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    • 6. 发明授权
    • Laser microdissection method and apparatus
    • 激光显微解剖方法和装置
    • US09279749B2
    • 2016-03-08
    • US14270275
    • 2014-05-05
    • LIFE TECHNOLOGIES CORPORATION
    • Brian DonovanThomas Baer
    • G01N1/28G01N1/44G01N1/30
    • G01N1/28G01N1/2813G01N1/286G01N1/30G01N1/44G01N2001/2826G01N2001/2833G01N2001/284G01N2001/2886Y10T156/10Y10T156/1054
    • Systems and methods for automated laser microdissection are disclosed. In one variation, targeted biological material is manually or automatically selected and a transfer film is placed in juxtaposition to the location of an interior of a cut path. In another variation, a sample of biological material is mounted onto a polymer membrane which is then placed onto a substrate. Targeted biological material is manually or automatically selected and a transfer film is placed in juxtaposition with the targeted biological material on the side of the biological material. In yet another variation, a sample of biological material is mounted onto a polymer membrane which is then inverted onto a substrate. Targeted biological material is manually or automatically selected and a transfer film is placed in juxtaposition with the targeted biological material on the side of the polymer membrane. Then, an UV laser cuts along a cut path around the targeted portions of biological material in a closed cut path or a substantially closed cut path defining an interior and an exterior portion of the tissue sample. In a substantially closed cut path, bridges are left spanning the interior of the cut path and the exterior of the cut path. An IR laser activates at least a portion of the transfer film such that the transfer film in the vicinity of targeted portion adheres to the biological material interior to the cut path. The transfer film is then removed separating the targeted portions of biological material which are adhered to the transfer film from the remaining portion of the tissue sample.
    • 公开了用于自动激光显微切割的系统和方法。 在一个变型中,手动或自动选择目标生物材料,并且将转移膜并排放置在切割路径的内部的位置。 在另一个变体中,将生物材料样品安装在聚合物膜上,然后将其放置在基底上。 手动或自动选择靶向生物材料,并将转移膜与生物材料侧面上的靶向生物材料并置放置。 在另一个变体中,将生物材料样品安装在聚合物膜上,然后将其反转到基底上。 手动或自动选择目标生物材料,并将转移膜与聚合物膜侧面上的目标生物材料并置放置。 然后,UV激光沿着围绕生物材料的目标部分的切割路径沿封闭的切割路径或限定组织样本的内部和外部部分的基本封闭的切割路径切割。 在基本封闭的切割路径中,跨越切割路径的内部和切割路径的外部。 红外激光激活转印膜的至少一部分,使得目标部分附近的转印膜附着在生物材料内部至切割路径。 然后除去转移膜,从生物材料的目标部分分离出粘附到转移膜上的剩余部分的组织样品。
    • 8. 发明授权
    • Method and device for three dimensional microdissection
    • 三维显微解剖的方法和装置
    • US09200989B2
    • 2015-12-01
    • US12256341
    • 2008-10-22
    • Stefan Niehren
    • Stefan Niehren
    • A01M1/02G01N1/28G01N1/06G01N1/42
    • G01N1/2813G01N1/06G01N1/42G01N2001/2886
    • A method for three-dimensional microdissection for separating defined structures in the sub-millimeter range by cold laser ablation or multi-photon absorption, whereby exposure of the structures to be separated is performed using directional information in all spatial directions. Also, a 3D microdissection system for separating defined, three-dimensional structures from a sample, having: a control unit (5); an ablation chamber (1) with a sample holder, on which the sample to be processed is mounted and which is movable along a linear axis V and rotatable about a rotary axis R. The sample holder has positioning devices connected to the control unit. The positioning devices move the sample holder along another linear axis H and rotate it about rotary axis R, and a laser device (6) is introduced into the ablation chamber at least partially through a laser window (3) in the ablation chamber. The ablation chamber is connected to the control unit and has an adjustable optic, such that the laser beam is focused near the sample.
    • 用于通过冷激光烧蚀或多光子吸收在亚毫米范围内分离限定结构的三维显微解剖方法,由此使用所有空间方向上的方向信息来进行要分离的结构的曝光。 另外,用于从样本中分离限定的三维结构的3D显微解剖系统,具有:控制单元(5); 具有样品保持器的消融室(1),待处理的样品安装在该消融室(1)上,并且可沿线性轴线V移动并且可绕旋转轴线R旋转。样品架具有连接到控制单元的定位装置。 定位装置沿着另一个线性轴线H移动样品架,并围绕旋转轴线R旋转,激光装置(6)至少部分地通过消融室中的激光窗(3)引入消融室。 消融室连接到控制单元并且具有可调光学元件,使得激光束聚焦在样品附近。