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    • 4. 发明申请
    • Semipermeable membrane system for magnetic particle fractions
    • 用于磁性颗粒级分的半透膜系统
    • US20080035541A1
    • 2008-02-14
    • US11705337
    • 2007-02-12
    • Matthias FranzrebTilmann Rogge
    • Matthias FranzrebTilmann Rogge
    • B03C1/30B01D21/30
    • B01D61/002B01D69/02B01D69/06B01D71/022
    • In a semi-permeable membrane system for separating magnetic particle fractions from a mixture contained in a first fluid, comprising a membrane with opposite membrane surfaces between which passages extend and which separates the first fluid from a second fluid each of which is in contact with one of the membrane surfaces, means are provided for generating a reversible pressure differential between the two fluids across the membrane and means for generating and eliminating a magnetic field in the membrane for alternately causing a fluid flow through the membrane in opposite directions wherein, during the fluid flow in one direction, the magnetic field is switched on to hold the magnetic particles in place in the membrane and, during fluid flow in the opposite flow direction, the magnetic field is switched off to permit the magnetic particles to be moved through the membrane in the other direction.
    • 在用于从包含在第一流体中的混合物中分离磁性颗粒部分的半透膜系统中,包括具有相反膜表面的膜,通道延伸并且将第一流体与第二流体分离,第二流体与第一流体接触 提供了用于在跨过膜的两种流体之间产生可逆压力差的装置,以及用于产生和消除膜中的磁场的装置,用于交替地使流体沿相反方向流过膜,其中在流体 在一个方向上流动,磁场被接通以将磁性颗粒保持在膜中的适当位置,并且在相反流动方向的流体流动期间,磁场被切断以允许磁性颗粒通过膜移动通过膜 另一个方向。
    • 5. 发明授权
    • Semipermeable membrane system for magnetic particle fractions
    • 用于磁性颗粒级分的半透膜系统
    • US07691264B2
    • 2010-04-06
    • US11705337
    • 2007-02-12
    • Matthias FranzrebTilmann Rogge
    • Matthias FranzrebTilmann Rogge
    • B01D35/06
    • B01D61/002B01D69/02B01D69/06B01D71/022
    • In a semi-permeable membrane system for transferring magnetic particle fractions contained in a first fluid to a second fluid, comprising a membrane through which passages extend and which separates the first fluid from the second fluid being a pressure generation arrangement is provided for generating a reversible pressure differential between the two fluids across the membrane for alternately causing fluid movement in the membrane in opposite directions and a magnetic field generator is provided for alternately generating a magnetic field in the membrane wherein, during the fluid movement in one direction, the magnetic field is switched on to hold the magnetic particles in place in the membrane and, during fluid flow in the opposite flow direction, the magnetic field is switched off to permit the magnetic particles to be moved through the membrane in the other direction.
    • 在用于将包含在第一流体中的磁性颗粒部分转移到第二流体的半透膜系统中,包括通道延伸并且将第一流体与第二流体分离的膜是压力产生装置的膜,用于产生可逆的 跨过膜的两种流体之间的压差用于交替地使相对方向上的膜中的流体运动和磁场发生器用于在膜中交替产生磁场,其中在一个方向上的流体运动期间磁场为 接通以将磁性颗粒保持在膜中的适当位置,并且在相反流动方向的流体流动期间,磁场被切断以允许磁性颗粒在另一个方向上移动通过膜。
    • 7. 发明申请
    • METHOD FOR MAGNETICALLY SUPPORTED EXTRACTION
    • 用于磁性支持提取的方法
    • US20100116747A1
    • 2010-05-13
    • US12597952
    • 2008-04-23
    • Matthias FranzrebJoerg Becker
    • Matthias FranzrebJoerg Becker
    • B03C1/30B03C1/02
    • G01N33/54326B01D11/0419B01D11/0457B01D11/0488B03C1/002B03C1/28B03C2201/26
    • A method for magnetically assisted extraction of a target substance from an aqueous solution containing a plurality components includes mixing a surfactant and functional magnetic particles having affinity for the target substance into the aqueous solution containing the target substance so as to bind the target substance to the functional magnetic particles and form a particle-containing single-phase aqueous surfactant solution. The particle-containing single-phase aqueous surfactant solution is transitioned to a two-phase state, a first particle- and surfactant-containing disperse phase being formed within a surrounding second phase. The first particle- and surfactant-containing disperse phase and the surrounding second phase are separated using a magnetic field. The first particle- and surfactant-containing disperse phase are separated.
    • 从含有多种组分的水溶液中磁性辅助提取目标物质的方法包括将表面活性剂和对目标物质具有亲和性的功能性磁性颗粒混合到含有目标物质的水溶液中以将目标物质与功能性物质结合 磁性颗粒并形成含颗粒的单相水性表面活性剂溶液。 含颗粒的单相水性表面活性剂溶液转变成两相状态,在周围的第二相中形成含有第一颗粒和表面活性剂的分散相。 使用磁场分离第一含颗粒和表面活性剂的分散相和周围的第二相。 分离第一个含有颗粒和表面活性剂的分散相。
    • 8. 发明授权
    • High-gradient magnetic filter and method for the separation of weakly magnetisable particles from fluid media
    • 高梯度磁性过滤器和用于从流体介质中分离弱磁化颗粒的方法
    • US07223345B2
    • 2007-05-29
    • US10473714
    • 2002-04-04
    • Matthias FranzrebHarald LeinenGötz Warlitz
    • Matthias FranzrebHarald LeinenGötz Warlitz
    • B03C1/033
    • B03C1/0332B03C1/288B03C2201/18
    • High-gradient magnetic filter and method for the separation of weakly magnetisable particles from fluid media (2) in a circuit, embodied as a compact, low-maintenance unit with low repair requirements, comprising a housing (1), for the high gradient magnetic filter, with means for directing the flowing medium (2) in a pipe system with a feed (3) and return (4), a magnetic circuit (5), forming the high-gradient magnet filter in which at least one filter (8) is arranged in a filter chamber (7), formed between the pole faces (6) of the magnetic circuit (5), through which the medium (2) for purification flows, at least one permanent magnet (9), arranged in the magnetic circuit (5), for generation of a magnetic field between the pole faces (6). The magnetic circuit (5) is separated and sealed off from the flowing medium, the magnetic field between the pole faces (6) may be alternately switched on and off by means of the permanent magnet (9), whereupon the discharge and the operation of separating off the particles from the flowing medium may be achieved simply and economically.
    • 高梯度磁性过滤器和用于将弱可磁化颗粒与电路中的流体介质(2)分离的方法,体现为具有低修复要求的紧凑,低维护单元,包括用于高梯度磁性的壳体(1) 过滤器,具有用于将管道系统中的流动介质(2)引导到具有进料(3)和返回件(4))的装置,形成高梯度磁体过滤器的磁路(5),其中至少一个过滤器(8) )布置在过滤室(7)中,形成在磁路(5)的极面(6)之间,用于净化的介质(2)通过该过滤室流过,至少一个永磁体(9) 磁路(5),用于在极面(6)之间产生磁场。 磁流体(5)与流动介质分离并密封,磁极面(6)之间的磁场可以通过永磁体(9)交替地接通和断开,于是放电和操作 从流动介质中分离颗粒可以简单且经济地实现。