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    • 1. 发明申请
    • Method for Co-Integration of III-V Devices with Group IV Devices
    • US20210118724A1
    • 2021-04-22
    • US16996413
    • 2020-08-18
    • IMEC VZW
    • Amey Mahadev WalkeLiesbeth Witters
    • H01L21/762H01L21/02H01L21/8249H01L27/07
    • The present disclosure relates to a semi-conductor structure and method for co-integrating a III-V device with a group IV device on a SixGe1-x(100) substrate. The method includes: (a) providing a SixGe1-x(100) substrate, where x is from 0 to 1; (b) selecting a first region for forming therein a group IV device and a second region for forming therein a III-V device, the first and the second region each comprising a section of the SixGe1-x(100) substrate; (c) forming a trench isolation for at least the III-V device; (d) providing a SiyGe1-y(100) surface in the first region, where y is from 0 to 1; (e) at least partially forming the group IV device on the SiyGe1-y(100) surface in the first region; (f) forming a trench in the second region which exposes the SixGe1-x(100) substrate, the trench having a depth of at least 200 nm, at least 500 nm, at least 1 μm, usually at least 2 μm, such as 4 μm, with respect to the SiyGe1-y(100) surface in the first region; (g) growing a III-V material in the trench using aspect ratio trapping; and (h) forming the III-V device on the III-V material, the III-V device comprising at least one contact region at a height within 100 nm, 50 nm, 20 nm, usually 10 nm, of a contact region of the group IV device.
    • 2. 发明申请
    • Method for Manufacturing a CMOS Device and Associated Device
    • 制造CMOS器件及相关器件的方法
    • US20160336317A1
    • 2016-11-17
    • US15152700
    • 2016-05-12
    • IMEC VZW
    • Liesbeth WittersAnabela Veloso
    • H01L27/092H01L21/8238H01L29/78H01L29/165H01L29/06
    • H01L27/092H01L21/823807H01L21/823821H01L21/823885H01L27/0924H01L29/0649H01L29/0676H01L29/165H01L29/7848
    • A method for manufacturing a CMOS device includes providing a semiconductor base layer epitaxially growing a germanium layer on the semiconductor base layer, the germanium layer having thickness above a critical thickness such that an upper portion of the germanium layer is strain relaxed. The method also includes performing an anneal step, thinning the germanium layer and patterning the germanium layer into fin structures or into vertical wire structures. The method further includes laterally embedding the fin structures or vertical wire structures in a dielectric layer and providing a masking layer covering the first region, leaving the second region exposed. The method yet further includes selectively removing the fin structure or vertical wire structure in the second region up until the main upper surface, resulting in a trench and growing a protrusion in the trench by epitaxially growing one or more semiconductor layers in the trench.
    • 一种用于制造CMOS器件的方法包括提供在半导体基底层上外延生长锗层的半导体基底层,所述锗层的厚度高于临界厚度,使得锗层的上部应力松弛。 该方法还包括执行退火步骤,使锗层变薄并将锗层图案化成翅片结构或垂直线结构。 该方法还包括将鳍结构或垂直线结构横向嵌入介电层中,并提供覆盖第一区的掩蔽层,使第二区露出。 该方法还包括选择性地去除第二区域中的翅片结构或垂直线结构,直到主上表面,产生沟槽并通过在沟槽中外延生长一个或多个半导体层而在沟槽中生长突起。
    • 4. 发明申请
    • METHOD FOR PROVIDING AN NMOS DEVICE AND A PMOS DEVICE ON A SILICON SUBSTRATE AND SILICON SUBSTRATE COMPRISING AN NMOS DEVICE AND A PMOS DEVICE
    • 用于提供NMOS器件和在硅衬底上的PMOS器件和包含NMOS器件和PMOS器件的硅衬底的方法
    • US20160027779A1
    • 2016-01-28
    • US14808459
    • 2015-07-24
    • IMEC VZW
    • Roger LooJerome MitardLiesbeth Witters
    • H01L27/092H01L29/06H01L29/66H01L29/165H01L29/78H01L21/02H01L21/8238
    • H01L27/0922H01L21/02381H01L21/02532H01L21/02645H01L21/823807H01L21/823814H01L21/823821H01L27/0924H01L29/0653H01L29/1054H01L29/165H01L29/66545H01L29/7848
    • The disclosed technology generally relates to complementary metal-oxide-silicon (CMOS) devices, and more particularly to an n-channel metal-oxide-silicon (nMOS) device and a p-channel metal-oxide-silicon (pMOS) device that are under different types of strains. In one aspect, a method comprises providing trenches in a dielectric layer on a semiconductor substrate, where at least a first trench defines an nMOS region and a second trench defines a pMOS region, and where the trenches extend through the dielectric layer and abut a surface of the substrate. The method additionally includes growing a first seed layer in the first trench on the surface and growing a common strain-relaxed buffer layer in the first trench and the second trench, where the common strain-relaxed buffer layer comprises silicon germanium (SiGe). The method further includes growing a common channel layer comprising germanium (Ge) in the first and second trenches and on the common strain-relaxed buffer layer. The properties of the first seed layer and the common strained relaxed buffer layer are predetermined such that the common channel layer is under a tensile strain or is unstrained in the nMOS region and is under a compressive strain in the pMOS region. Aspects also include devices formed using the method.
    • 所公开的技术通常涉及互补金属氧化物 - 硅(CMOS)器件,更具体地涉及n沟道金属氧化物硅(nMOS)器件和p沟道金属氧化物(pMOS)器件,其是 在不同类型的菌株下。 在一个方面,一种方法包括在半导体衬底上的电介质层中提供沟槽,其中至少第一沟槽限定nMOS区域,并且第二沟槽限定pMOS区域,并且其中沟槽延伸穿过介电层并邻接表面 的基底。 该方法还包括在表面上的第一沟槽中生长第一籽晶层,并在第一沟槽和第二沟槽中生长共同的应变松弛缓冲层,其中常见的应变松弛缓冲层包括硅锗(SiGe)。 该方法还包括在第一和第二沟槽中以及共同的应变松弛缓冲层上生长包括锗(Ge)的公共沟道层。 第一种子层和公共应变松弛缓冲层的性质是预定的,使得公共沟道层处于拉伸应变或在nMOS区域中不受约束,并且在pMOS区域中具有压缩应变。 方面还包括使用该方法形成的装置。