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    • 1. 发明申请
    • Fluid separation devices, systems and/or methods using a fluid pressure driven and/or balanced configuration
    • US20020068674A1
    • 2002-06-06
    • US10005431
    • 2001-11-02
    • Gambro, Inc.
    • Dennis J. HlavinkaThomas J. Felt
    • B04B007/12B04B009/00
    • B04B5/0442A61M1/0231A61M1/3693A61M1/3696A61M1/38B04B5/0428B04B7/08B04B9/08B04B2005/045B04B2005/0464B04B2009/143
    • A centrifugal fluid separation system is disclosed for centrifugally separating a composite fluid into components thereof. This centrifugal separation system includes at least a centrifugal rotor which has a composite fluid containment area, several fluid flow channels and at least two separated component collection areas defined therein. A composite fluid to be separated is delivered to the fluid containment area from which it travels through an inlet channel to a substantially circumferential fluid separation channel where under centrifugal forces the composite fluid is separated into components which each then travel to distinct first and second separated fluid outlet channels, and thence on to exit therefrom into the respective collection areas. The first and second fluid outlet channels also have respective first and second heights which are related to each other so as to provide a balanced fluid pressure relationship for the respective separated component fluids flowing therethrough. Such a pressure balance controls the interface of the separated fluid components within the circumferential separation channel. The preferred fluid pressure balance relationship is null2g2h2nullnull3g3h3 wherein the first height of the first outlet channel is h2, and the second height of the second outlet channel is h3, wherein g2 and g3 are gravitational or centrifugal acceleration values and null2 and null3 represent the respective densities of the separated fluids in the first and second outlet channels. A similar, continuously forward flow drive relationship involves also the height h1, of the inlet channel and the density null1 of the fluid therein such that null1g1h1>null2g2h2 or null1g1h1>null3g3h3 . The preferred centrifugal drive motor used here produces a rotating magnetic field, which co-acts with a magnetically reactive material disposed in the rotor to rotate the rotor with the rotating magnetic field. A loopless, sealless continuous flow centrifuge is thus available herefrom. A disposable bag and tubing system is also disclosed for use with preferably reusable rotor devices.
    • 2. 发明申请
    • Fluid separation devices, systems and/or methods using a fluid pressure driven and/or balanced approach
    • US20020068675A1
    • 2002-06-06
    • US10008989
    • 2001-11-02
    • Gambro, Inc.
    • Thomas J. FeltDennis J. Hlavinka
    • B04B007/12B04B009/00
    • B04B5/0442A61M1/0231A61M1/3693A61M1/3696A61M1/38B04B5/0428B04B7/08B04B9/08B04B2005/045B04B2005/0464B04B2009/143
    • A centrifugal separation device for use in a fluid separation system to centrifugally separate a composite fluid into the composite components thereof. This centrifugal separation device includes a centrifugal rotor housing and a rotor which is disposed in a freely rotatable disposition within the housing, the rotor having a fluid receiving area and several fluid flow channels defined therein. A composite fluid to be separated is delivered to the fluid receiving area from which it travels through a radial fluid transport channel to a circumferential fluid separation channel where it is subjected to substantial centrifugal forces which separate the composite fluid into components which each then travel to distinct first and second separated fluid outlet channels. The separated fluids then exit from these outlet channels and are then moved from the separation device to a collection bag for storage or may then be returned to the donor. The first and second fluid outlet channels also have respective first and second lengths which are related to each other so as to provide a substantial hydraulic pressure balance for the respective separated fluids flowing therethrough. Such a pressure balance controls the interface of the separated fluid components within the circumferential separation channel. The preferred relationship of the respective first and second lengths of said first and second separated fluid outlet channels to each other which provides the hydraulic balance is null3gh3nullnull3gh3 wherein the first length of the first outlet channel is h3, and the second length of the second outlet channel is h3, wherein g is a gravitational acceleration value and null3 represents the density of the fluids in the first outlet channel and null3 represents the density of the fluids in the second outlet channel. The preferred centrifugal drive motor used here produces a rotating magnetic field, which co-acts with a magnetically reactive material disposed in the rotor to rotate the rotor with the rotating magnetic field. A loopless, sealless continuous flow centrifuge is thus useful herein.
    • 6. 发明申请
    • Method for Fluid Separation Devices Using A Fluid Pressure Balanced Configuration
    • 使用流体压力平衡配置的流体分离装置的方法
    • US20040185998A1
    • 2004-09-23
    • US10709079
    • 2004-04-12
    • GAMBRO, INC.
    • Dennis J. HlavinkaThomas J. Felt
    • C02F001/38
    • B04B5/0442A61M1/0231A61M1/3693A61M1/3696A61M1/38B04B5/0428B04B7/08B04B9/08B04B2005/045B04B2005/0464B04B2009/143
    • A method for separating a composite fluid into components in a centrifugal fluid separation system. The system includes a rotor that has a composite fluid containment area, an inlet channel, a peripheral separation channel, outlet channels and separated component collection areas, which together form a processing area. The separation channel may be semi-spiraled. The inlet channel may connect to the center of the separation channel and an outlet channel may connect to each end of the separation channel. The outlet channels have different heights. The ends of the separation channels may have different heights. The separation channels may have extensions. The rotor may have multiple processing areas. The collection areas may be pockets slanted radially outwardly and downwardly. A motor may produce a rotating magnetic field, which co-acts with a magnetically reactive material in the rotor. A disposable bag and tubing system may be used in a processing area of the rotor.
    • 一种将复合流体分离成离心流体分离系统中的组分的方法。 该系统包括具有复合流体容纳区域,入口通道,周边分离通道,出口通道和分离的部件收集区域的转子,它们一起形成处理区域。 分离通道可以是半螺旋的。 入口通道可以连接到分离通道的中心,并且出口通道可以连接到分离通道的每一端。 出口通道具有不同的高度。 分离通道的端部可以具有不同的高度。 分离通道可以具有扩展。 转子可以具有多个处理区域。 收集区域可以是径向向外和向下倾斜的袋。 电动机可以产生与转子中的磁反应性材料共同作用的旋转磁场。 可以在转子的处理区域中使用一次性袋和管道系统。