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    • 1. 发明授权
    • Magnetic coupling device for control rod drive
    • 用于控制杆驱动的磁耦合装置
    • US5517536A
    • 1996-05-14
    • US296062
    • 1994-08-24
    • Neal J. GoldbergCharles W. DillmannFloyd F. Smith, Jr.
    • Neal J. GoldbergCharles W. DillmannFloyd F. Smith, Jr.
    • G21C7/12G21C7/16G21C19/20G21C7/06
    • G21C7/16G21Y2002/206G21Y2004/301Y02E30/39
    • A control rod drive having a magnetic coupling device which eliminates the need for packing-type seal assemblies for preventing leakage from the reactor pressure vessel adjacent the spindle. The magnetic coupling device includes a driving rotor and a driven rotor separated by a pressure barrier which forms part of the reactor pressure boundary. The driven rotor and the driving rotor are coupled magnetically so that the driven rotor rotates in response to rotation of said driving rotor, whereby the control rod displaces in response to operation of the drive motor. The driven and driving rotors are each constructed by stacking a plurality of circular magnetic rings concentric with a centerline axis. Each circular ring has multiple poles circumferentially distributed thereon. An anti-rotation device is incorporated to prevent free rotation of the spindle when the drive motor is removed during maintenance operations. The anti-rotation device includes a push rod actuator which penetrates the pressure barrier. One end of the push rod actuator bears against the drive motor. The other end of the push rod actuator engages a stop lug to block rotation of the spindle when the drive motor is removed.
    • 具有磁耦合装置的控制棒驱动器,其不需要用于防止从邻近主轴的反应堆压力容器泄漏的填料型密封组件。 磁耦合装置包括驱动转子和由形成反应器压力边界的一部分的压力隔离的从动转子。 从动转子和驱动转子磁耦合,使得从动转子响应于所述驱动转子的旋转而旋转,由此控制杆响应于驱动电动机的操作而移位。 驱动和驱动转子各自通过堆叠与中心线轴线同心的多个圆形磁环构成。 每个圆环具有多个圆周分布在其上。 当维护操作期间驱动马达被移除时,结合防旋转装置以防止主轴自由旋转。 防旋转装置包括穿过压力屏障的推杆致动器。 推杆执行器的一端支撑在驱动电机上。 当驱动马达被移除时,推杆执行器的另一端接合止动凸耳以阻止心轴的旋转。
    • 2. 发明授权
    • BWR zero pressure containment
    • BWR零压力容器
    • US5091144A
    • 1992-02-25
    • US560410
    • 1990-07-30
    • Charles W. DillmannHarold E. TownsendLoyd B. Nesbitt
    • Charles W. DillmannHarold E. TownsendLoyd B. Nesbitt
    • F04D7/08F04D13/04F04D15/00F04D29/04F04D29/047F04D29/42F04D29/44G21C1/08G21C1/28G21C5/02G21C9/00G21C9/004G21C13/00G21C15/24G21C15/243
    • F04D29/047F04D13/043F04D15/0005F04D29/426F04D29/448F04D7/08G21C1/084G21C15/24G21C15/243G21C9/004G21C1/28G21C5/02G21Y2002/201G21Y2002/601G21Y2004/40Y02E30/31
    • The wetwell space in a suppression pool of a nuclear reactor containment is continuously ventilated by exhausting gas therefrom, while at the same time, during normal system operation atmospheric air from a source of same is admitted to the wetwell but such admission being blocked during a LOCA. All exhaust flow from the wetwell is conveyed through a conduit that outlets at a remote elevated location in the atmosphere. All exhaust flow through the conduit is before outletting therefrom passed through gas treatment operation wherein any particulates in the gas mixture are removed. Further treatment of the gas with charcoal to adsorb noble gases can be carried out. In normal reactor operation the ventilation flow rate is at minimal level. However on occurrence of a loss-of-coolant-accident, highly heated gases from the containment drywell are passed into the suppression pool where condensables condense while non-condensable gases are cooled and vent to the wetwell. Fission products are scrubbed in the pool and much retained therein. The ventilation rate increases during LOCA to carry off the increased non-condensable gas mixture volume created by the LOCA and, because the conduit is such sized, containment drywell pressure during the LOCA, is maintained at a level not to exceed about one atmospheric gauge. This allows that containment structures can be of lighter weight than heretofore and enclose more components such as turbine units and condensers.
    • 核反应堆容器的抑制池中的空间通过从其中排出气体而连续通风,同时在正常的系统运行期间,来自其源的大气从空气通道进入,但在LOCA期间阻挡 。 来自水槽的所有排气都通过管道传送,大气中的远处高处位置处出口。 所有通过导管的废气流经出口通过气体处理操作,其中除去气体混合物中的任何微粒。 可以进行用炭的气体进一步处理以吸附惰性气体。 在正常的反应堆操作中,通风流量处于最低水平。 然而,在发生冷却剂损失事故的情况下,来自安全壳干井的高度加热的气体进入抑制池,其中可冷凝物冷凝,而不可冷凝的气体被冷却并排放到水中。 裂变产物在池中被洗涤,并且保留在其中。 在LOCA期间,通风速率增加,以提高由LOCA产生的增加的不可冷凝气体混合物体积,并且由于导管的尺寸如此大,在LOCA期间容纳干井压力保持在不超过约一个大气压表的水平。 这允许容纳结构的重量比以前更轻,并且包括更多的部件,例如涡轮机单元和冷凝器。
    • 6. 发明授权
    • Reactor steam isolation cooling system
    • 反应器蒸汽隔离冷却系统
    • US5158742A
    • 1992-10-27
    • US805132
    • 1991-12-11
    • Charles W. Dillmann
    • Charles W. Dillmann
    • G21C9/004G21C13/00G21C15/18
    • G21C15/18Y02E30/40Y10S165/911
    • A reactor steam isolation cooling system includes a containment building surrounding a reactor pressure vessel having a reactor core for generating reactor steam. An isolation pool is disposed outside the containment building and is vented to the atmosphere. An isolation condenser includes a plurality of heat pipes collectively defining at one end thereof a condenser assembly disposed outside the containment building and inside the isolation pool, and at an opposite end thereof an evaporator assembly extending inside the containment building. Reactor steam is selectively channeled to the evaporator assembly for heating a working liquid therein and condensing the reactor steam to form reactor condensate for return to the pressure vessel. The working liquid is vaporized in the evaporator assembly and flows to the condenser assembly wherein it releases heat into the isolation pool with the working condensate therefrom returning to the evaporator assembly.
    • 反应堆蒸汽隔离冷却系统包括围绕具有用于产生反应器蒸汽的反应堆堆芯的反应堆压力容器的容纳结构。 隔离池设置在安全壳建筑物的外面,并排放到大气中。 隔离冷凝器包括多个热管,其一端在其一端限定设置在容纳建筑物外部和隔离池内部的冷凝器组件,并且在其相对端处延伸在容纳建筑物内部的蒸发器组件。 反应器蒸汽被选择性地引导到蒸发器组件,用于在其中加热工作液体并冷凝反应器蒸汽以形成反应器冷凝物以返回到压力容器。 工作液体在蒸发器组件中蒸发并流到冷凝器组件,其中其将热量释放到隔离池中,其中工作冷凝物从其返回到蒸发器组件。
    • 10. 发明授权
    • Foreign object separator for a reactor cooling system
    • 用于反应堆冷却系统的异物分离器
    • US5075073A
    • 1991-12-24
    • US649523
    • 1991-02-01
    • Charles W. Dillmann
    • Charles W. Dillmann
    • G21C15/02G21C19/26G21C19/307
    • G21C19/307
    • A nuclear reactor includes a spaced sidewall and a core shroud defining a flow passage for channeling a coolant. A foreign object separator includes an arcuate endwall extending from the sidewall, with the core shroud including an intermediate portion spaced from the endwall to define an annular inlet for receiving coolant from the flow passage. The core shroud also includes a distal end spaced from the endwall to define a throat. A separator member has a proximal end joined to the endwall, and a distal end spaced from the core shroud to define an outlet. The distal end of the separator is spaced from its proximal end for allowing the coolant from the throat to impinge against the separator member for turning the coolant prior to discharge from the outlet and using centrifugal force to separate any foreign objects of predetermined size from the coolant. The separated foreign objects are retained adjacent to the separator member proximal end.
    • 核反应堆包括间隔开的侧壁和限定用于引导冷却剂的流动通道的芯护罩。 异物分离器包括从侧壁延伸的弧形端壁,其中芯护罩包括与端壁间隔开的中间部分,以限定用于从流动通道接收冷却剂的环形入口。 芯护罩还包括与端壁间隔开的远端以限定喉部。 分离器构件具有接合到端壁的近端和与芯护罩间隔开的远端以限定出口。 分离器的远端与其近端隔开,以允许来自喉部的冷却剂撞击分离器构件,用于在从出口排出之前转动冷却剂,并使用离心力将预定尺寸的任何异物与冷却剂分离 。 分离的异物被保持在分离器构件近端附近。