METAL MELT PUMP
    1.
    发明公开
    METAL MELT PUMP 审中-公开

    公开(公告)号:US20230314079A1

    公开(公告)日:2023-10-05

    申请号:US18330994

    申请日:2023-06-07

    申请人: ZMAG, LTD.

    发明人: Kenzo TAKAHASHI

    IPC分类号: F27D27/00 H02K44/02

    CPC分类号: F27D27/005 H02K44/02

    摘要: A metal melt pump includes a bottomed cylinder body including a side wall, a melt flow passage body including a melt flow passage and being a body separate from the bottomed cylinder body, and a melt driving part including a magnetic field device and an electric motor and adapted to drive metal melt in the melt flow passage. The magnetic field device includes a plurality of permanent magnets arranged such that different magnetic poles are alternately arrayed along a circumference of a rotary shaft, and the melt flow passage body is removably provided on the bottomed cylinder body at a position around the side wall and where a magnetic force line from one of the permanent magnets penetrates through the side wall and an inner side flow passage wall of the melt flow passage body to reach the melt flow passage.

    Positive displacement inductive pump

    公开(公告)号:US09948171B1

    公开(公告)日:2018-04-17

    申请号:US14082627

    申请日:2013-11-18

    摘要: A positive displacement inductive pump includes a central piston formed of a ferromagnetic material having non-ferromagnetic end pistons that extend from each of its opposite ends. Stationary end walls are mounted to opposite ends of a housing and are centrally bored. First and second inductive coils are alternately energized, causing the central piston and the end pistons to conjointly reciprocate within an axial bore and the end wall central bores, respectively. First and second check valves are positioned outboard of each end wall and allow valve-controlled ingress and egress of material into and out of the axial and central bores. The relative diameters of the central piston and the end pistons are changed to control the relationship between the magnetic force applied and the output pressure for a given volume of fluid.

    Non-ferrous Metal Melt Pump and Non-ferrous Metal Melting Furnace Using the Same
    3.
    发明申请
    Non-ferrous Metal Melt Pump and Non-ferrous Metal Melting Furnace Using the Same 有权
    有色金属熔体泵及有色金属熔炼炉

    公开(公告)号:US20120104669A1

    公开(公告)日:2012-05-03

    申请号:US13343327

    申请日:2012-01-04

    申请人: Kenzo Takahashi

    发明人: Kenzo Takahashi

    IPC分类号: F27D3/14 F27B17/00

    摘要: A non-ferrous metal melting furnace includes a non-ferrous metal melt pump, a vortex chamber body, and a magnetic field device formed of permanent magnets. The vortex chamber body makes a non-ferrous metal melt flow into a vortex chamber from an inlet, makes the non-ferrous metal melt flow in a spiral shape by applying a driving force to the non-ferrous metal melt in the vortex chamber, and discharges the non-ferrous metal melt from the vortex chamber to an outlet. The magnetic field device formed of permanent magnets is disposed outside the vortex chamber and below a bottom plate of the vortex chamber, and applies the driving force that is generated by current flowing in the non-ferrous metal melt and magnetic lines of force from the magnetic field device formed of permanent magnets.

    摘要翻译: 有色金属熔化炉包括有色金属熔体泵,涡流室体和由永磁体形成的磁场装置。 涡流室主体使得有色金属熔体从入口流入涡流室,使得有色金属熔体通过向涡流室中的有色金属熔体施加驱动力而流动成螺旋形状,以及 将有色金属熔体从涡流室排出到出口。 由永磁体形成的磁场装置设置在涡流室的外侧并且位于涡流室的底板的下方,并施加由在有色金属熔体中流动的电流产生的驱动力和来自磁铁的磁力线 由永磁体形成的现场设备。

    NON-FERROUS METAL MELT PUMP AND NON-FERROUS METAL MELTING FURNACE USING THE SAME
    5.
    发明申请
    NON-FERROUS METAL MELT PUMP AND NON-FERROUS METAL MELTING FURNACE USING THE SAME 审中-公开
    非金属金属熔融泵和非金属金属熔炼炉

    公开(公告)号:US20100244338A1

    公开(公告)日:2010-09-30

    申请号:US12644637

    申请日:2009-12-22

    申请人: Kenzo TAKAHASHI

    发明人: Kenzo TAKAHASHI

    IPC分类号: F27D3/14 B22D41/00

    摘要: A non-ferrous metal melting furnace includes a non-ferrous metal melt pump, a vortex chamber body, and a magnetic field device formed of permanent magnets. The vortex chamber body makes a non-ferrous metal melt flow into a vortex chamber from an inlet, makes the non-ferrous metal melt flow in a spiral shape by applying a driving force to the non-ferrous metal melt in the vortex chamber, and discharges the non-ferrous metal melt from the vortex chamber to an outlet. The magnetic field device formed of permanent magnets is disposed outside the vortex chamber and below a bottom plate of the vortex chamber, and applies the driving force to the non-ferrous metal melt by an electromagnetic force that is generated by current flowing in the non-ferrous metal melt and magnetic lines of force from the magnetic field device formed of permanent magnets.

    摘要翻译: 有色金属熔化炉包括有色金属熔体泵,涡流室体和由永磁体形成的磁场装置。 涡流室主体使得有色金属熔体从入口流入涡流室,通过向涡流室中的有色金属熔体施加驱动力使有色金属熔体流动成螺旋形状,以及 将有色金属熔体从涡流室排出到出口。 由永磁体形成的磁场装置设置在涡流室的外侧并且位于涡流室的底板的下方,并且通过电流在非铁金属熔体中产生的电流向非铁金属熔体施加驱动力, 黑色金属熔体和来自永磁体形成的磁场装置的磁力线。

    Method and apparatus for increasing channel plasma density in an MHD
vacuum pump
    6.
    发明授权
    Method and apparatus for increasing channel plasma density in an MHD vacuum pump 失效
    用于增加MHD真空泵中的通道等离子体密度的方法和装置

    公开(公告)号:US5975855A

    公开(公告)日:1999-11-02

    申请号:US758698

    申请日:1996-12-03

    IPC分类号: H02K44/02

    CPC分类号: H02K44/02

    摘要: Flat, insulated, metallic strips ("applicators"), are fixed to the wider sides of each permanent magnet assembly in the channel array of a Magnetohydrodynamic (MHD) Vacuum Pump. Electromagnetic power from an external rf/microwave generator is delivered by an appropriate transmission line to each pair of applicators, providing an rf/microwave electric field, generally parallel to the magnetic field of the magnets, across each channel in the array. As the plasma ions and electrons formed by the rf/microwave field lose energy by collisions with the channel surfaces and by collisions with neutral molecules in the channel, the microwave electric field reheats the plasma throughout its passage through the length of the channel array, increasing plasma density and enabling the use of much longer channels, thus increasing the throughput and compression ratio in the MHD Vacuum Pump.

    摘要翻译: 扁平,绝缘,金属条(“施加器”)固定在磁流体动力(MHD)真空泵的通道阵列中的每个永磁体组件的较宽侧。 来自外部RF /微波发生器的电磁功率通过适当的传输线传送到每对施加器,提供通常平行于磁体的磁场的射频/微波电场,穿过阵列中的每个通道。 由于由rf /微波场形成的等离子体离子和电子通过与通道表面的碰撞和与通道中的中性分子的碰撞而失去能量,微波电场在其通过通道阵列的长度的过程中重新加热等离子体,增加 等离子体密度并且能够使用更长的通道,从而增加了MHD真空泵中的生产量和压缩比。

    Pump or a control valve for molten metal
    7.
    发明授权
    Pump or a control valve for molten metal 失效
    泵或用于熔融金属的控制阀

    公开(公告)号:US5042969A

    公开(公告)日:1991-08-27

    申请号:US297243

    申请日:1989-02-02

    申请人: Todnem Odd

    发明人: Todnem Odd

    IPC分类号: H02K44/06 H02K44/02

    CPC分类号: H02K44/02

    摘要: A pump or a control valve for molten metal with a pipe (11) made of refractory or sufficiently resistant materials which are absolutely or almost non-conductive to electricity. An induction coil (12) for alternating current is concentrically-situated in a certain position surrounding the pump pipe. A cylindrical displacement unit (13) which has a smaller diameter than the bore of the pump pipe ends in the area of the pipe where the coil is located. A cylindrical annulus is formed, which in the vicinity of the coil extends to the full cross section of the pipe.

    摘要翻译: PCT No.PCT / NO88 / 00034 Sec。 371日期1989年2月2日 102(e)日期1989年2月2日PCT提交1988年5月3日PCT公布。 第WO88 / 09083号公报 日期:1988年11月17日。一种用于熔融金属的泵或控制阀,其具有由绝缘或几乎不导电的耐火材料或足够耐受的材料制成的管(11)。 用于交流电流的感应线圈(12)同心地位于围绕泵管的特定位置。 具有比泵管的孔小的直径的圆柱形位移单元(13)在线圈所在的管的区域中终止。 形成圆柱形的环形部分,其在线圈附近延伸到管道的整个横截面。

    ELECTROHYDRODYNAMIC (EHD) REFRIGERANT PUMP
    10.
    发明申请

    公开(公告)号:US20170089611A1

    公开(公告)日:2017-03-30

    申请号:US15279852

    申请日:2016-09-29

    发明人: Jamal S. Yagoobi

    IPC分类号: F25B1/10 H02N11/00 F25B31/00

    摘要: An electrohydrodynamic (EHD) pump increases refrigerant flow rate and the resulting pressure in a vapor compression based cooling system for permitting reduced compressor sizes and power demands. The EHD pump disposes electrodes in a liquid path of the refrigerant flow, and increases fluid flow and resulting pressure by an induced liquid flow between a pair of asymmetric electrodes. Voltage applied to these electrodes results in a conduction pumping mechanism associated with heterocharge layers in the vicinity of the electrodes based on disassociation of a neutral electrolyte species in the refrigerant fluid and recombination of the generated ions. The induced flow draws the liquid due to a net fluid flow toward one of the electrodes based on the asymmetry of the electrode pair. Electrodes are disposed on an inner surface of a refrigerant vessel, in communication with an annular liquid film that forms around the inner circumference in two-phase fluid systems.