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    • 1. 发明申请
    • CONTINUOUS MOVING BED SOLAR STEAM GENERATION SYSTEM
    • 连续移动床太阳能蒸汽发生系统
    • WO2009129170A8
    • 2010-11-18
    • PCT/US2009040338
    • 2009-04-13
    • ALSTOM TECHNOLOGY LTDJUKKOLA GLEN D
    • JUKKOLA GLEN DPALKES MARKTEIGEN BARD
    • F03G6/00F22B1/00F24J2/00
    • F03G6/003F22B1/006F24J2/07F24J2002/1076Y02E10/41Y02E10/46
    • A continuous moving bed solar steam generation and storage system is provided to generate steam for production processes after loss or reduction of received solar energy. The system includes a receiver 10 that receives a flowing stream of particulate material 30 that absorbs solar radiant energy 15 as it passes through beams of the energy 15 received from collectors 14. The heated stream of material 30 passes into a first chamber 40 to heat a tube bundle 42 therein. Heat from the particulate material 30 is transferred to the bundle 42, evaporating the water to generate, reheat (RH) and/or superheat (SH) steam 46. The cooled material 30 passes to a second chamber 60. The material 30 is drained from the second chamber 60 and carried to a cyclone 80 in the receiver 10. The material 30 drains from the cyclone 80 to complete the flow cycle.
    • 提供连续移动床太阳能蒸汽发生和存储系统,以在接收的太阳能损失或减少之后为生产过程产生蒸汽。 该系统包括接收器10,该接收器10接收当太阳辐射能量15通过从收集器14接收的能量束15时吸收太阳辐射能量15的微粒材料30的流动流。被加热的材料流30进入第一室40以加热 管束42。 来自颗粒材料30的热量被传递到束42,蒸发水以产生再热(RH)和/或过热(SH)蒸汽46.被冷却的材料30传递到第二室60.材料30从 第二室60并被运送到接收器10中的旋风分离器80.材料30从旋风分离器80排出以完成流动循环。
    • 4. 发明申请
    • MULTI-TUBE SOLAR THERMAL RECEIVER
    • 多管太阳能热接收器
    • WO2011044281A9
    • 2011-07-07
    • PCT/US2010051690
    • 2010-10-06
    • AREVA SOLAR INCJOHNSON PETER LHANSON ROBERT JCONLON WILLIAM M
    • JOHNSON PETER LHANSON ROBERT JCONLON WILLIAM M
    • F24J2/07
    • F24J2/18F24J2/07F24J2/14F24J2/242F24J2/4636F24J2002/1076F24J2002/108Y02E10/41Y02E10/44Y02E10/45
    • Systems, methods, and apparatus by which solar energy may be collected as heat are disclosed. Some systems include an elevated solar receiver comprising multiple tubes arranged lengthwise in the receiver in a side-by-side parallel configuration across a transverse dimension of the receiver. The receiver comprises an inlet section configured to receive a heat transfer fluid into the tubing arrangement and an outlet section configured to output heated heat transfer fluid from the tubing arrangement. The multiple tubes of the tubing arrangement define together a flowing circuit between the inlet section and the outlet section from the outer tube or tubes to the inner tube or tubes. The solar energy collector system further includes an instrumentation and control system for controlling the orientation of at least one orientable reflector to provide in operation a concentrated illuminated area comprising a peaked profile across the transverse dimension of the receiver.
    • 公开了可通过其收集太阳能作为热量的系统,方法和设备。 一些系统包括升高的太阳能接收器,所述升高的太阳能接收器包括在接收器中以并排平行配置纵向排列在接收器的横向尺寸上的多个管。 接收器包括构造成将传热流体接收到管路装置中的入口区段和构造成从管路装置输出加热的传热流体的出口区段。 管道装置的多个管一起限定入口部分和出口部分之间从外管或管到内管或管的流动回路。 该太阳能收集器系统还包括用于控制至少一个可定向反射器的定向的仪器和控制系统,以在操作中提供包括横跨接收器的横向尺寸的尖顶轮廓的集中照射区域。
    • 7. 发明申请
    • MULTI-RECEIVER HELIOSTAT SYSTEM ARCHITECTURE
    • 多接收器HELIOSTAT系统架构
    • WO2009021099A3
    • 2009-05-07
    • PCT/US2008072432
    • 2008-08-07
    • ANGELES TECHNOLOGIES INCCALDWELL DOUGLAS W
    • F24J2/38F24J2/00
    • F24J2/07F24J2/16F24J2/542F24J2/5431F24J2002/0084F24J2002/1076Y02E10/41Y02E10/47
    • A system architecture for large concentrated solar power applications that increases heliostat utilization efficiency and land utilization efficiency is described. Embodiments of the invention include a large heliostat field in which are distributed a number of receiving locations, and wherein there is the assignment of heliostats to receiving locations is dynamic. Embodiments of the invention include dynamically targeting heliostats to receiving locations wherein the target determination process is performed frequently during operation and wherein such dynamic targeting can be utilized to various ends. Embodiments of the invention include configurations wherein cosine losses associated with heliostat pointing are significantly reduced, wherein heliostats may be closely packed without incurring substantial shadowing and blocking losses thereby significantly increasing land utilization, and wherein other benefits are realized.
    • 描述了增加定日镜利用效率和土地利用效率的大型集中太阳能发电应用的系统架构。 本发明的实施例包括大型定日镜场,其中分布有多个接收位置,并且其中定向到接收位置的定日镜是动态的。 本发明的实施例包括将定日镜动态地定位到接收位置,其中在操作期间频繁地执行目标确定过程,并且其中这种动态定位可以用于各种目的。 本发明的实施例包括与定日镜指向相关联的余弦损失显着减小的构造,其中定日镜可以紧密堆积,而不会产生实质的阴影和阻塞损失,从而显着增加土地利用率,并且其中实现其他益处。
    • 8. 发明申请
    • SOLAR FACILITY
    • 太阳能系统
    • WO2009019002A2
    • 2009-02-12
    • PCT/EP2008006460
    • 2008-08-06
    • RUNGE HANS WILLY
    • RUNGE HANS WILLY
    • F24J2/38F24J2/1047F24J2/16F24J2/542F24J2002/1076F24J2002/108H01L31/042H01L31/0547Y02E10/47Y02E10/52
    • The invention relates to a solar facility (1) having a solar energy concentrator (30) comprising a plurality of flat mirror cells (31), and having a solar energy converter (10) for the conversion of solar energy into current and/or heat and comprising a concentrator field (11), wherein each mirror cell (31) can be aligned such that it reflects solar rays (2) onto the concentrator field (11), wherein each mirror cell (31) has an individual layout as a function of the position thereof relative to the concentrator field (11) such that, during operation of the solar facility (1), the mirror images from the individual mirror cells (31) reflecting on the concentrator field (11) are equal in position, shape and size.
    • 本发明涉及一种太阳能加热系统(1),包括一个太阳能集中器(30),包括多个平面镜单元(31),和与太阳能能量转换器(10),其用于将太阳能转化为电能和/或热和一个集中器领域( 11),其中每个反射镜单元(31)被这样对准,它们(在Konzentratorfeld 11)反映了太阳光线(2)中,每个反射镜单元(31)具有根据位置的个体布局(集中字段11),从而在 Konzentratorfeid(11)上的太阳能系统(1)的操作反射了各个镜单元(31)的位置,形状和尺寸的镜像。