| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 121 | PRESBYOPIC TREATMENT SYSTEM | US15385992 | 2016-12-21 | US20170102556A1 | 2017-04-13 | Joseph Michael Lindacher; Shyamant Ramana Sastry |
| A method and system for treating Presbyopia and pre-Presbyopia are provided that do not compromise the wearer's intermediate or distance vision. The system is a lens and a lens series, wherein the power profiles of the lenses are tailored to provide an amount of positive ADD power in the near vision zone that is slightly less than that which is normally required for near vision accommodation, while also providing an amount of negative spherical aberration in the peripheral optical zone. The dynamic ocular factors of the wearer's eye work in conjunction with the positive ADD power provided by the central optical zone and with the effective ADD gained from the negative spherical aberration provided by the peripheral optical zone to induce a minimally discernible amount of blur that is tuned to maximize the wearer's depth of focus. | ||||||
| 122 | CONTACT LENSES FOR REFRACTIVE CORRECTION | US15209511 | 2016-07-13 | US20170038604A1 | 2017-02-09 | Eugene de Juan, JR.; Cary J. Reich; Yair Alster; Matt Clarke; Kuangmon Ashley Tuan; Brian Levy; Raymond Lum; Jose D. Alejandro |
| Ophthalmic lenses for correcting refractive error of an eye are disclosed. Ophthalmic lenses include a deformable inner portion and a deformable peripheral portion. When disposed over the optical region of an eye, the inner portion is configured so that engagement of the posterior surface against the eye deforms the posterior surface so that the posterior surface has a shape diverging form the refractive shape of the epithelium when viewing with the eye through the ophthalmic lens. The rigidity of the inner portion is greater than the rigidity of the peripheral portion and the ophthalmic lenses are configured to allow movement relative to the eye upon blinking of the eye and to be substantially centered on the optical region of the cornea following the blinking of the eye. Methods of correcting refractive errors of an eye such as astigmatism or spherical aberration using the ophthalmic lenses are also disclosed. | ||||||
| 123 | COMFORT-OPTIMIZED CONTACT LENS SYSTEM FOR NON-ROTATIONALLY SYMMETRIC EYE ABERRATION | US14737870 | 2015-06-12 | US20160363782A1 | 2016-12-15 | Philippe F. Jubin; James Michalski; Benjamin J. K. Straker; Pierre-Yves Gerligand; Giovanna O. Olivares-Petito |
| A system of contact lenses includes at least two contact lenses, each lens having a visual correction for a non-rotationally symmetric eye aberration. Each lens has a different level or degree of a stabilization that is characterized by a thickness differential between a thickness of a stabilization zone and a thickness of a non-stabilization zone. | ||||||
| 124 | DEVICES AND PROCESSES FOR FABRICATING MULTI-COMPONENT OPTICAL SYSTEMS | US14922423 | 2015-10-26 | US20160039158A1 | 2016-02-11 | William E. Meyers; Hermann H. Neidlinger |
| The present disclosure relates to devices and processes for fabricating a multi-component optical system. A device is an integral mold comprising an attachment portion and a cup portion having a cavity, and the mold further comprises a first optical component. The cavity of the mold contains additional optical components to form a multi-component optical system blank. Another device is a multi-component optical system blank. A process for fabricating a multi-component optical system blank comprises providing an integral mold comprising a first optical component, adding at least a second optical component, shaping the mold after addition of an optical component, and shaping the resultant blank into an optical system. A further device is a multi-component optical system produced in a process disclosed herein. | ||||||
| 125 | Devices and processes for fabricating multi-component optical systems | US13592503 | 2012-08-23 | US09180610B2 | 2015-11-10 | William E. Meyers; Hermann H. Neidlinger |
| The present disclosure relates to devices and processes for fabricating a multi-component optical system. A device is an integral mold comprising an attachment portion and a cup portion having a cavity, and the mold further comprises a first optical component. The cavity of the mold contains additional optical components to form a multi-component optical system blank. Another device is a multi-component optical system blank. A process for fabricating a multi-component optical system blank comprises providing an integral mold comprising a first optical component, adding at least a second optical component, shaping the mold after addition of an optical component, and shaping the resultant blank into an optical system. A further device is a multi-component optical system produced in a process disclosed herein. | ||||||
| 126 | Manufacturing method of progressive-power lens | US13902327 | 2013-05-24 | US09146405B2 | 2015-09-29 | Takatsugu Watanabe |
| Provided is a manufacturing method of a progressive refractive lens including a first surface being an object side surface; a second surface being an eyeball side surface; a far vision part for viewing a far vision; a near vision part for viewing a near vision; and a progressive part for viewing an intermediate vision provided between the far vision part and the near vision part, the method including: selecting a base curve according to a near vision power in the near vision part; selecting a semi-finish lens having the base curve; and forming a surface having a progressive refractive power by processing the semi-finish lens, wherein the near vision power is obtained by adding an addition power in the progressive refractive lens to a far vision power in the far vision part. | ||||||
| 127 | 3D PRESCRIPTION SPECTACLE LENS AND METHOD OF MANUFACTURE | US14362174 | 2012-12-06 | US20140333891A1 | 2014-11-13 | John Robert Boffey |
| 3D spectacles for prescription wearers include a dished lens blank to which is applied a dished 3D laminate blank of substantially the same shape. The composite is machined on edge and face to form a non-plan 3D spectacle lens. In order to prevent delamination during edge machining, the 3D laminate layer first may be breached in a direction perpendicular to the lens face. | ||||||
| 128 | Method For Providing An Optical System Of An Ophthalmic Spectacle Lens And Method For Manufacturing An Ophthalmic Spectacle Lens | US14359050 | 2012-11-16 | US20140320802A1 | 2014-10-30 | Fabien Muradore; Guillaume Broutin; Pauline Colas; Asma Lakoua |
| Method for providing an optical system (OS) of an ophthalmic spectacle lens according to wearer's prescription data and wearer's optical needs with the provision that a wearer's optical need is not related to prescription data, where said optical system (OS) is defined by at least a front and a back surfaces (S1, S2) and their relative position, comprising the steps of: a) providing a semi-finished lens blank (SB); b) providing contour data (CD); c) choosing at least one localized optical feature (LOFi) suitable for the wearer's needs; d) positioning the contour data (CD) wherein the semi-finished lens blank (SB) comprises: a first surface (SB1) having in each point a mean sphere value (SPHmean) and a cylinder value (CYL), a second unfinished surface, the first surface (SB1) comprising: a plurality of primary areas (Ai); border areas (Bi); and a secondary area. | ||||||
| 129 | Method for assessing an optical feature of an ophthalmic lens design | US13318339 | 2010-04-22 | US08870375B2 | 2014-10-28 | Cécile Petignaud; Benjamin Rousseau; Mathieu Guillot; Pauline Colas; Jean Sahler; Valérie Parmentier; Gilles Garcin; Cécile Pietri |
| A method for calculating or optimizing an ophthalmic lens design comprising the steps of providing a given ophthalmic lens design and assessing the given design by a computer comprising a media suitable for storing electronic instructions. | ||||||
| 130 | Method and computer means for choosing spectacle lenses adapted to a frame | US12811070 | 2008-12-23 | US08762174B2 | 2014-06-24 | Saurphéa Suy; Sébastien Chailley; Luc Martin; Frédéric Dubois |
| A method and a computer system and its components for providing spectacles adapted to a future wearer. The method comprises the steps of: inputting in a computer system a first set of data (F1) related to the wearer, comprising at least a prescription of the wearer, inputting in the computer system a second set of data (F2) related to a spectacle frame chosen by the wearer. The computer system is provided with processing means for outputting, on the basis of the first and second sets of data, at least one set of data (S1, S2, . . . , SN) characterizing a pair of ophthalmic lenses adapted to the wearer and the chosen frame. | ||||||
| 131 | MANUFACTURING METHOD OF PROGRESSIVE-POWER LENS | US13902327 | 2013-05-24 | US20130335700A1 | 2013-12-19 | Takatsugu WATANABE |
| Provided is a manufacturing method of a progressive refractive lens including a first surface being an object side surface; a second surface being an eyeball side surface; a far vision part for viewing a far vision; a near vision part for viewing a near vision; and a progressive part for viewing an intermediate vision provided between the far vision part and the near vision part, the method including: selecting a base curve according to a near vision power in the near vision part; selecting a semi-finish lens having the base curve; and forming a surface having a progressive refractive power by processing the semi-finish lens, wherein the near vision power is obtained by adding an addition power in the progressive refractive lens to a far vision power in the far vision part. | ||||||
| 132 | Method of Manufacturing an Optical System | US13847841 | 2013-03-20 | US20130218533A1 | 2013-08-22 | Pascal Allione; Gilles Le Saux; Jean-Pierre Chauveau; Denis Mazuet |
| A method of calculating an optical system (OS), the optical system (OS) being identified by a function (OF), the optical system (OS) having a first part (F1) defined by a first equation (EF1) and a second part (F2) defined by a second equation (EF2), the method performed by: a generating step (GEN), in which a virtual optical system (VOS) is used to generate a virtual function (VOF); a modification step (MOD), in which the virtual function (VOF) is modified so as obtain the function (OF); a calculation step (CAL), in which the second equation (EF2) is calculated from the function (OF), and the first equation (EF1). A method of manufacturing an optical system (OS) is also disclosed. | ||||||
| 133 | Method of manufacturing an optical system | US11997359 | 2006-08-01 | US08447573B2 | 2013-05-21 | Pascal Allione; Gilles Le Saux; Jean-Pierre Chauveau; Denis Mazuet |
| The invention relates to a method of calculating an optical system (OS), the optical system (OS) being identified by a function (OF), the optical system (OS) comprising a first part (F1) defined by a first equation (EF1) and a second part (F2) defined by a second equation (EF2), the method comprising: —a generating step (GEN), in which a virtual optical system (VOS) is used to generate a virtual function (VOF); —a modification step (MOD), in which the virtual function (VOF) is modified so as obtain the function (OF); —a calculation step (CAL), in which the second equation (EF2) is calculated from the function (OF), and the first equation (EF1). The invention relates also to a method of manufacturing an optical system (OS). | ||||||
| 134 | Progressive power lens manufacturing method and progressive power lens | US12733883 | 2008-10-10 | US08002405B2 | 2011-08-23 | Eichin Wolfgang; Akira Kitani |
| A method provides for manufacturing progressive-power lenses in a manner in which an inventory burden of semis can be reduced. A progressive-power lens is designed by arranging a progressive-power surface on a convex surface and combining the convex surface with a concave surface so as to meet prescription values of a spectacles wearer. The method for manufacturing progressive-power lenses includes previously preparing the concave surface side as a concave surface semi group based on a predetermined classification table, selecting a most suitable semi-finished lens according to an order, designing a progressive-power surface on the convex surface side by adding the difference between cylindrical component of a most suitable concave surface semi selected based on an order and cylindrical component of the prescription values to the concave surface side so as to meet the prescription values, and finishing the lens by performing free-form processing. | ||||||
| 135 | Method and Computer Means for Choosing Spectacle Lenses Adapted to a Frame | US12811070 | 2008-12-23 | US20100293192A1 | 2010-11-18 | Saurphéa Suy; Sébastien Chailley |
| A method and a computer system and its components for providing spectacles adapted to a future wearer. The method comprises the steps of: inputting in a computer system a first set of data (F1) related to the wearer, comprising at least a prescription of the wearer, inputting in the computer system a second set of data (F2) related to a spectacle frame chosen by the wearer. The computer system is provided with processing means for outputting, on the basis of the first and second sets of data, at least one set of data (S1, S2, . . . , SN) characterizing a pair of ophthalmic lenses adapted to the wearer and the chosen frame. | ||||||
| 136 | Method for Selecting Base-Curves for an Ophthalmic Lens and Related Spectacle Lens Manufacturing Method | US12811086 | 2008-12-23 | US20100283966A1 | 2010-11-11 | Pauline Colas; Cecile Pietri |
| A method for selecting base-curves for an ophthalmic lens according to given prescription data comprising the steps of: providing a base-curve series consisting of a plurality of base-curves; calculating a target lens according to the prescription data; calculating the base-curves calculated lenses according to the prescription data; selecting, for at least an optical parameter and/or a geometrical parameter, a threshold value for the difference between the base-curves calculated lenses values and the target lens value of said parameter(s); determining the list of the base-curves of the base-curve series where said difference for said parameter(s) is less or equal to the selected threshold value(s). | ||||||
| 137 | PROGRESSIVE POWER LENS MANUFACTURING METHOD AND PROGRESSIVE POWER LENS | US12733883 | 2008-10-10 | US20100245753A1 | 2010-09-30 | Eichin Wolfgang; Akira Kitani |
| The present invention is made to provide a method for manufacturing progressive-power lenses in a manner in which inventory burden of semis can be reduced.The progressive-power lens is designed by arranging a progressive-power surface on a convex surface and combining the convex surface with a concave surface so as to meet prescription values of a spectacles wearer. The method for manufacturing progressive-power lenses includes the steps of: previously preparing the concave surface side as a concave surface semi group based on a predetermined classification table, selecting a most suitable semi-finished lens according to an order, designing a progressive-power surface on the convex surface side by adding the difference between cylindrical component of a most suitable concave surface semi selected based on an order and cylindrical component of the prescription values to the convex surface side so as to meet the prescription values, and finishing the lens by performing free-form processing. | ||||||
| 138 | CORRECTION OF PERIPHERAL DEFOCUS OF AN EYE AND CONTROL OF REFRACTIVE ERROR DEVELOPMENT | US12639101 | 2009-12-16 | US20100157240A1 | 2010-06-24 | GREGOR F. SCHMID; RICK EDWARD PAYOR; ALDO A. MARTINEZ |
| An ophthalmic lens series for reducing the progression of myopia through adequately correcting the peripheral retina, the series comprising more than one ophthalmic lens forming a series. Each ophthalmic lens of the series has a central power level common to the series. Each of the ophthalmic lenses of the series has one differential (peripheral minus central) power level selected from a variety of differential power levels. Providing a variety of differential power levels reduces the risk of over or under-correcting the peripheral retina of a particular eye. | ||||||
| 139 | Method for designing group of bi-aspherical type progressive-power lenses, and group of bi-aspherical type progressive-power lenses | US11922778 | 2006-06-22 | US07731357B2 | 2010-06-08 | Akira Kitani; Takashi Hatanaka; Yoshihiro Kikuchi |
| There is provided a group of bi-aspherical type progressive-power lenses for which the processing costs are reduced. In a bi-aspherical type progressive-power lens(es), the relationships DHf+DHn | ||||||
| 140 | CONTACT LENS AND METHOD OF MANUFACTURING THE SAME | US12312281 | 2006-11-20 | US20100060849A1 | 2010-03-11 | Shingo Hibino |
| A novel method for manufacturing a contact lens in which wearing comfort and stability in the circumferential direction that are aimed at can be achieved consistently with a high degree of accuracy irrespective of a profile of an optical zone. An optical zone provided in a center of a lens has a concave rear surface optical zone substantially matching a surface profile of a cornea and has a convex front surface optical zone imparting required spherical diopter power and geometrical center thickness, and a face of either the rear surface optical zone or the front surface optical zone is designed to impart thereto cylindrical power and axial angle required for a toric surface. Furthermore, a junction thickness is established in a joint zone that connects the optical zone with a peripheral zone at multiple sites in a circumferential direction about a geometrical lens center axis of the optical zone. Position of the joint zone is determined on the circumference from profiles established on the rear surface optical zone and the front surface optical zone so as to connect points satisfying the junction thickness thusly established. | ||||||
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