Abstract: Disclosed is a marine organism antifouling apparatus for ships using a UV-C module. The marine organism antifouling apparatus includes circular or polygonal net units and at least one UV-C module configured to be turned on to emit ultraviolet light by power supplied thereto, the UV-C module being provided at each of the net units, wherein the net units are connected to each other in horizontal and vertical directions to constitute a net member, and ultraviolet light is emitted from the UV-C module to prevent attachment of marine organisms in the state in which an underwater exposure zone of a ship that is moored is surrounded by the net member.

Abstract: An image sensor includes a photoelectric conversion section in a semiconductor substrate, the photoelectric conversion section having a capping layer of a first conductivity type and a photodiode of a second conductivity type below the capping layer, the photodiode having an upper surface deeper than about 1 ?m, as measured from an upper surface of the semiconductor substrate, a charge detection section receiving charges stored in the photoelectric conversion through a charge transfer section and converting the received charges into respective electrical signals, a voltage application section adapted to apply voltage to the capping layer and to a lower portion of the semiconductor substrate to control a width of a depletion layer on the photodiode, and a signal operation section adapted to generate red, green, and blue, signals according to signals from the charge detection section.

Abstract: An image sensor includes a photoelectric conversion section in a semiconductor substrate, the photoelectric conversion section having a capping layer of a first conductivity type and a photodiode of a second conductivity type below the capping layer, the photodiode having an upper surface deeper than about 1 ?m, as measured from an upper surface of the semiconductor substrate, a charge detection section receiving charges stored in the photoelectric conversion through a charge transfer section and converting the received charges into respective electrical signals, a voltage application section adapted to apply voltage to the capping layer and to a lower portion of the semiconductor substrate to control a width of a depletion layer on the photodiode, and a signal operation section adapted to generate red, green, and blue, signals according to signals from the charge detection section.

Abstract: Disclosed are a complementary metal oxide semiconductor (CMOS) image sensor and a method of forming the same. The CMOS image sensor comprises a semiconductor substrate having a photodiode region and a transistor region. An optical path is formed between a micro lens on the photodiode region and a photodiode formed on the semiconductor substrate. The optical path comprises an inner lens formed between an intermetal insulation layer on the photodiode region and a transparent optical region formed on the inner lens. The transparent optical region generally has a different refractive index from the inner lens.

Abstract: Disclosed are a complementary metal oxide semiconductor (CMOS) image sensor and a method of forming the same. The CMOS image sensor comprises a semiconductor substrate having a photodiode region and a transistor region. An optical path is formed between a micro lens on the photodiode region and a photodiode formed on the semiconductor substrate. The optical path comprises an inner lens formed between an intermetal insulation layer on the photodiode region and a transparent optical region formed on the inner lens. The transparent optical region generally has a different refractive index from the inner lens.

Abstract: Disclosed are a complementary metal oxide semiconductor (CMOS) image sensor and a method of forming the same. The CMOS image sensor comprises a semiconductor substrate having a photodiode region and a transistor region. An optical path is formed between a micro lens on the photodiode region and a photodiode formed on the semiconductor substrate. The optical path comprises an inner lens formed between an intermetal insulation layer on the photodiode region and a transparent optical region formed on the inner lens. The transparent optical region generally has a different refractive index from the inner lens.