摘要:
An optical element package includes: an optical element in a form of a chip, and a lens resin having a convex lens surface covering an optical functional surface of the optical element. The convex lens surface is formed as a rough surface having a plurality of minute convex curved surfaces having a vertex in a direction perpendicular to a plane in contact with each part of the convex lens surface.
摘要:
A plasma immersion ion implantation process for implanting a selected species at a desired ion implantation depth profile in a workpiece is carried out in a reactor chamber with an ion shower grid that divides the chamber into an upper ion generation region and a lower process region, the ion shower grid having plural elongate orifices oriented in a non-parallel direction relative to a surface plane of the ion shower grid.
摘要:
In the case of forming switching elements and light sensor elements over the same substrate, an increase in the film thickness of active layers in an attempt to enhance the sensitivity of the light sensor elements would adversely affect the characteristics of the switching elements (TFTs). In a configuration of a display in which a channel layer 25 for constituting thin film transistors to form the switching elements for pixels and a photoelectric conversion layer 35 for constituting the light sensor elements are provided over a gate insulating film 24 on a glass substrate 5 to be provided with a plurality of pixels arranged in a matrix pattern, the photoelectric conversion layer 35 is formed to be thicker than the channel layer 25, and/or the photoelectric conversion layer 35 is formed of a material different from the material for the channel layer 25, whereby the light absorption coefficient of the photoelectric conversion layer 35 is made to be higher than that of the channel layer 25.
摘要:
Chromaticity difference is decreased, which is caused by the difference of transmissivity when a light passes through a transparent conductive film to constitute pixels. Optical film thickness of each of transparent conductive films PXR, PXG, and PXB to constitute pixels (a product “nd” of refractive index “n” and film thickness “d”) is varied for each of color filters RF, GF, and BF for each pixel. The transparent conductive film is prepared by coating an ink (produced by dispersing fine particles of a transparent conductive film material such as ITO in a binder) via nozzle of an ink jet device, and then, by baking. Film thickness is controlled by the coating amount of the ink, and refractive index is controlled by volume ratio of the fine particles of conductive material to the binder contained in the transparent conductive film in consideration of those refractive indices.
摘要:
A base wall (21) of a connector housing (20) is formed with through holes (25), into which terminal fittings (60) are insertable. The inner surface of each through hole (25) includes an inclined portion (26) narrowed toward the rear side from the front surface of the base wall (21) and arranged at a position corresponding to projections (71) for guiding the terminal fitting (60), a straight portion (28) located behind the inclined portion (26), extending in an inserting direction toward the rear surface of the base wall (21) and having a press-in area for press-in portions (67), and restricting portions (27) defining steps together with the straight portion (28), extending from a taper end of the inclined portion (26) to the steps (35) and tightly holding rear parts of the projections (71) while preventing loose movements.
摘要:
Disclosed herein is a liquid crystal display device, including: a first substrate; a second substrate; a plurality of spacers disposed between the first substrate and the second substrate; and a liquid crystal layer filled between the first substrate and the second substrate supported by the plurality of spacers; wherein each of the plurality of spacers has a multiple step structure having one or more steps.
摘要:
A male connector (10) is provided with a housing main body (20) formed with a plurality of cavities (21) penetrating in forward and backward directions, into which terminal fittings are insertable, a surrounding wall portion (36) arranged at a rear part of the housing main body (20) and open backward, and a plurality of seal tower portions (35) arranged inside the surrounding wall portion (36) at the rear part of the housing main body (20) and surrounding the cavities (21). Outer ribs (41) extend between the inner surfaces of the surrounding wall portion (36) and the outer surfaces of the seal tower portions (35). The outer ribs 41 are thick at connected parts with the surrounding wall portion (36) while being thin at connected parts with the seal tower portions (35).
摘要:
A light-receiving element includes: a first-conductivity-type semiconductor region configured to be formed over an element formation surface; a second-conductivity-type semiconductor region configured to be formed over the element formation surface; an intermediate semiconductor region configured to be formed over the element formation surface between the first-conductivity-type semiconductor region and the second-conductivity-type semiconductor region, and have an impurity concentration lower than impurity concentrations of the first-conductivity-type semiconductor region and the second-conductivity-type semiconductor region. The light-receiving element further includes: a first electrode configured to be electrically connected to the first-conductivity-type semiconductor region; a second electrode configured to be electrically connected to the second-conductivity-type semiconductor region; and a control electrode configured to be formed in an opposed area that exists on the element formation surface.
摘要:
The present invention generally provides methods and apparatus for controlling ion dosage in real time during plasma processes. In one embodiment, ion dosages may be controlled using in-situ measurement of the plasma from a mass distribution sensor combined with in-situ measurement from an RF probe.