Abstract: The energizing patterns (12A) are composed of wiring pattern sections (12A-1) formed so as to be elongated along the region for forming the wiring layers (12), connection pattern sections (12A-2) connecting the adjoining wiring patterns for each pixel region and striped joint pattern sections (12A-3) for connecting the wiring pattern sections (12A-1) outside of the prospective liquid crystal display region in which pixel regions are arranged. Element constituting sections (12A-2a) including the portions to be formed into connection layers (13) are formed in the connection pattern sections (12A-2). The portions to be formed into the connection layers (13) are formed into a protruding peninsula shape in this element constituting sections (12A-2a). The present invention can prevent defective anodic oxidation due to cutting off or imperfect configuration of the energizing pattern (12A), as well as reducing the process damage of the active element.

Abstract: A color filter substrate 8 having a plurality of pixels D1 includes a reflecting layer 4 composed of a metal film formed on a substrate 2, and any one of blue, green, and red color filter layers 10, 12, and 14 formed on the reflecting layer 4 at a position corresponding to each pixel D1. A metal complex of phthalocyanine is applied to the surface of the reflecting layer 4 at the interface with each color filter layer.

Abstract: A set of pixel regions (P11, P12, P13) having a pixel electrode (12) corresponding to red, green or blue as one unit is arranged periodically in the X direction, and the delta arrangement is constituted by displacing the pixel arrays from each other by a 1/2 period at odd-numbered lines and even-numbered lines in the Y direction. By connecting only the pixel electrode (12) of pixel regions (P12, P22, P32) corresponding to the same color with the same source line (S2), the pixel regions (P12, P22, P32) are placed alternately right and left of the source line (S2). Among pixel regions (P11, P12, P13, . . . ) in the X direction, the relative position of a TFT (11), the pixel electrode (12), a first electrode (C1) and a second electrode (C2) of storage capacitors CS is the same. Among pixel regions (P12, P22, P32, . . . ) in the Y direction along source lines (S1, S2, S3, . . .

Abstract: A set of pixel regions (P11, P12, P13) having a pixel electrode (12) corresponding to red, green or blue as one unit is arranged periodically in the X direction, and the delta arrangement is constituted by displacing the pixel arrays from each other by a 1/2 period at odd-numbered lines and even-numbered lines in the Y direction. By connecting only the pixel electrode (12) of pixel regions (P12, P22, P32) corresponding to the same color with the same source line (S2), the pixel regions (P12, P22, P32) are placed alternately right and left of the source line (S2). Among pixel regions (P11, P12, P13, . . . ) in the X direction, the relative position of a TFT (11), the pixel electrode (12), a first electrode (C1) and a second electrode (C2) of storage capacitors CS is the same. Among pixel regions (P12, P22, P32, . . . ) in the Y direction along source lines (S1, S2, S3, . . .

Abstract: As shown in FIG. 8, black matrices (216) made of molybdenum silicide layers (216bb . . . ) also are, for each of plural pixel regions (201bb . . . ), provided on a transparent substrate (209) having a matrix array. The molybdenum layers (216bb) are insulated and separated from data lines (202a, 202b, gate lines 203a, 203b) and surrounding molybdenum silicide layers (216ab, 216ba . . . ) on the boundary regions with surrounding pixel regions, but are electrically connected to a pixel electrode (206) of its pixel region (201bb). The outer end of the molybdenum silicide layer (216bb) and the outer end of the pixel electrode (206) coincide with each other.