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    • 1. 发明授权
    • Process of condensing metal in condensation chamber
    • 在冷凝室中冷凝金属的过程
    • US5997607A
    • 1999-12-07
    • US48702
    • 1998-03-26
    • Stephen M. BirkenKarl Birken
    • Stephen M. BirkenKarl Birken
    • C22B9/02C22B19/18C22B34/12C22B34/00
    • C22B34/1295C22B19/18C22B34/129C22B9/02Y02P10/234
    • A condensation chamber and method for condensing a metal connate from a metal rich gaseous mixture. The condensation chamber includes top and sidewall surfaces that together define a central bore. A gas supply is received in the bore, and as the gas begins to cool, a metal connate condensate forms on the surfaces of the condensation chamber. A moveable surface is received in the bore for removing the connate from the surfaces adjacent the bore. To facilitate removal of the connate, the surfaces adjacent the bore are heated to ensure that the connate remains substantially in the liquid state while in the condensation chamber. The moveable surface helps direct the connate into a cooling chamber supported by the condensation chamber. In the cooling chamber, the connate is cooled to a plastic state. The cooled connate may be formed into pellets and stored for later use.
    • 一种用于从富含金属的气体混合物中冷凝合金的冷凝室和方法。 冷凝室包括一起限定中心孔的顶壁和侧壁表面。 气体供应容纳在孔中,并且当气体开始冷却时,在冷凝室的表面上形成金属合金冷凝物。 可移动表面容纳在孔中,用于从邻近孔的表面移除合生物。 为了便于去除原生植物,邻近孔的表面被加热以确保合成物在冷凝室中基本处于液态。 可移动表面有助于将合生物引导到由冷凝室支撑的冷却室中。 在冷却室中,合生物冷却至塑性状态。 冷却的合生物可以形成颗粒并储存以备后用。
    • 6. 发明授权
    • Method for separating metal values by exposing to microwave/millimeter wave energy
    • 通过暴露于微波/毫米波能量来分离金属值的方法
    • US07571814B2
    • 2009-08-11
    • US10951935
    • 2004-09-28
    • Stephen M. Birken
    • Stephen M. Birken
    • B03B1/00
    • B03C1/02B03C1/005B03C1/025B03C1/32C01G51/00C01G53/00C22B1/00C22B1/02C22B4/00C22B23/005C22B23/02
    • Methods and apparatuses for separating metal values, such as nickel and nickel compounds, from mineral ores, including lateritic ores are disclosed. The method includes providing a mixture of particles (e.g., crushed and sized ore) that is composed of at least a first group of particles and a second group of particles. Group members have similar chemical composition, while particles belonging to different groups have dissimilar chemical compositions. The mixture of particles is concurrently, or generally concurrently, heated (using microwave/millimeter wave energy) and exposed to a reactant. The wave energy and the reactant act to increase the difference in either the magnetic susceptibility or other separation properties between the first and second group of particles. The mixture of particles is then passed through an appropriate separator to separate the particles of interest. Optional steps are disclosed for purifying selected particles. The reactant includes sulfur, sulfur compounds, halogens, or halogen compounds.
    • 公开了从含矿物矿石,包括红土矿石中分离金属值的方法和装置,例如镍和镍化合物。 该方法包括提供由至少第一组颗粒和第二组颗粒组成的颗粒(例如粉碎和定尺寸矿石)的混合物。 组成员具有相似的化学成分,而属于不同组的颗粒具有不同的化学成分。 颗粒的混合物同时或通常同时加热(使用微波/毫米波能量)并暴露于反应物。 波能和反应物用于增加第一和第二组颗粒之间的磁化率或其他分离性能的差异。 然后将颗粒的混合物通过适当的分离器以分离感兴趣的颗粒。 公开了用于纯化所选粒子的可选步骤。 反应物包括硫,硫化合物,卤素或卤素化合物。
    • 7. 发明申请
    • Method and Apparatus for Separating Metal Values
    • 分离金属值的方法和装置
    • US20090267275A1
    • 2009-10-29
    • US12500103
    • 2009-07-09
    • Stephen M. Birken
    • Stephen M. Birken
    • C22B3/02
    • B03C1/02B03C1/005B03C1/025B03C1/32C01G51/00C01G53/00C22B1/00C22B1/02C22B4/00C22B23/005C22B23/02
    • Methods and apparatuses for separating metal values, such as nickel and nickel compounds, from mineral ores, including lateritic ores are disclosed. The method includes providing a mixture of particles (e.g., crushed and sized ore) that is composed of at least a first group of particles and a second group of particles. Group members have similar chemical composition, while particles belonging to different groups have dissimilar chemical compositions. The mixture of particles is concurrently, or generally concurrently, heated (using microwave/millimeter wave energy) and exposed to a reactant. The wave energy and the reactant act to increase the difference in either the magnetic susceptibility or other separation properties between the first and second group of particles. The mixture of particles is then passed through an appropriate separator to separate the particles of interest. Optional steps are disclosed for purifying selected particles. The reactant includes sulfur, sulfur compounds, halogens, or halogen compounds.
    • 公开了从含矿物矿石,包括红土矿石中分离金属值的方法和装置,例如镍和镍化合物。 该方法包括提供由至少第一组颗粒和第二组颗粒组成的颗粒(例如粉碎和定尺寸矿石)的混合物。 组成员具有相似的化学成分,而属于不同组的颗粒具有不同的化学成分。 颗粒的混合物同时或通常同时加热(使用微波/毫米波能量)并暴露于反应物。 波能和反应物用于增加第一和第二组颗粒之间的磁化率或其他分离性能的差异。 然后将颗粒的混合物通过适当的分离器以分离感兴趣的颗粒。 公开了用于纯化所选粒子的可选步骤。 反应物包括硫,硫化合物,卤素或卤素化合物。
    • 8. 发明授权
    • Method and apparatus for separating metal values
    • 用于分离金属值的方法和装置
    • US06923328B2
    • 2005-08-02
    • US10080773
    • 2002-02-22
    • Stephen M. Birken
    • Stephen M. Birken
    • C22B23/02B03C1/005C22B9/02C22B23/00B03B1/00B03C1/00
    • B03C1/005C22B23/005
    • Methods and apparatuses for separating metal values, such as nickel and nickel compounds, from mineral ores, including lateritic ores are disclosed. The method includes providing a mixture of particles (e.g., crushed and sized ore) that is composed of at least a first group of particles and a second group of particles. Group members have similar chemical composition, while particles belonging to different groups have dissimilar chemical compositions. The mixture of particles is exposed to microwave/millimeter wave energy in order to differentially heat the first and second group of particles, thereby increasing differences in magnetic susceptibility between the first and second group of particles. The mixture of particles is then passed through a magnetic field gradient, which causes the particles to separate into magnetic and non-magnetic fractions.
    • 公开了从含矿物矿石,包括红土矿石中分离金属值的方法和装置,例如镍和镍化合物。 该方法包括提供由至少第一组颗粒和第二组颗粒组成的颗粒(例如粉碎和定尺寸矿石)的混合物。 组成员具有相似的化学成分,而属于不同组的颗粒具有不同的化学成分。 颗粒的混合物暴露于微波/毫米波能量以便差异地加热第一和第二组颗粒,从而增加第一和第二组颗粒之间的磁化率差异。 然后将颗粒的混合物通过磁场梯度,这使得颗粒分离成磁性和非磁性级分。