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    • 2. 发明授权
    • Method for determining spraying parameters for controlling a paint-spraying apparatus using a spraying agent
    • 用于确定喷雾参数以控制使用喷雾剂的喷漆装置的方法
    • US08551573B2
    • 2013-10-08
    • US11812443
    • 2007-06-19
    • Dietmar EickmeyerGunter Boerner
    • Dietmar EickmeyerGunter Boerner
    • B05B15/04
    • B05B12/00B05B5/0426
    • A method for determining spraying parameters for controlling a paint-spraying apparatus using a spraying agent is disclosed. A known spray pattern is provided which has been determined by means of known spraying parameters for the use of a first spraying agent. A provisional spray pattern is calculated using the known spraying parameters and the characteristics of a second spraying agent. The known spraying parameters are altered in order to acquire changed spraying parameters which yield a further spray pattern. The changed spraying parameters are altered to the point where the further spray pattern is similar to the known spray pattern within a similarity criterion. The changed spraying parameters corresponding to the further spray pattern are intended as spraying parameters for the second spraying agent and are provided to the paint-spraying apparatus whenever the second spraying agent is used. The spraying parameters comprise a plurality of air currents which influence the spraying behavior of the paint-spraying apparatus.
    • 公开了一种用于确定喷涂参数以控制使用喷雾剂的喷漆装置的方法。 提供已知的喷雾图案,其通过已知的用于使用第一喷雾剂的喷雾参数来确定。 使用已知的喷雾参数和第二喷雾剂的特性计算临时喷雾图案。 已知的喷雾参数被改变以获得改变的喷射参数,其产生进一步的喷雾模式。 改变的喷雾参数被改变为在相似性标准内进一步喷雾模式与已知喷雾模式相似的程度。 对应于另外的喷雾模式的改变的喷涂参数用作第二喷涂剂的喷涂参数,并且每当使用第二喷涂剂时,将其提供给喷漆设备。 喷涂参数包括影响喷漆装置的喷涂性能的多个气流。
    • 4. 发明申请
    • METHOD FOR RESTARTING A ROBOT
    • 用于重建机器人的方法
    • US20090198378A1
    • 2009-08-06
    • US12361555
    • 2009-01-29
    • Gunter BoernerDietmar Eickmeyer
    • Gunter BoernerDietmar Eickmeyer
    • G05B19/04
    • G05B19/4067B25J9/1679G05B2219/50103
    • A method for restarting a robot after a premature interruption of a processing program, which controls it, at an interruption point. The robot has an atomiser apparatus for automatic coating of workpieces, and the processing program is used to preset a nominal movement of the atomiser apparatus with respect to a workpiece, which is to be coated and can be moved by means of a feed device, and to preset the associated nominal atomiser parameters. After the interruption of the processing program, the atomiser apparatus is first of all moved to a restarting point, which is located on the nominal movement path and is located ahead of the interruption point. After this, the atomiser apparatus is then moved on the nominal movement path, corresponding to a predeterminable velocity function, to a transfer point which is located on the nominal movement path and is located behind the interruption point. The atomiser apparatus is switched on again between the restarting point and the transfer point. The nominal atomiser parameters which are provided by the processing program are matched and are applied at least once, between the restarting point and the transfer point, to the respective current velocity of the atomiser apparatus, in relation to the nominal velocity preset, and all of the nominal movement parameters and nominal atomiser parameters in the processing program are used when the transfer point is reached.
    • 一种用于在中断点处理程序的过早中断之后重新启动机器人的方法,该方法控制它。 机器人具有用于自动涂覆工件的雾化器装置,并且处理程序用于预设雾化器装置相对于要被涂覆并可通过进给装置移动的工件的标称运动,以及 以预设相关的标称雾化器参数。 在处理程序中断之后,雾化装置首先被移动到位于标称移动路径上并位于中断点之前的重启点。 此后,雾化器装置然后在对应于预定速度函数的标称运动路径上移动到位于标称运动路径上并位于中断点后面的转移点。 雾化装置在重启点和转移点之间再次接通。 由处理程序提供的标称雾化器参数与重新启动点和转移点之间的至少一次相对于雾化器装置的相应的当前速度相对于预定的标称速度进行匹配,并且全部 当达到传输点时,使用处理程序中的标称运动参数和标称雾化器参数。
    • 5. 发明申请
    • Method for determining spraying parameters for controlling a paint-spraying apparatus using a spraying agent
    • 用于确定喷雾参数以控制使用喷雾剂的喷漆装置的方法
    • US20070289358A1
    • 2007-12-20
    • US11812443
    • 2007-06-19
    • Dietmar EickmeyerGunter Boerner
    • Dietmar EickmeyerGunter Boerner
    • B05B15/04B05C11/10
    • B05B12/00B05B5/0426
    • A method for determining spraying parameters for controlling a paint-spraying apparatus using a spraying agent is disclosed. A known spray pattern is provided which has been determined by means of known spraying parameters for the use of a first spraying agent. A provisional spray pattern is calculated using the known spraying parameters and the characteristics of a second spraying agent. The known spraying parameters are altered in order to acquire changed spraying parameters which yield a further spray pattern. The changed spraying parameters are altered to the point where the further spray pattern is similar to the known spray pattern within a similarity criterion. The changed spraying parameters corresponding to the further spray pattern are intended as spraying parameters for the second spraying agent and are provided to the paint-spraying apparatus whenever the second spraying agent is used. The spraying parameters comprise a plurality of air currents which influence the spraying behaviour of the paint-spraying apparatus.
    • 公开了一种用于确定喷涂参数以控制使用喷雾剂的喷漆装置的方法。 提供已知的喷雾图案,其通过已知的用于使用第一喷雾剂的喷雾参数来确定。 使用已知的喷雾参数和第二喷雾剂的特性计算临时喷雾图案。 已知的喷雾参数被改变以获得改变的喷射参数,其产生进一步的喷雾模式。 改变的喷雾参数被改变为在相似性标准内进一步喷雾模式与已知喷雾模式相似的程度。 对应于另外的喷雾模式的改变的喷涂参数用作第二喷涂剂的喷涂参数,并且每当使用第二喷涂剂时,将其提供给喷漆设备。 喷涂参数包括影响喷漆装置的喷涂性能的多个气流。
    • 6. 发明授权
    • Method for restarting a robot
    • 重新启动机器人的方法
    • US09354626B2
    • 2016-05-31
    • US12361555
    • 2009-01-29
    • Gunter BoernerDietmar Eickmeyer
    • Gunter BoernerDietmar Eickmeyer
    • G05B19/18G05B19/4067B25J9/16
    • G05B19/4067B25J9/1679G05B2219/50103
    • A method for restarting a robot after a premature interruption of a processing program, which controls it, at an interruption point. The robot has an atomizer apparatus for automatic coating of workpieces, and the processing program is used to preset a nominal movement of the atomizer apparatus with respect to a workpiece, which is to be coated and can be moved by means of a feed device, and to preset the associated nominal atomizer parameters. After the interruption of the processing program, the atomizer apparatus is first of all moved to a restarting point, which is located on the nominal movement path and is located ahead of the interruption point. After this, the atomizer apparatus is then moved on the nominal movement path, corresponding to a predeterminable velocity function, to a transfer point which is located on the nominal movement path and is located behind the interruption point. The atomizer apparatus is switched on again between the restarting point and the transfer point. The nominal atomizer parameters which are provided by the processing program are matched and are applied at least once, between the restarting point and the transfer point, to the respective current velocity of the atomizer apparatus, in relation to the nominal velocity preset, and all of the nominal movement parameters and nominal atomizer parameters in the processing program are used when the transfer point is reached.
    • 一种用于在中断点处理程序的过早中断之后重新启动机器人的方法,该方法控制它。 机器人具有用于自动涂覆工件的雾化器装置,并且处理程序用于预设雾化器装置相对于待涂覆并可通过进给装置移动的工件的标称运动,以及 以预设相关的标称雾化器参数。 在处理程序中断之后,雾化装置首先被移动到位于标称移动路径上并位于中断点之前的重启点。 此后,雾化器装置然后在对应于预定速度函数的标称移动路径上移动到位于标称移动路径上且位于中断点后面的转移点。 雾化装置在重启点和转移点之间再次接通。 由处理程序提供的标称雾化器参数在重新启动点和转移点之间至少一次施加到雾化器装置的相应当前速度,相对于预设的标称速度,并且全部 当达到传输点时,使用处理程序中的标称运动参数和标称雾化器参数。
    • 7. 发明授权
    • Insulation piece for a pipeline
    • 管道绝缘片
    • US06685231B2
    • 2004-02-03
    • US10056768
    • 2002-01-24
    • Gunter BörnerDietmar EickmeyerHorst Dörlich
    • Gunter BörnerDietmar EickmeyerHorst Dörlich
    • F16L1112
    • F16L25/02B05B5/1616
    • An insulation piece for a pipeline conveys electrically conductive liquids from a point that is at a ground potential to a point connected to a high voltage. The liquid is conveyed discontinuously by portion-by-portion transport by the carriage flow of the liquid being interrupted. The insulation piece is periodically free of liquid, corresponding to the interruptions in the carriage flow. The insulation piece is a hollow body, and its unobstructed width is equal to or greater than that of the pipeline. Connecting pieces for connecting to the pipeline are provided on the end faces of the insulation piece, which are closed in places by terminating elements, and which connecting pieces are of the same diameter as the adjacent pipeline. The connecting pieces pass through the terminating elements, rest against them to form a seal, and each have a toroidal-form attachment on the outside at their inner end.
    • 用于管道的绝缘件将导电液体从接地电位的点传送到连接到高电压的点。 通过中断的液体的运送流量,通过部分输送不连续地输送液体。 绝缘片周期性地不含液体,与托架流中的中断相对应。 绝缘件是中空体,其无阻碍的宽度等于或大于管道的宽度。 在绝缘件的端面设置用于连接到管道的连接件,它们通过端接件封闭在一起,并且连接件具有与相邻管道相同的直径。 连接件穿过终端元件,靠在其上以形成密封件,并且每个连接件在其内端处具有在外侧上的环形附件。
    • 8. 发明授权
    • Method for determining spraying parameters for a paint spraying unit
    • 确定喷漆装置喷涂参数的方法
    • US06507803B1
    • 2003-01-14
    • US09630149
    • 2000-07-31
    • Dietmar EickmeyerGunter Börner
    • Dietmar EickmeyerGunter Börner
    • G01B502
    • G05B13/027B05B12/00
    • A method for determining spraying parameters that are suitable as input values for a paint spraying unit that can electrostatically charge a liquid paint. In this case, at least one artificial neural network is used to determine the spraying parameters, an output of such a neural network being available for each spraying parameter. A suitable number of real measured values are fed to the one neural network or a plurality of neural networks as input values, initially in a learning phase. The measured values further contain associated real spraying parameters in addition to a paint thickness distribution in the form of discrete values. Input values are fed to the one neural network or a plurality of neural networks in the application phase. The input values being the result of an analysis of the paint thickness distribution of a targeted, that is to say prescribed, spraying result.
    • 一种用于确定喷涂参数的方法,所述喷涂参数适合作为喷涂单元的输入值,所述喷漆单元可静电对液体涂料充电。 在这种情况下,使用至少一个人造神经网络来确定喷射参数,这样的神经网络的输出可用于每个喷雾参数。 最初在学习阶段将适当数量的实测值馈送到一个神经网络或多个神经网络作为输入值。 除了离散值形式的油漆厚度分布之外,测量值还包含相关联的真实喷涂参数。 输入值在应用阶段被馈送到一个神经网络或多个神经网络。 输入值是对目标的涂料厚度分布的分析结果,即所规定的喷涂结果。
    • 10. 发明授权
    • Method and device for determining the layer thickness distribution in a paint layer
    • 用于确定涂层中层厚度分布的方法和装置
    • US06745158B1
    • 2004-06-01
    • US09630150
    • 2000-07-31
    • Dietmar EickmeyerGunter Börner
    • Dietmar EickmeyerGunter Börner
    • G06F1710
    • B05B12/00B05B5/00G05B17/02
    • A method for determining a layer thickness distribution in a paint layer produced during paint spraying after inputting specific spraying parameters into an electrostatically based paint spraying device. A data processing device sets up and uses a phenomenological mathematical model of a quasi-stationary three-dimensional spray pattern. Specific parameters, such as an angle of rotation of electrodes and a rate of movement of the spraying device are input into the phenomenological model as fixed input parameters. In addition, real physical input parameters such as paint volume, directing air data and a voltage value, whose influence on the spraying result is not accurately known, are fed to an artificial neural network. The neural network having been previously trained using real input data such as a configuration of the spraying device, a paint type, operating parameters, and measured values of the layer thickness distribution. The neural network carries out a conversion of the input parameters into model input parameters which are fed to the phenomenological model. Spray patterns formed by the phenomenological model are integrated in a further functional unit as a function of movement data of the spraying device which are contained in the input parameters to form the overall paint layer which is output.
    • 一种用于确定在将特定喷涂参数输入静电喷涂装置之后在喷漆期间产生的涂料层中的层厚度分布的方法。 数据处理设备建立并使用准静态三维喷雾模式的现象学数学模型。 诸如电极的旋转角度和喷射装置的移动速度的特定参数被输入到作为固定输入参数的现象模型中。 另外,对喷雾结果影响不明确的实际物理输入参数如油漆体积,引导空气数据和电压值被馈送到人造神经网络。 已经使用诸如喷涂装置的配置,涂料类型,操作参数和层厚度分布的测量值的实际输入数据训练过的神经网络。 神经网络将输入参数转换为输入到现象模型的模型输入参数。 由现象学模型形成的喷雾图形,与作为输入参数中包含的喷涂装置的运动数据的函数集成在另一功能单元中,形成输出的整个油漆层。