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    • 1. 发明授权
    • Method of fabricating a semiconductor optical device
    • 制造半导体光学器件的方法
    • US07723138B2
    • 2010-05-25
    • US11902781
    • 2007-09-25
    • Tomokazu Katsuyama
    • Tomokazu Katsuyama
    • H01L21/00
    • H01S5/0265B82Y20/00G02F1/015G02F1/01708H01S5/12H01S5/2224H01S5/2275H01S5/34306
    • A method of fabricating a semiconductor optical device is disclosed. This semiconductor optical device includes first and second optical semiconductor elements. This method comprises the steps of: growing, in a metal-organic vapor phase deposition reactor, plural semiconductor layers for the first semiconductor optical element on a primary surface of a substrate which has first and second areas for the first semiconductor optical element and the second optical semiconductor element, respectively; forming an insulating mask on the plural semiconductor layers and the first area; etching the plural semiconductor layers by use of the insulating mask to form a semiconductor portion having an end face; growing a layer of a first semiconductor on the second area and deposit of the first semiconductor on the end face in the reactor by use of the insulating mask; supplying etchant for etching the first semiconductor to remove at least a part of the deposit of the first semiconductor on the end face by use of the insulating mask; and after removing the deposit of the first semiconductor, growing a layer of a second semiconductor for the second optical element on the second area in the reactor by use of the insulating mask.
    • 公开了制造半导体光学器件的方法。 该半导体光学器件包括第一和第二光学半导体元件。 该方法包括以下步骤:在金属 - 有机气相沉积反应器中生长用于第一半导体光学元件的第一半导体光学元件的第一和第二区域的第一半导体光学元件的主表面上的多个半导体层, 光半导体元件; 在所述多个半导体层和所述第一区域上形成绝缘掩模; 通过使用绝缘掩模蚀刻多个半导体层以形成具有端面的半导体部分; 在第二区域上生长第一半导体层,并且通过使用绝缘掩模将第一半导体沉积在反应器的端面上; 提供用于蚀刻第一半导体的蚀刻剂,以通过使用绝缘掩模去除端面上的第一半导体的沉积物的至少一部分; 并且在去除第一半导体的沉积物之后,通过使用绝缘掩模在反应器的第二区域上生长用于第二光学元件的第二半导体层。
    • 2. 发明授权
    • Method of producing semiconductor optical device
    • 制造半导体光学器件的方法
    • US07816157B2
    • 2010-10-19
    • US12364718
    • 2009-02-03
    • Tomokazu Katsuyama
    • Tomokazu Katsuyama
    • H01L21/20
    • H01S5/0425B82Y20/00H01S5/0265H01S5/12H01S5/2275H01S5/3054H01S5/34306H01S2304/04
    • The invention discloses a method of producing on a substrate a semiconductor optical device having a laser diode and an EA optical modulator. An etched side face of a first semiconductor portion is formed. Then, for example, a first optical confinement layer and an active layer both for the EA optical modulator are grown by the metal organic vapor phase epitaxy method. The first optical confinement layer is grown by supplying hydrogen chloride in addition to a material gas. When the first optical confinement layer is grown, the formation of a thick semiconductor layer along the etched side face, which is an abnormally grown semiconductor layer, is decreased. Subsequently, the active layer for the EA optical modulator is grown. This method can suppress the active layer for the EA optical modulator from bending caused by the abnormally grown semiconductor layer.
    • 本发明公开了一种在衬底上制造具有激光二极管和EA光调制器的半导体光学器件的方法。 形成第一半导体部分的蚀刻侧面。 然后,例如,通过金属有机气相外延法生长用于EA光调制器的第一光限制层和有源层。 除了原料气体之外,通过供给氯化氢来生长第一光学限制层。 当第一光限制层生长时,沿着作为异常生长的半导体层的蚀刻侧面形成厚半导体层减小。 随后,生长用于EA光调制器的有源层。 该方法可以抑制EA光调制器的有源层由异常生长的半导体层引起的弯曲。
    • 3. 发明授权
    • Integrated optical device and fabrication method thereof
    • 集成光学元件及其制造方法
    • US07678594B2
    • 2010-03-16
    • US11806067
    • 2007-05-29
    • Tomokazu Katsuyama
    • Tomokazu Katsuyama
    • H01L21/00
    • H01L22/26B82Y20/00H01L27/15H01S5/0265H01S5/12H01S5/34306
    • An integrated optical device comprising a first semiconductor optical element provided on a first region of the main face of a substrate and a second semiconductor optical element provided on a second region and optically coupled to the first semiconductor optical element is fabricated. A first III-V compound semiconductor layer containing Al element is formed on the main face. A second III-V compound semiconductor layer for forming the first semiconductor optical element is then formed on the first III-V compound semiconductor layer. An etching mask M is formed on the first region. The end point of the dry etching is detected by using the etching mask M to dry-etch the second III-V compound semiconductor layer while detecting Al element. The first semiconductor optical element is thus formed. The second semiconductor optical element is formed on the second region.
    • 一种集成光学器件,其包括设置在基板的主面的第一区域上的第一半导体光学元件和设置在第二区域上并光学耦合到第一半导体光学元件的第二半导体光学元件。 在主面上形成含有Al元素的第一III-V族化合物半导体层。 然后在第一III-V族化合物半导体层上形成用于形成第一半导体光学元件的第二III-V族化合物半导体层。 在第一区域上形成蚀刻掩模M. 通过使用蚀刻掩模M来检测干蚀刻的终点,以在检测Al元素的同时对第二III-V化合物半导体层进行干法蚀刻。 由此形成第一半导体光学元件。 第二半导体光学元件形成在第二区域上。
    • 4. 发明授权
    • Light-emitting device on n-type InP substrate heavily doped with sulfur
    • 在n型InP衬底上重掺杂硫的发光器件
    • US07627009B2
    • 2009-12-01
    • US11907135
    • 2007-10-09
    • Tomokazu KatsuyamaMichio Murata
    • Tomokazu KatsuyamaMichio Murata
    • H01S5/20H01S5/00H01L33/00
    • H01S5/305H01L33/30H01S5/06226H01S5/2223H01S5/227H01S5/2275H01S5/3054H01S5/3211
    • The present invention provides a structure of a light-emitting device which prevents the inter diffusion of impurities from the high-doped n-type InP substrate to a p-type current blocking layer. The substrate of the invention is highly doped with sulfur (S) to obtain high quality surface whose etch pit density (EPD) is less than 100 cm−2. The device includes such substrate, an optical guiding portion with an active layer, and a current blocking portion provided so as to bury the guiding portion. This current blocking portion includes, from the side of the substrate, a p-type layer, an n-type layer and another p-type layer. The device of the invention provides an n-type layer that is moderately doped with silicon between the n-type substrate and the p-type current blocking layer to prevent the inter diffusion of impurities from the substrate to the p-type layer.
    • 本发明提供了防止杂质从高掺杂n型InP衬底到p型电流阻挡层的相互扩散的发光器件的结构。 本发明的衬底高度掺杂有硫(S)以获得蚀刻坑密度(EPD)小于100cm-2的高质量表面。 该装置包括这种基板,具有有源层的光引导部分和设置成埋入引导部分的电流阻挡部分。 该电流阻挡部分包括从衬底侧的p型层,n型层和另一p型层。 本发明的器件提供了在n型衬底和p型电流阻挡层之间适度掺杂硅的n型层,以防止杂质从衬底到p型层的相互扩散。
    • 5. 发明申请
    • METHOD OF PRODUCING SEMICONDUCTOR OPTICAL DEVICE
    • 生产半导体光学器件的方法
    • US20090203159A1
    • 2009-08-13
    • US12364718
    • 2009-02-03
    • Tomokazu Katsuyama
    • Tomokazu Katsuyama
    • H01L33/00
    • H01S5/0425B82Y20/00H01S5/0265H01S5/12H01S5/2275H01S5/3054H01S5/34306H01S2304/04
    • The invention discloses a method of producing on a substrate a semiconductor optical device having a laser diode and an EA optical modulator. An etched side face of a first semiconductor portion is formed. Then, for example, a first optical confinement layer and an active layer both for the EA optical modulator are grown by the metal organic vapor phase epitaxy method. The first optical confinement layer is grown by supplying hydrogen chloride in addition to a material gas. When the first optical confinement layer is grown, the formation of a thick semiconductor layer along the etched side face, which is an abnormally grown semiconductor layer, is decreased. Subsequently, the active layer for the EA optical modulator is grown. This method can suppress the active layer for the EA optical modulator from bending caused by the abnormally grown semiconductor layer.
    • 本发明公开了一种在衬底上制造具有激光二极管和EA光调制器的半导体光学器件的方法。 形成第一半导体部分的蚀刻侧面。 然后,例如,通过金属有机气相外延法生长用于EA光调制器的第一光限制层和有源层。 除了原料气体之外,通过供给氯化氢来生长第一光学限制层。 当第一光限制层生长时,沿着作为异常生长的半导体层的蚀刻侧面形成厚半导体层减小。 随后,生长用于EA光调制器的有源层。 该方法可以抑制EA光调制器的有源层由异常生长的半导体层引起的弯曲。
    • 6. 发明申请
    • Light-emitting device on n-type InP substrate heavily doped with sulfur
    • 在n型InP衬底上重掺杂硫的发光器件
    • US20080095206A1
    • 2008-04-24
    • US11907135
    • 2007-10-09
    • Tomokazu KatsuyamaMichio Murata
    • Tomokazu KatsuyamaMichio Murata
    • H01S5/026H01L33/00
    • H01S5/305H01L33/30H01S5/06226H01S5/2223H01S5/227H01S5/2275H01S5/3054H01S5/3211
    • The present invention provides a structure of a light-emitting device which prevents the inter diffusion of impurities from the high-doped n-type InP substrate to a p-type current blocking layer. The substrate of the invention is highly doped with sulfur (S) to obtain high quality surface whose etch pit density (EPD) is less than 100 cm−2. The device includes such substrate, an optical guiding portion with an active layer, and a current blocking portion provided so as to bury the guiding portion. This current blocking portion includes, from the side of the substrate, a p-type layer, an n-type layer and another p-type layer. The device of the invention provides an n-type layer that is moderately doped with silicon between the n-type substrate and the p-type current blocking layer to prevent the inter diffusion of impurities from the substrate to the p-type layer.
    • 本发明提供了防止杂质从高掺杂n型InP衬底到p型电流阻挡层的相互扩散的发光器件的结构。 本发明的衬底高度掺杂有硫(S),以获得蚀刻坑密度(EPD)小于100cm -2的高质量表面。 该装置包括这种基板,具有有源层的光引导部分和设置成埋入引导部分的电流阻挡部分。 该电流阻挡部分包括从衬底侧的p型层,n型层和另一p型层。 本发明的器件提供了在n型衬底和p型电流阻挡层之间适度掺杂硅的n型层,以防止杂质从衬底到p型层的相互扩散。
    • 8. 发明授权
    • Method for forming a semiconductor light-emitting device
    • 半导体发光元件的形成方法
    • US07998770B2
    • 2011-08-16
    • US12153372
    • 2008-05-16
    • Atsushi MatsumuraTomokazu Katsuyama
    • Atsushi MatsumuraTomokazu Katsuyama
    • H01L21/00
    • H01S5/227B82Y20/00H01S5/2224H01S5/2226H01S5/2275H01S5/3434
    • A semiconductor light-emitting device with a new layer structure is disclosed, where the current leaking path is not caused to enhance the current injection efficiency within the active layer. The device provides a mesa structure containing active layer and a p-type lower cladding layer on a p-type substrate and a burying layer doped with iron (Fe) to bury the mesa structure, where the burying layer shows a semi-insulating characteristic. The device also provides an n-type blocking layer arranged so as to cover at least a portion of the p-type buffer lower within the mesa structure. The n-type blocking layer prevents the current leaking from the burying layer to the p-type buffer layer, and the semi-insulating burying layer that covers the rest portion of the mesa structure not covered by the n-type blocking layer prevents the current leaking from the n-type blocking layer to the n-type cladding layer within the mesa structure.
    • 公开了一种具有新层结构的半导体发光器件,其中不引起电流泄漏路径增强有源层内的电流注入效率。 该器件提供了在p型衬底上包含有源层和p型下包层的台面结构,以及掺杂有铁(Fe)的掩埋层以埋藏台面结构,其中掩埋层显示半绝缘特性。 该装置还提供了一种n型阻挡层,其布置成覆盖在台面结构内部的p型缓冲器的至少一部分。 n型阻挡层防止电流从掩埋层泄漏到p型缓冲层,并且覆盖未被n型阻挡层覆盖的台面结构的其余部分的半绝缘掩埋层防止电流 在台面结构内从n型阻挡层泄漏到n型包覆层。
    • 9. 发明申请
    • Method for forming a semiconductor light-emitting device and a semiconductor light-emitting device
    • 用于形成半导体发光器件和半导体发光器件的方法
    • US20090001408A1
    • 2009-01-01
    • US12153372
    • 2008-05-16
    • Atsushi MatsumuraTomokazu Katsuyama
    • Atsushi MatsumuraTomokazu Katsuyama
    • H01L33/00H01L21/00
    • H01S5/227B82Y20/00H01S5/2224H01S5/2226H01S5/2275H01S5/3434
    • A semiconductor light-emitting device with a new layer structure is disclosed, where the current leaking path is not caused to enhance the current injection efficiency within the active layer. The device provides a mesa structure containing active layer and a p-type lower cladding layer on a p-type substrate and a burying layer doped with iron (Fe) to bury the mesa structure, where the burying layer shows a semi-insulating characteristic. The device also provides an n-type blocking layer arranged so as to cover at least a portion of the p-type buffer lower within the mesa structure. The n-type blocking layer prevents the current leaking from the burying layer to the p-type buffer layer, and the semi-insulating burying layer that covers the rest portion of the mesa structure not covered by the n-type blocking layer prevents the current leaking from the n-type blocking layer to the n-type cladding layer within the mesa structure.
    • 公开了一种具有新层结构的半导体发光器件,其中不引起电流泄漏路径增强有源层内的电流注入效率。 该器件提供了在p型衬底上包含有源层和p型下包层的台面结构,以及掺杂有铁(Fe)的掩埋层以埋藏台面结构,其中掩埋层显示半绝缘特性。 该装置还提供了一种n型阻挡层,其布置成覆盖在台面结构内部的p型缓冲器的至少一部分。 n型阻挡层防止电流从掩埋层泄漏到p型缓冲层,并且覆盖未被n型阻挡层覆盖的台面结构的其余部分的半绝缘掩埋层防止电流 在台面结构内从n型阻挡层泄漏到n型包覆层。