| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 21 | Method for correcting eye aberration | JP2002160256 | 2002-05-31 | JP2003107342A | 2003-04-09 | ABITBOL MARC |
| PROBLEM TO BE SOLVED: To provide the design of a spectacle lens for the correction of human vision, including the correction of high order aberrations, and super-normal vision having a remarkably satisfactory function by using spectacles. SOLUTION: Different lenses are described for use at a partial or a fuller field of view. This method applies corrective measures based on data obtained from high order wave front measurements of a subject's eye. According to one method, the Modulation Transfer Function (MTF) of the overall eye and lens optical system is optimized. According to another method, the optimization is performed on the wavefront of the overall eye and lens optical system. Both methods use weighted functions in the optimization procedure. This method of high order aberration correction is also applicable for the design of contact lenses and intra-ocular lenses, and for the execution of refractive eye surgery. | ||||||
| 22 | TORIC LENS WITH DECREASED SENSITIVITY TO CYLINDER POWER AND ROTATION AND METHOD OF USING THE SAME | US15975690 | 2018-05-09 | US20180256317A1 | 2018-09-13 | Theophilus Bogaert; Hendrik A. Weeber; Huawei Zhao |
| A method, system and apparatus for vision correction are disclosed. The method, system and apparatus include a toric intraocular element for correcting astigmatism and having a cylinder power, and a depth of focus extender coupled to the toric intraocular element, the depth of focus extender extending a depth of focus. The extended depth of focus may reduce sensitivity of the toric intraocular element to at least one of rotation and selected cylinder power. | ||||||
| 23 | OPHTHALMIC APPARATUS WITH CORRECTIVE MERIDIANS HAVING EXTENDED TOLERANCE BAND BY MODIFYING REFRACTIVE POWERS IN UNIFORM MERIDIAN DISTRIBUTION | US15467885 | 2017-03-23 | US20170273780A1 | 2017-09-28 | Huawei Zhao |
| The embodiments disclosed herein include improved toric lenses and other ophthalmic apparatuses (including, for example, contact lens, intraocular lenses (IOLs), and the like) and associated method for their design and use. The apparatus includes one or more optical zones, including an optical zone defined by a polynomial-based surface coincident at a plurality of meridians having distinct cylinder powers, wherein light incident to a given region of each of the plurality of meridians, and respective regions nearby, is directed to a given point of focus such that the regions nearby to the given region direct light to the given point of focus when the given meridian is rotationally offset from the given region, thereby establishing an extended band of operation, and wherein each of the plurality of meridians is uniformly arranged on the optical zone for a same given added power (in diopters) up to 1.0 D (diopters). | ||||||
| 24 | Eyewear having magnetic clip-on lenses | US14338919 | 2014-07-23 | US09341865B2 | 2016-05-17 | Brent Sheldon; Robert Katz; Sylvain Duchesne |
| Eyewear according to one embodiment includes a primary frame retainer, at least one primary lens and a clip-on lens assembly removably attachable to the front of the primary frame by magnetic forces interacting between two magnets affixed to the primary frame and the clip-on lens assembly, respectively. The clip-on lens assembly includes a connector affixed to a secondary frame of the clip-on lens assembly. The connector has a hook removably engagable with a recess defined in the primary frame for positioning the clip-on lens assembly with respect to the primary frame. | ||||||
| 25 | TORIC LENS WITH DECREASED SENSITIVITY TO CYLINDER POWER AND ROTATION AND METHOD OF USING THE SAME | US14975364 | 2015-12-18 | US20160100938A1 | 2016-04-14 | Theophilus Bogaert; Hendrik A. Weeber; Huawei Zhao |
| A method, system and apparatus for vision correction are disclosed. The method, system and apparatus include a toric intraocular element for correcting astigmatism and having a cylinder power, and a depth of focus extender coupled to the toric intraocular element, the depth of focus extender extending a depth of focus. The extended depth of focus may reduce sensitivity of the toric intraocular element to at least one of rotation and selected cylinder power. | ||||||
| 26 | EYEWEAR HAVING MAGNETIC CLIP-ON LENSES | US14495974 | 2014-09-25 | US20160026004A1 | 2016-01-28 | Brent SHELDON; Robert KATZ; Sylvain DUCHESNE |
| Eyewear according to one embodiment includes a primary frame retaining at least one primary lens, and a clip-on lens assembly having a secondary frame removably attachable to the front of the primary frame by magnetic forces interacting between two magnets affixed to the primary frame and the clip-on lens assembly, respectively. The attachment is achieved between a convex outer surface and a concave inner surface of the respective primary and secondary frames. The clip-on lens assembly includes a positioning member affixed to the secondary frame of the clip-on lens assembly for positioning the clip-on lens assembly with respect to the primary frame. | ||||||
| 27 | Toric lens with decreased sensitivity to cylinder power and rotation and method of using the same | US12832816 | 2010-07-08 | US09216080B2 | 2015-12-22 | Theophilus Bogaert; Hendrik A. Weeber; Huawei Zhao |
| A method, system and apparatus for vision correction are disclosed. The method, system and apparatus include a toric intraocular element for correcting astigmatism and having a cylinder power, and a depth of focus extender coupled to the toric intraocular element, the depth of focus extender extending a depth of focus. The extended depth of focus may reduce sensitivity of the toric intraocular element to at least one of rotation and selected cylinder power. | ||||||
| 28 | TORIC OPHTHALMIC LENS HAVING EXTENDED DEPTH OF FOCUS | US13997533 | 2011-12-20 | US20140022508A1 | 2014-01-23 | Shai Ben-Yaish; Alex Zlotink; Ido Raveh; Ofer Limon; Oren Yehezkel; Karen Lahav-Yacouel; Michael Goldstein; Zeev Zalevsky |
| An ophthalmic lens is presented. The lens includes a toric optical zone and a phase-affecting, non-diffractive optical element for extending depth of focus of imaging. | ||||||
| 29 | Toric intraocular lens with spatially-variant astigmatism | US13544593 | 2012-07-09 | US08562131B2 | 2013-10-22 | Huawei Zhao |
| An intraocular lens for correcting or reducing the astigmatism of a cornea includes a pupil that is spatially divided into discrete zones, with each zone having a particular astigmatism magnitude and astigmatism orientation. In one embodiment, the zones all have the same astigmatism magnitude, which is equal and opposite the cornea astigmatism magnitude to within a particular tolerance, such as 0.25 diopters. In one embodiment, some or all of the zones all have different astigmatism orientations, with the angular separation between astigmatism orientations being on the order of the rotational misalignment tolerance of the lens to the cornea. The visual performance of such a lens deteriorates more slowly with rotational misalignment, when compared to a comparable lens having a uniform astigmatism orientation across its entire pupil, leading to more relaxed tolerances for a surgeon that implants the lens. | ||||||
| 30 | TORIC INTRAOCULAR LENS WITH SPATIALLY-VARIANT ASTIGMATISM | US13544593 | 2012-07-09 | US20120281182A1 | 2012-11-08 | Huawei Zhao |
| An intraocular lens for correcting or reducing the astigmatism of a cornea includes a pupil that is spatially divided into discrete zones, with each zone having a particular astigmatism magnitude and astigmatism orientation. In one embodiment, the zones all have the same astigmatism magnitude, which is equal and opposite the cornea astigmatism magnitude to within a particular tolerance, such as 0.25 diopters. In one embodiment, some or all of the zones all have different astigmatism orientations, with the angular separation between astigmatism orientations being on the order of the rotational misalignment tolerance of the lens to the cornea. The visual performance of such a lens deteriorates more slowly with rotational misalignment, when compared to a comparable lens having a uniform astigmatism orientation across its entire pupil, leading to more relaxed tolerances for a surgeon that implants the lens. | ||||||
| 31 | TORIC INTRAOCULAR LENS WITH SPATIALLY-VARIANT ASTIGMATISM | US12839241 | 2010-07-19 | US20110170057A1 | 2011-07-14 | Huawei Zhao |
| An intraocular lens for correcting or reducing the astigmatism of a cornea includes a pupil that is spatially divided into discrete zones, with each zone having a particular astigmatism magnitude and astigmatism orientation. In one embodiment, the zones all have the same astigmatism magnitude, which is equal and opposite the cornea astigmatism magnitude to within a particular tolerance, such as 0.25 diopters. In one embodiment, some or all of the zones all have different astigmatism orientations, with the angular separation between astigmatism orientations being on the order of the rotational misalignment tolerance of the lens to the cornea. The visual performance of such a lens deteriorates more slowly with rotational misalignment, when compared to a comparable lens having a uniform astigmatism orientation across its entire pupil, leading to more relaxed tolerances for a surgeon that implants the lens. | ||||||
| 32 | Toric intraocular lens with spatially-variant astigmatism | US12035370 | 2008-02-21 | US07780290B2 | 2010-08-24 | Huawei Zhao |
| An intraocular lens for correcting or reducing the astigmatism of a cornea includes a pupil that is spatially divided into discrete zones, with each zone having a particular astigmatism magnitude and astigmatism orientation. In one embodiment, the zones all have the same astigmatism magnitude, which is equal and opposite the cornea astigmatism magnitude to within a particular tolerance, such as 0.25 diopters. In one embodiment, some or all of the zones all have different astigmatism orientations, with the angular separation between astigmatism orientations being on the order of the rotational misalignment tolerance of the lens to the cornea. The visual performance of such a lens deteriorates more slowly with rotational misalignment, when compared to a comparable lens having a uniform astigmatism orientation across its entire pupil, leading to more relaxed tolerances for a surgeon that implants the lens. | ||||||
| 33 | Method of designing ophthalmic lens and ophthalmic lens produced by the method | US10656315 | 2003-09-05 | US06902273B2 | 2005-06-07 | Asaki Suzaki; Atsushi Kobayashi |
| A method of designing an ophthalmic lens, including: determining specifications of a temporary lens to provide an optical power required by a wearer; applying the temporary lens to a prescribed schematic eye, and effecting emmetropization of an optical system including the temporary lens and schematic eye; obtaining an optical characteristic of the optical system at a position of an optical axis of the temporary lens which is offset from an optical axis of the schematic eye by an offset amount; obtaining successively optical characteristics corresponding to different configurations of the temporary lens with the axes of the temporary lens and schematic eye offset by the offset amount; selecting optimum one of the different configurations of the temporary lens which gives optimum one of the successively obtained optical characteristics; and determining specifications of an intended ophthalmic lens as a final product, based on the selected optimum configuration of the temporary lens. | ||||||
| 34 | Method of designing ophthalmic lens and ophthalmic lens produced by the method | US10021507 | 2001-10-30 | US06652098B2 | 2003-11-25 | Asaki Suzaki; Atsushi Kobayashi |
| A method of designing an ophthalmic lens, including: determining specifications of a temporary lens to provide an optical power required by a wearer; applying the temporary lens to a prescribed schematic eye, and effecting emmetropization of an optical system including the temporary lens and schematic eye; obtaining an optical characteristic of the optical system at a position of an optical axis of the temporary lens which is offset from an optical axis of the schematic eye by an offset amount; obtaining successively optical characteristics corresponding to different configurations of the temporary lens with the axes of the temporary lens and schematic eye offset by the offset amount; selecting optimum one of the different configurations of the temporary lens which gives optimum one of the successively obtained optical characteristics; and determining specifications of an intended ophthalmic lens as a final product, based on the selected optimum configuration of the temporary lens. | ||||||
| 35 | Contact or intraocular lens and method for its preparation | US09910491 | 2001-07-20 | US06533416B1 | 2003-03-18 | Bruno Fermigier; Richard Legras; Nicolas Chateau |
| Toric contact or intraocular lenses having a correcting portion characterized by one or more novel constructions that each produce an optical path that improves angular misalignment tolerance. The lens may be constructed with a “smooth atoric” aspect where the optical path through the correcting portion of the lens corrects for both astigmatism and an axisymmetric aberration other than astigmatism, there being no sudden surface discontinuity between the regions that provide the different corrections (thus, “smooth”). In another embodiment, the lens may be constructed with so-called “sectors” circumferentially arranged around the optical axis such that an optical path through the correcting portion of the lens varies as a function of the angular separation from the reference meridian plane, and the correcting portion is divided into at least two sectors having different astigmatism correction axes. In either embodiment, the correcting surface may be provided on either or both of the anterior or posterior faces of the lens, and the optical performance of the lens in case of angular displacement (the “angular misalignment tolerance”) is increased. Specifically, the angular misalignment tolerance is increased by at least 30% over a standard toric lens of the same class. Definition of the particular shape of the lens enables a mold die of that shape to be formed, or lens machining tools may be used. | ||||||
| 36 | Aberration correction spectacle lens | US10159167 | 2002-05-31 | US20020196412A1 | 2002-12-26 | Marc Abitbol |
| A novel method for the design and construction of a spectacle lens for the correction of human vision, including the correction of high order aberrations. The lens enables the provision of super-normal vision using spectacles. Different lenses are described for use at a partial or a fuller field of view. The method applies corrective measures based on data obtained from high order wave front measurements of the subject's eye. According to one method, the Modulation Transfer Function (MTF) of the overall eye and lens optical system is optimized. According to another method, the optimization is performed on the wavefront of the overall eye and lens optical system. Both methods use weighted functions in the optimization procedure. This method of high order aberration correction is also applicable for the design of contact lenses and intra-ocular lenses, and for the execution of refractive eye surgery. | ||||||
| 37 | Method of designing ophthalmic lens and ophthalmic lens produced by the method | US10021507 | 2001-10-30 | US20020071092A1 | 2002-06-13 | Asaki Suzaki; Atsushi Kobayashi |
| A method of designing an ophthalmic lens, comprising the steps of: determining specifications of a temporary lens such that the temporary lens gives an optical power required by a wearer of the ophthalmic lens; applying the temporary lens to a prescribed schematic eye, and effecting emmetropization of an optical system consisting of the temporary lens and the schematic eye; obtaining an optical characteristic of the optical system at a position of an optical axis of the temporary lens which is offset from an optical axis of the schematic eye by a predetermined offset amount; obtaining successively optical characteristics corresponding to different configurations of the temporary lens with the axes of the temporary lens and the schematic eye being offset from each other by the predetermined offset amount; selecting optimum one of the different configurations of the temporary lens which gives optimum one of the successively obtained optical characteristics; and determining specifications of an intended ophthalmic lens as a final product, based on the selected optimum configuration of the temporary lens. | ||||||
| 38 | Aspheric toric lens designs | US708362 | 1996-09-04 | US5796462A | 1998-08-18 | Jeffrey H. Roffman; Edgar V. Menezes |
| Aspheric toric lens designs are disclosed which reduce the number of cylindrical axis locations required for stock keeping units in inventory by aspherizing the toric surface thereof. The present invention pertains to ophthalmic lenses, and in particular to contact lenses such as soft hydrogel contact lenses, particularly designed to fit astigmatic patients who are either non-presbyopic or presbyopic. One of the front and back surfaces of the aspheric toric lens defines a spherical surface corresponding at least to the patient's basic distance prescription Rx. The other of the front and back surfaces defines an aspheric toric curve, wherein the toric surface is constructed with aspheric radii, such that the aspheric curve desensitizes axial misalignment of the toric curve by providing an enhanced depth-of-focus. When the aspheric toric surface is on the back surface of the lens, the spherical curve on the front surface of the lens can comprise a single spherical curve corresponding to the patient's basic distance prescription Rx. When the aspheric toric curve is on the front surface of the lens, the spherical curve on the back surface of the lens can comprise a multifocus concentric annular ring spherical surface design. | ||||||
| 39 | Multifocal ophthalmic lens | US707902 | 1991-05-30 | US5106180A | 1992-04-21 | Robert Marie; Grant Gabrielian |
| An ophthalmic lens has front and rear optical surfaces, a central optical axis substantially perpendicular to the lens and comprises a plurality of concentric, contiguous circular refractive bands provided on at least one of the front and rear optical surfaces. The bands have a continuous cross-section in the shape of a segment of an ellipse having a given major axis length and eccentricity. The bands are of alternating optical power to focus light on at least two focal planes to provide simultaneous multifocal vision. The major axis of each ellipse segment intersects the central optical axis and a respective one of the at least two focal planes. The bands are continuous at their boundaries between neighboring ones of the bands. The entire optical surface of the lens may be used with minimal distortion caused by the intersections of the continuous bands. | ||||||
| 40 | Contact lens | US326721 | 1989-03-21 | US5044742A | 1991-09-03 | Amir Cohen |
| A contact lens comprising a central, optically active zone and a peripheral, optically nonactive zone, the lens having an anterior surface and a posterior surface, the posterior surface being constituted by the collective surfaces of a plurality of pad-like projections forming together a first, at least partially optically active surface, being the surface making contact with the cornea, the pad-like projections being separated from each other by a system of substantially interconnected recesses leading to the edge of the lens, the collective bottom surfaces of which recesses constitute a second, at least partially optically active surface, the system of recesses serving as reservoir for an increased tear volume and as passageway for increased tear flow, wherein the lens is consituted by a system of first lens elements each defined by the anterior surface on the one hand and the surface of the pad-like projection on the other, and by a system of second lens elements each defined by the anterior surface on the one hand and the bottom surface of the recesses on the other. When the recesses are filled with tears, the first and second lens elements are at least approximately of equal refractive power. | ||||||
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