Abstract:
A predetermined amount of adhesive (3) is dropped on microlenses (2) formed on a first transparent substrate (1), a second transparent substrate (4) is mounted thereon and one of the first and second transparent substrates (1,4) is rotated to provide a thin and uniform adhesive layer. Later the adhesive (3) is cured and integrated in a thin film transistor substrate (7), to which liquid crystal (9) is filled to obtain a liquid crystal panel (10). The distance D between the microlenses (2) and the second transparent substrate (4) is: 0
Abstract:
A cathode ray tube capable of reducing the doming amount and suppressing the occurrence of moire stripes at the same time with improved effects to suppress the occurrence of moire stripes even more is provided. The protruding portions 28a, 28b are protruding from the ends of the horizontal direction of the aperture to the inside of the aperture 27. With regard to the horizontal cross sections of the protruding portions 28a, 28b, the portions facing each other left and right via the aperture are formed to be asymmetrical to the center line 29 in order to reduce or block the incident electron beam. By forming the protruding portions 28a, 28b, the doming amount can be reduced and the occurrence of moire stripes can be suppressed at the same time. Furthermore, by forming the portions facing each other left and right of the protruding portions asymmetrically, the effects to suppress the occurrence of moire stripes can be improved even more.
Abstract:
A liquid crystal display device of the present invention comprises a device substrate (14) having a principal planar surface (hereafter referred to as a "first principal planar surface"), an opposed substrate (13) having a principal planar surface (hereafter referred to as a "second principal planar surface"), and a liquid crystal layer (6) and a sealing material (7) sealed between the device substrate (14) and the opposed substrate (13). The device substrate (14) has TFT pixels (10) on the first principal planar surface. On the other hand, the opposed substrate (13) has microlenses (2) formed on the second principal planar surface, spacers (3) that are formed on the second principal planar surface and are arranged around the microlenses (2), and a cover glass (a cover body) (5) provided on the microlenses (2) and the spacers (3). Thus, a difference in level at the boundary between the display screen area and the other area is avoided, and the spacers (3) can support the cover glass (5) against the stress in the thickness direction, thus lessening swelling or distortion produced in the cover glass (5). As a result, a liquid crystal display device in which less image-display irregularity can be found throughout a screen can be obtained.
Abstract:
A predetermined amount of adhesive (3) is dropped on microlenses (2) formed on a first transparent substrate (1), a second transparent substrate (4) is mounted thereon and one of the first and second transparent substrates (1,4) is rotated to provide a thin and uniform adhesive layer. Later the adhesive (3) is cured and integrated in a thin film transistor substrate (7), to which liquid crystal (9) is filled to obtain a liquid crystal panel (10). The distance D between the microlenses (2) and the second transparent substrate (4) is: 0
Abstract:
The method for driving a solid state image sensor according to the invention comprises
a step of reading signal charges from a cohort of a plurality of photosensitive elements (11-18) arranged in a matrix form, a step of transferring said signal charges to a storage region (42,62,82), a step of transferring the signal charges accumulated in said storage region (42,62,82) after completion of transfer and storage of signal charges from all the photosensitive elements (11-18) by repetition of the above-mentioned two steps, and a step of transferring said signal charges within a horizontal shift register (43,63,83) for outputting.
Abstract:
A solid state image sensor comprising a matrix of photosensitive elements adapted to accumulate signal charges corresponding to at least two different aspect ratios, a plurality of vertical shift registers disposed adjacent to columns of the photosensitive elements for a vertical transfer of the signal charges and a plurality of horizontal shift registers corresponding to the respective aspect ratios and disposed in parallel with each other for a horizontal transfer of the signal charges from the vertical shift registers. As a horizontal shift register exclusive to each aspect ratio is provided in the above manner, it is no longer necessary to superimpose the signal outputs of a plurality of buffer amplifiers so that a picture signal corresponding to the desired aspect ratio can be easily read out.