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    • 21. 发明授权
    • Terrestrial solar tracking photovoltaic array with chain drive
    • 地面太阳能跟踪光伏阵列带链驱动
    • US08536504B2
    • 2013-09-17
    • US13362530
    • 2012-01-31
    • Mikhail KatsGary D. HeringPeter Allen ZawadzkiJames Sherman
    • Mikhail KatsGary D. HeringPeter Allen ZawadzkiJames Sherman
    • G01C21/02F24J2/38H01L31/042
    • H01L31/0543F24S23/30F24S30/425F24S30/455F24S2030/134F24S2030/136F24S2030/18H02S20/10H02S20/32Y02E10/47Y02E10/52
    • The terrestrial solar tracking photovoltaic array includes a longitudinal support that may be constructed of discrete sections. The overall length of the array may be adjusted depending upon the necessary size of the array. A drive may be configured to rotate the longitudinal support in first and second directions about a first axis. Solar cell modules are positioned along the longitudinal support and may each include a rectangular case with a plurality of lenses that are positioned over corresponding receivers. Linkages may be connected to the solar cell modules and are axially movable along the longitudinal support to rotate the solar cell modules within second planes that each orthogonal to the first plane to further track the sun during the course of the day. The array may be configured to facilitate rotation about the first axis. The array may be constructed with a center of gravity of the array to extending through the longitudinal support.
    • 地面太阳能跟踪光伏阵列包括可由分立部分构成的纵向支撑。 可以根据阵列的必要尺寸来调整阵列的总长度。 驱动器可以被配置为围绕第一轴线在第一和第二方向上旋转纵向支撑件。 太阳能电池模块沿着纵向支撑件定位并且可以各自包括具有多个透镜的矩形壳体,所述多个透镜位于相应的接收器上方。 连接件可以连接到太阳能电池模块并且可沿着纵向支撑件轴向移动,以将太阳能电池模块在与第一平面垂直的第二平面内旋转,以在一天的过程中进一步跟踪太阳。 阵列可以被配置为有助于围绕第一轴线旋转。 阵列可以被构造成具有阵列的重心以延伸穿过纵向支撑。
    • 22. 发明授权
    • Techniques for monitoring solar array performance and applications thereof
    • 监测太阳能阵列性能的技术及其应用
    • US08507837B2
    • 2013-08-13
    • US12619322
    • 2009-11-16
    • James ShermanIgor Kozin
    • James ShermanIgor Kozin
    • G01C21/02
    • H02S50/00F24S30/452F24S40/00F24S50/20F24S2201/00G01R21/00G01R31/2601G01S3/781G01S3/7861H02S20/32H02S50/10Y02E10/47Y02E10/50
    • An automated method to monitor performance of a terrestrial solar cell array tracking the sun. The solar cell system includes drive means that adjust a position of the array along different respective axes with respect to the sun using the drive means. The techniques include predicting the position of the sun during a time period, and sampling an output parameter of the array indicative of performance. The sampled data may be used to identify a fault in the solar cell array, for example a misalignment or a failure of one or more solar cells, in which case a notification of that fault may be generated for the operator or a control signal may be output for correcting the fault. Alternatively, an output signal may be sent to an external system associated with the solar cell system. Various alignment testing routines for checking the solar tracking are described. These routines may involve moving a solar cell array to a reference position at the start of, or during, an alignment routine in order to improve accuracy of position measurement during the routine.
    • 监测跟踪太阳的地面太阳能电池阵列性能的自动化方法。 太阳能电池系统包括驱动装置,其使用驱动装置相对于太阳利用不同的相应轴度来调整阵列的位置。 这些技术包括在一段时间内预测太阳的位置,以及对表示性能的阵列的输出参数进行采样。 采样数据可用于识别太阳能电池阵列中的故障,例如一个或多个太阳能电池的未对准或故障,在这种情况下,可能为操作员产生该故障的通知或控制信号 输出用于纠正故障。 或者,可以将输出信号发送到与太阳能电池系统相关联的外部系统。 描述了用于检查太阳跟踪的各种对准测试程序。 这些例程可以涉及将太阳能电池阵列移动到对准程序开始时或者在对准程序期间的参考位置,以便提高该程序期间位置测量的精度。
    • 23. 发明授权
    • Techniques for adjusting solar array tracking
    • 太阳能阵列跟踪调整技术
    • US08466399B1
    • 2013-06-18
    • US12830926
    • 2010-07-06
    • James Sherman
    • James Sherman
    • H01L31/042
    • G01S3/7861F24S30/455F24S40/00F24S50/20F24S2201/00G01S3/781H02S20/00H02S20/32Y02E10/47Y02E10/50
    • An automated method to monitor performance and adjust the programmed motion of a terrestrial solar cell array tracking the sun. The solar cell system includes two motor drives that adjust a position of the array along different respective axes with respect to the sun. A software algorithm predicts the position of the sun during the course of the day, and a kinematic model with adjustable encoding parameters controls the motor drives. Sampled data taken periodically may be used to update and modify the encoding parameters of the kinematic model in order to improve accuracy of the position of the array as it moves during the course of the day due to changes in mechanical or foundational positions supporting the array that may occur over the course of time.
    • 一种监测性能并调整跟踪太阳的地面太阳能电池阵列的编程运动的自动化方法。 太阳能电池系统包括两个电动机驱动器,其相对于太阳沿不同的相应轴线调整阵列的位置。 软件算法可以预测一天中太阳的位置,具有可编程参数的运动学模型控制电机驱动。 周期性采集的采样数据可用于更新和修改运动学模型的编码参数,以便在由于阵列的机械或基础位置的变化而在一天的过程中移动阵列的位置的精度提高, 可能会发生在一段时间内。
    • 24. 发明申请
    • TERRESTRIAL SOLAR TRACKING PHOTOVOLTAIC ARRAY WITH CHAIN DRIVE
    • TERRESTRIAL太阳跟踪光链路链驱动
    • US20120160991A1
    • 2012-06-28
    • US13362530
    • 2012-01-31
    • Mikhail KatsGary D. HeringPeter Allen ZawadzkiJames Sherman
    • Mikhail KatsGary D. HeringPeter Allen ZawadzkiJames Sherman
    • G01J1/20
    • H01L31/0543F24S23/30F24S30/425F24S30/455F24S2030/134F24S2030/136F24S2030/18H02S20/10H02S20/32Y02E10/47Y02E10/52
    • The terrestrial solar tracking photovoltaic array includes a longitudinal support that may be constructed of discrete sections. The overall length of the array may be adjusted depending upon the necessary size of the array. A drive may be configured to rotate the longitudinal support in first and second directions about a first axis. Solar cell modules are positioned along the longitudinal support and may each include a rectangular case with a plurality of lenses that are positioned over corresponding receivers. Linkages may be connected to the solar cell modules and are axially movable along the longitudinal support to rotate the solar cell modules within second planes that each orthogonal to the first plane to further track the sun during the course of the day. The array may be configured to facilitate rotation about the first axis. The array may be constructed with a center of gravity of the array to extending through the longitudinal support.
    • 地面太阳能跟踪光伏阵列包括可由分立部分构成的纵向支撑。 可以根据阵列的必要尺寸来调整阵列的总长度。 驱动器可以被配置为围绕第一轴线在第一和第二方向上旋转纵向支撑件。 太阳能电池模块沿着纵向支撑件定位并且可以各自包括具有多个透镜的矩形壳体,所述多个透镜位于相应的接收器上方。 连接件可以连接到太阳能电池模块并且可沿着纵向支撑件轴向移动,以将太阳能电池模块在与第一平面垂直的第二平面内旋转,以在一天的过程中进一步跟踪太阳。 阵列可以被配置为有助于围绕第一轴线旋转。 阵列可以被构造成具有阵列的重心以延伸穿过纵向支撑。
    • 25. 发明授权
    • Periodic alignment adjustment techniques for terrestrial solar arrays
    • 陆地太阳能阵列定期对准调整技术
    • US08193477B2
    • 2012-06-05
    • US12468747
    • 2009-05-19
    • James ShermanIgor Kozin
    • James ShermanIgor Kozin
    • H01L31/0232H01L31/042
    • G01S3/7861F24S30/452F24S50/00F24S50/20F24S2201/00H02S20/10H02S20/32Y02E10/47Y10S136/291
    • An automated method causes a terrestrial solar cell array to track the sun. The solar cell system may include motors that adjust a position of the array along different respective axes with respect to the sun. An alignment analysis procedure, e.g., a find sun routine, is performed to ensure that the solar cell system is properly aligned with the sun during solar tracking. This procedure may sweep the solar cell system along determined paths (e.g., azimuth and elevation paths) while measuring an output parameter indicative of system performance. The measured data is analyzed to determine if the solar cell system is in misalignment in which case the solar cell system is moved into proper alignment. The alignment procedure may be implemented on a periodic basis or using triggers, and may be automatically executed or manually executed.
    • 一种自动化方法使地面太阳能电池阵列跟踪太阳。 太阳能电池系统可以包括马达,其相对于太阳沿不同的相应轴线调整阵列的位置。 执行对准分析程序,例如寻找阳光程序,以确保太阳能电池系统在太阳跟踪期间与太阳适当对准。 该过程可以在测量指示系统性能的输出参数的同时沿着确定的路径扫过太阳能电池系统(例如,方位角和仰角路径)。 分析测量数据以确定太阳能电池系统是否处于不对准,在这种情况下,太阳能电池系统被移动到正确的对准状态。 对齐过程可以周期性地或者使用触发器来实现,并且可以被自动执行或手动执行。
    • 27. 发明申请
    • Techniques for Monitoring Solar Array Performance and Applications Thereof
    • 太阳能阵列性能及其应用监测技术
    • US20100108860A1
    • 2010-05-06
    • US12619322
    • 2009-11-16
    • James ShermanIgor Kozin
    • James ShermanIgor Kozin
    • G01J1/20
    • H02S50/00F24S30/452F24S40/00F24S50/20F24S2201/00G01R21/00G01R31/2601G01S3/781G01S3/7861H02S20/32H02S50/10Y02E10/47Y02E10/50
    • An automated method to monitor performance of a terrestrial solar cell array tracking the sun. The solar cell system includes drive means that adjust a position of the array along different respective axes with respect to the sun using the drive means. The techniques include predicting the position of the sun during a time period, and sampling an output parameter of the array indicative of performance. The sampled data may be used to identify a fault in the solar cell array, for example a misalignment or a failure of one or more solar cells, in which case a notification of that fault may be generated for the operator or a control signal may be output for correcting the fault. Alternatively, an output signal may be sent to an external system associated with the solar cell system. Various alignment testing routines for checking the solar tracking are described. These routines may involve moving a solar cell array to a reference position at the start of, or during, an alignment routine in order to improve accuracy of position measurement during the routine.
    • 监测跟踪太阳的地面太阳能电池阵列性能的自动化方法。 太阳能电池系统包括驱动装置,其使用驱动装置相对于太阳利用不同的相应轴度来调整阵列的位置。 这些技术包括在一段时间内预测太阳的位置,以及对表示性能的阵列的输出参数进行采样。 采样数据可用于识别太阳能电池阵列中的故障,例如一个或多个太阳能电池的未对准或故障,在这种情况下,可能为操作员产生该故障的通知或控制信号 输出用于纠正故障。 或者,可以将输出信号发送到与太阳能电池系统相关联的外部系统。 描述了用于检查太阳跟踪的各种对准测试程序。 这些例程可以涉及将太阳能电池阵列移动到对准程序开始时或者在对准程序期间的参考位置,以便提高该程序期间位置测量的精度。
    • 30. 发明申请
    • Shaped wall plate for wiring device
    • 接线装置形状的墙板
    • US20060124337A1
    • 2006-06-15
    • US11345454
    • 2006-02-01
    • Gerd SchmietaMichael MeyerDennis OddsenAnthony TufanoLeslie LindenstrausJames ShermanTim Langfit
    • Gerd SchmietaMichael MeyerDennis OddsenAnthony TufanoLeslie LindenstrausJames ShermanTim Langfit
    • H02G3/14
    • H02G3/14
    • There is disclosed a wall plate for a wiring device. The wall plate has a single opening for receiving one or a gang of two or more wiring devices within the single opening. The wall plate has along its vertical axis, a surface of positive first differential and zero second differential, comprised of a combination of splines drawn between points of varying distance from a datum plane. The surface has zero second differential when the rate of height increase of individual splines is constant. The wall plate, when composed of non-conducting material, has a conductive coating on its front surface, on its back surface or on both its front and back surfaces. When the wiring device is a switch, the surface of the switch face follows that of the wall plate. When the wiring device is a receptacle, the surface along the receptacle face is flat in one plane to allow for the proper seating of an inserted plug.
    • 公开了一种用于布线装置的壁板。 壁板具有用于接收单个开口内的两个或更多个接线装置的一个或一组的单个开口。 壁板沿着其垂直轴线,是正的第一差速器和零秒差速器的表面,包括在与基准平面不同的距离点之间绘制的花键的组合。 当单个花键的高度增加率恒定时,表面具有零秒差。 当由非导电材料组成时,该壁板在其前表面,其背面或其前后表面上具有导电涂层。 当接线装置是开关时,开关面的表面与墙板的表面相接。 当接线装置是插座时,沿着插座面的表面在一个平面中是平坦的,以允许插入插头的正确安置。