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    • 61. 发明申请
    • CONTINUOUS METAL SEMICONDUCTOR ALLOY VIA FOR INTERCONNECTS
    • 连续金属半导体合金通过互连
    • US20100052018A1
    • 2010-03-04
    • US12198592
    • 2008-08-26
    • Guy CohenChristos D. DimitrakopoulosAlfred Grill
    • Guy CohenChristos D. DimitrakopoulosAlfred Grill
    • H01L21/768H01L29/78
    • H01L29/7848B82Y10/00H01L21/28518H01L21/76885H01L23/481H01L29/665H01L29/78H01L2221/1094H01L2924/0002H01L2924/00
    • A contact structure is disclosed in which a continuous metal semiconductor alloy is located within a via contained within a dielectric material. The continuous semiconductor metal alloy is in direct contact with an upper metal line of a first metal level located atop the continuous semiconductor metal alloy and at least a surface of each source and drain diffusion region located beneath the continuous metal semiconductor alloy. The continuous metal semiconductor alloy can be derived from either a semiconductor nanowire or an epitaxial grown semiconductor material. The continuous metal semiconductor alloy includes a lower portion that is contained within an upper surface of each source and drain region, and a vertical pillar portion extending upward from the lower portion. The lower portion of the continuous metal semiconductor alloy and the vertical pillar portion are not separated by a material interface. Instead, the two portions of the continuous metal semiconductor alloy are of unitary construction, i.e., a single piece.
    • 公开了一种接触结构,其中连续的金属半导体合金位于包含在电介质材料内的通孔内。 连续半导体金属合金与位于连续半导体金属合金顶部的第一金属水平的上金属线和至少位于连续金属半导体合金下方的源极和漏极扩散区的表面直接接触。 连续金属半导体合金可以衍生自半导体纳米线或外延生长半导体材料。 连续金属半导体合金包括包含在每个源极和漏极区域的上表面内的下部以及从下部向上延伸的垂直柱部分。 连续金属半导体合金的下部和垂直支柱部分不被材料界面分离。 相反,连续金属半导体合金的两个部分是单一结构,即单件。
    • 64. 发明授权
    • Structure for and method of fabricating a high-speed CMOS-compatible Ge-on-insulator photodetector
    • 制造高速CMOS兼容的绝缘体上的光电探测器的结构和方法
    • US07510904B2
    • 2009-03-31
    • US11556739
    • 2006-11-06
    • Jack O. ChuGabriel K. DehlingerAlfred GrillSteven J. KoesterQiqing OuyangJeremy D. Schaub
    • Jack O. ChuGabriel K. DehlingerAlfred GrillSteven J. KoesterQiqing OuyangJeremy D. Schaub
    • H01L21/00
    • H01L31/101
    • The invention addresses the problem of creating a high-speed, high-efficiency photodetector that is compatible with Si CMOS technology. The structure consists of a Ge absorbing layer on a thin SOI substrate, and utilizes isolation regions, alternating n- and p-type contacts, and low-resistance surface electrodes. The device achieves high bandwidth by utilizing a buried insulating layer to isolate carriers generated in the underlying substrate, high quantum efficiency over a broad spectrum by utilizing a Ge absorbing layer, low voltage operation by utilizing thin a absorbing layer and narrow electrode spacings, and compatibility with CMOS devices by virtue of its planar structure and use of a group IV absorbing material. The method for fabricating the photodetector uses direct growth of Ge on thin SOI or an epitaxial oxide, and subsequent thermal annealing to achieve a high-quality absorbing layer. This method limits the amount of Si available for interdiffusion, thereby allowing the Ge layer to be annealed without causing substantial dilution of the Ge layer by the underlying Si.
    • 本发明解决了与Si CMOS技术兼容的高速高效光电探测器的问题。 该结构由薄的SOI衬底上的Ge吸收层组成,并且使用隔离区,交替的n型和p型接触以及低电阻表面电极。 该器件通过利用掩埋绝缘层,通过利用Ge吸收层,利用薄的吸收层和窄电极间隔的低电压操作以及兼容性来兼容宽泛的光谱,利用埋入的绝缘层来隔离底层衬底中产生的载流子, 通过其平面结构和使用IV族吸收材料的CMOS器件。 用于制造光电检测器的方法使用在薄SOI或外延氧化物上的Ge的直接生长,以及随后的热退火以实现高质量的吸收层。 该方法限制可用于相互扩散的Si的量,从而允许Ge层退火,而不会导致Ge层被下面的Si大量稀释。