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    • 61. 发明授权
    • Methods for producing a multilayer semiconductor structure
    • 多层半导体结构的制造方法
    • US07510949B2
    • 2009-03-31
    • US11106135
    • 2005-04-13
    • Carlos MazureBruno Ghyselen
    • Carlos MazureBruno Ghyselen
    • H01L21/30H01L21/46
    • H01L29/1054H01L21/76254H01L21/76259
    • Methods for producing a multilayer semiconductor structure are described. In an embodiment, the method includes providing a support substrate made of a first semiconductor material having a first lattice parameter, and depositing a layer of a second semiconductor material having a second lattice parameter, substantially different than the first, onto the support substrate to form an intermediate structure having an interface therebetween, the depositing being conducted such that most of the defects are confined to an adaptation layer located in a region adjacent to the interface. The method also includes creating a zone of weakness in the intermediate structure, bonding the second semiconductor material layer to a target substrate, detaching the support substrate at the zone to obtain a multilayer semiconductor structure having an exposed surface where detached, and fully removing the adaptation layer to obtain a relaxed thin layer of the second semiconductor material having a high quality surface.
    • 对多层半导体结构体的制造方法进行说明。 在一个实施例中,该方法包括提供由具有第一晶格参数的第一半导体材料制成的支撑衬底,以及将具有与第一晶格参数基本上不同于第一晶格参数的第二半导体材料层沉积到支撑衬底上以形成 其间具有界面的中间结构,所述沉积被导通,使得大部分缺陷被限制在位于与界面相邻的区域中的适配层。 该方法还包括在中间结构中产生弱点区域,将第二半导体材料层粘合到目标基板上,在该区域分离支撑基板,以获得具有分离的暴露表面的多层半导体结构,并且完全去除适应 以获得具有高质量表面的第二半导体材料的松弛薄层。
    • 64. 发明授权
    • Forming structures that include a relaxed or pseudo-relaxed layer on a substrate
    • 在基材上包含松弛或假松弛层的成形结构
    • US07018909B2
    • 2006-03-28
    • US10784016
    • 2004-02-20
    • Bruno GhyselenCarlos MazureEmmanuel Arene
    • Bruno GhyselenCarlos MazureEmmanuel Arene
    • H01L21/30H01L21/46
    • H01L21/76259H01L21/324H01L21/76254H01L2221/68363
    • The invention relates to methods of forming a relaxed or pseudo-relaxed layer on a substrate, wherein the relaxed layer may be a semiconductor material. An implementation of the method includes growing an elastically stressed semiconductor material layer on a donor substrate, forming a glassy layer of a viscous material and bonding it to the stressed layer, removing a portion of the donor substrate to form a structure that includes the glassy layer, the stressed layer and a surface layer of donor substrate, and then heat treating the structure at a temperature of at least a viscosity temperature of the glassy layer to relax the stressed layer. The glassy layer can also be bonded to a receiving substrate so that the structure can be transferred thereto. Implementations also relate to structures obtained from the method.
    • 本发明涉及在衬底上形成松弛或假松弛层的方法,其中松弛层可以是半导体材料。 该方法的实现包括在施主衬底上生长弹性应力的半导体材料层,形成粘性材料的玻璃层并将其粘合到应力层,去除供体衬底的一部分以形成包括玻璃层的结构 ,应力层和供体衬底的表面层,然后在至少玻璃质层的粘度温度的温度下对结构进行热处理以使应力层松弛。 玻璃状层也可以结合到接收基板,从而可以将结构转移到其上。 实现也涉及从该方法获得的结构。
    • 65. 发明申请
    • Methods for producing a multilayer semiconductor structure
    • 多层半导体结构的制造方法
    • US20050191824A1
    • 2005-09-01
    • US11106135
    • 2005-04-13
    • Carlos MazureBruno Ghyselen
    • Carlos MazureBruno Ghyselen
    • H01L21/20H01L21/762H01L29/10H01L29/15H01L21/30H01L31/0312
    • H01L29/1054H01L21/76254H01L21/76259
    • Methods for producing a multilayer semiconductor structure are described. In an embodiment, the method includes providing a support substrate made of a first semiconductor material having a first lattice parameter, and depositing a layer of a second semiconductor material having a second lattice parameter that is substantially different than the first lattice parameter onto the support substrate. In this manner, an intermediate structure is formed that has an interface between the first and second semiconductor materials, and the depositing is conducted such that most of the defects in the deposited layer are confined to an adaptation layer located in a region adjacent to the interface. The method also includes creating a zone of weakness in the intermediate structure, bonding the second semiconductor material layer to a target substrate, detaching the support substrate at the zone of weakness to obtain a multilayer semiconductor structure having an exposed surface where detached, and treating the exposed surface to assure that the adaptation layer is fully removed in order to obtain a relaxed thin layer of the second semiconductor material having a high quality surface.
    • 对多层半导体结构体的制造方法进行说明。 在一个实施例中,该方法包括提供由具有第一晶格参数的第一半导体材料制成的支撑衬底,以及将具有与第一晶格参数基本不同的第二晶格参数的第二半导体材料层沉积到支撑衬底上 。 以这种方式,形成在第一和第二半导体材料之间具有界面的中间结构,并且进行沉积,使得沉积层中的大部分缺陷被限制在位于与界面相邻的区域中的适配层 。 该方法还包括在中间结构中产生弱点区域,将第二半导体材料层接合到目标衬底,在弱化区域分离支撑衬底以获得具有剥离的暴露表面的多层半导体结构, 以确保适配层被完全去除以获得具有高质量表面的第二半导体材料的松弛薄层。
    • 66. 发明授权
    • Insulated gate field effect transistor having vertically layered
elevated source/drain structure
    • 绝缘栅场效应晶体管具有垂直分层的源极/漏极结构
    • US5235203A
    • 1993-08-10
    • US722416
    • 1991-06-27
    • Carlos MazureMarius OrlowskiMatthew S. Noell
    • Carlos MazureMarius OrlowskiMatthew S. Noell
    • H01L29/08
    • H01L29/0847
    • An insulated gate field effect transistor having a vertically layered elevated source/drain structure includes an electrically conductive suppression region for resistance to hot carrier injection. The device includes a semiconductor substrate of first conductivity type having a gate insulator disposed on the surface of that substrate. A gate electrode, in turn, is disposed on the gate insulator. A lightly doped drain region of second conductivity type is formed in the substrate in alignment with the gate electrode. An electrically conductive suppression region having a first low electrical conductivity is positioned to electrically contact the drain region, but is electrically isolated from the gate electrode and is spaced a first distance from the gate electrode. A heavily doped drain contact also contacts the drain region and is spaced further away from the gate electrode than is the electrically conducted suppression region.
    • 具有垂直分层的升高的源/漏结构的绝缘栅场效应晶体管包括用于耐热载流子注入的导电抑制区。 该器件包括第一导电类型的半导体衬底,其具有设置在该衬底表面上的栅极绝缘体。 栅电极依次设置在栅极绝缘体上。 第二导电类型的轻掺杂漏极区域与栅电极对准地形成在衬底中。 具有第一低导电性的导电抑制区被定位成与漏极区电接触,但是与栅电极电隔离并且与栅电极隔开第一距离。 重掺杂的漏极接触还接触漏极区,并且与导电抑制区相比更远离栅电极。
    • 67. 发明授权
    • Method for transferring a monocrystalline semiconductor layer onto a support substrate
    • 将单晶半导体层转移到支撑衬底上的方法
    • US08603896B2
    • 2013-12-10
    • US13559396
    • 2012-07-26
    • Gweltaz GaudinCarlos Mazure
    • Gweltaz GaudinCarlos Mazure
    • H01L21/30
    • H01L21/76254
    • A method for transferring a monocrystalline semiconductor layer onto a support substrate by implanting species in a donor substrate; bonding the donor substrate to the support substrate; and fracturing the donor substrate to transfer the layer onto the support substrate; wherein a portion of the monocrystalline layer to be transferred is rendered amorphous, without disorganizing the crystal lattice of a second portion of the layer, with the portions being, respectively, a surface portion and a buried portion of the monocrystalline layer; and wherein the amorphous portion is recrystallized at a temperature below 500° C., with the crystal lattice of the second portion serving as a seed for recrystallization.
    • 一种通过将物质注入施主衬底中将单晶半导体层转移到支撑衬底上的方法; 将施主衬底粘合到支撑衬底上; 并且将所述施主衬底压裂以将所述层转移到所述支撑衬底上; 其中待转移的单晶层的一部分变成非晶体,而不会使层的第二部分的晶格混杂,部分分别是单晶层的表面部分和掩埋部分; 并且其中非晶部分在低于500℃的温度下重结晶,其中第二部分的晶格用作用于重结晶的晶种。
    • 70. 发明授权
    • Method for manufacturing a free-standing substrate made of monocrystalline semiconductor material
    • 制造由单晶半导体材料制成的独立基板的方法
    • US07407869B2
    • 2008-08-05
    • US11212795
    • 2005-08-29
    • Bruno GhyselenFabrice LetertreCarlos Mazure
    • Bruno GhyselenFabrice LetertreCarlos Mazure
    • H01L21/365
    • C30B29/36H01L21/76254
    • A method for manufacturing a free-standing substrate made of a semiconductor material. A first assembly is provided and it includes a relatively thinner nucleation layer of a first material, a support of a second material, and a removable bonding interface defined between facing surfaces of the nucleation layer and support. A substrate of a relatively thicker layer of a third material is grown, by epitaph on the nucleation layer, to form a second assembly with the substrate attaining a sufficient thickness to be free-standing. The third material is preferably a monocrystalline material. Also, the removable character of the bonding interface is preserved with at least the substrate being heated to an epitaxial growth temperature. The coefficients of thermal expansion of the second and third materials are selected to be different from each other by a thermal expansion differential, determined as a function of the epitaxial growth temperature or subsequent application of external mechanical stresses, such that, as the second assembly cools from the epitaxial growth temperature, stresses are induced in the removable bonding interface to facilitate detachment of the nucleation layer from the substrate.
    • 一种制造由半导体材料制成的自立式基板的方法。 提供了第一组件,并且其包括第一材料的相对更薄的成核层,第二材料的支撑体和限定在成核层和支撑体的相对表面之间的可去除的结合界面。 通过在成核层上外延生长相对较厚的第三材料层的衬底,以形成第二组件,其中衬底获得足够的厚度以使其独立。 第三种材料优选是单晶材料。 而且,至少将衬底加热到​​外延生长温度来保存接合界面的可去除特性。 第二和第三材料的热膨胀系数被选择为相互不同的热膨胀差异,其被确定为外延生长温度的函数或随后的外部机械应力的应用,使得当第二组件冷却时 从外延生长温度,在可除去的结合界面中诱发应力以促进成核层与基底的分离。