会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 2. 发明公开
    • SOLID-LIQUID COUNTERCURRENT EXTRACTION CONTINUOUSLY SEPARATING APPARATUS
    • KONTINUIERLICHEFLÜSSIG-FEST-GEGENSTROMEXTRAKTIONS TRENNVORRICHTUNG
    • EP0977031A1
    • 2000-02-02
    • EP98905725.2
    • 1998-03-02
    • Nishizawa, Hideyuki
    • Nishizawa, Hideyuki
    • G01N30/42
    • G01N30/42B01D11/0223B01D11/0284B01D15/1807B01D15/1892B01D2215/022
    • A row of (n + m) powder containers which contain powder for chromatography and a row of (n + m) solvent containers which contain solvent for partition are arranged closely in parallel to each other. 0): A predetermined quantity of sample solution is added to the m-th solvent container from the left. 1): The powder containers and the solvent containers of the same numbers from the left in the rows are coupled with each other to form a row of (n + m) pairs of the powder containers and the solvent containers. 2): The powder and solvent of each pair are mixed and stirred until components to be separated come into partition equilibrium. 3): The powder and solvent of each pair are separated and made to exist in the original containers of each pair. 4): The pairs are decoupled to form the row of the powder containers and the row of the solvent containers again, and the rows are shifted from each other by one container in the opposite directions alternately. The steps 1) - 4) are repeated, completing one process composed of the steps 0) - 4) + steps 1) - 4). The process is repeated. Each time the rows are shifted, the leading container containing separated sample component is removed, and a new container is added to the rear of the row to keep the number of containers in the row constant. By this method, the samples can be separated by relatively small number of partition equilibrium steps.
    • 一排(n + m)粉末容器,其中含有用于色谱的粉末和一排(n + m)溶剂容器,其含有溶剂用于分隔,彼此平行地排列。 0):从左侧向第m个溶剂容器添加规定量的试样溶液。 1):相互排列相同数量的粉末容器和溶剂容器彼此结合形成一排(n + m)个粉末容器和溶剂容器。 2):将每一对的粉末和溶剂混合并搅拌直至要分离的组分达到分配平衡。 3):将每一对的粉末和溶剂分离并存放在每对的原始容器中。 4):这些对被解耦以再次形成一排粉末容器和一排溶剂容器,并且这些排彼此相反地以相反的方向彼此移位一个容器。 重复步骤1)-4),完成由步骤0)-4)+步骤1)-4)组成的一个过程。 重复该过程。 每次移动行时,都会删除包含分离的样本组件的前导容器,并将一个新容器添加到行的后部,以使该行中的容器数量保持不变。 通过这种方法,可以通过相对较少数量的分配平衡步骤来分离样品。
    • 3. 发明授权
    • SOLID-LIQUID COUNTERCURRENT EXTRACTION CONTINUOUSLY SEPARATING APPARATUS
    • 连续的液体逆流盛宴萃取分离器
    • EP0977031B1
    • 2009-04-29
    • EP98905725.2
    • 1998-03-02
    • Nishizawa, Hideyuki
    • Nishizawa, Hideyuki
    • G01N30/42B01D11/00
    • G01N30/42B01D11/0223B01D11/0284B01D15/1807B01D15/1892B01D2215/022
    • A row of (n + m) powder containers which contain powder for chromatography and a row of (n + m) solvent containers which contain solvent for partition are arranged closely in parallel to each other. 0): A predetermined quantity of sample solution is added to the m-th solvent container from the left. 1): The powder containers and the solvent containers of the same numbers from the left in the rows are coupled with each other to form a row of (n + m) pairs of the powder containers and the solvent containers. 2): The powder and solvent of each pair are mixed and stirred until components to be separated come into partition equilibrium. 3): The powder and solvent of each pair are separated and made to exist in the original containers of each pair. 4): The pairs are decoupled to form the row of the powder containers and the row of the solvent containers again, and the rows are shifted from each other by one container in the opposite directions alternately. The steps 1) - 4) are repeated, completing one process composed of the steps 0) - 4) + steps 1) - 4). The process is repeated. Each time the rows are shifted, the leading container containing separated sample component is removed, and a new container is added to the rear of the row to keep the number of containers in the row constant. By this method, the samples can be separated by relatively small number of partition equilibrium steps.
    • 5. 发明专利
    • SOLID-LIQUID COUNTERCURRENT EXTRACTION CONTINUOUSLY SEPARATING APPARATUS
    • CA2286805A1
    • 1998-10-22
    • CA2286805
    • 1998-03-02
    • NISHIZAWA HIDEYUKI
    • NISHIZAWA HIDEYUKI
    • B01D11/02B01D15/02B01D15/18G01N30/42B01D15/08
    • A row of (n+m) powder containers which contain powder for chromatography and a row of (n+m) solvent containers which contain solvent for partition are arranged closely in parallel to each other. 0): A predetermined quantity of sample solution is added to the m-th solvent container from the left. 1): The powder containers and the solvent containers of the same numbers from the left in the rows are coupled with each other to form a row of (n+m) pairs of the powder containers and the solvent containers. 2): The powder and solvent of each pair are mixed and stirred until components to be separated come into partition equilibrium. 3): The powder and solvent of each pair are separated and made to exist in the original containers of each pair. 4): The pairs are decoupled to form the row of the powder containers and the row of the solvent containers again, and the rows are shifted from each other by one container in the opposite directions alternately. The steps 1) - 4) are repeated, completing one process composed of the steps 0) - 4) + steps 1) - 4). The process is repeated. Each time the rows are shifted, the leading container containing separated sample component is removed, and a new container is added to the rear of the row to keep the number of containers in the row constant. By this method, the samples can be separated by relatively small number of partition equilibrium steps.
    • 8. 发明专利
    • DE69840787D1
    • 2009-06-10
    • DE69840787
    • 1998-03-02
    • NISHIZAWA HIDEYUKI
    • NISHIZAWA HIDEYUKI
    • G01N30/42B01D11/00B01D11/02B01D15/02B01D15/18
    • A row of (n + m) powder containers which contain powder for chromatography and a row of (n + m) solvent containers which contain solvent for partition are arranged closely in parallel to each other. 0): A predetermined quantity of sample solution is added to the m-th solvent container from the left. 1): The powder containers and the solvent containers of the same numbers from the left in the rows are coupled with each other to form a row of (n + m) pairs of the powder containers and the solvent containers. 2): The powder and solvent of each pair are mixed and stirred until components to be separated come into partition equilibrium. 3): The powder and solvent of each pair are separated and made to exist in the original containers of each pair. 4): The pairs are decoupled to form the row of the powder containers and the row of the solvent containers again, and the rows are shifted from each other by one container in the opposite directions alternately. The steps 1) - 4) are repeated, completing one process composed of the steps 0) - 4) + steps 1) - 4). The process is repeated. Each time the rows are shifted, the leading container containing separated sample component is removed, and a new container is added to the rear of the row to keep the number of containers in the row constant. By this method, the samples can be separated by relatively small number of partition equilibrium steps.
    • 10. 发明专利
    • SOLID-LIQUID COUNTERCURRENT EXTRACTION CONTINUOUSLY SEPARATING APPARATUS
    • CA2286805C
    • 2005-11-08
    • CA2286805
    • 1998-03-02
    • NISHIZAWA HIDEYUKI
    • NISHIZAWA HIDEYUKI
    • B01D11/02B01D15/02B01D15/18G01N30/42B01D15/08
    • A row of (n + m) powder containers which contain powder for chromatography a nd a row of (n + m) solvent containers which contain solvent for partition are arranged closely in parallel to each other. 0): A predetermined quantity of sample solution is added to the m-th solvent container from the left. 1): The powder containers and the solvent containers of the same numbers from the left in the rows are coupled with each other to form a row of (n + m) pairs of the powder containers and the solvent containers. 2): The powder and solvent of each pair are mixed and stirred until components to be separated come into partition equilibrium. 3): The powder and solvent of each pair are separated and made to exist in the original containers of each pair. 4): The pairs are decoupled to form the row of the powder containers and the row of the solvent containers again, and the rows are shifted from each other by one container in the opposite directions alternately. The steps 1) - 4) are repeated, completing one process composed of the steps 0) - 4) + steps 1) - 4). The process is repeated. Each time the rows are shifted, the leading contain er containing separated sample component is removed, and a new container is add ed to the rear of the row to keep the number of containers in the row constant. By this method, the samples can be separated by relatively small number of partition equilibrium steps.