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    • 3. 发明授权
    • Method for fabricating solar cell
    • 制造太阳能电池的方法
    • US5510272A
    • 1996-04-23
    • US352118
    • 1994-12-01
    • Hiroaki MorikawaHisao Kumabe
    • Hiroaki MorikawaHisao Kumabe
    • H01L31/04H01L31/0352H01L31/18
    • H01L31/1892H01L31/035281H01L31/1804H01L31/1868Y02E10/547Y02P70/521Y10S136/29Y10S148/125Y10S148/128Y10S148/135Y10S148/153Y10S438/958Y10S438/977
    • In a method of producing a solar cell, a photovoltaic thin semiconductor crystalline film is formed on an underlying substrate and hydrogen passivated throughout the film thickness direction of the photovoltaic film whereby a high efficiency solar cell is obtained. In addition, since the passivation process is performed before forming a rear surface electrode on the thin semiconductor crystalline film, the passivation process is not limited by the rear surface electrode. Thereby, a solar cell having a higher energy conversion efficiency is obtained. The passivation process is performed by exposing the thin semiconductor crystalline film to a hydrogen ion ambient having a low acceleration energy, below 2 KeV, or to a plasma ambient. Therefore, the uniformity of the passivation process at a wafer surface is improved and a large area wafer can be efficient processed. Furthermore, the passivation process can be performed to a plurality of solar cells having the thin semiconductor crystalline films and arranged in a module.
    • 在制造太阳能电池的方法中,在下层基板上形成光电薄膜半导体结晶膜,在光电膜的整个膜厚方向上氢钝化,得到高效率的太阳能电池。 此外,由于在薄半导体结晶膜上形成后表面电极之前进行钝化处理,所以钝化处理不受背面电极的限制。 从而获得具有较高能量转换效率的太阳能电池。 通过将薄半导体晶体膜暴露于具有低加速能量,低于2KeV的氢离子环境或者等离子体环境来进行钝化处理。 因此,晶片表面的钝化处理的均匀性得到改善,可以有效地处理大面积晶片。 此外,可以对具有薄半导体晶体膜并且布置在模块中的多个太阳能电池执行钝化处理。
    • 5. 发明授权
    • Semiconductor laser device of refractive index guide type
    • 折射率导向型半导体激光器件
    • US4750184A
    • 1988-06-07
    • US30897
    • 1987-03-25
    • Hisao Kumabe
    • Hisao Kumabe
    • H01S5/00H01S5/223H01S3/19
    • H01S5/2232H01S5/2234H01S5/2237
    • A semiconductor laser device comprises a semiconductor substrate of the first conductive type, with a groove, the width of the bottom of which is greater than that of the top, a current blocking layer of the second conducting type, formed on said semiconductor substrate discontinuously at both sidewalls of said groove, a lower side cladding layer of the first conductive type for covering said current blocking layer and the sidewalls of said groove, an active layer formed on said lower side cladding layer and having an band gap smaller than that of said lower side cladding layer and a large refractive index, an upper side cladding layer of the second conductive type formed on said active layer and having an band gap greater than that of the active layer and a small refractive index, and a contact layer of the second conductive type formed on said upper cladding layer so that it is possible to easily grow a high quality crystal repeatedly with merely one crystal growth process and that the laser device has a stable fundamental transverse-mode operation, a low threshold current and small astigmatisms.
    • 半导体激光器件包括第一导电类型的半导体衬底,其凹槽的底部的宽度大于顶部的宽度,第二导电类型的电流阻挡层不连续地形成在所述半导体衬底上 所述槽的两个侧壁,用于覆盖所述电流阻挡层和所述槽的侧壁的第一导电类型的下侧包覆层,形成在所述下侧包覆层上并具有小于所述下部覆层的带隙的有源层 所述第二导电类型的上侧包层形成在所述有源层上并且具有大于有源层的带隙和小的折射率的带隙,以及所述第二导电类型的接触层 形成在所述上包层上,使得可以通过仅一个晶体生长过程和该t重复地容易地重现高质量的晶体 他的激光器件具有稳定的基本横向模式操作,低阈值电流和小散光。
    • 10. 发明授权
    • Method for fabricating solar cell
    • 制造太阳能电池的方法
    • US5637510A
    • 1997-06-10
    • US596414
    • 1996-02-02
    • Hiroaki MorikawaHisao Kumabe
    • Hiroaki MorikawaHisao Kumabe
    • H01L31/04H01L31/0352H01L31/18
    • H01L31/1892H01L31/035281H01L31/1804H01L31/1868Y02E10/547Y02P70/521Y10S136/29Y10S148/125Y10S148/128Y10S148/135Y10S148/153Y10S438/958Y10S438/977
    • In a method of producing a solar cell, a photovoltaic thin semiconductor crystalline film is formed on an underlying substrate and hydrogen passivated throughout the film thickness direction of the photovoltaic film whereby a high efficiency solar cell is obtained. In addition, since the passivation process is performed before forming a rear surface electrode on the thin semiconductor crystalline film, the passivation process is not limited by the rear surface electrode. Thereby, a solar cell having a higher energy conversion efficiency is obtained. The passivation process is performed by exposing the thin semiconductor crystalline film to a hydrogen ion ambient having a low acceleration energy, below 2 KeV, or to a plasma ambient. Therefore, the uniformity of the passivation process at a wafer surface is improved and a large area wafer can be efficient processed. Furthermore, the passivation process can be performed to a plurality of solar cells having the thin semiconductor crystalline films and arranged in a module.
    • 在制造太阳能电池的方法中,在下层基板上形成光电薄膜半导体结晶膜,在光电膜的整个膜厚方向上氢钝化,得到高效率的太阳能电池。 此外,由于在薄半导体结晶膜上形成后表面电极之前进行钝化处理,所以钝化处理不受背面电极的限制。 从而获得具有较高能量转换效率的太阳能电池。 通过将薄半导体晶体膜暴露于具有低加速能量,低于2KeV的氢离子环境或者等离子体环境来进行钝化处理。 因此,晶片表面的钝化处理的均匀性得到改善,可以有效地处理大面积晶片。 此外,可以对具有薄半导体晶体膜并且布置在模块中的多个太阳能电池执行钝化处理。