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    • 1. 发明授权
    • Method and tool for measuring the geometric structure of an optical component
    • 用于测量光学部件几何结构的方法和工具
    • US09109976B2
    • 2015-08-18
    • US14384119
    • 2013-03-08
    • ESSILOR INTERNATIONAL (COMPAGNIE GENERALE D'OPTIQUE)
    • Stéphane GueuNicolas La VillonniereFabien MuradoreAsma Lakhoua
    • G01M11/02G01B11/24
    • G01M11/025G01B11/24G01M11/0264G01M11/0271
    • The subject of the present invention is a method and a system for measuring the geometric or optical structure of an optical component. In particular, the invention relates to a method for measuring the geometric structure of a component bounded by a first side (10) and a second side (20), said method comprising steps of: (S1) measuring a first signal (MS1) resulting from a first conversion of a first probe signal (PS1), by at least said first side (10); (S2) measuring a second signal (MS2) resulting from a second conversion of a second probe signal (PS2), by at least said second side (20); (S3) determining a third conversion making it possible to convert a first set of coordinates (R1) associated with the measurement of the first signal (MS1) to a second set of coordinates (R2) associated with the measurement of the second signal (MS2); (S10) estimating said first side (10) using the first signal (MS1), said first simulation and a first cost criterion (V1) quantifying a difference between the estimation (FS1) and the first signal (MS1); and (S20) estimating said second side (20) using the second signal (MS2), said second simulation, said third conversion and a second cost criterion (V2) quantifying a difference between the estimation (ES2) and the second signal (MS2).
    • 本发明的主题是用于测量光学部件的几何或光学结构的方法和系统。 特别地,本发明涉及一种用于测量由第一侧(10)和第二侧(20)界定的部件的几何结构的方法,所述方法包括以下步骤:(S1)测量产生的第一信号(MS1) 至少所述第一侧(10)从第一探测信号(PS1)的第一转换开始。 (S2)通过至少所述第二侧(20)测量由第二探测信号(PS2)的第二转换产生的第二信号(MS2); (S3)确定第三转换,使得可以将与第一信号(MS1)的测量相关联的第一组坐标(R1)转换为与第二信号(MS2)的测量相关联的第二坐标系(R2) ); (S10)使用第一信号(MS1),所述第一模拟和量化估计(FS1)与第一信号(MS1)之间的差的第一成本标准(V1))来估计所述第一侧(10) 以及(S20)使用第二信号(MS2),所述第二模拟,所述第三转换和第二成本标准(V2)估计所述第二侧(20),以及量化估计(ES2)和第二信号(MS2)之间的差的第二成本标准 。
    • 2. 发明申请
    • Method And Tool For Measuring The Geometric Structure Of An Optical Component
    • 用于测量光学元件几何结构的方法和工具
    • US20150055126A1
    • 2015-02-26
    • US14384119
    • 2013-03-08
    • ESSILOR INTERNATIONAL (COMPAGNIE GENERALE D'OPTIQUE)
    • Stéphane GueuNicolas La VillonniereFabien MuradoreAsma Lakhoua
    • G01M11/02
    • G01M11/025G01B11/24G01M11/0264G01M11/0271
    • The subject of the present invention is a method and a system for measuring the geometric or optical structure of an optical component. In particular, the invention relates to a method for measuring the geometric structure of a component bounded by a first side (10) and a second side (20), said method comprising steps of: (S1) measuring a first signal (MS1) resulting from a first conversion of a first probe signal (PS1), by at least said first side (10); (S2) measuring a second signal (MS2) resulting from a second conversion of a second probe signal (PS2), by at least said second side (20); (S3) determining a third conversion making it possible to convert a first set of coordinates (R1) associated with the measurement of the first signal (MS1) to a second set of coordinates (R2) associated with the measurement of the second signal (MS2); (S10) estimating said first side (10) using the first signal (MS1), said first simulation and a first cost criterion (V1) quantifying a difference between the estimation (FS1) and the first signal (MS1); and (S20) estimating said second side (20) using the second signal (MS2), said second simulation, said third conversion and a second cost criterion (V2) quantifying a difference between the estimation (ES2) and the second signal (MS2).
    • 本发明的主题是用于测量光学部件的几何或光学结构的方法和系统。 特别地,本发明涉及一种用于测量由第一侧(10)和第二侧(20)界定的部件的几何结构的方法,所述方法包括以下步骤:(S1)测量产生的第一信号(MS1) 至少所述第一侧(10)从第一探测信号(PS1)的第一转换开始。 (S2)通过至少所述第二侧(20)测量由第二探测信号(PS2)的第二转换产生的第二信号(MS2); (S3)确定第三转换,使得可以将与第一信号(MS1)的测量相关联的第一组坐标(R1)转换为与第二信号(MS2)的测量相关联的第二坐标系(R2) ); (S10)使用第一信号(MS1),所述第一模拟和量化估计(FS1)与第一信号(MS1)之间的差的第一成本标准(V1))来估计所述第一侧(10) 以及(S20)使用第二信号(MS2),所述第二模拟,所述第三转换和第二成本标准(V2)估计所述第二侧(20),以及量化估计(ES2)和第二信号(MS2)之间的差的第二成本标准 。
    • 3. 发明申请
    • Method For Determining An Ophthalmic Lens
    • 确定眼科镜片的方法
    • US20140293216A1
    • 2014-10-02
    • US14358952
    • 2012-11-15
    • ESSILOR INTERNATIONAL (COMPAGNIE GENERALE D'OPTIQUE)
    • Fabien MuradoreHélène De Rossi
    • G02C7/06G02C7/02
    • G02C7/066G02C7/027G02C7/028G02C7/061
    • The invention relates to a method for determining an ophthalmic lens wherein: a first and a second reference axes (Γ1, Γ2) are determined, the first reference axis being set to a value comprised between [γτ−20°, γτ+20°] with γτ being the mean axis of astigmatism over a first temporal portion (Portion 1), and the second reference axis being set to a value comprised between [yN−20°, YN+20°] with YN being the mean axis of astigmatism over a second nasal portion (Portion 2); a combined reference axis (Γ) is determined as a linear combination of the first and second reference axes; over the first portion, the sphere value along the combined reference axis is superior to the sphere value along a perpendicular axis to the combined reference axis (Formula I); and over the second portion, the sphere value along the combined reference axis is superior to the sphere value along a perpendicular axis to the combined reference axis (Formula I). The method enables an improved distortion without degrading the performance in term of correction of the optical power defect and optical residual astigmatism. This results in an increased comfort for the wearer. The invention further relates to a progressive ophthalmic lens, a method for manufacturing a pair of progressive ophthalmic lens, a set of apparatuses for manufacturing a pair of ophthalmic lenses, a set of data, a computer program product and a computer readable medium associated to this method.
    • 本发明涉及一种用于确定眼科镜片的方法,其中:确定第一和第二参考轴(&Ggr; 1,&Ggr; 2),第一参考轴被设置为包括在[γτ-20°,γτ + 20°],其中γτ是第一时间部分(部分1)上的像散的平均轴,并且第二参考轴被设置为包括在[yN-20°,YN + 20°]之间的值,YN是平均值 第二鼻部散光轴(部分2); 组合参考轴(&Ggr;)被确定为第一和第二参考轴的线性组合; 在第一部分上,沿着组合参考轴的球体值优于沿着与组合的参考轴线(公式I)的垂直轴线的球体值; 并且在第二部分上,沿着组合参考轴的球体值优于沿着与组合的参考轴线(式I)的垂直轴线的球体值。 该方法能够在不损害光功率缺陷和光残留散光校正的性能的情况下改善失真。 这导致佩戴者的舒适度增加。 本发明还涉及渐进式眼科镜片,制造一对渐进式眼科镜片的方法,用于制造一对眼科镜片的一组装置,一组数据,计算机程序产品和与之相关联的计算机可读介质 方法。
    • 4. 发明授权
    • Method for determining an ophthalmic lens
    • 确定眼科镜片的方法
    • US09547183B2
    • 2017-01-17
    • US14358952
    • 2012-11-15
    • ESSILOR INTERNATIONAL (COMPAGNIE GENERALE D'OPTIQUE)
    • Fabien MuradoreHélène De Rossi
    • G02C7/06G02C7/02
    • G02C7/066G02C7/027G02C7/028G02C7/061
    • The invention relates to a method for determining an ophthalmic lens wherein: a first and a second reference axes are determined, the first reference axis is comprised between [γT−20°, γT+20° ] with γT being the mean axis of astigmatism over a first temporal portion, and the second reference axis is comprised between [γN−20°, γN+20° ] with γN being the mean axis of astigmatism over a second nasal portion; a combined reference axis is determined as a linear combination of the first and second reference axes; over the first portion, the sphere value along the combined reference axis is greater than the sphere value along a perpendicular axis to the combined reference axis; and over the second portion, the sphere value along the combined reference axis is greater than the sphere value along a perpendicular axis to the combined reference axis.
    • 本发明涉及一种用于确定眼科镜片的方法,其中:确定第一和第二参考轴,第一参考轴包括在[γT-20°,γT+ 20°]之间,γT是散光的平均轴 第一时间部分,第二参考轴线包括在[γN-20°,γN+ 20°]之间,γN是第二鼻部上的散光平均轴线; 组合的参考轴被确定为第一和第二参考轴的线性组合; 在第一部分上,沿着组合参考轴的球体值大于沿着与组合参考轴线的垂直轴线的球体值; 并且在第二部分上,沿着组合参考轴的球体值大于沿着与组合的参考轴线的垂直轴线的球体值。