会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 1. 发明授权
    • Method for no-contact measurement
    • 无接触式测量方法
    • US3989378A
    • 1976-11-02
    • US480822
    • 1974-06-19
    • Knut HeitmannEckart SchneiderHermann Eisenkopf
    • Knut HeitmannEckart SchneiderHermann Eisenkopf
    • G01D5/36G01P3/36
    • G01P3/36G01D5/36
    • Method for no-contact measurement of the relative velocity, position, or displacement path of objects without special optical markers with respect to a reference position in at least one coordinate direction, or of the degree of image quality of an image wherein the apparatus images the object on a grating and the light fluxes leaving this grating are measured by means of photoelectric elements. The output signals of the photoelectric elements exhibit a frequency component proportional to the velocity of travel. The present invention is distinguished from the prior art by having a physical beam splitter (6,13) inserted in the imaging beam path in front of the grating (5,14), and preferably several polarizing beam splitters (7,30-33) with at least respectively one associated photoelectric receiver pair (10,11,16-19 16'-19') are connected after the grating (5,14).
    • 相对于至少一个坐标方向上的参考位置的特殊光学标记的物体的相对速度,位置或位移路径或图像的图像质量的程度的非接触式测量的方法,其中, 物体在光栅上,离开该光栅的光束通过光电元件测量。 光电元件的输出信号表现出与行进速度成比例的频率分量。 通过使物理分束器(6,13)插入到光栅(5,14)前方的成像光束路径中,并且优选地多个偏振分束器(7,30-33),本发明与现有技术不同, 在光栅(5,14)之后至少分别具有一个相关联的光电接收器对(10,11,16-19 16'-19')。
    • 2. 发明授权
    • Method and apparatus for measuring distances
    • 测量距离的方法和装置
    • US4175365A
    • 1979-11-27
    • US661761
    • 1976-02-26
    • Ludwig LeitzKnut HeitmannEckart SchneiderHorst Schmidt
    • Ludwig LeitzKnut HeitmannEckart SchneiderHorst Schmidt
    • G01C3/08G01D5/38G02B27/46
    • G01C3/085G01D5/38G02B27/46
    • A method and apparatus for the automatic evaluation of stereoscopic images by the determination of the maximum degree of correlation of identical images of an object reproduced by two objectives, for example for a range finder, wherein the two images are superimposed on one and/or two position frequency filters (82, 21, 31, 32) identical in their structures; the respective superimposed signal produced is fed respectively to one photoelectric receiver (13,14,43,44); and the output signals of the photoelectric receivers are used for indicating and/or control purposes. In one embodiment the position frequency filter (82) is moved and the output signals are correlated with each other. In another embodiment the output signals are subtracted from each other.
    • 用于通过确定由两个目标再现的对象的相同图像的最大相关度的自动评估的方法和装置,例如用于测距仪,其中两个图像叠加在一个和/或两个 位置频率滤波器(82,21,31,32)的结构相同; 所产生的各个叠加信号分别馈送到一个光电接收器(13,14,44,44); 并且光电接收器的输出信号用于指示和/或控制目的。 在一个实施例中,位置频率滤波器(82)被移动并且输出信号彼此相关。 在另一实施例中,输出信号彼此相减。
    • 5. 发明授权
    • Object measuring method and apparatus
    • 物体测量方法和装置
    • US4226535A
    • 1980-10-07
    • US931959
    • 1978-08-08
    • Knut HeitmannEckart SchneiderHeribert Lussem
    • Knut HeitmannEckart SchneiderHeribert Lussem
    • G01D5/36G01B7/00G01B11/00G01D5/243G01D5/26G01B11/14H01J39/12
    • G01D5/26G01D5/243
    • Apparatus is disclosed for measuring the movement of an object comprising an optical imaging device for producing an image of said object, a grating structure positioned to receive the image of said object produced by said imaging device, drive means for producing a periodic relative movement between said grating structure and the image formed thereon, means for generating reference signals corresponding to said periodic relative movement, photoelectric receiving means positioned for receiving light from said grating structure corresponding to the image thereon, said photoelectric receiving means producing electrical rotating field signals, a control circuit connected for receiving said reference signals and said electrical rotating field signals for producing control signals indicative of the movement of said object with respect to a direction of movement at least approximately parallel to said relative movement, and a bidirectional counter connected to receive said control signals for indicating the movement of said object. A method for measuring object movement is also disclosed.
    • 公开了一种用于测量物体的运动的装置,包括用于产生所述物体的图像的光学成像装置,定位成接收由所述成像装置产生的所述物体的图像的光栅结构;用于产生所述物体的周期性相对运动的驱动装置 光栅结构和形成在其上的图像,用于产生对应于所述周期性相对运动的参考信号的装置,用于接收来自对应于其上的图像的所述光栅结构的光的光电接收装置,所述光电接收装置产生电旋转场信号,控制电路 连接用于接收所述参考信号和所述电旋转场信号,用于产生指示所述物体相对于至少近似平行于所述相对运动的运动方向的运动的控制信号;以及双向计数器,连接以接收所述控制信号fo r指示所述对象的移动。 还公开了一种用于测量物体运动的方法。
    • 6. 发明授权
    • System for monitoring spaces by electro-optical means
    • 通过电光手段监控空间的系统
    • US3972021A
    • 1976-07-27
    • US579568
    • 1975-05-21
    • Ludwig LeitzKnut HeitmannEckart Schneider
    • Ludwig LeitzKnut HeitmannEckart Schneider
    • F16P3/14G08G1/04G08G1/00
    • F16P3/14F16P3/144G08G1/04
    • System for monitoring spaces by electro-optical means, using optical imaging means (1) capable of detecting objects present in the monitored spaces and beam splitting means (2) for grating resolution of the object images into geometric, mutually complementary components. The imaging and beam splitting means form a correlation imaging sensor system equipped with photoelectric detectors (4,5) for the purpose of separately converging light fluxes corresponding to the image components into analogue electrical signals, and electrical means for measuring the amplitudes and phases of the signals as well as their variations. The correlation sensor system analyzes these values with respect to presence and/or motion of objects within the monitored spaces.
    • 用于通过电光装置监视空间的系统,使用能够检测存在于监视空间中的物体的光学成像装置(1)和用于将对象图像的光栅分辨率分解为几何相互补充的分量的分束装置(2)。 成像和分束装置形成配备有光电检测器(4,5)的相关成像传感器系统,用于将对应于图像分量的光束单独地收敛成模拟电信号,以及用于测量所述图像分量的幅度和相位的电气装置 信号以及它们的变化。 相关传感器系统相对于被监测空间内物体的存在和/或运动来分析这些值。
    • 7. 发明授权
    • Method and apparatus for local selective detection and generation of
polar structure alignments in microscopic object areas
    • 用于局部选择性检​​测和在微观对象区域中产生极性结构对准的方法和装置
    • US4669313A
    • 1987-06-02
    • US733189
    • 1985-05-13
    • Klaus DransfeldKnut Heitmann
    • Klaus DransfeldKnut Heitmann
    • G01N29/24G01N29/06G01N29/00
    • G01N29/06
    • Polar structures in microscopic object areas, such as, for example, electric or magnetic dipoles, can be locally selectively detected with high resolution if either resonant ultrasonic waves are induced in the object area by a locally effective high-frequency field and are detected by means of a focused acoustic lens arrangement, or electric or magnetic high-frequency oscillations are induced in the object area by focused ultrasonic waves and are detected by an appropriate receiver. By comparing the phases and/or amplitudes of the induced and of the detected waves, these provide information on the existence and the direction of the dipoles. Existing dipole alignments can be made energetically unstable by a critical direct-current electric or magnetic field and locally selectively reversed by the focused ultrasonic beam.
    • 如果通过局部有效的高频场在对象区域中感应到共振超声波,并且通过装置检测到,在微观物体区域中的极地结构,例如电或磁偶极子可以以高分辨率被局部选择性地检测 聚焦的声透镜布置,或者通过聚焦的超声波在对象区域中引起电或磁高频振荡,并由适当的接收器检测。 通过比较感应波和检测波的相位和/或振幅,这些提供关于偶极子的存在和方向的信息。 现有的偶极对准可以由临界直流电场或磁场在能量上不稳定,并且被聚焦的超声波束局部选择性反转。
    • 8. 发明授权
    • Mirror reflex camera with exposure meter
    • 镜面反光相机带曝光表
    • US4496231A
    • 1985-01-29
    • US400253
    • 1982-07-21
    • Knut HeitmannKlaus-Dieter Schaefer
    • Knut HeitmannKlaus-Dieter Schaefer
    • G03B7/0997G03B7/099
    • G03B7/09976
    • The exposure meter is used in mirror reflex cameras wherein an image of an object projected by a picture taking lens onto an image plane is observed by means of a pentaprism through an ocular. For the purpose of the selective integral or spot exposure metering, a pentaprism (6) is provided at the lower edge of its exit surface with a partly transmitting concave mirror (16). The angles of the pentaprism (6) are selected so that a portion of the light flux leaving the exit pupil (EP) of the picture-taking lens (2) is incident on this concave mirror (16). A first photoelectric detector system is associated with the concave mirror (16) and a second detector system is associated with the prism surface (6c) following the concave mirror in the direction of the beam path, and the output signals from these detectors control a display and/or an exposure control. An additional optical component (13,14a,15b,15) is provided to implement a desired beam path in the pentaprism (6).
    • 曝光表用于镜反射相机中,其中通过眼睛的五棱镜观察由图像拍摄镜头投射到图像平面上的物体的图像。 为了选择性积分或点曝光测光的目的,五棱镜(6)设置在其出射表面的下边缘处,具有部分透射的凹面镜(16)。 选择五棱镜(6)的角度使得离开摄像镜头(2)的出射光瞳(EP)的光束的一部分入射在该凹面镜(16)上。 第一光电检测器系统与凹面镜(16)相关联,并且第二检测器系统与沿着光束路径的方向的凹面镜之后的棱镜表面(6c)相关联,并且来自这些检测器的输出信号控制显示器 和/或曝光控制。 提供附加的光学部件(13,14a,15b,15)以在五棱镜(6)中实现期望的光束路径。
    • 9. 发明授权
    • System for measuring position and/or velocity
    • 用于测量位置和/或速度的系统
    • US4195425A
    • 1980-04-01
    • US866908
    • 1978-01-04
    • Ludwig LeitzKnut Heitmann
    • Ludwig LeitzKnut Heitmann
    • G01P3/36G01S11/12G01C3/00G01C3/08
    • G01S11/12G01P3/36
    • System for measuring the relative position and/or velocity of two objects with respect to each other and/or with respect to a common reference system, such as the ground, according to the magnitude and direction thereof, using electro-optical measuring means, the improvement comprising:(1) producing images of the object to be measured in at least two different spatial positions;(2) producing A.C. electrical signals of different frequency proportional to the relative movements of these images to at least one optical correlation system; and(3) evaluating these signals, with the use of the trigonometrical relationships of the perspective imaging, in a computer to determine the measured values.
    • 用于使用电光测量装置根据其大小和方向测量两个物体相对于彼此和/或相对于公共基准系统(例如地面)的相对位置和/或速度的系统, 改进包括:(1)在至少两个不同的空间位置产生要测量对象的图像; (2)产生与这些图像相对于至少一个光学相关系统的相对运动成比例的不同频率的交流电信号; 和(3)使用计算机中的透视成像的三角关系评估这些信号,以确定测量值。