A transflective liquid crystal display including a black matrix substrate and an array substrate opposite to the black matrix substrate via a liquid crystal layer, the black matrix substrate comprising: a transparent substrate; a black matrix formed on the transparent substrate and having openings that form rectangular pixels, the rectangular pixels having each a transmission region and a reflection region, wherein the transmission region and the reflection region of each pixel are formed symmetrically about the center of the pixel, the transmission region being formed in the center; a transparent electroconductive film formed on the transparent substrate and the black matrix; a resin layer formed on the transparent electroconductive film and having a concave region at the center of each of the pixels so as to form a step in the concave region; and a cell gap adjusting layer formed on the resin layer except in the transmission region of the pixels to adjust an optical path difference between the transmission regions and the reflection regions and to form steps between the reflective region and transmissive region, the cell gap adjusting layer forming with the resin layer convex regions above the black matrix, such that steps are formed in each pixel between the convex region projected above the black matrix and the reflective region; wherein, in the transmission region, the resin layer is laminated on the transparent electroconductive film; in the reflection region, the resin layer and the cell gap adjusting layer are laminated on the transparent electroconductive film; wherein the steps of the cell gap adjusting layer and the steps of the resin layer formed at the concave region align liquid crystal molecules (17a-c) in the liquid crystal layer obliquely to the substrates; the array substrate comprising for each pixel first and second electrodes (11, 12) adapted to receive different electric potentials to drive a corresponding pixel and adapted to form an oblique electrical field with the transparent electroconductive film. a transparent substrate; a black matrix formed on the transparent substrate and having openings that form rectangular pixels, the rectangular pixels having each a transmission region and a reflection region, wherein the transmission region and the reflection region of each pixel are formed symmetrically about the center of the pixel, the transmission region being formed in the center; a transparent electroconductive film formed on the transparent substrate and the black matrix; a resin layer formed on the transparent electroconductive film and having a concave region at the center of each of the pixels so as to form a step in the concave region; and a cell gap adjusting layer formed on the resin layer except in the transmission region of the pixels to adjust an optical path difference between the transmission regions and the reflection regions and to form steps between the reflective region and transmissive region, the cell gap adjusting layer forming with the resin layer convex regions above the black matrix, such that steps are formed in each pixel between the convex region projected above the black matrix and the reflective region; wherein, in the transmission region, the resin layer is laminated on the transparent electroconductive film; in the reflection region, the resin layer and the cell gap adjusting layer are laminated on the transparent electroconductive film; wherein the steps of the cell gap adjusting layer and the steps of the resin layer formed at the concave region align liquid crystal molecules (17a-c) in the liquid crystal layer obliquely to the substrates; the array substrate comprising for each pixel first and second electrodes (11, 12) adapted to receive different electric potentials to drive a corresponding pixel and adapted to form an oblique electrical field with the transparent electroconductive film.