Abstract:
A light control device includes: a single crystal substrate (10); an electro-optic thin film (20) which is provided on the single crystal substrate (10) and has an electro-optic effect; and a plurality of electrodes (30, 40) which are provided along a crystal axis of the electro-optic thin film and apply an electrical field along the crystal axis of the electro-optic thin film (20).
Abstract:
The present invention provides a liquid-crystal display device in which a pixel defect does not occur even when an electrode becomes disconnected. The liquid-crystal display device according to the present invention comprises a liquid crystal layer and a pair of substrates between which the liquid crystal layer is interposed. At least one of the pair of substrates includes an electrode that applies a voltage to the liquid crystal layer. The electrode that applies the voltage to the liquid crystal layer includes two or more linear portions. The substrate comprising the electrode that applies the voltage to the liquid crystal layer, from among the pair of substrates, includes a floating electrode that overlaps at least two of the two or more linear portions via an insulating film.
Abstract:
An imaging method includes emitting radiation from an illumination source towards a total internal reflection (TIR) modulator. At least one of the pixel regions is controlled to form at least one image pixel on a surface. A first electric potential is imposed on a first pixel region, the first electric potential being associated with a first signal provided by a first electrical conductor to the second set of electrodes associated with the first pixel region, the first electrical conductor extending over a first non-pixel region. A second electric potential is imposed on the first pixel region, the second electric potential being associated with a second signal provided by a second electrical conductor to first set of electrodes associated with the first pixel region, the second electrical conductor extending over a second non-pixel region, wherein the second non-pixel region is different from the first non-pixel region, and the second electric potential is different from the first electric potential. The second electric potential is imposed on the first non-pixel region.
Abstract:
A liquid crystal display includes a first substrate, a second substrate, a liquid crystal material interposed between the first and second substrates. The liquid crystal display includes first protrusions and second protrusions that are alternately disposed with each other on the first substrate. A common electrode is provided at a side part of the first protrusions, and a pixel electrode is provided at a side part of the second protrusions to face the common electrode. A lateral electric field is generated between the common electrode and the pixel electrode facing each other for controlling an alignment of molecules of the liquid crystal material.
Abstract:
A liquid crystal display comprises: a first substrate; a display area disposed on the first substrate; subpixels disposed in the display area; a scan driver for supplying a scan signal to scan lines connected to the subpixels; a data driver for supplying a data signal to data lines connected to the subpixels; first transistors disposed on the first substrate adjacent to one side of the display area and connected to the data lines; second transistors disposed on the first substrate adjacent to the other side of the display area and connected to the scan lines; and a test pad connected to the first transistors and second transistors.
Abstract:
A display device according to the present invention contains a transparent display unit (18) and a reflective display unit (19) in one pixel. The reflective display unit (19) is provided with an insulating layer (8) constituting a multi-gap layer, and a pixel electrode (16) and a common electrode (17) set closer to a display surface than a reflective film (7) at least through the insulating layer. The reflective film (7) is provided on the same plane as the insulating layer (8) in the lower substrate (10) and covered with the insulating layer (8), or provided in a lower layer than the insulating layer (8) in the lower substrate (10) and overlapped with the insulating layer (8).
Abstract:
It is an object of the present invention to apply a sufficient electrical field to a liquid crystal material in a horizontal electrical field liquid crystal display device typified by an FFS type. In a horizontal electrical field liquid crystal display, an electrical field is applied to a liquid crystal material right above a common electrode and a pixel electrode using plural pairs of electrodes rather than one pair of electrodes. One pair of electrodes includes a comb-shaped common electrode and a comb-shaped pixel electrode. Another pair of electrodes includes a common electrode provided in a pixel portion and the comb-shaped pixel electrode.
Abstract:
An electrophoretic display device comprises an array of rows and columns of display pixels. Each pixel comprises first and second row electrodes (12a, 12b) and first and second column electrodes (14a, 14b). Each row and column electrode has a branch (12a′, 12b′, 14a′, 14b′) so that four overlaps are defined between an electrode and an electrode branch. Between each of the four branch/electrode overlaps, a respective particle reservoir (40a,40b,40c,40d) is located, the respective branch/electrode pair being for controlling movement of particles associated with the respective particle reservoir (40a,40b,40c,40d). This provides a display design which can be implemented as a passive matrix, requiring only two column electrodes and two row electrodes per pixel with four particles.
Abstract:
A thin film transistor array substrate and a method for manufacturing the thin film transistor array substrate are disclosed. Specifically, a thin film transistor array may be formed using a reduced number of masks.
Abstract:
A liquid crystal panel includes: first and second substrates arranged to be opposite each other at a predetermined gap; a liquid crystal layer filled between the first and second substrates; a counter electrode pattern formed on the first substrate; a pixel electrode pattern formed on the first substrate; and alignment films formed such that the alignment direction of the liquid crystal layer crosses the extension direction of a slit of the pixel electrode pattern at an angle of 7° or larger.