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    • 53. 发明授权
    • Method of forming a three-dimensional image of a pattern to be inspected and apparatus for performing the same
    • 形成待检查图案的三维图像的方法及其执行方法
    • US07428328B2
    • 2008-09-23
    • US11180504
    • 2005-07-12
    • Yun-Jung JeeChung-Sam JunYu-Sin YangTae-Kyoung Kim
    • Yun-Jung JeeChung-Sam JunYu-Sin YangTae-Kyoung Kim
    • G06K9/00
    • G21K7/00
    • In a method and apparatus for forming a three-dimensional image for an inspection pattern, a reference intensity function of an inspection X-ray is formed in accordance with a continuous scanning depth, and is differentiated with respect to the scanning depth. The differential reference intensity function is decomposed into a start function and a characteristic function. The differential reference intensity function is then repeatedly integrated while a temporary vertical profile function is substituted for the start function until the temporary intensity of a reference X-ray is within an allowable error range. The temporary vertical profile function satisfying the error range is selected as an optimal vertical profile function. A surface shape is combined to the optimal vertical profile function along a depth of the inspection pattern to thereby form the three-dimensional image for the inspection pattern.
    • 在用于形成检查图案的三维图像的方法和装置中,根据连续的扫描深度形成检查X射线的参考强度函数,并且相对于扫描深度是不同的。 差分参考强度函数被分解为起始函数和特征函数。 差分参考强度函数然后被重复地积分,而临时垂直轮廓函数被替换为开始函数,直到参考X射线的临时强度在可允许的误差范围内。 选择满足误差范围的临时垂直剖面函数作为最佳垂直剖面函数。 沿着检查图案的深度将表面形状组合到最佳垂直轮廓函数,从而形成用于检查图案的三维图像。
    • 56. 发明授权
    • Method and apparatus for measuring thickness of metal layer
    • 用于测量金属层厚度的方法和装置
    • US07197426B2
    • 2007-03-27
    • US11191069
    • 2005-07-28
    • Jang-Ik ParkChung-Sam JunHwan-Shik Park
    • Jang-Ik ParkChung-Sam JunHwan-Shik Park
    • G01B11/28
    • G01B11/0666
    • In a method and apparatus for measuring a thickness of a metal layer formed on a semiconductor substrate first, second, and third light pulses are successively irradiated onto a top surface of the metal layer to generate respective first, second, and third second sonic waves in the metal layer. Interference between the first and second sonic waves alters a detected reflectivity of the third light pulse off the metal layer. Maximum interference of the sonic waves occurs where the first sonic wave travels to a bottom surface of the metal layer and back to the top surface in the same time that it takes for the second light pulse to arrive at the surface of the metal layer. Accordingly, the velocity of the first sonic wave and a time lag between the first and second light pulses are used to determine the thickness of the metal layer.
    • 在用于测量形成在半导体衬底上的金属层的厚度的方法和装置中,第一,第二和第三光脉冲被连续照射在金属层的顶表面上,以产生相应的第一,第二和第三声波 金属层。 第一和第二声波之间的干扰改变了第三光脉冲从金属层的检测反射率。 发生声波的最大干扰,其中第一声波在第二光脉冲到达金属层的表面所需的同一时间内移动到金属层的底表面并返回到顶表面。 因此,使用第一声波的速度和第一和第二光脉冲之间的时间滞后来确定金属层的厚度。
    • 58. 发明申请
    • Adsorption apparatus, semiconductor device manufacturing facility comprising the same, and method of recycling perfulorocompounds
    • 吸附装置,包括该吸附装置的半导体装置制造设备以及循环使用方法
    • US20070028771A1
    • 2007-02-08
    • US11498017
    • 2006-08-03
    • Ji-Young ShinChung-Sam JunKye-Weon Kim
    • Ji-Young ShinChung-Sam JunKye-Weon Kim
    • B01D53/02
    • B01D53/70B01D53/04B01D53/0454B01D2253/102B01D2253/104B01D2253/106B01D2253/108B01D2256/26B01D2257/2066B01D2258/0216B01D2259/40083B01D2259/402Y02C20/30
    • PFC is recycled from a gas mixture using adsorption technology and techniques. Two adsorption units each include an adsorbent having a selectivity by which the PFC is selectively adsorbed with respect to the other gas(es) that make up the mixture. The gas mixture is selectively supplied to one of the first and second adsorption units and a condition is created in the first adsorption unit so that the PFC is adsorbed in the first adsorption unit. Once the adsorbent is saturated in the first adsorption unit, a condition is created in the first adsorption unit that causes the PFC to be desorbed. At this time, the gas mixture is selectively supplied to the second adsorption unit, and a condition is created in the second adsorption unit so that the PFC is adsorbed. Once the adsorbent is saturated in the second adsorption unit, a condition is created in the second adsorption unit that causes the PFC to be desorbed. High-purity PFC gas can be obtained from the exhaust gas even if the gas mixture is exhaust gas of a semiconductor device manufacturing process having a low concentration of PFC.
    • 使用吸附技术和技术,从气体混合物回收PFC。 两个吸附单元各自包括具有选择性的吸附剂,通过该吸附剂相对于构成混合物的其它气体选择性地吸附PFC。 气体混合物被选择性地供应到第一和第二吸附单元之一,并且在第一吸附单元中产生条件,使得PFC吸附在第一吸附单元中。 一旦吸附剂在第一吸附单元中饱和,则在第一吸附单元中产生使PFC解吸的条件。 此时,将气体混合物选择性地供给到第二吸附单元,并且在第二吸附单元中产生条件以使PFC被吸附。 一旦吸附剂在第二吸附单元中饱和,则在引起PFC解吸的第二吸附单元中产生一个条件。 即使气体混合物是具有低浓度PFC的半导体器件制造方法的废气,也可以从废气中获得高纯度PFC气体。
    • 60. 发明申请
    • Method of inspecting defects and apparatus for performing the same
    • 检查缺陷的方法及其执行装置
    • US20060082766A1
    • 2006-04-20
    • US11253028
    • 2005-10-17
    • Joung-Soo KimSang-Mun ChonChung-Sam JunYu-Sin Yang
    • Joung-Soo KimSang-Mun ChonChung-Sam JunYu-Sin Yang
    • G01N21/88
    • G01N21/95607G01N21/21G01N21/47
    • In a method of inspecting defects, a first actual region of an actual object is inspected based on a first characteristic parameter as an inspection condition. A point where an inspection region of the actual object is changed into a second actual region from the first actual region is determined. The second actual region is then inspected based on a second characteristic parameter as the inspection condition. The first and second parameters may include contrast of a light that is reflected from a reference object, intensity of the light, brightness of the light, a size of a minute structure on the reference object, etc. The characteristic parameters of each reference region on the reference object are set. Thus, the defects may be accurately classified so that a time and a cost for reviewing the defects may be markedly reduced.
    • 在检查缺陷的方法中,基于作为检查条件的第一特征参数来检查实际物体的第一实际区域。 确定实际物体的检查区域从第一实际区域变为第二实际区域的点。 然后基于作为检查条件的第二特征参数检查第二实际区域。 第一和第二参数可以包括从参考对象反射的光的对比度,光的强度,光的亮度,参考对象上的微小结构的大小等。每个参考区域的特征参数在 参考对象被设置。 因此,可以将缺陷精确地分类,从而可以显着降低检查缺陷的时间和成本。