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    • 1. 发明申请
    • Electronic data memory device for a high read current
    • 用于高读取电流的电子数据存储器件
    • US20060022248A1
    • 2006-02-02
    • US11167386
    • 2005-06-27
    • Bjorn FischerFranz HofmannRichard LuykenAndreas Spitzer
    • Bjorn FischerFranz HofmannRichard LuykenAndreas Spitzer
    • H01L27/108
    • H01L27/10873H01L29/7851
    • Electronic data memory device for a high read current The invention provides a memory device arranged on a substrate (401) and having at least one memory cell (100) The memory cell comprises a storage capacitor (200) for storing an electrical charge and a selection transistor (300) for selecting the memory cell (100). The selection transistor comprises a first conduction electrode (301), a second conduction electrode (302) and a control electrode (303) , the control electrode (303) being provided by a gate unit (400) having a fin (405) projecting from the substrate (401), which fin is surrounded by a gate oxide layer (406) and a gate electrode layer (403) in such a way that first and second gate elements (408a, 408b) are provided at opposite lateral areas of the fin (405), a third gate element (408c) being provided at an area of the fin (405) that is parallel to the surface of the substrate (401).
    • 用于高读取电流的电子数据存储器件本发明提供一种布置在衬底(401)上并具有至少一个存储单元(100)的存储器件。存储单元包括用于存储电荷的存储电容器(200) 晶体管(300),用于选择存储单元(100)。 选择晶体管包括第一导电电极(301),第二导电电极(302)和控制电极(303),控制电极(303)由栅极单元(400)提供,栅极单元(400)具有从 基板(401),其被栅极氧化物层(406)和栅极电极层(403)包围,使得第一和第二栅极元件(408a,408b)设置在第一和第二栅极元件(408a,408b)的相对侧向区域 所述翅片(405),第三栅极元件(408c)设置在所述鳍状物(405)的与所述基板(401)的表面平行的区域。
    • 4. 发明申请
    • Semiconductor memory with vertical memory transistors and method for fabricating it
    • 具有垂直存储晶体管的半导体存储器及其制造方法
    • US20050199942A1
    • 2005-09-15
    • US11073205
    • 2005-03-05
    • Franz HofmannErhard LandgrafRichard LuykenThomas SchulzMichael Specht
    • Franz HofmannErhard LandgrafRichard LuykenThomas SchulzMichael Specht
    • H01L21/28H01L21/336H01L29/423H01L29/792
    • H01L21/28282H01L29/66833H01L29/792H01L29/7923H01L29/7926
    • The invention relates to a semiconductor memory having a multiplicity of memory cells and a method for forming the memory cells. The semiconductor memory generally includes a semiconductor layer arranged on a substrate surface that includes a normally positioned step between a deeper region and a higher region. The semiconductor memory further includes doped contact regions, channel regions, a trapping layer arranged on a gate oxide layer, and at least one gate electrode. The method for forming the memory cells includes patterning a semiconductor layer to form a deeper semiconductor region and a higher semiconductor region having a step positioned between the regions. The method further includes forming a first oxide layer and a trapping layer, and then removing portions of the trapping layer and the first oxide layer and applying a second oxide layer at least regions of a doped region, the trapping layer, and the step area, and applying a gate electrode to the second oxide layer and doping, at least in regions, of the deeper semiconductor region and the higher semiconductor region to form a deeper contact region and a higher contact region.
    • 本发明涉及具有多个存储单元的半导体存储器和用于形成存储单元的方法。 半导体存储器通常包括布置在衬底表面上的半导体层,其包括较深区域和较高区域之间的正常定位的台阶。 半导体存储器还包括掺杂接触区域,沟道区域,布置在栅极氧化物层上的俘获层和至少一个栅电极。 形成存储单元的方法包括图案化半导体层以形成较深的半导体区域和具有位于该区域之间的台阶的较高半导体区域。 该方法还包括形成第一氧化物层和俘获层,然后去除俘获层和第一氧化物层的部分,并且至少在掺杂区域,俘获层和台阶区域的区域上施加第二氧化物层, 以及向所述第二氧化物层施加栅电极,并且至少在所述较深半导体区域和所述较高半导体区域的区域中掺杂以形成更深的接触区域和更高的接触区域。
    • 9. 发明授权
    • Nanotube array and method for producing a nanotube array
    • 纳米管阵列及其制造方法
    • US07635867B2
    • 2009-12-22
    • US10476663
    • 2002-05-16
    • Andrew GrahamFranz HofmannJohannes KretzFranz KreuplRichard LuykenWolfgang Rösner
    • Andrew GrahamFranz HofmannJohannes KretzFranz KreuplRichard LuykenWolfgang Rösner
    • H01L31/0312
    • H01L51/0048B82Y10/00C01B32/05G01N27/127G11C13/025H01L51/0595
    • A nanotube array and a method for producing a nanotube array. The nanotube array has a substrate, a catalyst layer, which includes one or more subregions, on the surface of the substrate and at least one nanotube arranged on the surface of the catalyst layer, parallel to the surface of the substrate. The at least one nanotube being arranged parallel to the surface of the substrate results in a planar arrangement of at least one nanotube. Therefore, the nanotube array of the invention is suitable for coupling to conventional silicon microelectronics. Therefore, according to the invention it is possible for a nanotube array to be electronically coupled to macroscopic semiconductor electronics. Furthermore, the nanotube array according to the invention may have an electrically insulating layer between the substrate and the catalyst layer. This electrically insulating layer preferably has a topography which is such that the at least one nanotube rests on the electrically insulating layer at its end sections and is uncovered in its central section. As a result of the surface of the at least one nanotube being partly uncovered, the uncovered surface of the nanotube can be used as an active sensor surface. For example, the uncovered surface of the nanotube can come into operative contact with an atmosphere which surrounds the nanotube array. The electrical resistance of a nanotube changes significantly in the presence of certain gases. Thus because the nanotube is clear and uncovered, the nanotube array can be used in many sensor applications.
    • 纳米管阵列及其制造方法。 纳米管阵列具有衬底,催化剂层,其包括在衬底的表面上的一个或多个子区域,和布置在催化剂层表面上的平行于衬底表面的至少一个纳米管。 所述至少一个纳米管平行于衬底的表面布置,导致至少一个纳米管的平面布置。 因此,本发明的纳米管阵列适用于与传统的硅微电子耦合。 因此,根据本发明,可以将纳米管阵列电连接到宏观半导体电子器件。 此外,根据本发明的纳米管阵列可以在衬底和催化剂层之间具有电绝缘层。 该电绝缘层优选地具有使得至少一个纳米管在其端部部分处于电绝缘层上并且在其中心部分未被覆盖的形貌。 由于至少一个纳米管的表面部分未被覆盖,纳米管的未被覆盖的表面可以用作主动传感器表面。 例如,纳米管的未覆盖表面可以与围绕纳米管阵列的气氛进行操作接触。 在某些气体的存在下,纳米管的电阻显着变化。 因此,由于纳米管是透明和未覆盖的,所以纳米管阵列可用于许多传感器应用中。