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    • 1. 发明授权
    • Device having a high concentration region under the channel
    • 在通道下具有高浓度区域的奇偶装置
    • US5641980A
    • 1997-06-24
    • US557558
    • 1995-11-14
    • Yasuo YamaguchiHans-Oliver JoachimYasuo Inoue
    • Yasuo YamaguchiHans-Oliver JoachimYasuo Inoue
    • H01L29/40H01L21/336H01L27/12H01L29/417H01L29/78H01L29/786
    • H01L29/66757H01L27/1203H01L29/78606H01L29/78609H01L29/78621
    • It is an object to obtain a semiconductor device with the LDD structure having both operational stability and high speed and a manufacturing method thereof. A high concentration region (11) with boron of about 1.times.10.sup.18 /cm.sup.3 introduced therein is formed extending from under a channel formation region (4) to under a drain region (6) and a source region (6') in a silicon substrate (1). The high concentration region (11) is formed in the surface of the silicon substrate (1) under the channel formation region (4), and is formed at a predetermined depth from the surface of the silicon substrate (1) under the drain region (6) and the source region (6'). A low concentration region (10) is formed in the surface of the silicon substrate (1) under the drain region (6) and the source region (6'). The formation of the high concentration region only in the surface of the semiconductor substrate under the channel formation region surely suppresses an increase in the leakage current and an increase in the drain capacitance.
    • 本发明的目的是获得具有操作稳定性和高速度的LDD结构的半导体器件及其制造方法。 导入其中引入了约1×10 18 / cm 3的硼的高浓度区域(11)形成在沟道形成区域(4)下方延伸到漏极区域(6)下方的硅衬底(1)中的源极区域(6') )。 在硅衬底(1)的沟道形成区域(4)的表面上形成高浓度区域(11),并且形成在与硅衬底(1)的漏极区域 6)和源极区(6')。 在漏极区域(6)和源极区域(6')的下方的硅衬底(1)的表面中形成低浓度区域(10)。 仅在沟道形成区域的半导体衬底的表面形成高浓度区域确实地抑制了漏电流的增加和漏极电容的增加。
    • 2. 发明授权
    • LDD device having a high concentration region under the channel
    • LDD器件在通道下方具有高浓度区域
    • US5926703A
    • 1999-07-20
    • US785277
    • 1997-01-21
    • Yasuo YamaguchiHans-Oliver JoachimYasuo Inoue
    • Yasuo YamaguchiHans-Oliver JoachimYasuo Inoue
    • H01L29/40H01L21/336H01L27/12H01L29/417H01L29/78H01L29/786H01L21/44
    • H01L29/66757H01L27/1203H01L29/78606H01L29/78609H01L29/78621
    • It is an object to obtain a semiconductor device with the LDD structure having both operational stability and high speed and a manufacturing method thereof. A high concentration region (11) with boron of about 1.times.10.sup.18 /cm.sup.3 introduced therein is formed extending from under a channel formation region (4) to under a drain region (6) and a source region (6') in a silicon substrate (1). The high concentration region (11) is formed in the surface of the silicon substrate (1) under the channel formation region (4), and is formed at a predetermined depth from the surface of the silicon substrate (1) under the drain region (6) and the source region (6'). A low concentration region (10) is formed in the surface of the silicon substrate (1) under the drain region (6) and the source region (6'). The formation of the high concentration region only in the surface of the semiconductor substrate under the channel formation region surely suppresses an increase in the leakage current and an increase in the drain capacitance.
    • 本发明的目的是获得具有操作稳定性和高速度的LDD结构的半导体器件及其制造方法。 导入其中引入了约1×10 18 / cm 3的硼的高浓度区域(11)形成在沟道形成区域(4)下方延伸到漏极区域(6)下方的硅衬底(1)中的源极区域(6') )。 在硅衬底(1)的沟道形成区域(4)的表面上形成高浓度区域(11),并且形成在与硅衬底(1)的漏极区域 6)和源极区(6')。 在漏极区域(6)和源极区域(6')的下方的硅衬底(1)的表面中形成低浓度区域(10)。 仅在沟道形成区域的半导体衬底的表面形成高浓度区域确实地抑制了漏电流的增加和漏极电容的增加。
    • 7. 发明授权
    • Stacked semiconductor device
    • 堆叠半导体器件
    • US5128732A
    • 1992-07-07
    • US199439
    • 1988-05-27
    • Kazuyuki SugaharaTadashi NishimuraShigeru KusunokiYasuo InoueYasuo Yamaguchi
    • Kazuyuki SugaharaTadashi NishimuraShigeru KusunokiYasuo InoueYasuo Yamaguchi
    • H01L27/06
    • H01L27/0688
    • A stacked semiconductor device has three-dimensional alternate layers of iconductor elements and insulating layers each electrically insulating the adjacent upper and lower layers of semiconductor elements, formed on a single crystal semiconductor substrate. A semiconductor is deposited in openings formed respectively in the insulating layers to form single crystal semiconductor layers each having the same crystal axis as the single crystal semiconductor substrate respectively over the insulating layers, and semiconductor elements are formed respectively in a plurality of layers. The opening formed through the upper insulating layer reaches the lower layer of the semiconductor element immediately below the same upper insulating layer, and is formed at a position spaced apart horizontally from the opening formed through the lower insulating layer immediately below the same upper insulating layer. A semiconductor for forming the upper layer of a semiconductor having the same crystal axis as the lower layer of a semiconductor is deposited in the opening of the upper insulating layer so that satisfactory lateral epitaxial growth will occur over the insulating layer.
    • 叠层半导体器件具有三维交替层的半导体元件和绝缘层,每个绝缘层将形成在单晶半导体衬底上的相邻的半导体元件的上层和下层电绝缘。 分别在绝缘层中形成的开口中沉积半导体,以形成分别在绝缘层上分别与单晶半导体衬底相同的晶轴的单晶半导体层,并分别形成多个半导体元件。 通过上绝缘层形成的开口到达同一上绝缘层正下方的半导体元件的下层,并形成在与通过同一上绝缘层正下方的下绝缘层形成的开口水平间隔开的位置处。 用于形成具有与半导体的下层相同的晶轴的半导体的上层的半导体被沉积在上绝缘层的开口中,使得在绝缘层上将发生令人满意的横向外延生长。
    • 8. 发明授权
    • Apparatus for detecting three-dimensional configuration of object
employing optical cutting method
    • 使用光学切割方法检测物体的三维构型的装置
    • US4982102A
    • 1991-01-01
    • US424924
    • 1989-10-23
    • Yasuo InoueYasuo Yamaguchi
    • Yasuo InoueYasuo Yamaguchi
    • G01B11/24G01B11/25
    • G01B11/25
    • Disclosed is an apparatus for detecting the three-dimensional configuration of an object employing an optical cutting method. A light projector pulse-flashes slit-shaped light and causes the light to scan an object at a predetermined speed. An image sensor having a plurality of pixels is disposed in opposition to the object. An optical system forms on the image sensor an image of an optical cutting line formed on the surface of the object by the light. Counters each count the number of pulses of the image of the optical cutting line that has been detected by each pixel. A time calculator calculates the time at which the image has passed each of the pixels, on the basis of the counted numbers of pulses. A configuration calculator calculates the three-dimensional configuration of the object on the basis of the calculated passage time and the scanning speed of the slit-shaped light. Because the counted numbers of pulses, which are each indicative of the period of time required for the image of the optical cutting line to pass each pixel, are used to calculate the passage time, there is no need to provide a data bus to transmit time data with respect to the each pixel. Thus, the apparatus has simple wiring arrangement, and can be manufactured with ease.
    • 公开了一种使用光学切割方法检测物体的三维构造的装置。 光投射器脉冲闪烁狭缝状光,并使光以预定速度扫描物体。 具有多个像素的图像传感器设置成与物体相对。 光学系统在图像传感器上形成通过光形成在物体表面上的光学切割线的图像。 计数器各自计数由每个像素检测的光学切割线的图像的脉冲数。 时间计算器基于计数的脉冲数来计算图像已经通过每个像素的时间。 配置计算器基于所计算的通过时间和狭缝状光的扫描速度来计算物体的三维配置。 由于计数通过时间的光学切割线的图像所需的时间周期的脉冲的计数数据用于计算通过时间,因此不需要提供数据总线来传送时间 相对于每个像素的数据。 因此,该装置具有简单的布线布置,并且可以容易地制造。