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108 条记录 (耗时 0.03 秒)

    LIQUID LOSS DETECTION DURING LASER EYE SURGERY
    61.
    发明公开
    LIQUID LOSS DETECTION DURING LASER EYE SURGERY 审中-公开
    激光手术中的液体损失检测

    公开(公告)号：EP3233000A1

    公开(公告)日：2017-10-25

    申请号：EP15821211.8

    申请日：2015-12-16

    申请人： Optimedica Corporation

    发明人： GOODING, Phillip, H. ,  BELTRAN, Christine, J. ,  EIKANAS, Brent ,  CAMPOS, Michael, A.

    IPC分类号： A61F9/009 ,  A61F9/008

    摘要： A laser eye surgery system that has a patient interface between the eye and the laser system relying on suction to hold the interface to the eye, the patient interface using liquid used as a transmission medium for the laser. During a laser procedure sensors monitor the level of liquid within the patient interface and send a signal to control electronics if the level drops below a threshold value. The sensor may be mounted on the inside of the patient interface, within a fluid chamber. Alternatively, a gas flow meter may be added to a suction circuit for the patient interface that detects abnormal suction levels indicating low fluid level.

    摘要翻译： 一种激光眼科手术系统，在眼睛和激光系统之间具有患者接口，依靠吸力将接口保持到眼睛，患者接口使用液体作为激光的传输介质。 在激光过程期间，传感器监测患者接口内的液体水平，并且如果水平下降到阈值以下，则向控制电子设备发送信号。 传感器可以安装在流体室内的患者接口的内部。 或者，可以将气体流量计添加到用于患者接口的抽吸回路中，以检测指示低液位的异常吸入水平。

    VACUUM LOSS DETECTION DURING LASER EYE SURGERY
    62.
    发明公开
    VACUUM LOSS DETECTION DURING LASER EYE SURGERY 审中-公开
    激光眼科手术中的真空损伤检测

    公开(公告)号：EP3206646A1

    公开(公告)日：2017-08-23

    申请号：EP15788284.6

    申请日：2015-10-16

    申请人： Optimedica Corporation

    发明人： CAMPOS, Michael A. ,  GONZALEZ, Javier G. ,  MILLER-GADDA, Teresa G

    IPC分类号： A61F9/009

    CPC分类号： A61F9/009 ,  A61B2217/005 ,  A61F2009/0052 ,  A61F2009/00844 ,  A61F2009/00872 ,  A61F2009/00878 ,  A61F2009/00887

    摘要： A laser eye surgery system that has a patient interface between the eye and the laser system relying on suction to hold the interface to the eye. The patient interface may be a liquid-filled interface, with liquid used as a transmission medium for the laser. During a laser procedure various inputs are monitored to detect a leak. The inputs may include a video feed of the eye looking for air bubbles in the liquid medium, the force sensors on the patient interface that detect patient movement, and vacuum sensors directly sensing the level of suction between the patient interface and the eye. The method may include combining three monitoring activities with a Bayesian algorithm that computes the probabilities of an imminent vacuum loss event.

    摘要翻译： 一种激光眼科手术系统，在眼睛和激光系统之间具有患者接口，依靠吸力将界面保持在眼睛上。 患者接口可以是充满液体的界面，液体用作激光的传输介质。 在激光过程中，监测各种输入以检测泄漏。 输入可以包括寻找液体介质中的气泡的眼睛的视频馈送，检测患者移动的患者接口上的力传感器以及直接感测患者接口与眼睛之间的吸力水平的真空传感器。 该方法可以包括将三个监测活动与计算即将发生的真空损失事件的概率的贝叶斯算法组合。

    METHODS AND SYSTEMS FOR CORNEAL TOPOGRAPHY, BLINK DETECTION AND LASER EYE SURGERY
    63.
    发明公开
    METHODS AND SYSTEMS FOR CORNEAL TOPOGRAPHY, BLINK DETECTION AND LASER EYE SURGERY 审中-公开
    用于角膜地形图，检测和激光眼科手术的方法和系统

    公开(公告)号：EP3197338A1

    公开(公告)日：2017-08-02

    申请号：EP15777818.4

    申请日：2015-09-25

    申请人： Optimedica Corporation

    发明人： GONZALEZ, Javier G.

    IPC分类号： A61B3/103 ,  A61B3/107

    摘要： A method of blink detection in a laser eye surgical system includes providing a topography measurement structure having a geometric marker. The method includes bringing the topography measurement structure into a position proximal to an eye such that light traveling from the geometric marker is capable of reflecting off a refractive structure of the eye of the patient, and also detecting the light reflected from the structure of the eye for a predetermined time period while the topography measurement structure is at the proximal position. The method further includes converting the light reflected from the surface of the eye into image data and analyzing the image data to determine whether light reflected from the geometric marker is present is in the reflected light, wherein if the geometric marker is determined not to be present, the patient is identified as having blinked during the predetermined time.

    摘要翻译： 激光眼科手术系统中的眨眼检测方法包括提供具有几何标记的形貌测量结构。 该方法包括使地形测量结构进入眼睛近侧的位置，使得从几何标记传播的光能够反射患者眼睛的折射结构，并且还检测从眼睛结构反射的光 在地形测量结构处于近端位置的情况下持续预定的时间段。 该方法还包括将从眼睛的表面反射的光转换为图像数据并分析图像数据以确定从几何标记反射的光是否存在于反射光中，其中如果几何标记被确定为不存在 ，在预定时间内患者被识别为眨眼。

    LASER CAPSULOVITREOTOMY
    64.
    发明授权
    LASER CAPSULOVITREOTOMY 有权
    LASER-KAPSULOVITREKTOMIE

    公开(公告)号：EP2967999B1

    公开(公告)日：2017-04-19

    申请号：EP14709516.0

    申请日：2014-02-26

    申请人： Optimedica Corporation

    发明人： SCHUELE, Georg ,  STEVENS, Julian ,  ANDERSEN, Dan, E.

    IPC分类号： A61F9/008

    CPC分类号： A61F9/00834 ,  A61F9/008 ,  A61F9/00836 ,  A61F2009/0087 ,  A61F2009/00889

    摘要： Methods and systems for performing laser-assisted surgery on an eye form a layer of bubbles in the Berger's space of the eye to increase separation between the posterior portion of the lens capsule of the eye and the anterior hyaloid surface of the eye. A laser is used to form the layer of bubbles in the Berger's space. The increased separation between the posterior portion of the lens capsule and the anterior hyaloid surface can be used to facilitate subsequent incision of the posterior portion of the lens capsule with decreased risk of compromising the anterior hyaloid surface. For example, the layer of bubbles can be formed prior to performing a capsulotomy on the posterior portion of the lens capsule.

    摘要翻译： 用于在眼睛上进行激光辅助手术的方法和系统在Berger的眼睛空间中形成一层气泡，以增加眼睛的晶状体囊的后部与眼睛的前眼球表面之间的分离。 在伯格的空间中，激光用于形成气泡层。 透镜胶囊的后部与前面的玻璃体表面之间的增加的间隔可以用于促进透镜胶囊的后部部分的后续切口，同时降低了前面的玻璃体表面的风险。 例如，可以在透镜胶囊的后部进行囊切术之前形成气泡层。

    IN SITU DETERMINATION OF REFRACTIVE INDEX OF MATERIALS
    68.
    发明公开
    IN SITU DETERMINATION OF REFRACTIVE INDEX OF MATERIALS 审中-公开
    原位测定材料折射率的

    公开(公告)号：EP3024376A1

    公开(公告)日：2016-06-01

    申请号：EP14744411.1

    申请日：2014-07-10

    申请人： Optimedica Corporation

    发明人： GONZALEZ, Javier

    IPC分类号： A61B3/10

    CPC分类号： A61B3/103 ,  A61B3/10 ,  A61B3/1005 ,  A61B3/102 ,  A61F9/00825 ,  G01M11/0228 ,  G01N21/45

    摘要： A laser eye surgery system focuses light along a beam path to a focal point having a location within a lens of the eye. The refractive index of the lens is determined in response to the location. The lens comprises a surface adjacent a second material having a second refractive index. The beam path extends a distance from the surface to the focal point. The index is determined in response to the distances from the surface to the targeted focal point and from the surface to the actual focal point, which corresponds to a location of a peak intensity of an optical interference signal of the focused light within the lens. The determined refractive index is mapped to a region in the lens, and may be used to generate a gradient index profile of the lens to more accurately place laser beam pulses for incisions.