Abstract:
A backlight device according to the present invention includes a lamination of two light guide layers, namely, a first light guide layer (1) and a second light guide layer (3). The first light guide layer (1) includes a plurality of first light guide sections (1a) arrayed in a vertical direction. The second light guide layer (3) includes a plurality of second light guide sections (3a) arrayed in a horizontal direction. The first light guide sections (1a) are provided correspondingly with first light sources (2) and the second light guide sections (3a) are provided correspondingly with second light source (4). These light sources are independently controlled.
Abstract:
Film-forming apparatus including a film-forming vacuum chamber having a stage for a substrate, a chamber for mixing gas comprising a raw gas and a reactive gas connected to the film-forming chamber, a chamber for vaporizing the raw material, and a gas head for introducing the mixed gas into the film-forming chamber, disposed on the upper face of the film-forming chamber and opposed to the stage. Particle traps with controllable temperatures are positioned between the vaporization chamber and the mixing chamber and on the downstream side of the mixing chamber. When forming a thin film with the apparatus, a reactive gas and/or a carrier gas are passed through the film-forming chamber while opening a valve in a by-pass line, connecting the primary side to the secondary side of the particle trap arranged at the downstream side of the mixing chamber. The valve is then closed and the film-forming operation is initiated.
Abstract:
A first light guide plate of a light-emitting element is formed by a plurality of strip-shaped light guide bodies arranged in parallel with each other, where each strip-shaped light guide body has a light incident surface on which light from a light source is incident, and a light-emitting surface from which light from the light incident surface is emitted, and on which a plurality of prisms are formed. A second light guide plate of the light-emitting element is positioned so as to face the light-emitting surface side of the first light guide plate, has prisms formed on a surface of the first light guide plate side in a shape that meshes with a shape of the prisms of the first light guide plate, and is formed by a fewer number of light guide bodies arranged in parallel than the strip-shaped light guide bodies.
Abstract:
A backlight (illumination device) (22) of the present invention includes: a plurality of light sources (25) which emit light beams of two or more different colors; and a plurality of light guides (27) each of which mixes colored light beams emitted from the light sources and then converts the colored light beams thus mixed into surface emission, wherein the plurality of light guides (27) are arranged so as not to overlap one another, the plurality of light sources (25) are aligned in a given order along first end parts of each of the light guides, and scatterers (scattering means) (34) for scattering light beams are provided on side surfaces of second end parts (27b) of each of the light guide, which second end parts face a direction where the light sources are aligned (d1).
Abstract:
A backlight (illuminating device) of the present invention is a tandem type backlight including a plurality of light-emitting units (11) including at least one point light source (5) and a light guide plate (7) for causing light from the at least one point light source to be diffused and surface-emitted. In each of the light-emitting units (11), a length X of a light guide area (9) is set so that an area, on a boundary surface between a light-emitting area (10) and the light guide area (9), of a cross-section of a light beam that is emitted from the at least one point light source (5) and is diffused in the light guide plate (7) is equal to or larger than an area of the boundary surface (interface). Moreover, a length X, in a length direction D1, of the light guide area is smaller than a length Y, in the length direction D1, of the light-emitting area, the length direction being a direction pointing from the at least one point light source (5) toward the light-emitting area (10). With this, it is possible to realize an illuminating device in which light from a light source can be more uniformly emitted, and an increase in thickness of the illuminating device can be suppressed.
Abstract:
In an embodiment of the present invention, in a liquid crystal display device which controls a light luminance of each of lighting regions, each of lighting regions of a backlight has a smaller width in a horizontal direction than in a vertical direction. This makes it possible to cause a reduction in contrast due to spatial distribution of light luminances, which spatial distribution is generated due to cross talk between lighting regions, to be less perceivable to an observer positioned in an oblique viewing direction.
Abstract:
A backlight (illumination device; 2) of the present invention includes: multiple light sources (5); multiple light guide plates (7, 17, . . . ) for causing surface emission of light from the light sources (5); and a diffusing plate (8) for diffusing light from the light guide plates (7, 17, . . . ), the diffusing plate (8) being provided so as to be separate from and face the light guide plates (7, 17, . . . ). Each of the light guide plates (7, 17, . . . ) includes: a light-emitting section (7b) having a light-emitting surface (7a); and a light guide section (7c) for guiding, to the light-emitting section (7b), light from the light sources (5), a light-emitting section (17b) of the first light guide plate (17) being provided above a light guide section (7c) of the second light guide plate (7) adjacent to the first light guide plate (17). A light amount adjusting section (11) for reducing the amount of light incident on it is provided so as to be separate from the diffusing plate (8) and so that the orthogonal projection of the light amount adjusting section (11) onto the light-emitting region covers the boundary between any adjacent light guide plates (7, 17, . . . ). This allows for production of a tandem-type illumination device having further improved luminance uniformity.
Abstract:
A film forming method in which a crystalline film having PZT (111) as a principal component thereof is laminated on a foundation film having a (111) oriented noble metal as a principal component thereof, the method including the steps of: forming an oxide film whose interplanar spacing is closer to the PZT (111) than to the noble metal, on a surface of the foundation film; and forming the crystalline film on the surface of the foundation film by an MOCVD method.
Abstract:
A film forming method in which crystalline film having PZT (001) or PZT (100) as a principal component thereof is laminated on a foundation film having a (111) oriented noble metal as a principal component thereof, the method including the steps of: performing reduction treatment on a surface of the foundation film; and forming the crystalline film by an MOCVD method on the surface of the foundation film.
Abstract:
An illumination device including a plurality of illumination areas, each of which is individually controllable, includes a plurality of light-emitting devices disposed in a matrix pattern in each of the illumination areas where emission colors are disposed in a different manner between adjacent rows and between adjacent columns. Consequently, the emission of uneven luminance or uneven color is prevented from occurring in boundary portions of each of the illumination areas.