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    • 31. 发明申请
    • Relating to Scanning Confocal Microscopy
    • 关于扫描共焦显微镜
    • US20090279169A1
    • 2009-11-12
    • US12440790
    • 2007-09-14
    • Robert Alan HoultSteve Morris BushGeorge Robert SealyDionisis Korontzis
    • Robert Alan HoultSteve Morris BushGeorge Robert SealyDionisis Korontzis
    • G02B21/06G02B26/08
    • G02B21/0028G02B21/0032G02B21/0076G02B23/16G02B26/0816
    • An assembly (100) and a method are provided for inputting a light beam into a light path extending from the confocal scanning head (102) to the microscope (104) of a scanning confocal microscope system to illuminate a selected region of a sample mounted in the microscope. The assembly comprises a light input for receiving a light beam from a light source; beam directing means (8, 12) for controlling the path of the light beam with reference to the shape of the selected region of the sample; and a beam coupler (16) for selective coupling the light beam into the light path from the confocal scanning head (102) to the microscope (104), with the beam direction being controlled by the beam directing means so as to illuminate the selected region. A scanning confocal microscope system including such an assembly is also described, together with a method of calibrating the system. In addition, an optical switch for selectively switching a light beam between two paths is disclosed.
    • 提供了一种组件(100)和方法,用于将光束输入到从共焦扫描头(102)延伸到扫描共聚焦显微镜系统的显微镜(104)的光路中,以照亮安装在 显微镜。 组件包括用于接收来自光源的光束的光输入; 光束引导装置(8,12),用于参照样本的选定区域的形状来控制光束的路径; 以及用于将光束选择性地耦合到从共焦扫描头(102)到显微镜(104)的光路中的光束耦合器(16),其中光束方向由光束引导装置控制,以便照亮所选择的区域 。 还描述了包括这种组件的扫描共焦显微镜系统以及校准系统的方法。 另外,公开了一种用于在两个路径之间选择性地切换光束的光学开关。
    • 32. 发明授权
    • Optical fiber scanner for performing multimodal optical imaging
    • 用于执行多模光学成像的光纤扫描器
    • US07616986B2
    • 2009-11-10
    • US10880008
    • 2004-06-28
    • Eric SeibelXingde LiXiumei Liu
    • Eric SeibelXingde LiXiumei Liu
    • A61B6/00
    • A61B5/6852A61B3/102A61B5/0062A61B5/0066A61B5/0068B31B2105/001G02B6/262G02B6/32G02B6/3502G02B7/08G02B21/0028G02B21/0036G02B21/006G02B21/0076G02B23/2423G02B26/103
    • An optical fiber scanner is used for multiphoton excitation imaging, optical coherence tomography, or for confocal imaging in which transverse scans are carried out at a plurality of successively different depths within tissue. The optical fiber scanner is implemented as a scanning endoscope using a cantilevered optical fiber that is driven into resonance or near resonance by an actuator. The actuator is energized with drive signals that cause the optical fiber to scan in a desired pattern at successively different depths as the depth of the focal point is changed. Various techniques can be employed for depth focus tracking at a rate that is much slower than the transverse scanning carried out by the vibrating optical fiber. The optical fiber scanner can be used for confocal imaging, multiphoton fluorescence imaging, nonlinear harmonic generation imaging, or in an OCT system that includes a phase or frequency modulator and delay line.
    • 光纤扫描器用于多光子激发成像,光学相干断层扫描或用于共焦成像,其中横向扫描在组织内的多个连续不同的深度进行。 光纤扫描器被实现为使用由致动器驱动到共振或接近谐振的悬臂光纤的扫描内窥镜。 致动器通过驱动信号通电,当驱动信号使焦点的深度改变时,光纤以连续不同的深度以所需的图案扫描。 可以采用比由振动光纤执行的横向扫描慢得多的速度进行深度聚焦跟踪的各种技术。 光纤扫描器可用于共焦成像,多光子荧光成像,非线性谐波生成成像,或在包括相位或频率调制器和延迟线的OCT系统中。
    • 37. 发明申请
    • Confocal microscope for imaging of selected locations of the body of a patient
    • 共焦显微镜,用于对患者身体的选定位置进行成像
    • US20060274407A1
    • 2006-12-07
    • US10557461
    • 2004-05-20
    • William FoxChristopher DiStasioScott Grodevant
    • William FoxChristopher DiStasioScott Grodevant
    • G02B21/00
    • G02B21/0048A61B5/0064A61B5/0068A61B5/6835G02B21/0012G02B21/0028G02B21/008G02B21/362
    • A confocal imaging microscope, especially for the cellular imaging of the skin at selected locations, is ergonomic in use, compact, and positionable at the locations thereby providing for patient comfort during imaging. An imaging head (28) is gimble mounted on a multi-axis compound arm (34) to allow for precise placement of a confocal objective (116) extending from the head at selected locations against the skin of the patient while providing for patient comfort. The arm (34) attaches the head to an upright station (10) which may be movable along the floor on which the station is disposed. The station (10) has a platform (16) on which a keyboard (24) and a display (22) for monitoring the images is supported. The station (10) also supports a personal computer (PC) (26) for processing signals providing the images on the display and controlling the microscope. The head (28) contains an integrated assembly of the optical and mechanical components of the microscope. The assembly includes a main chassis plate (82). The optical components are mounted principally on one side of the plate while a PC board (130) is mounted on the opposite side of the plate. The board (130) mounts the electronic components, including interfaces, a microprocessor (222), and drivers (206, 208, 210) for motors (105, 106, 108) which control scanning and may also control fine positioning of the locations being imaged. Controls (50) for the fine positioning and focusing are on the head (28) for ease of use. The head (28) is detachable from the arm for manual disposition which is useful when imaging, not only the skin but other tissues, especially for research in investigating living processes at the cellular level.
    • 共焦成像显微镜,特别是用于在选定位置处的皮肤的细胞成像,其在使用中是人体工程学的,紧凑的和可定位的,从而在成像期间提供患者的舒适度。 成像头(28)被安装在多轴复合臂(34)上,以允许在选定位置处从选定位置延伸的聚焦物镜(116)精确地放置在患者皮肤上,同时提供患者舒适度。 臂(34)将头部附接到直立站(10),其可以沿着设置站的地板移动。 站(10)具有平台(16),支撑用于监视图像的键盘(24)和显示器(22)。 站(10)还支持个人计算机(PC)(26),用于处理在显示器上提供图像并控制显微镜的信号。 头部(28)包含显微镜的光学和机械部件的集成组件。 组件包括主底板(82)。 光学部件主要安装在板的一侧,而PC板(130)安装在板的相对侧上。 板(130)安装包括接口的电子部件,微处理器(222)和用于控制扫描的电动机(105,106,108)的驱动器(206,208,210),并且还可以控制位置的精细定位 成像。 用于精细定位和聚焦的控制器(50)位于头部(28)上以便于使用。 头部(28)可从手臂上拆卸,用于手动配置,这对于成像不仅皮肤而且其它组织尤其是用于调查细胞水平的生物过程的研究是有用的。
    • 38. 发明申请
    • Compact confocal endoscope and endomicroscope method and apparatus
    • 紧凑型共焦内窥镜和内窥镜的方法和装置
    • US20050228229A1
    • 2005-10-13
    • US11142449
    • 2005-06-02
    • Martin Harris
    • Martin Harris
    • G02B21/00G02B23/24A61B1/04A61B1/06
    • G02B21/0076G02B21/0028G02B21/0068G02B23/2407
    • The present invention provides a confocal endoscope, microscope or endomicroscope including a light source of coherent light for illuminating a sample, a beam splitter and light receiving means, wherein an incident beam of light from the light source is directed onto the beam splitter and hence onto the sample, and light returning from the sample and incident on the beam splitter is deviated or displaced by the beam splitter by a small angle or distance relative to the incident beam, and received by the light receiving means located to receive the returning light and near the light source. The invention also a method for performing confocal endoscopy or microscopy including illuminating a sample by means of an incident or excitatory beam of coherent light, and deviating or displacing light returning from the sample by a small angle or distance relative to the incident beam.
    • 本发明提供一种共焦内窥镜,显微镜或内窥镜,其包括用于照射样品的相干光的光源,分束器和光接收装置,其中来自光源的入射光束被引导到分束器上,并因此被引导到 样品和从样品返回并入射到分束器上的光由分束器相对于入射光束偏移或移位一小角度或距离,并被位于接收返回光并靠近的光接收装置接收 光源。 本发明还涉及一种用于进行共焦内窥镜检查或显微镜检查的方法,包括通过入射或兴奋性相干光束照射样品,以及使从样品返回的光相对于入射光束偏移小的角度或距离。
    • 40. 发明申请
    • Tissue specimen holder
    • US20050157386A1
    • 2005-07-21
    • US11020387
    • 2004-12-22
    • Roger GreenwaldJames Zavislan
    • Roger GreenwaldJames Zavislan
    • B01L3/00G01N1/36G01N21/03G02B21/00G02B21/34A61D1/02A61B17/22
    • G01N21/0303B01L3/508B01L2300/043B01L2300/0609B01L2300/0654B01L2300/0672B01L2300/0822B01L2400/0683G01N1/36G01N2021/0339G01N2021/0342G01N2021/0364G02B21/0028G02B21/34
    • A tray or holder for tissue specimens, especially of excised tissue, such as biopsied specimens, is used with a confocal imaging system, especially a laser scanning confocal microscope system. The tray may be disposable after imaging of the specimen carried therein or may archive the specimen. A window supports the specimen. Clamps mounted inside the tray restrain the tissue. A compliant bag is mounted outside the tray on one side of a window of the tray on which the specimen is disposed. During imaging the specimen is immersed in a liquid contained in the tray having an index of refraction which closely matches the index of refraction of the tissue. The bag also contains an index matching liquid preferably having the same index as the liquid in the tray. A stabilizing plate is attached to a surface of the bag which faces the window. An objective lens of the confocal imaging system receives and supports the plate, preferably by a magnetic coupling ring around the plate which is magnetically attached to the barrel of the objective lens. The lens may be fixed and a mechanism for positioning the tray with respect to the lens in a direction along the optical axis of the lens and in orthogonal directions perpendicular to that axis shares a common support with the lens. Wavefront distortion which may result from an effectively corrugated surface of the specimen is minimized by selecting an immersion liquid which equals the refractive index of the near surface tissues. The tissue determines the index of the immersion fluid. The thicknesses and refractive indices of the window and plate are then determined to correct the residual aberration of the optical system. Different trays having different window and plate thicknesses and indices may be provided for different specimen species such as kidney, liver, cervix, et cetera. Thus, a generic confocal imaging system with a generic objective lens is corrected for image aberration and wavefront distortion due to the surface corrugations of the tissue. The correction is simplified since the bag is compliant and compresses so that the optical thickness along the axis between the objective lens and the focal plane in or at the specimen is substantially invariant whether the beam is focused at the interface between the specimen and the window or within the specimen over a focusing range which can extend over several millimeters.