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    • 42. 发明授权
    • Apparatus for chemical vapor deposition control
    • 化学气相沉积控制装置
    • US08852347B2
    • 2014-10-07
    • US12814278
    • 2010-06-11
    • Eric M. LeeJacques FaguetEric J. Strang
    • Eric M. LeeJacques FaguetEric J. Strang
    • C23C16/00C23C16/52C23C16/44H05B3/00C23C16/455C23F1/00
    • H05B3/00C23C16/4405C23C16/4557C23C16/52H05B2203/014H05B2203/022
    • A gas heating device and a processing system for use therein are described for depositing a thin film on a substrate using a vapor deposition process. The gas heating device includes a heating element array having a plurality of heating element zones configured to receive a flow of a film forming composition across or through said plurality of heating element zones in order to cause pyrolysis of one or more constituents of the film forming composition when heated. Additionally, the processing system may include a substrate holder configured to support a substrate. The substrate holder may include a backside gas supply system configured to supply a heat transfer gas to a backside of said substrate, wherein the backside gas supply system is configured to independently supply the heat transfer gas to multiple zones at the backside of the substrate.
    • 本发明描述了一种用于其中的气体加热装置和处理系统,用于使用气相沉积工艺在基片上沉积薄膜。 气体加热装置包括加热元件阵列,该加热元件阵列具有多个加热元件区域,该多个加热元件区域被配置为在多个加热元件区域中或通过所述多个加热元件区域接收成膜组合物的流动,以便导致成膜组合物的一种或多种成分的热解 加热时。 另外,处理系统可以包括被配置为支撑衬底的衬底保持器。 衬底保持器可以包括后侧气体供应系统,其构造成将热传递气体供应到所述衬底的背面,其中所述背侧气体供应系统被配置为独立地将所述传热气体供应到所述衬底的背侧的多个区域。
    • 46. 发明授权
    • Method and apparatus for wall film monitoring
    • 墙膜监测方法和装置
    • US07732227B2
    • 2010-06-08
    • US11517389
    • 2006-09-08
    • Eric J. StrangRichard Parsons
    • Eric J. StrangRichard Parsons
    • H01L21/66G01R31/26C23C14/54C23F1/00
    • H01L21/67253G01B15/02H01J37/32192H01J37/32275H01J37/3299H01L21/67069
    • A wall film monitoring system includes first and second microwave mirrors in a plasma processing chamber each having a concave surface. The concave surface of the second mirror is oriented opposite the concave surface of the first mirror. A power source is coupled to the first mirror and configured to produce a microwave signal. A detector is coupled to at least one of the first mirror and the second mirror and configured to measure a vacuum resonance voltage of the microwave signal. A control system is connected to the detector that compares a first measured voltage and a second measured voltage and determines whether the second voltage exceeds a threshold value. A method of monitoring wall film in a plasma chamber includes loading a wafer in the chamber, setting a frequency of a microwave signal output to a resonance frequency, and measuring a first vacuum resonance voltage of the microwave signal. The method includes processing the wafer, measuring a second vacuum resonance voltage of the microwave signal, and determining whether the second measured voltage exceeds a threshold value using the first measured voltage as a reference value.
    • 墙膜监测系统包括等离子体处理室中的具有凹面的第一和第二微波反射镜。 第二反射镜的凹面与第一反射镜的凹面相对。 电源耦合到第一反射镜并且被配置为产生微波信号。 检测器耦合到第一反射镜和第二反射镜中的至少一个并且被配置为测量微波信号的真空谐振电压。 控制系统连接到检测器,该检测器比较第一测量电压和第二测量电压,并确定第二电压是否超过阈值。 一种监测等离子体室中的壁膜的方法包括将晶片装载在室中,将微波信号输出的频率设定为谐振频率,以及测量微波信号的第一真空谐振电压。 该方法包括处理晶片,测量微波信号的第二真空谐振电压,以及使用第一测量电压作为参考值来确定第二测量电压是否超过阈值。
    • 47. 发明授权
    • Method and apparatus for electron density measurement
    • 用于电子密度测量的方法和装置
    • US07544269B2
    • 2009-06-09
    • US10490850
    • 2002-10-24
    • Eric J. Strang
    • Eric J. Strang
    • C23C16/00C23F1/00H01L21/306H01J7/24H05B31/26
    • H01L21/67253G01B15/02G01B15/04H01J37/32192H01J37/32275H01J37/32862H01J37/32935H01J37/3299H01L21/67069
    • A plasma processing system including a plasma chamber (120) having a substrate holder (128) and a monitoring system (130). The monitoring system (130) includes a microwave mirror (140) having a concave surface (142) located opposite the holder (128) and a power source (160) is coupled thereto that produces a microwave signal perpendicular to a wafer plane (129) of the holder (128). A detector (170) is coupled to the mirror (140) and measures a vacuum resonance voltage of the signal within the chamber (120). A control system (180) is provided that measures a first voltage during a vacuum condition and a second voltage during a plasma condition and determines an electron density from a difference between the second voltage and the first voltage. The processing system (110) can include a plurality of monitoring systems (130a, 130b, 130c) having mirrors (140a, 140b, 140c) provided in a spatial array located opposite the substrate holder (128). A method of monitoring electron density in the processing system is provided that includes loading a wafer, setting a frequency of a microwave signal to a resonance frequency, and measuring a first voltage of the signal during a vacuum condition. The method further includes processing the wafer (114), measuring a second voltage of the signal during a plasma condition, and determining an electron density from a difference between the second voltage and the first voltage.
    • 一种等离子体处理系统,包括具有衬底保持器(128)和监视系统(130)的等离子体室(120)。 监测系统(130)包括具有与保持器(128)相对的凹表面(142)的微波反射镜(140),并且电源(160)耦合到其上,产生垂直于晶片平面(129)的微波信号, (128)。 检测器(170)耦合到反射镜(140)并且测量腔室(120)内的信号的真空谐振电压。 提供一种控制系统(180),其在等离子体状态期间测量真空状态期间的第一电压和第二电压,并根据第二电压和第一电压之间的差确定电子密度。 处理系统(110)可以包括多个监控系统(130a,130b,130c),其具有设置在与衬底保持器(128)相对的空间阵列中的反射镜(140a,140b,140c)。 提供了一种在处理系统中监测电子密度的方法,包括加载晶片,将微波信号的频率设置为谐振频率,以及在真空条件期间测量信号的第一电压。 该方法还包括处理晶片(114),在等离子体状态期间测量信号的第二电压,以及从第二电压和第一电压之间的差确定电子密度。
    • 49. 发明授权
    • Method and system for monitoring component consumption
    • 用于监控组件消耗的方法和系统
    • US07233878B2
    • 2007-06-19
    • US10767347
    • 2004-01-30
    • Andrej S. MitrovicEric J. Strang
    • Andrej S. MitrovicEric J. Strang
    • G01N21/88
    • G01B11/0683H01J37/32935H01J37/32963
    • A method for monitoring consumption of a component, including the steps of emitting a radiation beam onto a first area of the component and detecting a portion of the radiation beam that is refracted by the component. A radiation level signal is generated based at least on a strength of the detected portion of the radiation beam, and a thickness of the component is determined based on the radiation level signal. The thickness of the component is compared to a predetermined thickness value, and a status signal is generated when the comparing step determines that the thickness of the component is substantially equal to or below the predetermined thickness value. When the comparing step determines that the thickness of the component is greater than the predetermined thickness value, the component is exposed to a process that can erode at least a portion of the component.
    • 一种用于监视部件的消耗的方法,包括以下步骤:将辐射束发射到部件的第一区域上,并检测被部件折射的辐射束的一部分。 至少基于辐射束的被检测部分的强度产生辐射水平信号,并且基于辐射水平信号确定分量的厚度。 将部件的厚度与预定的厚度值进行比较,并且当比较步骤确定部件的厚度基本上等于或低于预定厚度值时,产生状态信号。 当比较步骤确定组件的厚度大于预定厚度值时,组件暴露于可能侵蚀部件的至少一部分的过程。