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    • 7. 发明公开
    • METHOD FOR MONITORING THE PERFORMANCE OF AN ION IMPLANTER USING REUSABLE WAFERS
    • FOR A离子注入机的性能监测方法一起使用REUSABLE DISCS
    • EP1002330A1
    • 2000-05-24
    • EP98918033.6
    • 1998-04-07
    • ADVANCED MICRO DEVICES INC.
    • ROHNER, Don, R.
    • H01J37/317G01R31/265H01L21/66
    • H01L22/20H01J37/304H01J2237/30433H01J2237/31701H01L22/34
    • Low-mass implants, for example hydrogen and helium ions, are used in place of more typical dopants like boron, phosphorus, and arsenic for testing the performance of ion implanters. Consistency between ion implantation test runs with the low-mass ions may be used to provide information about the proper operation of ion implanters. Lower-mass ions do not transfer as much of their energy to the wafer as heavier ions. Consequently, high energy ion implantations with low-mass ions do not repair wafer surface damage to the same degree as ion implantations with high-mass ions. When sufficient surface damage exists, a thermowave tool can detect the damage and provide information about the performance of the ion implanter. This determination can be made in a one-step method. An additional advantage to implanting the test wafers with low-mass ions is being able to reuse the wafers for subsequent test runs. When low-mass implants are used (such as hydrogen and helium), a thermal anneal subsequent to the ion implantation can repair any damage to the crystal and at the same time dissociate the low-mass dopants from the silicon crystal. The crystal is returned in its original condition after the escape of the low-mass dopants. If reusability is the highest priority, silicon ions may be used as the test species. Implanted silicon ions can cause measurable damage to the surface of the wafer. A calibration state of the ion implanter may then be determined by examining the surface damage. A subsequent thermal anneal can repair the damage to the surface and return the crystal to its original state.
    • 10. 发明公开
    • METHOD FOR ANALYZING AND/OR PROCESSING AN OBJECT AS WELL AS A PARTICLE BEAM DEVICE FOR CARRYING OUT THE METHOD
    • 程序用于分析和/或处理一个对象,并粒子束用于执行该方法
    • EP2988315A3
    • 2016-06-15
    • EP15177429.6
    • 2015-07-20
    • Carl Zeiss Microscopy GmbH
    • Biberger, JosefLechner, LorenzPostolski, MichalPulwey, RalphJanaszewsk, Marcin
    • H01J37/304H01J37/26
    • H01J37/20H01J37/147H01J37/265H01J37/304H01J2237/30433
    • The application relates to a method for analyzing, in particular for imaging, and/or processing of an object as well as a particle beam device for carrying out this method. In particular, the particle beam device of this application is an electron beam device and/or an ion beam device. The method in particular comprises the control unit providing a first control parameter, wherein a beam guiding unit is controlled using the first control parameter for guiding the particle beam and/or wherein a moving unit is controlled using the first control parameter for moving an object holder, correlating a position of the object holder in a second coordinate system to the object position on the surface of the object, identifying a first coordinate transformation between the first coordinate system and the second coordinate system, identifying an orientation position of a distinctive feature on the surface of the object and identifying first coordinates of the orientation position in the first coordinate system, the control unit providing a second control parameter, wherein the second control parameter is used for at least one of: controlling the beam guiding unit for guiding the particle beam, controlling the moving unit for moving the object holder or controlling a detector, identifying again the orientation position of the distinctive feature and identifying second coordinates of the orientation position in the first coordinate system, comparing the first coordinates with the second coordinates, identifying a local displacement of the first coordinates to the second coordinates, identifying a second coordinate transformation using the first coordinate transformation and the local displacement and identifying a position of an area to be analyzed and/or processed on the surface of the object.