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    • 2. 发明授权
    • Fabricating a semiconductor device with strained Si.sub.1-x Ge.sub.x
layer
    • 制造具有应变Si1-xGex层的半导体器件
    • US5256550A
    • 1993-10-26
    • US715054
    • 1991-06-12
    • Stephen LadermanMartin ScottTheodore I. KaminsJudy L. HoytClifford A. KingJames F. GibbonsDavid B. Noble
    • Stephen LadermanMartin ScottTheodore I. KaminsJudy L. HoytClifford A. KingJames F. GibbonsDavid B. Noble
    • H01L21/20H01L21/205
    • H01L21/0262H01L21/02381H01L21/0245H01L21/02532H01L21/02631Y10S148/015Y10S438/902Y10S438/938
    • The present invention comprises a method of fabricating devices and circuits employing at least one heteroepitaxial layer under strain. The thickness of the heteroepitaxial layer is more than two times the calculated equilibrium critical thickness for an uncapped heteroepitaxial layer upon a crystalline substrate, based on previously known equilibrium theory for the uncapped layer. Subsequent to growth of the heteroepitaxial layer, the structure is processed at temperatures higher than the growth temperature of the heteroepitaxial layer.The strained heteroepitaxial layer (second layer) is epitaxially grown upon the surface of a first, underlaying crystalline layer, creating a heterojunction. Subsequently a third crystalline layer is deposited or grown upon the major exposed surface of the second, strained heteroepitaxial layer. The preferred manner of growth of the third crystalline layer is epitaxial growth. The composition of the third crystalline layer must be such that upon deposition or growth, the third layer substantially continuously binds to the heteroepitaxial structure of the second layer. Subsequent to growth of the at least three layer structure, the structure is processed at temperatures in excess of the growth temperature of the second heteroepitaxial layer. Presence of the third crystalline layer prevents the generation of a substantial amount of misfit dislocations between the first crystalline layer substrate and the second heteroepitaxial layer.
    • 本发明包括一种在应变下使用至少一个异质外延层的器件和电路的制造方法。 基于先前已知的无盖层的平衡理论,异质外延层的厚度超过了在结晶衬底上的无盖异质外延层的计算的平衡临界厚度的两倍。 在异质外延层的生长之后,在高于异质外延层的生长温度的温度下处理该结构。 应变异质外延层(第二层)在第一底层晶体层的表面上外延生长,产生异质结。 随后,在第二应变异质外延层的主要暴露表面上沉积或生长第三晶体层。 第三晶体层的优选生长方式是外延生长。 第三结晶层的组成必须使得在沉积或生长时,第三层基本上连续地结合到第二层的异质外延结构。 在至少三层结构生长之后,在超过第二异质外延层的生长温度的温度下处理该结构。 第三结晶层的存在防止在第一晶体层衬底和第二异质外延层之间产生大量的失配位错。
    • 5. 发明授权
    • Programmable bipolar electronic device
    • 可编程双极电子器件
    • US08787064B2
    • 2014-07-22
    • US13130805
    • 2009-01-13
    • Theodore I. KaminsR. Stanley Williams
    • Theodore I. KaminsR. Stanley Williams
    • G11C11/00
    • G11C13/0002G11C13/003G11C2213/52G11C2213/53H01L27/101H01L27/1026H01L45/08H01L45/1206H01L45/122H01L45/14H01L45/145H01L45/146H01L45/147
    • A configurable memristive device (300) for regulating an electrical signal includes a memristive matrix (350) containing a first dopant species; emitter (320), collector (310), and a base electrodes (330, 340) which are in contact with the memristive matrix (350); and a mobile dopant species contained within a central region (360) contiguous with the base electrodes (330, 340), the mobile dopant species moving within the memristive matrix (350) in response to a programming electrical field. A method of configuring and using a memristive device (300) includes: applying a programming electrical field across a memristive matrix (350) such that a mobile dopant species creates a central doped region (360) which bisects the memristive matrix (350); and applying a control voltage to the central doped region (360) to regulate current flow between an emitter electrode (320) and a collector electrode (310).
    • 用于调节电信号的可配置忆阻装置(300)包括含有第一掺杂剂物质的忆阻矩阵(350) 发射极(320),集电极(310)以及与所述忆阻矩阵(350)接触的基极(330,340); 以及包含在与所述基极(330,340)相邻的中心区域(360)内的移动掺杂剂物质,所述移动掺杂剂物质响应于编程电场在所述忆阻矩阵(350)内移动。 一种配置和使用忆阻器件(300)的方法包括:跨越忆阻矩阵(350)施加编程电场,使得移动掺杂物物质形成将所述忆阻矩阵(350)平分的中心掺杂区域(360); 以及向所述中心掺杂区域(360)施加控制电压以调节发射极电极(320)和集电极电极(310)之间的电流。
    • 7. 发明授权
    • Signal-amplification device for surface enhanced raman spectroscopy
    • 用于表面增强拉曼光谱的信号放大装置
    • US08223331B2
    • 2012-07-17
    • US12487940
    • 2009-06-19
    • Alexandre M. BratkovskiTheodore I. Kamins
    • Alexandre M. BratkovskiTheodore I. Kamins
    • G01J3/44
    • G01N21/658
    • A signal-amplification device for surface enhanced Raman spectroscopy (SERS). The signal-amplification device includes a non-SERS-active (NSA) substrate, a plurality of multi-tiered non-SERS-active nanowire (MNSANW) structures and a plurality of metallic SERS-active nanoparticles. In addition, a MNSANW structure of the plurality of MNSANW structures includes a main arm of a plurality of main arms and a plurality of arms of at least secondary order. The plurality of main arms is disposed on the NSA substrate; and, a secondary arm of the plurality of arms is disposed on the main arm. Moreover, a metallic SERS-active nanoparticle of the plurality of metallic SERS-active nanoparticles is disposed on a surface of the MNSANW structure.
    • 用于表面增强拉曼光谱(SERS)的信号放大装置。 信号放大装置包括非SERS活性(NSA)衬底,多个多层非SERS活性纳米线(MNSANW)结构和多个金属SERS活性纳米颗粒。 此外,多个MNSANW结构的MNSANW结构包括多个主臂的主臂和至少二次的多个臂。 多个主臂设置在NSA基板上; 并且所述多个臂的次臂设置在所述主臂上。 此外,多个金属SERS活性纳米颗粒的金属SERS活性纳米颗粒设置在MNSANW结构的表面上。
    • 8. 发明申请
    • Nanoscale Apparatus and Sensor With Nanoshell and Method of Making Same
    • 纳米尺度仪器和传感器及其制作方法
    • US20120145988A1
    • 2012-06-14
    • US13146880
    • 2009-01-29
    • Nathaniel J. QuitorianoTheodore I. Kamins
    • Nathaniel J. QuitorianoTheodore I. Kamins
    • H01L29/06H01L21/20B82Y99/00B82Y40/00
    • B81C1/0015B81B2203/0118B81B2203/0361
    • A nanoscale apparatus (100) includes a nanoshell (110) extending from a substrate (102) and an epitaxial connection (120) between the substrate and an end (112) of the nanoshell adjacent to the substrate. A nanoscale sensor (200) includes surfaces (204, 206) extending relatively perpendicular to each other, a nanoshell (210) extending from one of the surfaces, and a detector (220) that monitors motion of the nanoshell relative to another of the surfaces spaced from the nanoshell by a gap (208). A method (300) of making a nanoscale apparatus includes growing (310) a nanowire on a surface; forming (320) a core-shell composite nanostructure; exposing (330) an end of the nanowire opposite to the surface with a FIB; and removing (340) the nanowire core from the exposed end, such that a nanoshell having a hollow region is attached to the surface. A material of the nanoshell (110, 210) excludes sp2-bonded carbon materials.
    • 纳米尺度装置(100)包括从衬底(102)延伸的纳米壳(110)和衬底之间的外延连接(120)和与衬底相邻的纳米壳的端部(112)。 纳米尺度传感器(200)包括彼此相对垂直延伸的表面(204,206),从其中一个表面延伸的纳米壳(210)以及监测纳米壳相对于另一表面的运动的检测器(220) 与纳米壳间隔开间隙(208)。 制造纳米级装置的方法(300)包括在表面上生长(310)纳米线; 形成(320)核 - 壳复合纳米结构; 用FIB将(330)与该表面相对的纳米线的一端暴露(330) 以及从所述暴露端去除(340)所述纳米线芯,使得具有中空区域的纳米壳附接到所述表面。 纳米壳(110,210)的材料不包括sp2结合的碳材料。