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    • 1. 发明申请
    • Methods and systems for ascertaining the roughness of a print media surface
    • 用于确定印刷介质表面的粗糙度的方法和系统
    • US20040165203A1
    • 2004-08-26
    • US10626021
    • 2003-07-24
    • Darin D. Lindig
    • G01B011/30B41J002/385G03G021/00G01B005/28B41J013/00
    • B65H43/00B41J11/009B41J11/0095B65H2511/135B65H2553/414G01B21/30B65H2220/03
    • In one embodiment, a printing device comprises a printer configured to print upon paper, a surface-engaging member associated with the printer and configured to physically engage a paper surface, the surface-engaging member comprising a flexure material body that is supported in a cantilevered disposition proximate a piece of paper to be printed upon by the printer, a reflective member joined with the surface-engaging member, one or more light sources in operable proximity to the reflective member and configured to project light energy toward the reflective member, and a position detector mounted in operable proximity to the reflective member and configured to receive light energy that is reflected from the reflective member, the surface-engaging member being configured for displacement by the paper's surface in accordance with variations in the roughness of the surface sufficiently so that light that is reflected by the reflective member and received by the position detector can be utilized to ascertain a measure of the paper surface's roughness.
    • 在一个实施例中,打印装置包括被配置为在纸张上打印的打印机,与打印机相关联并且被配置为物理地接合纸张表面的表面接合构件,所述表面接合构件包括弯曲材料体,所述弯曲材料体被支撑在悬臂 靠近由打印机打印的一张纸的配置,与表面接合构件连接的反射构件,可操作地接近反射构件并被配置为将光能投射到反射构件的一个或多个光源,以及 位置检测器安装在可操作地接近反射构件并且被配置为接收从反射构件反射的光能,表面接合构件被构造成根据表面的粗糙度的变化被充分地位移,使得 可以通过反射构件反射并被位置检测器接收的光 用于确定纸张表面粗糙度的度量。
    • 5. 发明申请
    • Measuring system with improved method of reading image data of an object
    • 测量系统,改进了读取物体图像数据的方法
    • US20020131056A1
    • 2002-09-19
    • US10075230
    • 2002-02-15
    • Eiro FujiiShigeaki ImaiToshio Norita
    • G01B011/24G01B011/30
    • G01B11/2518G06T7/521
    • When a scanning start position set signal is input in an area image sensor, the content is transferred to a vertical scanning circuit, and the scan start position is set. Image of a desired row is read by horizontal scanning. Then, one shift signal for vertical scanning is input, the position of scanning is shifted by one row, and horizontal scanning is performed. Thus image of the next row is read. By repeating this operation, a desired strip-shaped image is read. The shape of the object is determined and when a portion is determined to have complicated shape, the image data is input by means of a lens having long focal length, and image data of other portions are input by means of a lens having short focal length. By putting together a plurality of input image data, image data as a whole is generated.
    • 当在区域图像传感器中输入扫描开始位置设置信号时,将内容传送到垂直扫描电路,并设置扫描开始位置。 通过水平扫描读取所需行的图像。 然后,输入用于垂直扫描的一个移位信号,扫描的位置移位一行,并进行水平扫描。 因此,读取下一行的图像。 通过重复该操作,读取期望的条形图像。 确定物体的形状,并且当确定部分具有复杂形状时,通过具有长焦距的透镜输入图像数据,并且借助于具有短焦距的透镜输入其他部分的图像数据 。 通过合成多个输入图像数据,生成整体的图像数据。
    • 7. 发明申请
    • Reflectance method for evaluating the surface characteristics of opaque materials
    • 用于评估不透明材料表面特性的反射方法
    • US20010008448A1
    • 2001-07-19
    • US09793435
    • 2001-02-26
    • Randhir P.S. ThakurMichael NuttallJ. Brett RolfsonRobert James Burke
    • G01B011/30
    • G01B11/303
    • Disclosed is a process for analyzing the surface characteristics of opaque materials. The method comprises in one embodiment the use of a UV reflectometer to build a calibration matrix of data from a set of control samples and correlating a desired surface characteristic such as roughness or surface area to the set of reflectances of the control samples. The UV reflectometer is then used to measure the reflectances of a test sample of unknown surface characteristics. Reflectances are taken at a variety of angles of reflection for a variety of wavelengths, preferably between about 250 nanometers to about 400 nanometers. These reflectances are then compared against the reflectances of the calibration matrix in order to correlate the closest data in the calibration matrix. By so doing, a variety of information is thereby concluded, due to the broad spectrum of wavelengths and angles of reflection used. This includes information pertaining to the roughness and surface area, as well as other surface characteristics such as grain size, grain density, grain shape, and boundary size between the grains. Surface characteristic evaluation can be conducted in-process in a manner which is non-destructive to the test sample. The method is particularly useful for determining the capacitance of highly granular polysilicon test samples used in the construction of capacitator plates in integrated circuit technology, and can be used to determine the existence of flat smooth surfaces, the presence of prismatic and hemispherical irregularities on flat smooth surfaces, and the size of such irregularities.
    • 公开了一种用于分析不透明材料的表面特性的方法。 该方法在一个实施方案中包括使用UV反射计来构建来自一组对照样品的数据的校准矩阵,并将期望的表面特性如粗糙度或表面积与对照样品的一组反射率相关联。 然后使用UV反射计来测量未知表面特性的测试样品的反射率。 对于各种波长,优选地在约250纳米至约400纳米之间的各种反射角度下进行反射。 然后将这些反射率与校准矩阵的反射率进行比较,以便将校准矩阵中最接近的数据相关联。 通过这样做,由于广泛的波长和使用的反射角度,从而得出各种信息。 这包括关于粗糙度和表面积的信息,以及晶粒之间的其他表面特性,例如晶粒尺寸,晶粒密度,晶粒形状和边界尺寸。 表面特性评估可以以对测试样品非破坏性的方式进行。 该方法特别有助于确定集成电路技术中用于构建电容器板的高度粒状多晶硅测试样品的电容,并且可用于确定平滑光滑表面的存在,平坦光滑的棱镜和半球形不规则的存在 表面和这种不规则的大小。
    • 9. 发明申请
    • Submerged sample observation apparatus and method
    • US20040025579A1
    • 2004-02-12
    • US10636565
    • 2003-08-08
    • TOYOTA JIDOSHA KABUSHIKI KAISHA
    • Naoki Nakamura
    • G01N013/10G01B011/30G01B011/00G01N021/49G01N021/47
    • G01Q30/14Y10S977/86
    • An apparatus and a method for observing a submerged sample are disclosed, in which a scanning probe microscope comprises a cantilever with a probe arranged at the forward end thereof, a light source for applying light to the cantilever and a detector for detecting the light reflected from the cantilever, the apparatus further comprising a sample container having a side wall for holding a liquid therein. The probe is placed in closely opposed relation to the sample in the liquid in the sample container, and the relative positions of the probe and the sample are changed, so that based on the interaction between the probe and the sample, a surface image of the sample is produced to observe the sample. A device for preventing volatilization of the liquid having the sample submerged therein is formed on the surface of the liquid. An insulative liquid layer not mixed with the surface of the liquid having the sample submerged therein is formed on the surface of the liquid. Only the forward end of the probe is introduced into the liquid having the sample submerged therein, while the other portion of the probe is covered with the insulative liquid. The light from the light source is applied to the cantilever in the liquid without passing through the interface between the liquid and the atmosphere, and the reflected light is picked up in the liquid.