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    • 3. 发明授权
    • Method of manufacturing SOI wafer
    • 制造SOI晶圆的方法
    • US06844242B2
    • 2005-01-18
    • US10113291
    • 2002-04-02
    • Hideki NaruokaNobuyoshi HattoriHidekazu Yamamoto
    • Hideki NaruokaNobuyoshi HattoriHidekazu Yamamoto
    • H01L21/683H01L21/00H01L21/02H01L21/762H01L27/12H01L21/30H01L21/46
    • H01L21/67092H01L21/76251Y10S414/138
    • A boat (4) has a recess (5) for supporting a laminated wafer (50). The recess (5) has a first side surface (5a), a first bottom surface (5b), a second side surface (5c), a second bottom surface (5d) and a third side surface (5e). Viewing from an upper surface of the boat (4), the second bottom surface (5d) is located in a position lower than the first bottom surface (5b). The laminated wafer (50) is mounted on the boat (4) in the state that a side surface of a first silicon wafer (1) is not in contact with the second bottom surface (5d) of the recess (5) and a side surface of a second silicon wafer (2) is in contact with the first bottom surface (5b) of the recess (5). A second main surface (2a) of the second silicon wafer (2) is in contact with the first side surface (5a) of the recess (5) and a second main surface (1a) of the first silicon wafer (1) is in contact with the third side surface (5e) of the recess (5).
    • 船(4)具有用于支撑层叠晶片(50)的凹部(5)。 凹部(5)具有第一侧面(5a),第一底面(5b),第二侧面(5c),第二底面(5d)和第三侧面(5e)。 从船(4)的上表面看,第二底面(5d)位于比第一底面(5b)低的位置。 在第一硅晶片(1)的侧面与凹部(5)的第二底面(5d)不接触的状态下,将层叠晶片(50)安装在舟皿(4)上, 第二硅晶片(2)的表面与凹部(5)的第一底表面(5b)接触。 第二硅晶片(2)的第二主表面(2a)与凹部(5)的第一侧表面(5a)接触,并且第一硅晶片(1)的第二主表面(1a)处于 与凹部(5)的第三侧表面(5e)接触。
    • 4. 发明授权
    • Computer-implemented method of process analysis
    • 计算机实现的过程分析方法
    • US06769111B2
    • 2004-07-27
    • US10216844
    • 2002-08-13
    • Toshiaki MugibayashiNobuyoshi Hattori
    • Toshiaki MugibayashiNobuyoshi Hattori
    • G06F1750
    • H01L22/20
    • A computer-implemented method of process analysis allows for accurate analysis of the degree of achievement of a predetermined effect exhibited by a predetermined process included in a manufacturing operation. In a step S2, a first manufacturing operation including a predetermined cleaning process is performed to form chips on wafers to be cleaned. In a step S3, a second manufacturing operation including details identical to those of the first manufacturing operation except the predetermined cleaning process is performed to form chips on wafers not to be cleaned. In a step S4, an electric tester is applied to all the chips formed on the wafers to be cleaned and the wafers not to be cleaned, to determine the quality of each chip. In a step S5, all the chips are classified into four categories according to the kind of wafer (i.e., the wafer to be cleaned or the wafer not to be cleaned) and the quality as determined of each chip. Then, in a step S6, the effect of improving the quality of a chip achieved by the predetermined cleaning process is analyzed using the classification performed in the step S5 as “chip classification data”.
    • 计算机实现的过程分析方法允许对包括在制造操作中的预定处理所呈现的预定效果的实现程度进行准确分析。 在步骤S2中,执行包括预定清洁处理的第一制造操作以在待清洁的晶片上形成芯片。 在步骤S3中,执行包括与除了预定清洁处理之外的第一制造操作相同的细节的第二制造操作,以在不被清洁的晶片上形成芯片。 在步骤S4中,将电测试器施加到待清洁的晶片上形成的所有芯片和不被清洁的晶片,以确定每个芯片的质量。 在步骤S5中,根据晶片的种类(即要清洗的晶片或不被清洗的晶片)和每个芯片所确定的质量,将所有芯片分为四类。 然后,在步骤S6中,使用在步骤S5中执行的分类作为“芯片分类数据”来分析提高通过预定清洁处理实现的芯片的质量的效果。
    • 5. 发明授权
    • Method of manufacturing SOI substrate and semiconductor device
    • 制造SOI衬底和半导体器件的方法
    • US06372593B1
    • 2002-04-16
    • US09619579
    • 2000-07-19
    • Nobuyoshi HattoriSatoshi YamakawaJunji Nakanishi
    • Nobuyoshi HattoriSatoshi YamakawaJunji Nakanishi
    • H01L21331
    • H01L21/76256H01L27/10873H01L27/1203Y10S438/933
    • First, a silicon germanium single-crystalline layer and a silicon single-crystalline layer are formed on a main surface of a bond wafer by epitaxy. The overall surface of the bond wafer is oxidized for forming a silicon oxide layer. Then, a base wafer is bonded to the bond wafer. The bond wafer and the base wafer bonded to each other are heated for reinforcing adhesion therebetween. Then, the bond wafer is removed by plasma etching with chlorine gas while making the silicon germanium single-crystalline layer serve as a stopper. Thereafter the silicon germanium single-crystalline layer is polished by chemical mechanical polishing to have a thickness suitable for forming a device. Thus implemented is a method of manufacturing an SOI substrate by bonding capable of employing a layer having a crystal state with small irregularity for serving as a stopper having selectivity for single-crystalline silicon and effectively using the stopper as a device forming layer.
    • 首先,通过外延在接合晶片的主表面上形成硅锗单晶层和硅单晶层。 接合晶片的整个表面被氧化以形成氧化硅层。 然后,将基底晶片接合到接合晶片。 将接合晶片和彼此接合的基底晶片加热,以加强它们之间的粘合。 然后,通过用氯气等离子体蚀刻除去接合晶片,同时使硅锗单晶层用作止动器。 此后,通过化学机械抛光对硅锗单晶层进行抛光,以具有适于形成器件的厚度。 这样实现的是通过接合制造SOI衬底的方法,该SOI衬底可以采用具有小的不规则性的晶体状态的层作为具有对单晶硅的选择性的阻挡层,并且有效地使用该阻挡件作为器件形成层。
    • 6. 发明授权
    • Quality management system and recording medium
    • 质量管理体系和记录介质
    • US06202037B1
    • 2001-03-13
    • US09123457
    • 1998-07-28
    • Nobuyoshi HattoriKaoru YamanaTomoki Tamada
    • Nobuyoshi HattoriKaoru YamanaTomoki Tamada
    • G06F1900
    • H01L22/20H01L2924/0002H01L2924/00
    • A quality management system (S100) comprises a data processing unit (11), a processed-data judgment unit (12) receiving an output from the data processing unit (11), a sampling unit (13) receiving an output from the processed-data judgment unit (12), a file making unit (14) receiving an output from the sampling unit (13), a data processing unit (15) receiving an output from an observation unit (20) and a processed-data judgment unit (16) receiving an output from the data processing unit (15). The system (S100) having this constitution allows reduction in labor and time from finding of a defect to recognition of occurrence of abnormal condition and improvement in accuracy of fatality rate of the defect.
    • 质量管理系统(S100)包括数据处理单元(11),接收来自数据处理单元(11)的输出的处理数据判断单元(12),接收来自处理单元(11)的输出的采样单元(13) 数据判断单元(12),接收来自采样单元(13)的输出的文件制作单元(14),接收来自观察单元(20)和处理数据判断单元(20)的输出的数据处理单元(15) 16)接收来自数据处理单元(15)的输出。 具有这种结构的系统(S100)允许减少从缺陷的发现到识别异常状况的发生的劳动和时间,并且提高缺陷的死亡率的精度。
    • 9. 发明授权
    • Method of manufacturing a semiconductor device
    • 制造半导体器件的方法
    • US07674668B2
    • 2010-03-09
    • US12005444
    • 2007-12-26
    • Norio IshitsukaNobuyoshi HattoriTomio Iwasaki
    • Norio IshitsukaNobuyoshi HattoriTomio Iwasaki
    • H01L21/336H01L21/265
    • H01L21/26506H01L21/26513H01L29/6653H01L29/6656H01L29/6659
    • After a gate electrode is formed on a main surface of a semiconductor substrate, low concentration layers are formed on the main surface of the semiconductor substrate by implanting impurities therein, with using the gate electrode as a mask. Thereafter, first sidewalls and second sidewalls are formed on the both side surfaces of the gate electrode. Subsequently, nitrogen or the like is ion-implanted into the semiconductor substrate, with using the first sidewalls, the second sidewalls and the gate electrode as a mask, thereby forming a crystallization-control region (CCR) on the main surface of the semiconductor substrate. Then, after the second sidewalls are removed, high concentration layers for a source and a drain are formed on the main surface of the semiconductor substrate.
    • 在半导体衬底的主表面上形成栅电极之后,通过使用栅电极作为掩模,在半导体衬底的主表面上注入杂质,形成低浓度层。 此后,在栅电极的两个侧表面上形成第一侧壁和第二侧壁。 随后,使用第一侧壁,第二侧壁和栅电极作为掩模,将氮等离子注入到半导体衬底中,从而在半导体衬底的主表面上形成结晶化控制区域(CCR) 。 然后,在去除第二侧壁之后,在半导体衬底的主表面上形成用于源极和漏极的高浓度层。