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    • 21. 发明授权
    • Scanning probe microscope and sample observation method using the same
    • 扫描探针显微镜和样品观察方法使用
    • US07716970B2
    • 2010-05-18
    • US11411022
    • 2006-04-26
    • Masahiro WatanabeToshihiko NakataShuichi Baba
    • Masahiro WatanabeToshihiko NakataShuichi Baba
    • G01B5/28
    • G01Q60/34
    • The present invention provides a method of using an accurate three-dimensional shape without damaging a sample by making a probe contact the sample only at a measuring point, lifting and retracting the probe when moving to the next measuring point and making the probe approach the sample after moving to the next measuring point, wherein high frequency/minute amplitude cantilever excitation and vibration detection are performed and further horizontal direction excitation or vertical/horizontal double direction excitation are performed to improve the sensitivity of contacting force detection on a slope of steep inclination. The method uses unit for inclining the probe in accordance with the inclination of a measurement target and a structure capable of absorbing or adjusting the orientation of the light detecting the condition of contact between the probe and sample after reflection on the cantilever, which varies a great deal depending on the inclination of the probe.
    • 本发明提供了一种使用准确的三维形状而不损害样品的方法,该方法是使探针仅在测量点接触样品,当移动到下一个测量点时提升和缩回探针并使探针接近样品 在移动到下一个测量点之后,执行高频/分钟幅度的悬臂激励和振动检测,并且执行进一步的水平方向激励或垂直/水平双向激励,以提高在陡倾斜度上的接触力检测的灵敏度。 该方法使用用于根据测量对象的倾斜度和能够吸收或调节探测器和样品之间的接触条件的光的方向来倾斜测量头的单元,其反射在悬臂上,其变化很大 取决于探头的倾斜度。
    • 24. 发明授权
    • Scanning probe microscope and a measuring method using the same
    • 扫描探针显微镜及其测量方法
    • US08353060B2
    • 2013-01-08
    • US12828590
    • 2010-07-01
    • Masahiro WatanabeShuichi BabaToshihiko Nakata
    • Masahiro WatanabeShuichi BabaToshihiko Nakata
    • G01L9/00G01L9/08
    • G01Q10/02G01Q10/04
    • It is difficult for a scanning probe microscope according to the conventional technology to operate a probe for scanning and positioning in a wide range and for high-precision scanning in a narrow range. A scanning probe microscope according to the invention uses probe driving actuators for coarse adjustment and fine adjustment. For scanning and positioning in a wide range, the coarse adjustment actuator is switched to fast responsiveness. For scanning in a narrow range, the coarse adjustment actuator is switched to slow responsiveness. Instead, positional noise is reduced and the fine adjustment actuator is mainly used for scanning in a narrow range. The probe is capable of not only scanning and positioning in a wide range but also high-precision scanning in a narrow range.
    • 根据传统技术的扫描探针显微镜难以在宽范围内操作用于扫描和定位的探针并且在窄范围内进行高精度扫描。 根据本发明的扫描探针显微镜使用探头驱动致动器进行粗调和微调。 对于广泛的扫描和定位,粗调执行器切换到快速响应。 为了在窄范围内进行扫描,粗调调节执行器被切换为响应速度慢。 相反,位置噪声减小,微调致动器主要用于窄范围的扫描。 该探头不仅可以在很宽的范围内进行扫描和定位,还可以在窄范围内进行高精度扫描。
    • 25. 发明授权
    • Scanning probe microscope
    • 扫描探针显微镜
    • US07966867B2
    • 2011-06-28
    • US12099176
    • 2008-04-08
    • Masahiro WatanabeShuichi BabaToshihiko Nakata
    • Masahiro WatanabeShuichi BabaToshihiko Nakata
    • G01B5/28
    • G01Q70/04G01Q10/06
    • The invention provides a scanning probe microscope capable of performing highly accurate three-dimensional profile measurement in a state in which no sliding of the probe or deformation of the sample substantially occurs. The present invention realizes a highly accurate three-dimensional profile measurement using a scanning probe microscope, in which the method performs measurement to obtain an accurate three-dimensional profile without causing damage to the sample by having the probe contact the sample at the measurement point and then move to a next measurement point, wherein the probe is pulled up and retracted temporarily and then moved to the next measurement point where it is approximated to the sample again, the method comprises analyzing the signals of the contact force sensor so as to obtain the height of the probe at the time when the probe contacts the sample with zero contact force, so as to substantially eliminate errors caused by sliding of the probe and deformation of the sample caused by minute contact force.
    • 本发明提供一种扫描探针显微镜,其能够在不发生探针滑动或样品变形的状态下进行高精度的三维轮廓测量。 本发明使用扫描探针显微镜实现高精度的三维轮廓测量,其中该方法进行测量以获得准确的三维轮廓,而不会通过使探针在测量点处接触样品而使样品受损,并且 然后移动到下一个测量点,其中探针被暂时拉起和缩回,然后移动到下一个测量点,在该测量点近似于样品,该方法包括分析接触力传感器的信号,以获得 当探针以零接触力与样品接触时,探针的高度,从而基本上消除了探针的滑动和由微小的接触力导致的样品变形所引起的误差。
    • 28. 发明授权
    • Scanning probe microscope and sample observing method using the same
    • 扫描探针显微镜及使用其的样品观察方法
    • US08695110B2
    • 2014-04-08
    • US13586754
    • 2012-08-15
    • Toshihiko NakataMasahiro WatanabeTakashi InoueKishio HidakaMotoyuki Hirooka
    • Toshihiko NakataMasahiro WatanabeTakashi InoueKishio HidakaMotoyuki Hirooka
    • G01Q70/00G01Q70/16G01N13/00
    • G01Q60/18G01Q60/22
    • In a near-field scanning microscope using an aperture probe, the upper limit of the aperture formation is at most several ten nm in practice. In a near-field scanning microscope using a scatter probe, the resolution ability is limited to at most several ten nm because of the external illuminating light serving as background noise. Moreover, measurement reproducibility is seriously lowered by a damage or abrasion of a probe. Optical data and unevenness data of the surface of a sample can be measured at a nm-order resolution ability and a high reproducibility while damaging neither the probe nor the sample by fabricating a plasmon-enhanced near-field probe having a nm-order optical resolution ability by combining a nm-order cylindrical structure with nm-order microparticles and repeatedly moving the probe toward the sample and away therefrom at a low contact force at individual measurement points on the sample.
    • 在使用孔径探针的近场扫描显微镜中,实际上孔径形成的上限为至多几十nm。 在使用散射探针的近场扫描显微镜中,由于外部照明光作为背景噪声,分辨能力被限制在至多几十nm。 此外,通过探针的损伤或磨损,测量再现性被严重降低。 可以以nm级分辨能力和高再现性测量样品表面的光学数据和不均匀性数据,同时通过制造具有nm级光学分辨率的等离子体增强近场探针而不损害探针和样品 通过将nm级圆柱形结构与nm级微粒组合,并在样品上的各个测量点处以低接触力将探针重复地移动到样品并从中离开它们的能力。
    • 29. 发明申请
    • SCANNING PROBE MICROSCOPE AND SAMPLE OBSERVING METHOD USING THE SAME
    • 扫描探针显微镜和使用其的样品观察方法
    • US20100064396A1
    • 2010-03-11
    • US12523369
    • 2008-02-26
    • Toshihiko NakataMasahiro WatanabeTakashi InoueKishio HidakaMotoyuki Hirooka
    • Toshihiko NakataMasahiro WatanabeTakashi InoueKishio HidakaMotoyuki Hirooka
    • G01Q60/18G01Q60/24
    • G01Q60/18G01Q60/22
    • In a near-field scanning microscope using an aperture probe, the upper limit of the aperture formation is at most several ten nm in practice. In a near-field scanning microscope using a scatter probe, the resolution ability is limited to at most several ten nm because of the external illuminating light serving as background noise. Moreover, measurement reproducibility is seriously lowered by a damage or abrasion of a probe. Optical data and unevenness data of the surface of a sample can be measured at a nm-order resolution ability and a high reproducibility while damaging neither the probe nor the sample by fabricating a plasmon-enhanced near-field probe having a nm-order optical resolution ability by combining a nm-order cylindrical structure with nm-order microparticles and repeatedly moving the probe toward the sample and away therefrom at a low contact force at individual measurement points on the sample.
    • 在使用孔径探针的近场扫描显微镜中,实际上孔径形成的上限为至多几十nm。 在使用散射探针的近场扫描显微镜中,由于外部照明光作为背景噪声,分辨能力被限制在至多几十nm。 此外,通过探针的损伤或磨损,测量再现性被严重降低。 可以以nm级分辨能力和高再现性测量样品表面的光学数据和不均匀性数据,同时通过制造具有nm级光学分辨率的等离子体增强近场探针而不损害探针和样品 通过将nm级圆柱形结构与nm级微粒组合,并在样品上的各个测量点处以低接触力将探针重复地移动到样品并从中离开它们的能力。