground. The backlight unit also includes: a pair of lamp guides comprising a first lamp guide and a second lamp guide, wherein the first lamp guide supports the lamps and is disposed to cross the lamps near the first electrodes, and the second lamp guide is disposed to cross the lamps near the second electrodes; a bottom cover for accommodating the lamps and the lamp guide pair; and a plurality of shock-absorbing holes formed in a bottom surface of the bottom cover near the first electrodes, a length of each shock-absorbing hole extending parallel to a corresponding one of the lamps.
Abstract:
A flat panel display device having improved drop characteristics, that minimize a drop shock of the flat panel display device by controlling the size of a shock-absorbing tape, the flat panel display device including: a display panel having a display part to display an image and a pad part; a supporting member configured to support the display panel; and the shock-absorbing tape disposed between the display panel and the supporting member. The shock-absorbing tape is in contact with the display part of the display panel and ⅓ to ⅚ of the pad part of the display panel.
Abstract:
In at least one embodiment of the disclosure, an electrophoretic display sheet includes an electrophoretic display layer and a substrate provided with the electrophoretic display layer. An end portion of the substrate includes a chamfered edge. The electrophoretic sheet may be attached to a driving substrate.
Abstract:
Electronic equipment of the present invention having a display panel includes a protection plate that is opposed to an opposite surface of a display surface of the display panel and is substantially parallel to the opposite surface of the display surface of the display panel. According to this configuration, when a pressure is applied to the display panel from outside, the display panel can be suppressed from being deformed, whereby the strength of the display panel with respective to an external pressure can be enhanced.
Abstract:
Disclosed is a display device. A liquid crystal panel and a backlight assembly are fixed to a frame by using resin such as silicon, so that a slim and small-sized display device is realized.
Abstract:
A liquid crystal display device has a liquid crystal display module including a backlight unit and a liquid crystal panel; a first polarizing plate attached to a side of the liquid crystal panel, the side facing the backlight unit; a transparent front plate mounted on a side of the liquid crystal panel, the side not facing the backlight unit; a transparent organic medium layer placed between the front plate and the liquid crystal panel; and a second polarizing plate attached to a surface of the front plate, the surface opposite from a surface thereof closer to the transparent organic medium layer. An end section of the second polarizing plate is sealed using resin so as not to be directly exposed to air.
Abstract:
An LCD device capable of preventing damage of an LC panel by an impact damping member or through a design modification of a functional member when a functional plate such as a touch panel or the functional member is attached onto the LC panel. The LCD device comprises an LC panel, a backlight unit disposed below the LC panel for providing light, a functional member disposed on the LC panel within a size range of the LC panel, and an impact damping member disposed to be spacing from one or more sides of the functional member for absorbing an impact of the functional member when the LC panel moves.
Abstract:
A liquid crystal display (LCD) device includes a first substrate having a plurality of pixels defined by crossing gate lines and data lines; a second substrate facing the first substrate; a thin film transistor formed at each crossing between the gate line and the data line on each pixel and having a gate electrode connected to the gate line and a source electrode connected to the data line; a pixel electrode formed at each pixel and connected to a drain electrode of the thin film transistor; a plurality of column spacers formed between the first and second substrates and configured to maintain a gap therebetween; and a protrusion formed on the first substrate and overlapped with one or more of the plurality of column spacers, wherein the protrusion includes a first layer made of the same material as an active layer of the thin film transistor and formed on the same layer as the active layer; a second layer made of the same material as the source and drain electrodes of the thin film transistor and formed on the same layer as the electrodes; and a third layer made of the same material as the pixel electrode and formed on the same layer as the pixel electrode.