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    • 4. 发明申请
    • AUTOMATIC SPOOL PACKAGE EDGE QUALITY ASSESSMENT AND CORRECTION ALGORITHM FOR WINDING APPLICATIONS
    • 用于卷绕应用的自动SPOOL封装边缘质量评估和校正算法
    • WO2004024606A2
    • 2004-03-25
    • PCT/US2003/029525
    • 2003-09-16
    • BERKELEY PROCESS CONTROL, INC.
    • WHITE, Alexander, CharlesKRAFT, Steven, MichaelSANDLER, Reuben
    • B65H
    • B65H54/2857
    • A method wherein nominal spool edge positions for each winding are calculated and used to initiate winding. During winding, the shape of the winding surface near the spool edges is calculated automatically. Preferably, an average spool radius is calculated over every two revolutions near the spool edge. The spool radii are then automatically plotted as a function of position along the spool axis, and a linear regression is performed to fit a line to the radii data. The shape is then used to correct the spool edge/turnaround points. If the shape is negative, indicating a reduced spool radius at the spool edge, the turnaround point is incremented outward toward the flanges an amount proportional to the slope. If the slope is positive, indicating a greater spool radius at the edges, the turnaround points are incremented inward, away from the flanges.
    • 计算每个绕组的标称卷轴边缘位置并用于启动卷绕的方法。 在卷绕期间,自动计算卷轴边缘附近卷绕表面的形状。 优选地,在卷轴边缘附近每两转计算平均卷轴半径。 然后将线轴半径作为沿着线轴的位置的函数被自动绘制,并且执行线性回归以将线适合于半径数据。 然后使用形状来校正阀芯边缘/周转点。 如果形状为负,表示阀芯边缘处的阀芯半径减小,则周转点朝向凸缘向外增加与斜率成比例的量。 如果斜率为正,则指示边缘处的较大的线轴半径,转向点向内增加,远离法兰。
    • 7. 发明申请
    • HIGH SPEED TRANSFER TAKEUP
    • 高速传输
    • WO2003062114A1
    • 2003-07-31
    • PCT/US2003/001857
    • 2003-01-21
    • BERKELEY PROCESS CONTROL, INC.
    • ANGOLD, RussBURNS, JonLYNCH, BrianHARDING, NathanVAN WERT, ChrisCHEN, Yu-Han
    • B65H54/22
    • B65H67/052B65H65/00B65H67/0405B65H2701/32Y10T83/9292
    • An apparatus for transferring material (12) winding between spools (28, 30). The apparatus includes spindels for positioning first and second spools (28, 30) in a co-planar arrangement with parallel axes of rotation. With the material (12) initially secured to the base (38) of a first spool (30) with tape (78), a winding mechanism is energized to turn the spools (28, 30). When the first spool (30) is filled, a first sheave (34, 36) directs the incoming material (12) to the second spool (28) which is rotated at the rate of material (12) supply. A tape applicator (42, 43) is then directed to apply a section of tape (78, 94, 110) over the material (12), pressing it against the base (40) of the second spool (28). A small wire (79, 91, 112) is included on the base (38, 40, 96, 102) of the tape (78, 94, 110) being applied. The applicator force on the wire (79, 91, 112) against the material (12) is designed to be sufficient to sever the material (12). Separating the material (12) on the first spool (30) from the material (12) being wound on the second spool (28).
    • 一种用于转移卷绕在卷轴(28,30)之间的材料(12)的装置。 该装置包括用于将第一和第二卷轴(28,30)定位成具有平行旋转轴线的共面布置的弹簧。 当材料(12)最初用带(78)固定到第一卷轴(30)的基部(38)时,通过绕线机构来转动卷轴(28,30)。 当第一卷轴(30)被填充时,第一滑轮(34,36)将进入的材料(12)引导到以材料(12)供给速率旋转的第二卷轴(28)。 然后,带式施加器(42,43)被引导以在材料(12)上施加一段带(78,94,110),将其压靠在第二卷轴(28)的基部(40)上。 在施加的带(78,94,110)的基座(38,40,96,102)上包括小线(79,91,112)。 电线(79,91,112)上对着材料(12)施加的力被设计为足以切断材料(12)。 将第一卷轴(30)上的材料(12)与卷绕在第二卷轴(28)上的材料(12)分离。
    • 8. 发明申请
    • CONFIGURABLE CONNECTORIZED I/O SYSTEM
    • 可配置的连接I / O系统
    • WO2002065307A1
    • 2002-08-22
    • PCT/US2002/004052
    • 2002-02-11
    • BERKELEY PROCESS CONTROL, INC.
    • SAGUES, PaulPEUARCH, John, T.WOODS, Leslie, H.
    • G06F13/00
    • G05B19/054G05B2219/1105G05B2219/1138G05B2219/1144H01R29/00H01R2201/06
    • A system for making interconnections between an input/output module (66) and a first device (70) and a second device (70) wherein the system uses standard cables (68) and connectors (74). The input/output module (66) includes a standard first connector (74) for making connection with a standard first transmission line cable (68) for conveying signals between the module (66) and the first device (70), and at least one second connector (74), with such second connector (74) connecting to a first end of a second standard cable (68). A second end of the second standard cable (68) includes a standard cable connector (74) for making connection to a corresponding connector of the second device (70). The input/output module (66) is configured to contain programmable logic for making the required connections between the module (66) and the first and second devices (70).
    • 一种用于在输入/输出模块(66)和第一装置(70)和第二装置(70)之间进行互连的系统,其中所述系统使用标准电缆(68)和连接器(74)。 输入/输出模块(66)包括用于与用于在模块(66)和第一设备(70)之间传送信号的标准第一传输线电缆(68)连接的标准第一连接器(74),以及至少一个 第二连接器(74),其中第二连接器(74)连接到第二标准电缆(68)的第一端。 第二标准电缆(68)的第二端包括用于连接到第二装置(70)的相应连接器的标准电缆连接器(74)。 输入/输出模块(66)被配置为包含用于在模块(66)和第一和第二设备(70)之间进行所需连接的可编程逻辑。
    • 10. 发明申请
    • AUTOMATIC SPOOL PACKAGE EDGE QUALITY ASSESSMENT AND CORRECTION ALGORITHM FOR WINDING APPLICATIONS
    • 用于卷绕应用的自动SPOOL封装边缘质量评估和校正算法
    • WO2004024606A3
    • 2005-07-21
    • PCT/US0329525
    • 2003-09-16
    • BERKELEY PROCESS CONTROL INC
    • WHITE ALEXANDER CHARLESKRAFT STEVEN MICHAELSANDLER REUBEN
    • B65H20060101B65H54/28
    • B65H54/2857
    • A method wherein nominal spool edge positions for each winding are calculated and used to initiate winding. During winding, the shape of the winding surface (34, 39) near the spool edges (L) is calculated automatically. Preferably, an average spool (14) radius is calculated over every two revolutions near the spool edge (L). The spool radii are then automatically plotted as a function of position along the spool axis (44), and a linear regression is performed to fit a line to the radii data. The shape is then used to correct the spool edge/turnaround points (18, 20). If the shape is negative (58), indicating a reduced spool radius at the spool edge, the turnaround point is incremented outward (62) toward the flanges (38, 40) an amount proportional to the slope. If the slope is positive (66), indicating a greater spool radius at the edges, the turnaround points (18, 20) are incremented inward (70), away from the flanges (38, 40).
    • 计算每个绕组的标称卷轴边缘位置并用于启动卷绕的方法。 在卷绕期间,自动地计算卷轴边缘(L)附近的卷绕表面(34,39)的形状。 优选地,在卷轴边缘(L)附近每两转计算平均卷轴(14)的半径。 然后,阀芯半径作为沿着阀芯轴(44)的位置的函数被自动绘制,并且执行线性回归以将直线拟合到半径数据。 然后使用形状来校正卷轴边缘/周转点(18,20)。 如果形状为负(58),表示阀芯边缘处的减小的阀芯半径,则转向点向凸缘(38,40)向外增加与斜率成比例的量。 如果斜率为正(66),则指示边缘处的较大的线轴半径,转向点(18,20)向外(70)向外增加,远离凸缘(38,40)。