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    • 92. 发明申请
    • UTILITY PROVISIONING IN AN ENERGY RESOURCE SYSTEM
    • 能源资源系统中的实用性提供
    • US20160344187A1
    • 2016-11-24
    • US14794389
    • 2015-07-08
    • SolarCity Corporation
    • Brian ZimmerlyRyan Hanley
    • H02J3/38G06Q50/06G05B15/02G06Q30/02
    • H02J3/381G05B15/02G06Q30/0283G06Q50/06H02J3/46Y04S10/54Y04S50/14
    • Embodiments may include a method of adjusting power in a distributed generation management system. The method may include receiving, by a processor, real-time load requirement data of an energy resources (ER) site. The method may also include receiving, by the processor, real-time energy generation (EG) data from the ER site. The method may further include determining, by the processor, a net power generation at a first level from the real-time load requirement data and the real-time energy generation data. The method may include receiving, by the processor, a first request from a utility to increase or decrease the net power generation from the first level. The method may also include determining a benefit complying with the first request. The method may further include estimating a benefit of not complying with the first request. The method may also include determining whether the determined benefit is greater than the estimated benefit.
    • 实施例可以包括在分布式发电管理系统中调整功率的方法。 该方法可以包括由处理器接收能量资源(ER)站点的实时负载要求数据。 该方法还可以包括由处理器接收来自ER站点的实时能量产生(EG)数据。 该方法还可以包括由处理器确定来自实时负载需求数据和实时能量产生数据的第一级的净功率产生。 该方法可以包括由处理器接收来自公用事业的第一请求,以从第一级增加或减少净发电量。 该方法还可以包括确定符合第一请求的优点。 该方法还可以包括估计不符合第一请求的益处。 该方法还可以包括确定确定的利益是否大于估计的收益。
    • 94. 发明授权
    • Meter socket adaptor
    • 仪表插座适配器
    • US09500672B1
    • 2016-11-22
    • US14941411
    • 2015-11-13
    • SolarCity Corporation
    • Garret BautistaCormac McHugh
    • H01R33/945G01R1/04H01R31/06
    • H01R27/02G01R1/0416H01R31/06H01R33/94
    • This disclosure pertains to methods and apparatus for interfacing an onsite power generation system with an existing main electric panel. The interfacing is performed by: attaching an additional jaw connector to a neutral bridge within an existing meter socket; wiring AC supply lines from the onsite power generation system to load side jaws of a five blade meter socket adapter; and wiring a neutral line from the onsite power generation system to an additional terminal of the meter socket adapter. The lines from the onsite power generation system are routed through an opening formed in the meter socket adapter. The meter socket adapter is then inserted into the meter socket so that five jaws in the socket receive all five blades of the meter socket adapter. The blades of the meter are then plugged into the jaws on the opposite end of the meter socket adapter.
    • 本公开涉及用于将现场发电系统与现有主电板接口的方法和装置。 接口通过以下方式执行:将附加的钳口连接器连接到现有仪表插座内的中性桥上; 将来自现场发电系统的交流电源线连接到五个刀片式电表插座适配器的负载侧钳口; 并将中线从现场发电系统连接到仪表插座适配器的附加端子。 来自现场发电系统的线路通过在仪表插座适配器中形成的开口。 然后将仪表插座适配器插入仪表插座,以便插座中的五个钳口接收仪表插座适配器的所有五个刀片。 然后将仪表的刀片插入仪表插座适配器相对端的钳口。
    • 95. 发明授权
    • Solar photovoltaic system with maximized ripple voltage on storage capacitor
    • 太阳能光伏系统在存储电容器上具有最大的纹波电压
    • US09496803B2
    • 2016-11-15
    • US14202485
    • 2014-03-10
    • SolarCity Corporation
    • Lesley ChisengaAndrew John MatthewsPaul Randal Engle, Jr.
    • G05F1/67H02M7/5387H02M3/156H02M3/335H02J3/38H02M1/00
    • H02M7/53871H02J3/385H02M3/156H02M3/33523H02M2001/007Y02E10/58Y10T307/50
    • We describe a photovoltaic (PV) power generation system comprising at least two PV panels and a power conditioning unit. The dc power outputs of the PV panels are connected in parallel to a dc power input of the power conditioning unit. The power conditioning unit comprises a dc-to-dc converter having an input coupled to the dc power input and an output coupled to a dc link of the unit, a dc-to-ac converter having an input coupled to the dc link and an ac mains power supply output, and an energy storage capacitor coupled to the dc link. The power conditioning unit is configured to perform maximum power point tracking (MPPT) responsive to a level of power flowing into the dc power input, and the level of power flowing into said dc power input is sensed at the dc link. In preferred implementations the energy storage capacitor is a non-electrolytic capacitor.
    • 我们描述了包括至少两个PV面板和功率调节单元的光伏(PV)发电系统。 PV面板的直流电源输出端与功率调节单元的直流电源输入并联。 所述功率调节单元包括dc-dc转换器,其具有耦合到所述直流电源输入的输入端和耦合到所述单元的直流链路的输出端,具有耦合到所述直流链路的输入端的直流到交流转换器,以及 交流电源电源输出和耦合到直流链路的储能电容器。 功率调节单元被配置为响应于流入直流电力输入的功率电平来执行最大功率点跟踪(MPPT),并且在直流链路处感测流入所述直流电力输入的功率电平。 在优选实施方式中,储能电容器是非电解电容器。
    • 96. 发明授权
    • Solar tracking system employing multiple mobile robots
    • 使用多台移动机器人的太阳能追踪系统
    • US09494341B2
    • 2016-11-15
    • US14023403
    • 2013-09-10
    • SolarCity Corporation
    • Salomon J. TrujilloVayardo L. RuizNoe EsparzaJessica A. RileyKevin C. ChuWasiq Bokhari
    • B25J5/00F24J2/40B25J5/02B25J9/16F24J2/46F24J2/54
    • F24S50/00B25J5/02B25J9/162B25J9/1656F24S30/452F24S40/85F24S50/60G05B2219/39146G05B2219/39167Y02E10/47Y10S901/01
    • The present invention relates to a highly-available and fault-tolerant solar tracking system and the process required to manage such a system. A fleet of multiple, redundant mobile robots managed by a task coordinator is deployed to track solar panels in a solar farm in alignment with the sun. Each robot has a control unit for engaging with a coupler connected to one or multiple solar panels and adjusting their orientation, as well as communicating with the task coordinator to receive tasks. The task coordinator senses various events such as robot failure/deterioration, as well as various environmental conditions, and sends tasks reconciled with event types. The system is highly-available and fault-tolerant as it remains operational as long as there is one operational robot. The task coordinator assigns tasks to the mobile robots so as to optimize battery life or other factors, such as, e.g., overall maintenance costs across the fleet.
    • 本发明涉及高可用性和容错的太阳跟踪系统以及管理这种系统所需的过程。 部署了由任务协调员管理的多个冗余移动机器人,以跟踪太阳能农场中与太阳相一致的太阳能电池板。 每个机器人具有控制单元,用于与连接到一个或多个太阳能电池板的耦合器接合并调整其方向,以及与任务协调器通信以接收任务。 任务协调员感知机器人故障/恶化以及各种环境条件等各种事件,并发送与事件类型协调的任务。 该系统具有高可用性和容错性,因为只要有一个操作机器人,该系统仍然可以运行。 任务协调员将任务分配给移动机器人,以便优化电池寿命或其他因素,例如整个车队的整体维护成本。