CN215678945U

CN215678945U - Double-mirror double-positive value individualized out-of-focus spectacle lens

Info

Publication number: CN215678945U
Application number: CN202121294329.5U
Authority: CN
Inventors: 段亚东
Original assignee: Individual
Current assignee: Individual
Priority date: 2021-06-06
Filing date: 2021-06-06
Publication date: 2022-01-28
Anticipated expiration: 2031-06-06

Abstract

Two positive value individuation out of focus lenses of double mirror face belongs to glasses technical field. The central areas of the front and the rear lens surfaces of the spectacle lens are compounded into a central correction area, the peripheral area of the front lens surface is a base quantity positive addition value formed by a plurality of independent micro lenses, the refractive power of the peripheral area of the rear lens surface is a central correction area concave lens refractive power compound difference positive addition value, and the compound of the two quantity positive addition values of the peripheral area of the front and the rear lens surfaces is a total positive addition value of an individualized peripheral treatment area from +1.00D to + 7.00D. The front and rear mirror surface peripheral regions are provided with a full-ring-shaped equivalent positive addition value, or the nose side peripheral region is larger than the temporal side peripheral region, 5 positive addition value gradient sections and 5 total positive addition value secondary stages are arranged. The central area, the peripheral area and the gradual change area of the front and the rear mirror surfaces of the spectacle lens are refractive lenses, the peripheral areas of the front and the rear mirror surfaces are correspondingly provided with a full-ring-shaped nose side peripheral area and a perfect-circle-shaped temporal side peripheral area, and 50% of the total positive value is respectively arranged on the peripheral areas of the front and the rear mirror surfaces, and the nose side peripheral area is larger than the positive value of the temporal side peripheral area.

Description

Double-mirror double-positive value individualized out-of-focus spectacle lens

Technical Field

The utility model belongs to the technical field of glasses, and particularly provides a double-lens double-positive-value individualized out-of-focus spectacle lens which is wide in positive-value added value area, high in positive-value added value degree and simple in forming process.

Background

Medical science today admits: the growth of the myopia eyes of children and teenagers depends on the regulation of peripheral retinal defocus, the peripheral retinal hyperopic defocus promotes the growth of the eyes, the peripheral retinal hyperopic defocus is corrected, and the growth of the myopia eyes can be controlled.

Vision CRV limited, patent name: lenses for myopia correction, chinese patent No.: 2006800441239 which discloses a central zone of a perfectly circular refractive peripheral out-of-focus spectacle lens.

Carl zeiss vision australia holdings ltd, patent name: ophthalmic lens element, chinese patent No.: 2008801159183 which discloses an elliptically refracting peripheral out-of-focus spectacle lens in the central area and is sold under the name zeiss changle

The refraction type peripheral out-of-focus spectacle lens is turned by a numerical control lathe, and has high precision and refractive power reaching 0.01 degree. The refractive type spectacle lens is necessary to be provided with a gradual change area, the refractive power between the central area and the treatment area gradually tends to smooth transition, and larger astigmatism is generated when the refractive power is more than the plus value of + 2.00D.

Haoya lens Thailand Limited creates peripheral out of focus lens of microlens, patent name: spectacle lens, chinese patent No.: 2013106281748, entitled product name of the patent

Patent names of Zhaoweita: peripheral microlens-based vision control lenses and glasses, patent No.: 2018109459444.

patent name of the chinese arborvitae center for vision research: devices, systems and/or methods for myopia control, chinese patent application No.: 2017800806128 which discloses that the peripheral treatment zone is comprised of a plurality of individual circular microlenses.

International corporation filed for 7 patent on microlens out-of-focus spectacle lens, wherein: the patent name: lens element, chinese patent application No.: 2019800045713, respectively; the patent name: lens element, chinese patent application No.: 2019800091213, respectively; the patent name: lens element, chinese patent application No.: 2019800045681, respectively; the patent name: lens element, chinese patent application No.: 2019800045728, respectively; the patent name: lens element, chinese patent application No.: 2019800051767, respectively; the patent name: lens element, chinese patent application No.: 2019800091213, respectively; the patent name: a lens original; inNational patent application number: 201980028368X. According to the way to disclose the name of a patent commodity as

The related microlens out-of-focus spectacle lens patent of shanghai viastar optical application 8, wherein the patent name: a manufacturing method of a new excellent multifocal polyurethane lens is disclosed, wherein the manufacturing method comprises the following steps: 2019107101792, respectively; the patent name: a manufacturing method of a new excellent PRO multi-focus polyurethane lens, Chinese patent No: 2019107101557, respectively; the patent name: a manufacturing method of GovernMyo polyurethane lenses, which has the following Chinese patent numbers: 2019107092793, respectively; the patent name: a manufacturing method of a double-sided composite new-optimization polyurethane lens, which is disclosed in Chinese patent numbers: 2019107102189, respectively; the patent name: a composite defocusing multifocal polyurethane lens is disclosed in the Chinese patent number: 2019212370027, respectively; the patent name: a double-sided composite lens, which is disclosed in Chinese patent No.: 2019212394727, respectively; the patent name: a reinforced multifocal polyurethane lens, chinese patent No.: 2019212396737, respectively; the patent name: a multifocal lens, chinese patent No.: 2019212397161, the above patent discloses microlenses of 0.01mm to 2.0mm in diameter and 0.005 μm to 5 μm in height. Shanghai Weixing optical patent is sold under the name of Shanghai Weixing optical patent

Patent name of Wenzhou medical university: a flexible refractive film patch with microstructures, chinese patent No.: 201910030136X; another patent name: an eyeglass with a girdle and a cylindrical microstructure on the surface, wherein the surfaces of the eyeglass are provided with the girdle and the cylindrical microstructure as shown in the Chinese patent No.: 2020100006662, both of which disclose that the peripheral treatment zone of one side of the spectacle lens is an adhesive surface and the other side of the spectacle lens is composed of a plurality of independent ring-belt cylindrical microlenses.

Patent name of the moon lens: a lens for slowing down myopia progression and a preparation method thereof are disclosed in the Chinese patent application No.: 2020106790150, patent name: a lens for slowing down myopia progression, Chinese patent No.: 2020213870085 which discloses an optical plastic film microlens ophthalmic lens.

The patent name of Shenzhen Shenhua bioelectronics technology company: a functional clip, chinese patent No.: 2020214789080 which discloses the eyeglass clip with peripheral functions of a miniature lens.

The peripheral out-of-focus spectacle lens of the micro lens has larger convex lens refractive power, but the micro lens cannot realize individual difference customization, particularly the accuracy is 0.01 degree.

The addition value of the existing refraction type and micro-lens type peripheral out-of-focus spectacle lenses is formed on a mirror surface.

Smith, in its latest research papers, critically points out that it originally designed the treatment zone in the 360 ° peripheral region of the lens, has design defects, and proposes that peripheral hyperopic defocus inducing eyeball growth is a Local, regioselective mechanism, regional mechanism. Temporal retinal dominant eyeball growth, asymmetry in nasal-temporal peripheral defocus, failure of annular correction to eliminate peripheral refractive error, and generation of a new peripheral refractive error, hyperopic anisometripidi, see literature: smith EL: optom Vis Sci, 2013, 90: 1176-1186; smith EL: invest Ophthalmol Vis Sci, 2010, 51: 3864-3873; smith EL: invest opthalmol, Vis Sci, 2009, Nov; 50(11): 5057-5069. Smith, in WO2012/012826a1, WO2013/134825a1, describes a 40 ° temporal greater than nasal peripheral refraction +0.83D for-2.27D ± 0.83D, 1155 cases of myopic eye retinal peripheral refraction test.

The applicant finds that for 1809 cases of myopia peripheral refraction detection: the higher the myopic degree is, the higher the hyperopic defocus of the retina periphery at the temporal side is 40 degrees, the higher the hyperopic refractive power difference value of the retina periphery at the nasal temporal side is, and the individual maximum refractive power difference value is larger than + 1.25D.

No matter the refractive or micro-lens type peripheral out-of-focus spectacle lenses, the peripheral treatment area uses the equal positive value, and the hyperopic refractive error around the nasal temporal retina cannot be corrected, so that the correction of the hyperopic refractive error around the nasal temporal retina has more scientific significance for preventing and controlling the myopia.

The peripheral out-of-focus spectacle lens is to be developed into a new surface type innovative design, and the peripheral out-of-focus spectacle lens for myopia is still one of the technical problems in the field of spectacles.

SUMMERY OF THE UTILITY MODEL

The utility model aims to provide a double-lens double-positive value individualized out-of-focus spectacle lens.

The purpose of the utility model is realized by the following technical scheme:

the individualized out-of-focus spectacle lens with double mirror surfaces and double positive values is a frame spectacle lens and is hereinafter referred to as the spectacle lens. The central area of the front lens surface of the spectacle lens is a plain lens, the central area of the rear lens surface of the spectacle lens is a 0.00D to-10.00D refractive lens, and the central areas of the front and rear lens surfaces are compounded into a central correction area. The refractive power of the front mirror surface peripheral area is a positive addition value of a +0.50D to +4.00D basic quantity formed by a plurality of independent micro lenses, the refractive power of the rear mirror surface peripheral area is a refractive lens with a positive addition value of a +0.50D to +3.00D difference of the refractive power of a concave lens in a central correction area, and the composite positive addition value of the front and rear mirror surface peripheral areas is a total positive addition value of a +1.00D to +7.00D individualized peripheral treatment area. The individualized refractive power gradient difference of the difference positive addition value or the total positive addition value is +/-0.05D to +/-0.25D, the front and rear mirror surface peripheral regions are provided with full annular equivalent positive addition values, or the nose side peripheral region > the temporal side peripheral region positive addition value, and at least 5 positive addition value gradient sections and 5 total positive addition values are arranged, wherein:

the base quantity positive addition value and the difference quantity positive addition value are the total positive addition value of the individualized peripheral treatment area;

the sum of the basal amounts is 95% to 5% of the total sum of the individualized peripheral treatment areas;

the positive addition value of the difference is 5 to 95 percent of the total positive addition value of the individualized peripheral treatment area;

the refractive power of the peripheral area of the front mirror surface is equal to the base quantity plus value;

the refractive power of the peripheral area of the rear mirror surface is equal to the sum of the refractive power of the central correction area concave lens and the difference value plus value;

the nasal side peripheral area is larger than the positive addition value of the temporal side peripheral area by +0.50D to + 2.00D.

The central area of the front and back mirror surfaces of the spectacle lens is in a perfect circle shape, an ellipse shape or a vertical radial line windowing type, the length of the horizontal radial line along the optical center is 7mm to 14mm, the diameter of the vertical radial line is equal to the diameter of the spectacle lens, the refractive power of the concave lens in the central correction area is customized according to the subjective refraction number, the lower side area of the windowing type central area is set to be a triple prism lens with a composite substrate facing to the nose side and a prism number of 0.5 delta to 6.0 delta, or the substrate faces to the lower side and the prism number of 0.25 delta to 1.50 delta.

The full ring shape arranged on the peripheral area of the front mirror surface means that the micro lens array is arranged in the circumferential azimuth angle of 360 degrees in the peripheral area, the semi-ring shape arranged on the peripheral area of the front mirror surface means that the micro lens array respectively occupies 180 degrees of circumferential azimuth angles in the peripheral area of the nose side and the peripheral area of the temporal side, the fan-shaped ring shape arranged on the peripheral area of the front mirror surface means that the micro lens array respectively occupies the circumferential azimuth angles of 180 degrees in the peripheral area of the nose side and the peripheral area of the temporal side, the inner arc is less than 180 degrees of circumferential azimuth angles, and the outer arc is less than or equal to 180 degrees of circumferential azimuth angles. Or the micro-lens array is arranged on the nose side peripheral area and the temporal side peripheral area of the front mirror surface and is in a shape of a perfect circle, a vertical ellipse, a transverse ellipse or an arc top, or the array forms an irregular shape. The peripheral area of the rear mirror surface is a full-ring-shaped or perfect-circle, vertical-ellipse, transverse-ellipse nose-side peripheral area and temporal-side peripheral area, a gradual change area of 2mm to 4mm is arranged between the central area and the peripheral area, or the full-ring-shaped or perfect-circle nose-side peripheral area and temporal-side peripheral area of the front mirror surface are formed by microlenses to form the gradual change area and surround the convex lens refraction lens.

The front mirror surface peripheral area is set to be 4 quadrant areas of an upper side quadrant area, a lower side quadrant area, a nose side quadrant area and a temporal side quadrant area, each quadrant area occupies 90-degree circumferential azimuth angles, the 4 quadrant areas are respectively microlens arrays, or the nose side quadrant area and the temporal side quadrant area are microlenses, the upper side quadrant area and the lower side quadrant area are refractive lenses, the nose side quadrant area is larger than the positive value of the temporal side quadrant area, and the lower side quadrant area is larger than the positive value of the upper side quadrant area.

The peripheral area of the front mirror surface is composed of a plurality of independent micro-lens arrays, the micro-lenses are in any shape of cylinders, squares, pentagons, hexagons and rectangles, the diameters or radial lines of the micro-lenses are in millimeter level, micron level and nanometer level, the diameters are 2.0mm to 5nm, and the heights are 16 mu m to 0.1 nm. At least five positive addition value gradient sections are arranged on the peripheral area of the front and the rear mirror surfaces, the total positive addition value is 20% in an area from 10mm to 11.9mm away from the optical center from the edge of the central area, 40% in an area from 12mm to 13.9mm away from the center of the central area, 60% in an area from 14mm to 15.9mm away from the central area, 80% in an area from 16mm to 17.9mm away from the center of the central area, 100% in an area from 18mm to 30mm away from the center of the central area, and a concave lens sheet or a plano lens sheet with the same refractive power as that of the central correction area is arranged from 30mm away from the center of the central area to the edge of the spectacle lens.

The diameter of the micro lens is 1.0mm to 20 μm, the height is 10 μm to 10nm, 8 to 120 ring zones are arranged between the edge of the central zone and the optical center and are densely distributed with 300 to 8000 independent micro lenses, and the total positive addition value is arranged between the peripheral zone of the front mirror surface and the peripheral zone of the rear mirror surface and at least 20mm to 28mm from the optical center. The positive addition value of the front mirror surface base amount is 50 to 70 percent of the total positive addition value of the individualized peripheral treatment area, the positive addition value is from +1.00D to +4.00D, the positive addition value of the rear mirror surface difference amount is 40 to 20 percent of the total positive addition value of the individualized peripheral treatment area, the positive addition value is from +0.50D to +2.00D, and the total positive addition value of the treatment area is from +1.00D to + 6.00D.

And adding positive addition values of +0.50D to +2.50D to the nasal side and the temporal side respectively according to the individual lens dispenser for detecting the hyperopic defocus base and the nasal side and temporal side 40-degree retina peripheral refraction. Or adding a positive value according to the factors of the individual glasses-matched person for inducing myopia: the parent parents are more than or equal to 6.00D high myopia, the age of myopia occurrence is earlier than 6 years old, the myopia degree is increased by more than-0.75D, the length of the eye axis or the retina peripheral diopter is increased by years, the daily near distance eye use time is more than or equal to 8 hours, the positive value of the added individual difference is from +0.50D to +2.50D according to the addition of +0.10D to +0.50D of each induction factor. According to the myopia degree difference, the total positive value of the peripheral zone of the front and rear mirror surfaces at least sets 5 total positive values, and the total positive value is secondary: +1.00D, +2.00D, +3.00D, +4.00D, +5.00D, or the setting: +1.50D, +2.50D, +3.50D, +4.50D, + 5.50D. Or the individual refractive power gradient difference of the nose side peripheral area which is larger than the total positive addition value of the temporal side peripheral area +0.50D to +1.50D, the difference positive addition value or the total positive addition value is +/-0.05D to +/-0.15D, the near out-of-focus spectacle lens is larger than the positive addition value of the far out-of-focus spectacle lens +0.50D to +2.00D, or the total positive addition value +1.00D to +5.00D additional spectacle lens is arranged, and the additional spectacle frame is clamped on a common spectacle frame when the eyes are used at a near distance.

The diameter of the micro lens is 700 mu m to 100 mu m, the height of the micro lens is 10 mu m to 1 mu m, the micro lens is arranged on the front mirror surface, the rear mirror surface or embedded in the spectacle lens substrate and consists of one layer, two layers, three layers or four layers, and the thickness of the composite layer or the coating layer is more than or equal to the height of the micro lens. The front mirror surface adopts a spectacle lens numerical control garage or a compression molding diopter profile, and the rear mirror surface adopts a spectacle lens numerical control garage molding diopter profile.

The front and rear mirror surfaces of the spectacle lens are refractive lenses, the front and rear mirror surfaces respectively comprise a central area and a peripheral area, a gradual change area is arranged between the central area and the peripheral area, the peripheral areas of the front and rear mirror surfaces are correspondingly provided with a full ring shape, or the peripheral areas of the front and rear mirror surfaces are correspondingly provided with a perfect circular nose side peripheral area and a perfect circular temporal side peripheral area, or the peripheral area of one side mirror surface is provided with a full ring shape, and the peripheral area of the other side mirror surface is provided with a perfect circular nose side peripheral area and a perfect circular temporal side peripheral area. The central zones of the front and the rear mirror surfaces are compounded into a central correction zone with the refractive power of 0.00D to-10.00D, or the refractive power of the central correction zone is uniformly divided into the central zones of the front and the rear mirror surfaces according to 50 percent, and the peripheral zones of the front and the rear mirror surfaces are compounded into a total positive value of +1.00D to + 6.00D. 50% and +0.50D to +3.00D of the total positive addition value are respectively arranged on the peripheral area of the front and the rear mirror surfaces and the peripheral area of the nose side is larger than the positive addition value on the peripheral area of the temporal side, the refractive power of the peripheral area of the front mirror surface is 50% of the total positive addition value, the refractive power of the peripheral area of the rear mirror surface is 50% of the total positive addition value compounded by the refractive power of the concave lens in the central correction area, the total positive addition value is arranged at the position 18mm to 30mm away from the optical center, and the front and the rear mirror surface refractive surface types are formed by adopting a numerical control garage.

The peripheral area of the front mirror surface is set to be semi-annular, fan-shaped or the peripheral areas of the nose side and the temporal side are set to be circular, vertical oval, horizontal oval and arc top. The peripheral area of the rear mirror surface is set to be in a full ring shape, or is set to be in a perfect circle shape, a vertical ellipse shape, a transverse ellipse shape, a nose side peripheral area and a temporal side peripheral area, or the full ring shape or the perfect circle shape of the front mirror surface, the nose side peripheral area and the temporal side peripheral area are formed by micro lenses to form a gradual change area and surround a convex lens refraction lens, the front mirror surface adopts a compression molding diopter type, and the rear mirror surface adopts a numerical control garage molding diopter type.

Compared with the prior art, the utility model has the beneficial effects that:

1. the refractive power of the prior refractive peripheral out-of-focus spectacle lens is formed by adopting a numerical control garage, the refractive power can be accurate to 0.01D, but the transition of a central correction area and a peripheral treatment area needs to be smoothed by an progressive area, and the positive addition value is more than +2.00D, so that severe astigmatism is generated. The micro-lens type peripheral out-of-focus spectacle lens can be set to be a positive value from +3.00D to +4.50D, but cannot realize individualized differential refractive power setting.

2. The prior peripheral out-of-focus spectacle lens is either a refraction type or a micro-lens type, the positive value of the prior peripheral out-of-focus spectacle lens is arranged on a mirror surface at one side, and the mirror surface at the other side is a concave lens.

3. The front mirror surface micro lens is a base quantity positive addition value, a large number of positive addition values are ensured, the rear mirror surface refraction lens is a difference quantity positive addition value, individual differential positive addition value customization is ensured, and the surface type micro lens can be randomly selected and customized in the range of positive addition values from +1.00D to +6.00D and the gradient difference of positive addition values +/-0.01D.

4. The other surface type of the utility model is a refractive spectacle lens, the front and the rear mirror surfaces respectively comprise a central area and a peripheral area, 50 percent and +0.50D to +3.00D of the total positive value are respectively arranged in the peripheral areas of the front and the rear mirror surfaces, the peripheral area of the nose side is larger than the positive value of the peripheral area of the temporal side, and the composite of the peripheral areas of the front and the rear mirror surfaces is the total positive value +1.00D to + 6.00D.

Drawings

FIG. 1 is a front view of a circular nose-temporal side peripheral area with front and rear mirror surfaces of a micro-lens and a refractor, respectively;

FIG. 2 is a front view of a front mirror microlens in a right circular shape in a peripheral area on the nasal temporal side;

FIG. 3 is a front view of a right circular nasotemporal side peripheral area of a rear specular refractor;

FIG. 4 is a front view of a front and a rear mirror surface respectively being a positive circular rhinotemporal side peripheral area of a refractor;

FIG. 5 is a front view of a full annular peripheral zone;

FIG. 6 is a front view of a semi-annular peripheral zone of the front mirror;

FIG. 7 is a front view of a fan annular peripheral zone of the front mirror;

FIG. 8 is a front view of a vertically elliptical peripheral zone;

FIG. 9 is a front view of a transverse elliptical peripheral zone;

FIG. 10 is a front view of an arc-topped peripheral region of the front mirror;

FIG. 11 is a front view of the front mirror 4 quadrants.

In the figure: 1 a central region; 2, a peripheral area; 3 a gradual change region; 4 a central correction zone; 5a peripheral treatment zone; 6 base quantity positive value; 7 difference positive addition values; 8 total positive addition values; 9 central correction zone concave lens power; 10 front mirror periphery zone refractive power; 11 the refractive power of the peripheral area of the rear mirror surface; 12 micro lenses; 13 a front mirror surface; 14 rear mirror surface; 15 a refractive lens; 16 triangular prism lenses; 17 is in a full ring shape; 18 semi-annular; 19 fan ring shape; 20, a perfect circle; 21 the nasotemporal demarcation line; 22 vertical oval; 23 in a transverse oval shape; 24 arc-top shape.

Symbol abbreviations: HM: (Horizontal Meridian) Horizontal radial lines; VM: (Vertical mean) Vertical diameter line; ns (nasal side) nasal; ts (temporal side) temporal side; SS (superior side) upper side; LS (lower side).

Detailed Description

The utility model provides a double-lens double-positive value individualized out-of-focus spectacle lens through the following specific implementation modes:

the term meaning in the specification of the utility model:

refractive eye lenses (reflective glasses): refraction refers to a spherical or aspherical spectacle lens in which light passes through a lens and then converges to a focal point, and is the most common spectacle lens type. The refraction type spectacle lens is molded by compression molding or turning molding in a vehicle room, and the coaxial spectacle lens is preferably turned and molded in a vehicle room in a full-ring shape, a perfect circle shape, a vertical ellipse shape and a transverse ellipse shape.

Microlens-type spectacle lenses (Microlens eyeglasses): the microlens type peripheral out-of-focus spectacle lens is a cylindrical micro convex lens, also called Fresnel lens, and is generally molded.

The present invention will be described in further detail with reference to the following drawings and detailed description:

a double-mirrored double-positive value individualized out-of-focus spectacle lens, hereinafter referred to as such spectacle lens.

FIG. 1 shows schematically: the central correction area 4 is formed in the central area of the front mirror surface and the rear mirror surface, the peripheral treatment area 5 is formed in the peripheral area of the front mirror surface and the rear mirror surface, the sum of the base amount of the peripheral area of the front mirror surface and the sum of the difference of the peripheral area of the rear mirror surface is 6, the sum of the base amount of the peripheral area of the front mirror surface and the sum of the base amount of the differential area of the peripheral area of the rear mirror surface is 8, the peripheral area of the nose-temporal side of the front mirror surface and the rear mirror surface is set to be a perfect circle 20, the peripheral area of the front mirror surface is a micro lens 12, the front mirror surface is formed by compression molding, the rear mirror surface is formed by turning, and the front view of the peripheral area of the nose-temporal side of the perfect circle of the micro lens and the refractor is formed, as shown in figure 1.

FIG. 2 schematically shows: the front mirror 13 is arranged into a central area 1 and a peripheral area 2, the area of the peripheral area 2 is composed of an array of micro lenses 12, the refractive power 10 of the peripheral area of the front mirror is the sum value 6 of the base quantity of the micro lenses 12, and the front mirror is formed by compression molding to form a front view of the front circular nose-temporal side peripheral area of the micro lenses of the front mirror, as shown in fig. 2.

FIG. 3 schematically shows: the rear mirror surface 14 is provided with a central area 1 and a peripheral area 2 of the refractor 15, the peripheral areas of a nose NS and a temporal TS of the rear mirror surface are respectively provided with a perfect circle 20, the perfect circle is provided with a gradual change area 3, the refractive power 11 of the peripheral area of the rear mirror surface is a composite difference positive addition value 7 of the refractive power 9 of a concave lens of the central correction area, the rear mirror surface is formed by turning in a lathe, and a front view of the peripheral area of the nose temporal side of the perfect circle of the rear mirror refractor is formed, as shown in figure 3.

FIG. 4 is a schematic representation of: the peripheral areas of the nose side NS and the temporal side TS of the front and the rear mirror surfaces correspond to a perfect circle 20 respectively, the peripheral area of the perfect circle is provided with a gradual change area 3, the refractive powers of the central areas of the front and the rear mirror surfaces are compounded into a central correction area 4, the refractive powers of the central areas of the front and the rear mirror surfaces are compounded into a central correction area concave lens refractive power 9, the refractive powers of the peripheral areas of the front and the rear mirror surfaces are compounded into a peripheral treatment area 5, and the total positive addition value is 8, the front mirror surface and the rear mirror surface are formed by turning in a garage, so that a front view of the peripheral area of the nose temporal side of the perfect circle of the front and the rear mirror surfaces respectively formed by refractors is shown in a figure 4.

FIG. 5 is a schematic representation of: the front and back mirror surface sets up to central zone 1 and peripheral zone 2, peripheral zone 2 is full annular 17, full annular lens can set up to preceding mirror surface microlens type according to the face type, the back mirror surface is the refraction lens, perhaps preceding mirror surface and back mirror surface all set up to the refraction lens, the face type in peripheral zone 2 is still full annular 17, the full annular of preceding mirror surface peripheral zone microlens adopts compression molding, the full annular of back mirror surface peripheral zone refraction type adopts car room turning molding, preceding mirror surface and back mirror surface are full annular refraction lens, adopt car room turning molding, form full annular peripheral zone front view, like figure 5.

FIG. 6 schematically shows: the front mirror 13 is arranged along the vertical radial line of the central area 1, the nasal-temporal boundary 21, the peripheral area 2 is arranged as the nasal side NS and the temporal side TS to form a semi-ring 18, and the semi-ring peripheral area is formed by compression molding to form a front view of the semi-ring peripheral area of the front mirror, as shown in fig. 6.

FIG. 7 is a schematic representation of: the front mirror surface 13 is arranged along the vertical diameter line of the central area 1, the peripheral area 2 is arranged into a nose side NS and a temporal side TS fan-shaped ring 19, the window-opening central area 1 is provided with a base facing a nose side triangular prism 16, the fan-shaped ring peripheral area is formed by compression molding, and the triangular prism can be arranged in any lower side area of the central area to form a front view of the fan-shaped ring peripheral area of the front mirror surface, as shown in fig. 7.

FIG. 8 is a schematic view of: the front and rear lens surfaces of the spectacle lens are arranged into a central area 1 and a peripheral area 2, the peripheral areas are respectively positioned on a nose side NS and a temporal side TS and are arranged into a vertical ellipse 22, the vertical ellipse peripheral area of the front lens surface is formed by compression molding or vehicle room forming, or the vertical ellipse peripheral areas of the front and rear lens surfaces are formed by vehicle room forming, and a front view of the vertical ellipse peripheral area is formed, as shown in fig. 8.

FIG. 9 is a schematic view of: the front and rear lens surfaces of the spectacle lens are arranged into a central area 1 and a peripheral area 2, the peripheral areas are respectively positioned on a nose side NS and a temporal side TS and are arranged into a transverse oval shape 23, the transverse oval peripheral area of the front lens surface is formed by compression molding or garage molding, or the transverse oval peripheral areas of the front and rear lens surfaces are formed by garage molding, and a front view of the transverse oval peripheral area is formed, as shown in fig. 9.

FIG. 10 schematically shows: the front mirror surface 13 is arranged along the vertical diameter line of the central area 1, the peripheral area 2 is arranged to be a nose side NS and a temporal side TS arc top shape 24, the arc top peripheral area is formed by compression molding, and a front view of the arc top peripheral area of the front mirror surface is formed, as shown in fig. 10.

FIG. 11 is a schematic view of: the front mirror 13 is divided into a nose NS, a temporal TS, an upper SS and a lower LS, each occupying 90 ° quadrants, along the horizontal radial line and the vertical radial line of the optical center, and the 4 quadrant peripheral regions are compression molded to form a front view of the 4 quadrant peripheral regions, as shown in fig. 11.

The individualized out-of-focus spectacle lens with double mirror surfaces and double positive values is a frame spectacle lens and is hereinafter referred to as the spectacle lens. The central area of the front lens surface of the spectacle lens is a plain lens or a concave lens. The central zone of the back mirror surface is 0.00D to-10.00D refractive lens to meet the needs of different myopic wearers, the astigmatic degree and axial position of less than-4.00 DS can be compounded for the astigmatic person, and the central zones of the front and back mirror surfaces are compounded into a central correction zone. The peripheral area of the front mirror surface is composed of a plurality of independent micro lenses, and the refractive power of the micro lenses is set to be +0.50D to +4.00D basic quantity positive addition values so as to adapt to the positive addition value requirements of different myopia degrees. The refractive power of the rear mirror surface peripheral area is a refractive lens with a differential positive addition value of +0.50D to +3.00D compounded by the refractive power of the concave lens in the central correction area, the refractive power of the rear mirror surface peripheral area is a refractive lens with a differential positive addition value added on the basis of the myopia power, and the compound of the two positive addition values of the front and rear mirror surface peripheral areas is a total positive addition value of +1.00D to +7.00D individualized peripheral treatment areas. The individual refractive power gradient differences of the difference positive or total positive values are ± 0.05D to ± 0.25D, the refractive power gradient differences being set for individual differential lens dispensers. The positive addition value of the back mirror difference adopts a garage molding technology, and the refractive power can be accurate to 0.01D, so that individual selection is achieved.

The peripheral area of the front and the rear mirror surfaces is provided with a full-ring-shaped equivalent positive addition value, or is provided with a nasal side peripheral area and a temporal side peripheral area, the nasal side peripheral area is more than the temporal side peripheral area positive addition value, and the purpose is to accord with the situation that the temporal side peripheral retina with myopia is larger than the temporal side peripheral retina with defocus separation. The peripheral zone is at least provided with 5 positive addition value gradient sections and 5 total positive addition value secondary sections, wherein:

The central area of the front and the rear mirror surfaces is set to be in a perfect circle shape, an ellipse shape or a vertical radial line window type according to the shape of the peripheral area. The central area is of a vertical radial line windowing type, the length of the horizontal radial line along the optical center is 7mm to 14mm, and the vertical diameter line is equal to the diameter of the spectacle lens. The concave lens refractive power of the central correction zone is customized according to the subjective refraction number, and the lower side area of the central zone is set to be a composite substrate nasal side prism power of 0.5 delta to 6.0 delta triangular prism lens, or the substrate downward side prism power of 0.25 delta to 1.50 delta triangular prism lens.

The full-ring shape of the front mirror surface peripheral area means that the micro lens array is arranged in a peripheral area within a circumferential azimuth angle of 360 degrees, the semi-ring shape of the front mirror surface peripheral area means that the micro lens array respectively occupies 180 degrees of circumferential azimuth angles in a nose side peripheral area and a temporal side peripheral area, the fan-ring shape of the front mirror surface peripheral area means that the micro lens array is arranged in the nose side peripheral area and the temporal side peripheral area, the inner arc is less than 180 degrees of circumferential azimuth angles, and the outer arc is less than or equal to 180 degrees of circumferential azimuth angles. Or the micro-lens array is arranged on the nose side peripheral area and the temporal side peripheral area of the front mirror surface and is in a shape of a perfect circle, a vertical ellipse, a transverse ellipse or an arc top, or the array forms an irregular shape. The peripheral area of the rear mirror surface is set to be in a full ring shape, or the peripheral area is divided into two areas, namely a nose side peripheral area and a temporal side peripheral area, the rear mirror surface is set to be in a perfect circle shape, a 2 mm-4 mm gradual change area is arranged between the central area and the peripheral area, and the central area and the peripheral area are integrated through the gradual change area, so that the refractive power jump phenomenon is reduced. Or the front mirror surface is in a full-ring shape or a perfect circle shape, the peripheral area of the nasal side and the peripheral area of the temporal side are formed into a gradual change area by micro lenses, and the gradual change area surrounds the convex lens refraction lens.

The front mirror surface peripheral area can be set up to 4 quadrant areas in upside quadrant district, downside quadrant district, nose side quadrant district, temporal side quadrant district, and every quadrant district respectively occupies 90 circumference azimuth, and 4 quadrant districts are the microlens array respectively, or nose side quadrant district and temporal side quadrant district be microlens sheet, upside quadrant district and downside quadrant district for the refraction lens, and nose side quadrant district is greater than the positive value of adding in temporal side quadrant district, and downside quadrant district is greater than the positive value of adding in upside quadrant district.

The peripheral area of the front mirror surface is composed of a plurality of independent micro-lens arrays, and the micro-lenses are in any shape of cylinders, squares, pentagons, hexagons and rectangles. The diameter or radial line length of the micro lens is millimeter, micron and nanometer, the diameter is 2.0mm to 5nm, and the height is 16 μm to 0.1 nm. At least five positive addition value gradient sections are arranged on the peripheral area of the front and the rear mirror surfaces, the total positive addition value is 20% in an area from 10mm to 11.9mm away from the optical center from the edge of the central area, 40% in an area from 12mm to 13.9mm away from the center of the central area, 60% in an area from 14mm to 15.9mm away from the central area, 80% in an area from 16mm to 17.9mm away from the center of the central area, 100% in an area from 18mm to 30mm away from the center of the central area, and a concave lens sheet or a plano lens sheet with the same refractive power as that of the central correction area is arranged from 30mm away from the center of the central area to the edge of the spectacle lens. The purpose of setting five positive value-added gradient sections is consistent with the gradual increase of hyperopic defocus degrees of the near-sighted peripheral retina from the center to the periphery, and the method is more in line with the retina peripheral defocus theory.

The microlenses are preferably arranged to have a diameter of 1.0mm to 20 μm and a height of 10 μm to 10 nm. 8 to 120 ring zones are arranged between the edge of the central area and the optical center by 20mm to 30mm, and 300 to 8000 independent micro lenses are densely distributed. The peripheral area of the front and the back mirror surfaces is at least 20mm to 28mm away from the optical center and is set as a full positive value, so that the hyperopic defocus at the periphery of the retina can be corrected.

The positive addition value of the front mirror surface base amount is 50 to 70 percent of the total positive addition value of the individualized peripheral treatment area, and the positive addition value is +1.00D to +4.00D, so that the hyperopic defocus amount can be effectively corrected. The positive addition value of the back mirror surface difference is 40 to 20 percent of the total positive addition value of the individualized peripheral treatment area, and the positive addition value is +0.50D to +2.00D, so that the individualized difference correction is effectively corrected. The total positive value of the treatment area is +1.00D to +6.00D, and the treatment area aims to adapt to the positive values of different myopia degrees and correct the peripheral hyperopic defocus state of the near vision retina to be above the retina position or to be in front of the retina to form peripheral myopic defocus.

And adding positive addition values of +0.50D to +2.50D to the nasal side and the temporal side respectively according to the individual lens dispenser for detecting the hyperopic defocus base and the nasal side and temporal side 40-degree retina peripheral refraction. Or adding a positive value according to the factors of the individual lens dispenser inducing myopia: the parent parents are more than or equal to 6.00D high myopia, the age of myopia occurrence is earlier than 6 years old, the myopia degree is increased by more than-0.75D, the length of the eye axis or the retina peripheral diopter is increased by years, the daily near distance eye use time is more than or equal to 8 hours, the positive value of the added individual difference is from +0.50D to +2.50D according to the addition of +0.10D to +0.50D of each induction factor. According to the myopia degree difference, the total positive value of the peripheral zone of the front and rear mirror surfaces at least sets 5 total positive values, and the total positive value is secondary: +1.00D, +2.00D, +3.00D, +4.00D, +5.00D, or the setting: +1.50D, +2.50D, +3.50D, +4.50D, +5.50D, or equally divided to the front mirror-peripheral region and the rear mirror-peripheral region by 50% of the total positive value amount. The individual refractive power gradient difference of the nasal peripheral region greater than the temporal peripheral region by +0.50D to +1.50D, the difference positive value, or the total positive value is preferably selected to be ± 0.05D to ± 0.15D.

The spectacle lens can be set to be a near spectacle lens and a far spectacle lens, the near spectacle lens is larger than the positive addition value of the far spectacle lens by +0.50D to +2.00D, or the total positive addition value is set to be +1.00D to +5.00D additional spectacle lenses, and the additional spectacle frame is clamped on a common spectacle frame when the spectacle is used at a near distance.

The microlenses are arranged in a micrometer scale, with a diameter of 700 to 100 μm and a height of 10 to 1 μm. The micro lens is arranged in the front mirror surface, the rear mirror surface or embedded in the eyeglass substrate and consists of one layer, two layers, three layers or four layers, the thickness of the composite layer or the coating layer is more than or equal to the height of the micro lens, the front mirror surface adopts an eyeglass numerical control garage or compression molding diopter shape, and the rear mirror surface adopts an eyeglass numerical control garage molding diopter shape.

The two-mirror-surface two-positive-value individualized out-of-focus spectacle lens has the advantages that the front mirror surface and the rear mirror surface are both arranged as the refractive lenses, the one-step forming can be realized by adopting the garage technology, the forming process is simple and the forming process time is short compared with the micro-lens forming technology. The front and rear mirror surfaces respectively comprise a central area and a peripheral area, a gradual change area is arranged between the central area and the peripheral area, the peripheral areas of the front and rear mirror surfaces are correspondingly provided with a full ring shape, or the peripheral areas of the front and rear mirror surfaces are correspondingly provided with a perfect circle shape, a vertical ellipse shape, a transverse ellipse shape, a nose side peripheral area and a temporal side peripheral area, or the peripheral area of one side mirror surface is provided with a full ring shape, and the peripheral area of the other side mirror surface is provided with a perfect circle shape, a vertical ellipse shape, a transverse ellipse shape, a nose side peripheral area and a temporal side peripheral area. The central zones of the front and rear mirrors are compounded into a central correction zone with a refractive power of 0.00D to-10.00D, or the refractive power of the central correction zone is divided into the central zones of the front and rear mirrors according to 50 percent. The front and rear mirror surface peripheral regions are compounded into a total positive value from +1.00D to +6.00D, and 50 percent and +0.50D to +3.00D of the total positive value are respectively arranged on the front and rear mirror surface peripheral regions. The refractive power of the front mirror surface peripheral area is 50% of the total positive addition value, the refractive power of the rear mirror surface peripheral area is 50% of the total positive addition value of the refractive power of the concave lens in the central correction area, the total positive addition value is set at the position 18mm to 30mm away from the optical center, and the front mirror surface refractive surface and the rear mirror surface refractive surface are formed by adopting a numerical control garage.

The front mirror surface peripheral area is set to be semi-annular, fan-shaped or the nose side peripheral area and the temporal side peripheral area are set to be circular, vertical elliptical, transverse elliptical and arc top shaped, and the rear mirror surface peripheral area is set to be full-annular or circular, vertical elliptical, transverse elliptical nose side peripheral area and temporal side peripheral area. The front mirror surface is in a full-ring shape or in a perfect circle shape, a vertical ellipse shape, a transverse ellipse shape, a nose side peripheral area and a temporal side peripheral area, a gradual change area is formed by micro lenses and surrounds a convex lens refraction lens, the front mirror surface adopts a compression molding refraction surface type, and the rear mirror surface adopts a numerical control garage molding refraction surface type.

The utility model provides a double-mirror double-positive value individualized out-of-focus spectacle lens, which adopts double-mirror double-side positive values, a peripheral area of a front mirror surface adopts a basic quantity positive value formed by a micro-lens array, has a large quantity of refractive power positive values, a peripheral area of a rear mirror surface adopts a refraction lens and is formed by turning of a numerical control lathe, the precision of accurate turning is 0.01 degrees, and the customization of individualized difference lenses is achieved. The spectacle lens has unexpected technical effects and has prominent substantive features and remarkable progress.

Finally, it should be clarified that: variations and modifications to the design parameters of the central zone, peripheral zone, central correction zone, and peripheral treatment zone described herein are also within the scope of the utility model as defined in the claims.

Claims

1. Two positive values individuation out of focus lenses of bimirror face is frame lens, its characterized in that: the central area of the front mirror surface of the spectacle lens is a plano lens, the central area of the rear mirror surface of the spectacle lens is a 0.00D to-10.00D refractive lens, the central areas of the front mirror surface and the rear mirror surface are compounded into a central correction area, the refractive power of the central area of the front mirror surface is a basic positive addition value of +0.50D to +4.00D composed of a plurality of independent micro lenses, the refractive power of the peripheral area of the rear mirror surface is a refractive lens of a differential positive addition value of +0.50D to +3.00D compounded by the refractive power of a concave lens of the central correction area, the double positive addition values of the peripheral area of the front mirror surface and the peripheral area of the rear mirror surface are compounded into a total positive addition value of an individualized peripheral treatment area of +1.00D to +7.00D, the gradient difference positive addition value or the individualized refractive power of the total positive addition value is +/-0.05D to +/-0.25D, the full annular positive addition value is arranged on the peripheral area of the front mirror surface and the rear mirror surface, or the equivalent positive addition value of the nasal side is arranged on the temporal side to the temporal side, at least 5 positive addition values are arranged, wherein:

2. The bi-specular bi-positive value individualized out-of-focus spectacle lens of claim 1, wherein: the central area of the front mirror surface and the rear mirror surface is in a regular circle shape and an oval shape, or is in a vertical radial line window opening type, the length of the horizontal radial line of the optical center is 7mm to 14mm, the diameter of the vertical radial line is equal to the diameter of the spectacle lens, the refractive power of the concave lens of the central correction area is customized according to the subjective refraction degree, the lower side area of the window opening type central area is set to be a triple prism lens with a composite substrate facing to the nose side and a prism degree of 0.5 delta to 6.0 delta, or the substrate is set to face to the lower side and the prism degree of 0.25 delta to 1.50 delta.

3. The bi-specular bi-positive value individualized out-of-focus spectacle lens of claim 1, wherein: the full-ring-shaped micro lens array arranged on the front mirror surface peripheral area means that the micro lens array is arranged in a peripheral area within 360 DEG of circumferential azimuth angle, the semi-ring-shaped micro lens array arranged on the front mirror surface peripheral area means that the micro lens array respectively occupies 180 DEG of circumferential azimuth angle in a nose side peripheral area and a temporal side peripheral area, the inner arc is less than 180 DEG of circumferential azimuth angle, the outer arc is less than or equal to 180 DEG of circumferential azimuth angle, or the micro lens array is arranged on the front mirror surface nose side peripheral area and the temporal side peripheral area and is arranged in a circular shape, a vertical elliptical shape, a transverse elliptical shape, an inward arc shape or an outward arc shape, or the array forms an irregular shape, the rear mirror surface peripheral area is full-ring-shaped, or the nose side peripheral area and the temporal side peripheral area are arranged in a circular shape, a gradual change area of 2mm to 4mm is arranged between the central area and the peripheral area, or the full-ring-shaped micro lens array and the temporal side peripheral area are formed by the micro lenses, Surrounding the convex lens refractive optic.

4. The bi-specular bi-positive value individualized out-of-focus spectacle lens of claim 1, wherein: the front mirror surface peripheral area is set to be 4 quadrant areas of an upper side quadrant area, a lower side quadrant area, a nose side quadrant area and a temporal side quadrant area, each quadrant area occupies 90-degree circumferential azimuth angles, the 4 quadrant areas are respectively microlens arrays, or the nose side quadrant area and the temporal side quadrant area are microlenses, the upper side quadrant area and the lower side quadrant area are refractive lenses, the nose side quadrant area is larger than the positive value of the temporal side quadrant area, and the lower side quadrant area is larger than the positive value of the upper side quadrant area.

5. The bi-specular bi-positive value individualized out-of-focus spectacle lens of claim 1, wherein: the front mirror surface peripheral area is composed of a plurality of independent micro lens arrays, the micro lenses are in any shape of cylinders, squares, pentagons, hexagons and rectangles, the diameters or radial lines of the micro lenses are millimeter-sized, micron-sized and nanometer-sized, the diameters are set to be 2.0 mm-5 nm, the heights are 16 mu m-0.1 nm, at least five positive addition value gradient sections are arranged on the front mirror surface peripheral area and the rear mirror surface peripheral area, the total positive addition value is 20% in an area from 10mm to 11.9mm of the edge of the central area to the optical center, 40% in an area from 12mm to 13.9mm of the central area, 60% in an area from 14mm to 15.9mm, 80% in an area from 16mm to 17.9mm of the central area, 100% in an area from 18mm to 30mm of the central area, and a concave lens sheet or a plano lens sheet with the same refractive power as that of the central positive addition area is arranged from 30mm of the central area to the edge of the lens sheet.

6. The bi-specular bi-positive value individualized out-of-focus spectacle lens of claim 1, wherein: the diameter of the micro-lens is 1.0-20 μm, the height is 10 μm-10 nm, 8-120 annular zones are arranged between the edge of the central zone and the optical center, 300-8000 independent micro-lenses are densely distributed, a total positive addition value is set between the peripheral zones of the front and the rear mirror surfaces and at least 20-28 mm away from the optical center, the positive addition value of the front mirror surface base amount is 50-70% of the total positive addition value of the individualized peripheral treatment zone, the positive addition value is + 1.00D-4.00D, the positive addition value of the rear mirror surface difference amount is 40-20% of the total positive addition value of the individualized peripheral treatment zone, the positive addition value is + 0.50D-2.00D, and the total positive addition value of the treatment zone is + 1.00D-6.00D.

7. The bi-specular bi-positive value individualized out-of-focus spectacle lens of claim 1, wherein: the positive addition value of the difference or the total positive addition value is respectively added with a positive addition value of +0.50D to +2.50D according to the base of hyperopic defocus number, the nose side and the temporal side of the individual lens dispenser for detecting peripheral refraction of 40-degree retina at the nose side and the temporal side, or is added according to factors for inducing myopia of the individual lens dispenser: the parent and parents are more than or equal to 6.00D high myopia, the age of myopia occurrence is earlier than 6 years, the myopia degree is increased by more than-0.75D, the length of an eye axis or the retinal peripheral diopter is increased by more than years, the daily near distance eye use time is more than or equal to 8 hours, the positive value of the individual difference is added to be from +0.10D to +0.50D according to each induction factor, the positive value of the individual difference is from +0.50D to +2.50D, and the total positive value of the peripheral areas of the front and the rear mirror surfaces is at least set to be 5 secondary values of the total positive value according to different degrees of the myopia degrees: +1.00D, +2.00D, +3.00D, +4.00D, +5.00D, or the setting: +1.50D, +2.50D, +3.50D, +4.50D, +5.50D, or divide equally to front mirror surface peripheral zone and rear mirror surface peripheral zone according to 50% of the total positive addition value, the nose side peripheral zone is greater than the total positive addition value of the temporal side peripheral zone +0.50D to +1.50D, the individual refractive power gradient difference of the positive addition value of the difference or the total positive addition value is + -0.05D to + -0.15D, near-distance out-of-focus spectacle lens is greater than the positive addition value of the far-near out-of-focus spectacle lens +0.50D to +2.00D, or total positive addition value +1.00D to +5.00D additional spectacle lens is set, the additional spectacle frame is clamped on the common spectacle frame when the near-distance spectacle is used.

8. The bi-specular bi-positive value individualized out-of-focus spectacle lens of claim 1, wherein: the diameter of the micro lens is 700-100 mu m, the height of the micro lens is 10-1 mu m, the micro lens is arranged on the front mirror surface and the rear mirror surface or embedded in a lens substrate and consists of one, two, three or four layers, the thickness of a composite layer or a coating layer is more than or equal to the height of the micro lens, the front mirror surface adopts a lens numerical control garage or a compression molding diopter type, and the rear mirror surface adopts a lens numerical control garage molding diopter type.

9. Two positive values individuation out of focus lenses of bimirror face is frame lens, its characterized in that: the front and rear lens surfaces of the spectacle lens are refractive lenses, the front and rear lens surfaces respectively comprise a central area and a peripheral area, a gradual change area is arranged between the central area and the peripheral area, the peripheral areas of the front and rear lens surfaces are correspondingly provided with a full ring shape, or the peripheral areas of the front and rear lens surfaces are correspondingly provided with a perfect circular nose side peripheral area and a perfect circular temporal side peripheral area, or the peripheral areas of one side lens surface are provided with a full ring shape, and the peripheral areas of the other side lens surface are provided with a perfect circular nose side peripheral area and a perfect circular temporal side peripheral area, the central areas of the front and rear lens surfaces are compounded into a central correction area, the refractive power is 0.00D to-10.00D, or the refractive power of the central correction area is uniformly distributed to the central areas of the front and rear lens surfaces according to 50 percent, the peripheral areas of the front and rear lens surfaces are compounded into a total positive addition value +1.00D to +6.00D, 50 percent and +0.50D to +3.00D of the total positive addition value are respectively arranged to the peripheral areas of the front and the rear lens surface and the nasal side peripheral areas are larger than the positive addition value, the refractive power of the peripheral area of the front mirror surface is 50% of the total positive addition value, the refractive power of the peripheral area of the rear mirror surface is 50% of the total positive addition value compounded by the refractive power of the concave lens of the central correction area, the total positive addition value is set at the position 18mm to 30mm away from the optical center, and the refractive surface types of the front mirror surface and the rear mirror surface are formed by adopting a numerical control garage.

10. The bi-specular bi-positive value individualized out-of-focus ophthalmic lens of claim 9, wherein: the front mirror surface peripheral area is set to be semi-annular, fan-shaped or the nose side peripheral area and the temporal side peripheral area are set to be circular, vertical oval, horizontal oval, inward arc and outward arc, the rear mirror surface peripheral area is set to be full-annular or set to be circular nose side peripheral area and circular temporal side peripheral area, or the front mirror surface full-annular or circular nose side peripheral area and temporal side peripheral area are formed by micro-lenses to be a gradual change area and surround a convex lens refraction lens, the front mirror surface adopts a compression molding refractive surface type, and the rear mirror surface adopts a numerical control garage molding refractive surface type.