Abstract:
PURPOSE: An integrated thin film solar cell and manufacturing method thereof arranges trenches to the electrode layer and solar battery layer and embody the high integration. CONSTITUTION: The integrated thin film solar cell comprises the first electrode layer(110), the solar battery layer(120), and the second electrode layer(130). The first electrode layer, the solar battery layer, and the second electrode layer are successively laminated on the substrate(100). The first electrode layer, and the solar battery layer and the second electrode layer have the first and second trench. In the first and second trenches is the first electrode layer, and the solar battery layer and the second electrode layer, a plurality of unit thin film solar cells is defined. The integrated thin film solar cell more includes the insulator(140) and conductor(150). The conductor is arranged on insulator.
Abstract:
본 발명은 집적형 태양전지의 제조 공정시 발생되는 면적손실을 최소화하고 저가의 공정으로도 가능한 집적형 박막 실리콘 태양전지 제조 방법에 관한 것이다. 이러한 본 발명에 따른 집적형 박막 태양전지의 제조방법은 (a) 투명기판 상에 인접하고 있는 상호간 소정의 간격으로 이격되도록 패터닝된 투명전극을 형성하는 단계와, (b) 상기 (a)단계에 의한 기판 위에 태양전지(반도체)층을 형성하는 단계와, (c) 상기 태양전지(반도체)층 위에 금속을 비스듬히 증착하여 1차 금속이면전극을 형성하는 단계와, (d) 상기 1차 금속이면전극을 마스크로 사용하여 상기 태양전지(반도체)층을 식각하는 단계 및 (e) 상기 (d)단계에 의한 기판 위에 금속을 비스듬히 증착하여 상기 투명전극과 상기 1차 금속이면전극이 전기적으로 연결되도록 2차 금속이면전극을 형성하는 단계를 포함한다. 이러한 본 발명에 따르면, 집적형 박막 태양전지의 단위 소자간 절연 간격을 기존에 비해 수십 배 내지 수백 배 이상 줄일 수 있어 태양전지의 유효 면적을 극대화할 수 있으며, 자기 정렬이 가능하여 정확한 위치제어장치가 불필요하고, 투명전극 형성 후의 모든 공정이 진공 중에서 수행되기 때문에 대기 상태에 노출됨에 따른 태양전지 모듈의 성능 저하를 방지할 수 있는 효과가 있다. 집적형 박막 태양전지, 모듈화, 투명전극, 금속이면전극, 경사에칭
Abstract:
A projection display device is provided to increase light utilizing efficiency and improve the picture quality of a projection screen by using a micro-lens array and a micro-mirror array. A substrate(40) is distanced from a light source at a predetermined interval. A plurality of micro-mirrors(30) is rotatively installed on a surface of the substrate so that each of the micro-mirrors has a predetermined sized incident angle with respect to an incident light. A first micro-lens array(70) is disposed between the light source and the substrate, and has a plurality of first micro-lenses corresponding to the micro-mirrors. A second micro-lens array(80) is disposed on an advancing path of a reflected light, which is reflected from the micro-mirrors. The second micro-lens array has a plurality of second micro-lenses corresponding to the micro-mirrors.
Abstract:
PURPOSE: A micromirror device using a cantilever is provided to obtain two stable states of rotation by forming the micromirror device having a symmetric structure. CONSTITUTION: A micromirror device using a cantilever includes a substrate(21), two electrodes(22,23), a cantilever support portion(24), two cantilevers(31,32), a couple of mirror support portions(26,27), and a mirror(20). An addressing circuit is formed on the substrate. The electrodes are formed on the substrate to be electrically connected to the addressing circuit. The cantilever support portion is formed vertically to a center of the substrate. The cantilever support portion is electrically connected to the addressing circuit. The cantilevers are horizontally supported by the cantilever support portion. The mirror support portions are formed vertically to each end of the cantilevers. The mirror is loaded on the mirror support portions. The cantilevers are modified by the electrostatic force between the electrodes and the cantilevers or the electrodes and the mirror.
Abstract:
PURPOSE: An apparatus and a method for a photo-induced process are provided to perform easily the photo-induced process by utilizing vacuum ultraviolet rays. CONSTITUTION: A reaction room housing has an opening portion for transmitting the light and a support plate for supporting a sample or a substrate. A light source(340) is used for irradiating the light into a reaction room(350) through the opening portion. A transparent film hangar housing is located between a light emitting side of the light source(340) and the opening portion of the reaction room(350). A lower plate of the transparent film hangar housing is combined with an upper plate of the reaction room(350). A transparent film(330) is horizontally installed in the inside of the transparent film hangar housing. The first flange(306) is formed around an opening portion of an edge of the light source(340). The second flange(308) is welded around an opening portion of a hangar. A flexible portion(370) has the third flange connected with the first and the second flanges(306,308). A driving portion is used for shifting the light source(340) to an upper portion or a lower portion.
Abstract:
본 발명의 광기전력 장치의 제조 방법은 제1 전극 및 제2 전극 사이에 위치하는 활성층을 챔버 내에서 형성하며, 미리 혼합된 수소 가스와 실리콘 포함 원료 가스가 상기 챔버 내로 유입되며, 상기 혼합된 수소 가스와 실리콘 포함 원료 가스의 수소 희석비는 주기적으로 증감하는 것을 특징으로 한다.
Abstract:
PURPOSE: A method for manufacturing a mold and a photovoltaic device by using the same are provided to manufacture the photovolatic device simply and inexpensively. CONSTITUTION: A mold manufacturing substrate(100), including the material that is not removed by a laser having a specific wave, is prepared. A layer(110) for producing a mold, including the material removed by the laser, is formed on the top of the substrate for producing the mold. The laser is irradiated on the layer for the mold production so that a groove(120) for the mold production is formed on the layer for the mold production.
Abstract:
PURPOSE: An integrated thin film solar cell and manufacturing method thereof are provided to controls the etching of the solar battery layer. CONSTITUTION: The integrated thin film solar cell comprises insulation bank patterns(110a, 110b) first electrode layers(120a, 120b) and solar battery layers(135a, 135b). The insulation bank pattern is arranged on the substrate(100). The first electrode layer is arranged between insulation bank patterns. The solar battery layer is arranged on insulation bank patterns. The solar battery layer partly exposes the first electrode layer. The integrated thin film solar cell more includes second electrode layers(140a, 140b, 140c) and conductive layers(150a, 150a, 150b). The second electrode layer is arranged on the solar battery layer. The conductive layer (conductive film) is arranged on the solar battery layer, and the first and second electrode layer. The conductive layer electrically connects the first and neighboring second electrode layers.
Abstract:
A method for forming a polymer or resist pattern is provided to form a polymer or resist pattern of a three-dimensional asymmetrical structure having various slopes and shapes by adjusting the diffusion degree and diffusion intensity together with the progression direction of incident light in a photolithography process while using conventional lithography equipment. Photosensitive polymer or resist is deposited on a substrate(400) to form a polymer or resist layer(410). An exposure portion is determined on the polymer or resist layer wherein a photomask(420), an embedded mask or a metal pattern can be formed on the polymer or resist layer. A light refraction layer(440) or a light diffusion layer(430) is disposed on the path of the light exposed to the polymer or resist layer. Light transmitting the light refraction layer and the light diffusion layer is irradiated to the exposure portion of the polymer or resist layer to form a polymer or resist pattern.