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    • 93. 发明申请
    • PATTERNED DOPING OF SEMICONDUCTOR SUBSTRATES USING PHOTOSENSITIVE MONOLAYERS
    • 使用光敏单体的半导体基板的图案化
    • US20120273925A1
    • 2012-11-01
    • US13541857
    • 2012-07-05
    • Ali Afzali-ArdakaniDevendra K. SadanaLidija Sekaric
    • Ali Afzali-ArdakaniDevendra K. SadanaLidija Sekaric
    • H01L29/06
    • H01L21/228H01L21/22H01L29/06
    • A semiconductor device and a method of fabricating a semiconductor device are disclosed. Embodiments of the invention use a photosensitive self-assembled monolayer to pattern the surface of a substrate into hydrophilic and hydrophobic regions, and an aqueous (or alcohol) solution of a dopant compound is deposited on the substrate surface. The dopant compound only adheres on the hydrophilic regions. After deposition, the substrate is coated with a very thin layer of oxide to cap the compounds, and the substrate is annealed at high temperatures to diffuse the dopant atoms into the silicon and to activate the dopant. In one embodiment, the method comprises providing a semiconductor substrate including an oxide surface, patterning said surface into hydrophobic and hydrophilic regions, depositing a compound including a dopant on the substrate, wherein the dopant adheres to the hydrophilic region, and diffusing the dopant into the oxide surface of the substrate.
    • 公开了半导体器件和制造半导体器件的方法。 本发明的实施方案使用光敏自组装单层将基材的表面图案化成亲水和疏水区域,并且掺杂剂化合物的水溶液(或醇)沉积在基材表面上。 掺杂剂仅粘附在亲水区上。 在沉积之后,用非常薄的氧化层涂覆衬底以封盖化合物,并且衬底在高温下退火以将掺杂剂原子扩散到硅中并激活掺杂剂。 在一个实施例中,该方法包括提供包括氧化物表面的半导体衬底,将所述表面图案化成疏水和亲水区域,在衬底上沉积包括掺杂剂的化合物,其中掺杂剂粘附到亲水区域,并将掺杂剂扩散到 氧化物表面。
    • 95. 发明申请
    • N-type carrier enhancement in semiconductors
    • 半导体中的N型载流子增强
    • US20120135587A1
    • 2012-05-31
    • US13357656
    • 2012-01-25
    • Jee Hwan KimStephen W. BedellSiegfried MaurerDevendra K. Sadana
    • Jee Hwan KimStephen W. BedellSiegfried MaurerDevendra K. Sadana
    • H01L21/265
    • H01L21/26513H01L29/165H01L29/167H01L29/66636Y10S438/919
    • A method for generating n-type carriers in a semiconductor is disclosed. The method includes supplying a semiconductor having an atomic radius. Implanting an n-type dopant species into the semiconductor, which n-type dopant species has a dopant atomic radius. Implanting a compensating species into the semiconductor, which compensating species has a compensating atomic radius. Selecting the n-type dopant species and the compensating species in such manner that the size of the semiconductor atomic radius is inbetween the dopant atomic radius and the compensating atomic radius. A further method is disclosed for generating n-type carriers in germanium (Ge). The method includes setting a target concentration for the carriers, implanting a dose of an n-type dopant species into the Ge, and selecting the dose to correspond to a fraction of the target carrier concentration. Thermal annealing the Ge in such manner as to activate the n-type dopant species and to repair a least a portion of the implantation damage. Repeating the implantation and the thermal annealing until the target n-type carrier concentration has been reached.
    • 公开了一种在半导体中产生n型载流子的方法。 该方法包括提供具有原子半径的半导体。 将n型掺杂物种植入半导体,其中n型掺杂剂物质具有掺杂剂原子半径。 将补偿物种植入到半导体中,补偿物质具有补偿原子半径。 以使得半导体原子半径的尺寸在掺杂剂原子半径和补偿原子半径之间的方式选择n型掺杂物种类和补偿种类。 公开了用于在锗(Ge)中生成n型载流子的另一种方法。 该方法包括设定载体的目标浓度,将一定剂量的n型掺杂剂物质注入到Ge中,并选择与目标载体浓度分数相对应的剂量。 对Ge进行热退火,以激活n型掺杂物种类并修复至少一部分注入损伤。 重复注入和热退火直到目标n型载流子浓度达到。