CN108761728A - Optical imaging lens and electronic device - Google Patents
Optical imaging lens and electronic device Download PDFInfo
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- CN108761728A CN108761728A CN201810627862.5A CN201810627862A CN108761728A CN 108761728 A CN108761728 A CN 108761728A CN 201810627862 A CN201810627862 A CN 201810627862A CN 108761728 A CN108761728 A CN 108761728A
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Abstract
The present invention relates to optical imaging lens and electronic device.A kind of optical imaging lens of present invention offer are included at least by object side to image side：One first lens, the second lens and the third lens, the lens meet the restriction of certain optical condition.The present invention provides a kind of electronic device, including：One casing and an image module, it is mounted in the casing, and include any optical imaging lens of the present invention, lens barrel, module rear seat unit, a substrate for being used to supply module rear seat unit setting and an image sensor for being set to the substrate and being located at the optical imaging lens image side for supplying lens barrel setting for supplying the optical imaging lens to be arranged.Electronic device and its optical imaging lens of the present invention maintain favorable optical performance, and effectively shorten lens length.
Description
Present patent application is divisional application.The application number of original bill is 201410452628.5, and the applying date is 2014
05 day 09 month, denomination of invention was：Optical imaging lens and electronic device.
Technical field
The present invention relates to optical imaging lens and the electronic device with optical imaging lens more particularly to multiple-piece lens
Optical imaging lens and application the camera lens electronic device.
Background technology
The specification of consumer electrical product is maked rapid progress, and is pursued light and short step and is not also slowed down, therefore optical frames
The key part and component of first-class electronic product also has to last for being promoted in specification, to meet consumer demand.And optical lens
Most important characteristic is nothing more than being exactly image quality and volume.
Optical lens design, which not merely can produce the good camera lens scaled down of image quality, has both into image quality
The optical lens of amount and micromation, design process involve material property, it is necessary in view of the reality in the production such as assembling yield face
Border problem.
In conclusion the technical difficulty of micromation camera lens is obviously higher by conventional lenses, therefore how to produce and meet consumption
The optical lens of property electronic product demand, and continue to promote its image quality, for a long time always this field production, official, educational circles
The target earnestly pursued.
Invention content
The object of the present invention is to provide a kind of electronic devices and its optical imaging lens, by controlling the recessed of each lens
Convex surface arranges and/or the characteristics such as refractive index configuration, and under conditions of maintaining favorable optical performance and maintaining system performance, contracting
Short system length.
According to the present invention, a kind of optical imaging lens are provided, by object side to image side, include at least one first lens, second
Lens and the third lens, the lens meet following condition：HFOV≦25；TTL≦20；Wherein, HFOV is angle of half field-of view,
TTL is that the first lens object side is located at the length on optical axis to imaging surface.
According to the present invention, a kind of optical imaging lens are also provided, by object side to image side, include at least one first lens, the
Two lens and the third lens, the lens meet following condition：2.00≦EFL/IH；EFL≦20；Wherein, EFL is system
Effective focal length, IH are system in the image height being imaged on imaging surface.
According to the present invention, a kind of optical imaging lens are provided and, by object side to image side, including at least one first lens, the
Two lens and the third lens, the lens meet following condition：TTL/EFL≦1.4；IH≦5；Wherein, TTL is first saturating
Mirror object side is located at the length on optical axis to imaging surface, and EFL is system effective focal length, and IH is system in the picture being imaged on imaging surface
It is high.
The present invention can provide a kind of electronic device according to various optical imaging lens above-mentioned, including：One casing and one
A image module is mounted in the casing, and include any optical imaging lens of the present invention, one for supply the light
Learn imaging lens setting lens barrel, one for for the lens barrel setting module rear seat unit, one for supply the module back seat
Unit setting substrate and one be set to the substrate and positioned at the optical imaging lens image side image sensor.
By among the above it is known that the electronic device of the present invention and its optical imaging lens, pass through the recessed of each lens of control
Convex surface arranges and/or the designs such as refractive index, to maintain favorable optical performance, and effectively shortens lens length.
Description of the drawings
Fig. 1 is the cross-sectional view of each lens of the optical imaging lens of the first embodiment of the present invention.
Fig. 2 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the first embodiment of the present invention.
Fig. 3 is the schematic diagram of the astigmatism of the optical imaging lens of the first embodiment of the present invention.
Fig. 4 is the schematic diagram of the distortion aberration of the optical imaging lens of the first embodiment of the present invention.
Fig. 5 is the cross-sectional view of each lens of the optical imaging lens of the second embodiment of the present invention.
Fig. 6 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the second embodiment of the present invention.
Fig. 7 is the schematic diagram of the astigmatism of the optical imaging lens of the second embodiment of the present invention.
Fig. 8 is the schematic diagram of the distortion aberration of the optical imaging lens of the second embodiment of the present invention.
Fig. 9 is the cross-sectional view of each lens of the optical imaging lens of the third embodiment of the present invention.
Figure 10 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the third embodiment of the present invention.
Figure 11 is the schematic diagram of the astigmatism of the optical imaging lens of the third embodiment of the present invention.
Figure 12 is the schematic diagram of the distortion aberration of the optical imaging lens of the third embodiment of the present invention.
Figure 13 is the cross-sectional view of each lens of the optical imaging lens of the fourth embodiment of the present invention.
Figure 14 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the fourth embodiment of the present invention.
Figure 15 is the schematic diagram of the astigmatism of the optical imaging lens of the fourth embodiment of the present invention.
Figure 16 is the schematic diagram of the distortion aberration of the optical imaging lens of the fourth embodiment of the present invention.
Figure 17 is the cross-sectional view of each lens of the optical imaging lens of the fifth embodiment of the present invention.
Figure 18 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the fifth embodiment of the present invention.
Figure 19 is the schematic diagram of the astigmatism of the optical imaging lens of the fifth embodiment of the present invention.
Figure 20 is the schematic diagram of the distortion aberration of the optical imaging lens of the fifth embodiment of the present invention.
Figure 21 is the cross-sectional view of each lens of the optical imaging lens of the sixth embodiment of the present invention.
Figure 22 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the sixth embodiment of the present invention.
Figure 23 is the schematic diagram of the astigmatism of the optical imaging lens of the sixth embodiment of the present invention.
Figure 24 is the schematic diagram of the distortion aberration of the optical imaging lens of the sixth embodiment of the present invention.
Figure 25 is the cross-sectional view of each lens of the optical imaging lens of the seventh embodiment of the present invention.
Figure 26 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the seventh embodiment of the present invention.
Figure 27 is the schematic diagram of the astigmatism of the optical imaging lens of the seventh embodiment of the present invention.
Figure 28 is the schematic diagram of the distortion aberration of the optical imaging lens of the seventh embodiment of the present invention.
Figure 29 is the cross-sectional view of each lens of the optical imaging lens of the eighth embodiment of the present invention.
Figure 30 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the eighth embodiment of the present invention.
Figure 31 is the schematic diagram of the astigmatism of the optical imaging lens of the eighth embodiment of the present invention.
Figure 32 is the schematic diagram of the distortion aberration of the optical imaging lens of the eighth embodiment of the present invention.
Figure 33 is the cross-sectional view of each lens of the optical imaging lens of the ninth embodiment of the present invention.
Figure 34 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the ninth embodiment of the present invention.
Figure 35 is the schematic diagram of the astigmatism of the optical imaging lens of the ninth embodiment of the present invention.
Figure 36 is the schematic diagram of the distortion aberration of the optical imaging lens of the ninth embodiment of the present invention.
Figure 37 is the cross-sectional view of each lens of the optical imaging lens of the tenth embodiment of the present invention.
Figure 38 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the tenth embodiment of the present invention.
Figure 39 is the schematic diagram of the astigmatism of the optical imaging lens of the tenth embodiment of the present invention.
Figure 40 is the schematic diagram of the distortion aberration of the optical imaging lens of the tenth embodiment of the present invention.
Figure 41 is the cross-sectional view of each lens of the optical imaging lens of the 11st embodiment of the present invention.
Figure 42 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the 11st embodiment of the present invention.
Figure 43 is the schematic diagram of the astigmatism of the optical imaging lens of the 11st embodiment of the present invention.
Figure 44 is the schematic diagram of the distortion aberration of the optical imaging lens of the 11st embodiment of the present invention.
Figure 45 is the cross-sectional view of each lens of the optical imaging lens of the 12nd embodiment of the present invention.
Figure 46 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the 12nd embodiment of the present invention.
Figure 47 is the schematic diagram of the astigmatism of the optical imaging lens of the 12nd embodiment of the present invention.
Figure 48 is the schematic diagram of the distortion aberration of the optical imaging lens of the 12nd embodiment of the present invention.
Figure 49 is the cross-sectional view of each lens of the optical imaging lens of the 13rd embodiment of the present invention.
Figure 50 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the 13rd embodiment of the present invention.
Figure 51 is the schematic diagram of the astigmatism of the optical imaging lens of the 13rd embodiment of the present invention.
Figure 52 is the schematic diagram of the distortion aberration of the optical imaging lens of the 13rd embodiment of the present invention.
Figure 53 is the cross-sectional view of each lens of the optical imaging lens of the 14th embodiment of the present invention.
Figure 54 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the 14th embodiment of the present invention.
Figure 55 is the schematic diagram of the astigmatism of the optical imaging lens of the 14th embodiment of the present invention.
Figure 56 is the schematic diagram of the distortion aberration of the optical imaging lens of the 14th embodiment of the present invention.
Figure 57 is the cross-sectional view of each lens of the optical imaging lens of the 15th embodiment of the present invention.
Figure 58 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the 15th embodiment of the present invention.
Figure 59 is the schematic diagram of the astigmatism of the optical imaging lens of the 15th embodiment of the present invention.
Figure 60 is the schematic diagram of the distortion aberration of the optical imaging lens of the 15th embodiment of the present invention.
Figure 61 is the cross-sectional view of each lens of the optical imaging lens of the 16th embodiment of the present invention.
Figure 62 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the 16th embodiment of the present invention.
Figure 63 is the schematic diagram of the astigmatism of the optical imaging lens of the 16th embodiment of the present invention.
Figure 64 is the schematic diagram of the distortion aberration of the optical imaging lens of the 16th embodiment of the present invention.
Figure 65 is the cross-sectional view of each lens of the optical imaging lens of the 17th embodiment of the present invention.
Figure 66 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the 17th embodiment of the present invention.
Figure 67 is the schematic diagram of the astigmatism of the optical imaging lens of the 17th embodiment of the present invention.
Figure 68 is the schematic diagram of the distortion aberration of the optical imaging lens of the 17th embodiment of the present invention.
Figure 69 is the cross-sectional view of each lens of the optical imaging lens of the 18th embodiment of the present invention.
Figure 70 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the 18th embodiment of the present invention.
Figure 71 is the schematic diagram of the astigmatism of the optical imaging lens of the 18th embodiment of the present invention.
Figure 72 is the schematic diagram of the distortion aberration of the optical imaging lens of the 18th embodiment of the present invention.
Figure 73 is the cross-sectional view of each lens of the optical imaging lens of the 19th embodiment of the present invention.
Figure 74 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the 19th embodiment of the present invention.
Figure 75 is the schematic diagram of the astigmatism of the optical imaging lens of the 19th embodiment of the present invention.
Figure 76 is the schematic diagram of the distortion aberration of the optical imaging lens of the 19th embodiment of the present invention.
Figure 77 is the cross-sectional view of each lens of the optical imaging lens of the 20th embodiment of the present invention.
Figure 78 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the 20th embodiment of the present invention.
Figure 79 is the schematic diagram of the astigmatism of the optical imaging lens of the 20th embodiment of the present invention.
Figure 80 is the schematic diagram of the distortion aberration of the optical imaging lens of the 20th embodiment of the present invention.
Figure 81 is the cross-sectional view of each lens of the optical imaging lens of the 21st embodiment of the present invention.
Figure 82 is the schematic diagram of the longitudinal spherical aberration of the optical imaging lens of the 21st embodiment of the present invention.
Figure 83 is the schematic diagram of the astigmatism of the optical imaging lens of the 21st embodiment of the present invention.
Figure 84 is the schematic diagram of the distortion aberration of the optical imaging lens of the 21st embodiment of the present invention.
Figure 85 is the cross-sectional view of a lens in the embodiment of the present invention.
Specific implementation mode
To further illustrate that each embodiment, the present invention are provided with attached drawing.These attached drawings are that the invention discloses one of content
Point, mainly to illustrate embodiment, and the associated description of specification can be coordinated to explain the operation principles of embodiment.Cooperation
With reference to these contents, one skilled in the art will be understood that other possible embodiments and advantages of the present invention.
Component in figure is not necessarily to scale, and similar component symbol is conventionally used to indicate similar component.
" lens have positive refractive index (or negative refractive index) " described in this specification, it is attached to refer to that the lens are located at optical axis
Near field has positive refractive index (or negative refractive index)." the object side (or image side surface) of lens includes the convex surface part positioned at certain region
(or concave part) " refers to the region compared to radially close to the lateral area in the region, court is parallel to the direction of optical axis more
For " outwardly convex " (or " being recessed inwardly ").By taking Figure 85 as an example, wherein I is optical axis and this lens be with optical axis I is symmetrical
Axis is radially symmetrical, the object sides of the lens in a-quadrant with convex surface part, B area are with concave part and the regions C are with convex
Face, reason are a-quadrant compared to radially close to the lateral area in the region (i.e. B area), court is parallel to the side of optical axis
To more outwardly convex, B area is then more recessed inwardly compared to the regions C, and the regions C are also similarly more compared to the regions E
Outwardly convex." be located at circumference near zone ", refer to be located on lens only for imaging light by curved surface to be located at circumference attached
Near field, that is, the regions C in figure, wherein imaging light includes chief ray (chief ray) Lc and rim ray
(marginal ray)Lm." be located at optical axis near zone " refer to this only for imaging light by curved surface optical axis near area
Domain, that is, the a-quadrant in figure.In addition, the lens also include an extension E, an optical imaging lens are loaded on for the lens group
In head, ideal imaging light can't be by extension E, but the structure of extension E is not limited to this with shape, below
Embodiment be the extension for asking attached drawing that part is succinctly omitted.
In addition, for convenience of description, below first to each optical property parameter involved in the optical imaging lens of the present invention
The english abbreviation of term is defined explanation.In subsequent explanation, directly illustrated with english abbreviation, wherein each English
The definition in this table is continued to use in the definition of abbreviation.
The optical imaging lens of the present invention, be by be sequentially arranged along an optical axis from object side to image side the first lens, second
(each embodiment lens numbers can not for the lens in varying numbers such as lens, the third lens, the 4th lens, the 5th lens, the 6th lens
It is constituted together), each lens all have one towards object side and the object side for making imaging light pass through and one towards image side and make into
As light by image side surface.The optical imaging lens of the present invention are matched by the detail characteristic and/or refractive index for designing each lens
It sets, and good optical property can be provided, and expand visual angle.
The side of the lens in each embodiment involved in the optical imaging lens of the present invention and image side surface if aspherical,
Then each object side and each image side surface shape are indicated with following fitting equation (A), are repeated no more：
Y：Point in aspheric curve is at a distance from optical axis；
Z：Aspherical depth (apart from the point that optical axis is Y on aspherical, and the section for being tangential on vertex on aspherical optical axis,
Vertical range between the two)；
R：The radius of curvature of lens surface；
K：Circular cone coefficient；
ai：I-th rank asphericity coefficient.
It can shorten system overall length while good optical property is provided really in order to illustrate the present invention, it is presented below
Multiple embodiments and its detailed optical data carry out that explanation is developed in details.
Illustrate in advance, in the attached drawing of each embodiment of the present invention represented by Fig. 1 to Figure 84, according to drawing by straight line
Light path it is left towards it is right be the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens the 50, the 6th respectively
Lens 60 (slightly change, by taking Figure 57 as an example) with specific reference to lens numbers number, are its object side on the left of the drawing of xth lens x0
X1, in object side, x1 is located at optical axis near zone and is designated as x11, and in object side, x1 is located at circumference near zone and is designated as x12, and drawing is right
Side is its image side surface x2, is located at optical axis near zone in image side surface x2 and is designated as x21, is located at circumference near zone mark in image side surface x2
For x22；It is object side A1 on the left of drawing, is image side surface A2 on the right side of drawing.
And according to drawing by folded light path it is left towards it is right and on be the first lens 10, the second lens 20, the respectively downward
Three lens 30, the 4th lens 40, the 5th lens 50, the 6th lens 60, (slightly change, with Figure 69 with specific reference to lens numbers number
For) and light path bending part speculum M1, be its object side x1 on the left of the drawing of xth lens x0, in object side, x1 is located at
Optical axis near zone is designated as x11, and in object side, x1 is located at circumference near zone and is designated as x12, is its image face x2 on the right side of drawing,
Image side surface x2 is located at optical axis near zone and is designated as x21, and being located at circumference near zone in image side surface x2 is designated as x22；Alternatively, xth is saturating
It is its object side x1 on the upside of the drawing of mirror x0, in object side, x1 is located at optical axis near zone and is designated as x11, and in object side, x1, which is located at, justifies
All near zones are designated as x12, are its image face x2 on the downside of drawing, are located at optical axis near zone in image side surface x2 and are designated as x21, in picture
Side x2 is located at circumference near zone and is designated as x22；；On the left of drawing or upside is object side A1, and drawing right side or downside are image side
Face A2.
In addition, can also include an aperture S1 in the optical imaging lens (can be located at the left side or two of the first lens 10
Between lens), and can also include an imaging surface I1, and the optical filtering part CF1 between imaging surface I1.
To ask attached drawing succinct, other embodiment is to be labeled, and be can refer to for the Figure 57 and Figure 69 and above description.
First embodiment：
As shown in fig.1, the optical lens of first embodiment of the invention includes sequentially one by object side A1 to image side surface A2
Aperture S1, one first lens 10, one second lens 20 and a third lens 30.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the concave part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a concave part, with
And the concave part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the concave part positioned at circumference near zone 222.
The third lens 30 have negative refractive index, and being located at optical axis near zone 311 in object side 31 has a concave part, with
And the concave part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a convex surface part, with
And the convex surface part positioned at circumference near zone 322.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between three lens 30 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical parameter of each lens (according to equation (A)) in the optical imaging lens of the first embodiment
Detailed data is as shown in following table 1-1.
Table 1-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | -7.839721E-01 | 0.000000E+ 00 | 1.380396E-04 | 1.041757E-03 | -1.657339E-04 | 2.294747E-05 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| First lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | 6.700699E-04 | 1.809030E-03 | -1.029458E-04 | -1.681865E-05 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (object side) | -1.289194E+02 | 0.000000E+ 00 | -3.928692E-03 | 4.757483E-03 | -9.313620E-04 | 4.353737E-05 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | 6.536406E-03 | 5.016123E-03 | -2.247826E-03 | 3.329043E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -6.150906E-02 | -2.674198E-04 | -2.968713E-04 | -5.708244E-05 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -5.281717E-02 | 8.922641E-03 | -1.764385E-03 | 2.286233E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, optical filtering part CF1 and image is designed to pass
All there is the air gap between the imaging surface I1 of sensor.However in other embodiments, can also not have aforementioned any of which sky
Gas gap, such as：It is corresponding each other by the surface profile design of two relative lens, and can be bonded each other, eliminates air therebetween
Gap.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 1-2.
Table 1-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 1-3.
Table 1-3：
| IH (image height, unit mm) | 1.792 |
| EFL (whole focal length of system, unit mm) | 11.310985 |
| HFOV (half angle of view, unit °) | 8.97978301 |
| TTL (system overall length, unit mm) | 9.40054875 |
| Fno (f-number) | 2.34053667 |
| RI (relative illumination) | 0.878 |
| CRA (chief ray angle, unit °) | 15.87 |
On the other hand, from Fig. 2 to Fig. 4 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
2), astigmatism (Fig. 3, the sagitta of arc, meridian direction), the performance of distortion aberration (Fig. 4) are all very good.
Therefore, by among the above it is known that the optical imaging lens of the present embodiment can maintain favorable optical performance really, and
Effectively shorten lens length.
Second embodiment：
As shown in fig.5, the optical lens of second embodiment of the invention includes sequentially one by object side A1 to image side surface A2
Aperture S1, one first lens 10, one second lens 20 and a third lens 30.
First lens 10 have negative refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a concave part, with
And the concave part positioned at circumference near zone 122.
Second lens 20 have positive refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the convex surface part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a convex surface part, with
And the convex surface part positioned at circumference near zone 222.
The third lens 30 have negative refractive index, and being located at optical axis near zone 311 in object side 31 has a concave part, with
And the concave part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a concave part, with
And the convex surface part positioned at circumference near zone 322.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between three lens 30 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical parameter of each lens (according to equation (A)) in the optical imaging lens of the second embodiment
Detailed data is as shown in following table 2-1.
Table 2-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -1.149777E-02 | 1.268162E-04 | -7.154302E-05 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| First lens (image side surface) | -2.217949E+00 | 0.000000E+ 00 | 6.991716E-03 | -1.511903E-03 | 4.786397E-05 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (object side) | -8.231150E-01 | 0.000000E+ 00 | -8.103392E-04 | -5.727761E-04 | 3.659000E-05 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -4.784758E-03 | 1.552463E-04 | 1.666193E-05 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -7.677381E-02 | 9.528993E-03 | 2.871211E-05 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -6.360030E-02 | 1.610907E-02 | -1.476799E-03 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, optical filtering part CF1 and image is designed to pass
All there is the air gap between the imaging surface I1 of sensor.However in other embodiments, can also not have aforementioned any of which sky
Gas gap, such as：It is corresponding each other by the surface profile design of two relative lens, and can be bonded each other, eliminates air therebetween
Gap.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 2-2.
Table 2-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 2-3.
Table 2-3：
| IH (image height, unit mm) | 1.792 |
| EFL (whole focal length of system, unit mm) | 11.3074867 |
| HFOV (half angle of view, unit °) | 8.98115714 |
| TTL (system overall length, unit mm) | 9.90010621 |
| Fno (f-number) | 2.35647778 |
| RI (relative illumination) | 0.88 |
| CRA (chief ray angle, unit °) | 16.26 |
On the other hand, from Fig. 6 to Fig. 8 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
6), astigmatism (Fig. 7, the sagitta of arc, meridian direction), the performance of distortion aberration (Fig. 8) are all very good.
Therefore, by among the above it is known that the optical imaging lens of the present embodiment can maintain favorable optical performance really, and
Effectively shorten lens length.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The angle of half field-of view of the embodiment is more than first
Embodiment, the image quality of the embodiment are easy to better than first embodiment (aberration, distortion figure), the embodiment than first embodiment
Therefore yield is higher for manufacture.
3rd embodiment：
As shown in fig.9, the optical lens of third embodiment of the invention includes sequentially one by object side A1 to image side surface A2
First lens 10, an aperture S1, one second lens 20, a third lens 30 and one the 4th lens 40.
First lens 10 have negative refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the concave part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a concave part, with
And the concave part positioned at circumference near zone 122.
Second lens 20 have positive refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the convex surface part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a convex surface part, with
And the convex surface part positioned at circumference near zone 222.
The third lens 30 have negative refractive index, and being located at optical axis near zone 311 in object side 31 has a concave part, with
And the concave part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a concave part, with
And the concave part positioned at circumference near zone 322.
4th lens 40 have negative refractive index, and being located at optical axis near zone 411 in object side 41 has a concave part, with
And the concave part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a concave part, with
And the convex surface part positioned at circumference near zone 422.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between four lens 40 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical parameter of each lens (according to equation (A)) in the optical imaging lens of the 3rd embodiment
Detailed data is as shown in following table 3-1.
Table 3-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -2.376620E-02 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| First lens (image side surface) | -3.848529E+00 | 0.000000E+ 00 | -1.059230E-02 | 1.441829E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -1.138553E-02 | 4.202909E-03 | -7.323312E-04 | 4.705055E-05 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | 1.479792E-02 | -6.180213E-03 | 1.224969E-03 | -7.879202E-05 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 1.028947E-02 | -1.125594E-02 | 2.905599E-03 | -2.324527E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -9.592328E-03 | -3.842653E-04 | 5.868192E-04 | 0.000000E+00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -1.797643E-01 | 5.910375E-02 | -4.248711E-03 | -3.166389E-03 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| 4th lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -1.713337E-01 | 9.101275E-02 | -2.517687E-02 | 2.469701E-03 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, optical filtering part are designed
All there is the air gap between CF1 and the imaging surface I1 of image sensor.However in other embodiments, before can also not having
Any of which the air gap is stated, such as：It is corresponding each other by the surface profile design of two relative lens, and can be bonded each other, disappears
Except the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 3-2.
Table 3-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 3-3.
Table 3-3：
| IH (image height, unit mm) | 1.792 |
| EFL (whole focal length of system, unit mm) | 11.30627348 |
| HFOV (half angle of view, unit °) | 8.983889271 |
| TTL (system overall length, unit mm) | 9.400144168 |
| Fno (f-number) | 2.492861611 |
| RI (relative illumination) | 0.864 |
| CRA (chief ray angle, unit °) | 17.91 |
On the other hand, from Figure 10 to Figure 12 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
10), astigmatism (Figure 11, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 12) are all very good.
Therefore, by among the above it is known that the optical imaging lens of the present embodiment can maintain favorable optical performance really, and
Effectively shorten lens length.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The lens length TTL of the embodiment is than first
(it is that can shorten mirror that aperture, which is located at most preceding advantage, when embodiment is short, embodiment aperture position is different from the first embodiment
Head length；If aperture in the backward if field angle is bigger, image quality more preferably), the angle of half field-of view of the embodiment is more than first and implements
Example, the image quality of the embodiment are more easily fabricated than first embodiment better than first embodiment (aberration, distortion figure), the embodiment
Therefore yield is higher.
Fourth embodiment：
Refering to fig. 1 shown in 3, the optical lens of fourth embodiment of the invention includes sequentially one by object side A1 to image side surface A2
Aperture S1, one first lens 10, one second lens 20, a speculum M1, a third lens 30 and one the 4th lens 40.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the convex surface part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the concave part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the concave part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the convex surface part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a convex surface part, with
And the convex surface part positioned at circumference near zone 322.
4th lens 40 have negative refractive index, and being located at optical axis near zone 411 in object side 41 has a concave part, with
And the concave part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a concave part, with
And the concave part positioned at circumference near zone 422.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between four lens 40 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical parameter of each lens (according to equation (A)) in the optical imaging lens of the fourth embodiment
Detailed data is as shown in following table 4-1.
Table 4-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | -1.637188E-01 | 0.000000E+ 00 | 1.755565E-03 | 4.864692E-04 | -2.956535E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| First lens (image side surface) | -1.456399E+00 | 0.000000E+ 00 | 1.263903E-02 | -6.429712E-03 | 7.516481E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -5.566229E-02 | 3.894972E-03 | 6.426120E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -7.299985E-02 | 1.268056E-02 | -7.993944E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 1.013897E-02 | -4.125402E-03 | 9.078711E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -2.318859E-02 | 7.281140E-04 | -2.111556E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 2.439164E-02 | -1.050589E-02 | 5.970393E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| 4th lens (image side surface) | 4.129458E-02 | 0.000000E+ 00 | 7.324128E-02 | -1.298761E-02 | 1.279833E-03 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, optical filtering part are designed
All there is the air gap between CF1 and the imaging surface I1 of image sensor.However in other embodiments, before can also not having
Any of which the air gap is stated, such as：It is corresponding each other by the surface profile design of two relative lens, and can be bonded each other, disappears
Except the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 4-2.
Table 4-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 4-3.
Table 4-3：
On the other hand, from Figure 10 to Figure 12 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
10), astigmatism (Figure 11, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 12) are all very good.
Therefore, by among the above it is known that the optical imaging lens of the present embodiment can maintain favorable optical performance really, and
Effectively shorten lens length.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The lens length TTL of the embodiment is than first
Embodiment is short, embodiment angle of half field-of view is more than first embodiment, the image quality of the embodiment better than first embodiment (as
Difference, distortion figure), the embodiment is more easily fabricated than first embodiment therefore yield is higher.
5th embodiment：
Refering to fig. 1 shown in 7, the optical lens of fifth embodiment of the invention includes sequentially one by object side A1 to image side surface A2
Aperture S1, one first lens 10, one second lens 20, a speculum M1, a third lens 30 and one the 4th lens 40.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the convex surface part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the concave part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the convex surface part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a concave part, with
And the concave part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a convex surface part, with
And the convex surface part positioned at circumference near zone 322.
4th lens 40 have negative refractive index, and being located at optical axis near zone 411 in object side 41 has a convex surface part, with
And the convex surface part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a concave part, with
And the concave part positioned at circumference near zone 422.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between four lens 40 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical parameter of each lens (according to equation (A)) in the optical imaging lens of 5th embodiment
Detailed data is as shown in following table 5-1.
Table 5-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | -5.607237E+00 | 0.000000E+ 00 | 1.424850E-02 | -1.433639E-03 | -7.430229E-05 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| First lens (image side surface) | -8.496017E+01 | 0.000000E+ 00 | 2.021590E-03 | -4.683273E-03 | 9.175869E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -1.640203E-02 | -2.921253E-03 | 1.507283E-03 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (image side surface) | -1.260430E+01 | 0.000000E+ 00 | -6.533346E-03 | -1.015821E-03 | 7.805577E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -9.045754E-03 | 2.556025E-03 | -5.937657E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (image side surface) | -6.341989E+00 | 0.000000E+ 00 | -4.584844E-04 | 3.612210E-03 | -4.874828E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 2.901476E-03 | 1.685945E-03 | -1.218053E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| 4th lens (image side surface) | -5.029073E+00 | 0.000000E+ 00 | -4.686845E-03 | 7.839728E-04 | 4.596522E-05 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, optical filtering part are designed
All there is the air gap between CF1 and the imaging surface I1 of image sensor.However in other embodiments, before can also not having
Any of which the air gap is stated, such as：It is corresponding each other by the surface profile design of two relative lens, and can be bonded each other, disappears
Except the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 5-2.
Table 5-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 5-3.
Table 5-3：
| IH (image height, unit mm) | 2.3 |
| EFL (whole focal length of system, unit mm) | 7.294752795 |
| HFOV (half angle of view, unit °) | 17.49627188 |
| TTL (system overall length, unit mm) | 8.700004185 |
| Fno (f-number) | 2.402438603 |
| RI (relative illumination) | 0.83 |
| CRA (chief ray angle, unit °) | 21.42 |
On the other hand, from Figure 18 to Figure 20 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
18), astigmatism (Figure 19, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 20) are all very good.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The lens length TTL of the embodiment is than first
Embodiment is short, embodiment angle of half field-of view is more than first embodiment, the image quality of the embodiment better than first embodiment (as
Difference, distortion figure), the embodiment is more easily fabricated than first embodiment therefore yield is higher.
Sixth embodiment：
Shown in Figure 21, the optical lens of sixth embodiment of the invention includes sequentially one by object side A1 to image side surface A2
Aperture S1, one first lens 10, one second lens 20, a third lens 30, one the 4th lens 40 and one the 5th lens 50.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the convex surface part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the convex surface part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the concave part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the convex surface part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a concave part, with
And the concave part positioned at circumference near zone 322.
4th lens 40 have negative refractive index, and being located at optical axis near zone 411 in object side 41 has a convex surface part, with
And the convex surface part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a concave part, with
And the concave part positioned at circumference near zone 422.
5th lens 50 have positive refractive index, and being located at optical axis near zone 511 in object side 51 has a concave part, with
And the convex surface part positioned at circumference near zone 512.Being located at optical axis near zone 521 in image side surface 52 has a convex surface part, with
And the convex surface part positioned at circumference near zone 522.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between five lens 50 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical parameter of each lens (according to equation (A)) in the optical imaging lens of the sixth embodiment
Detailed data is as shown in following table 6-1.
Table 6-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -3.655460E-03 | 8.114806E-04 | -7.184044E-05 | -7.951620E-06 | 1.144581E- 06 | 0.000000E+00 | 0.000000E+ 00 |
| First lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | 3.454222E-03 | -1.440735E-04 | -3.328317E-05 | -2.782154E-06 | 9.107791E- 07 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -8.657462E-03 | -2.158117E-04 | -4.619230E-06 | 6.189584E-06 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -1.493183E-02 | 1.763846E-03 | -7.339573E-04 | 1.151265E-04 | ########### | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 3.981841E-03 | 6.824501E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -1.909782E-02 | 6.458467E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 4.214071E-02 | -2.057215E-02 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | 9.004955E-02 | -1.629374E-02 | -2.249455E-03 | 2.695595E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 2.418333E-03 | 2.497989E-04 | 2.392404E-04 | 0.000000E+00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (image side surface) | -4.579258E-01 | 0.000000E+ 00 | -1.193502E-02 | 2.426744E-03 | -5.652951E-04 | 9.572508E-05 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+ 00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens are designed
50, all there is the air gap between optical filtering part CF1 and the imaging surface I1 of image sensor.However in other embodiments, also may be used
Without aforementioned any of which the air gap, such as：It is corresponding each other by the surface profile design of two relative lens, and can pastes each other
It closes, to eliminate the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 6-2.
Table 6-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 6-3.
Table 6-3：
| IH (image height, unit mm) | 1.792 |
| EFL (whole focal length of system, unit mm) | 11.32266365 |
| HFOV (half angle of view, unit °) | 8.990230814 |
| TTL (system overall length, unit mm) | 9.90002019 |
| Fno (f-number) | 2.384556422 |
| RI (relative illumination) | 0.937 |
| CRA (chief ray angle, unit °) | 4.199 |
On the other hand, from Figure 22 to Figure 24 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
22), astigmatism (Figure 23, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 24) are all very good.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The aperture F# of the embodiment is implemented than first
Example small (F# values are smaller, and aperture is bigger), image quality are more preferably), the angle of half field-of view of the embodiment is more than first embodiment, the implementation
The image quality of example is better than first embodiment (aberration, distortion figure), the embodiment is more easily fabricated than first embodiment therefore yield
It is higher.
7th embodiment：
Shown in Figure 25, the optical lens of seventh embodiment of the invention includes sequentially one by object side A1 to image side surface A2
Aperture S1, one first lens 10, one second lens 20, a third lens 30, one the 4th lens 40 and one the 5th lens 50.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a concave part, with
And the concave part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a concave part, with
And the concave part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the concave part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the convex surface part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a convex surface part, with
And the convex surface part positioned at circumference near zone 322.
4th lens 40 have positive refractive index, and being located at optical axis near zone 411 in object side 41 has a concave part, with
And the concave part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a convex surface part, with
And the convex surface part positioned at circumference near zone 422.
5th lens 50 have negative refractive index, and being located at optical axis near zone 511 in object side 51 has a concave part, with
And the concave part positioned at circumference near zone 512.Being located at optical axis near zone 521 in image side surface 52 has a concave part, with
And the convex surface part positioned at circumference near zone 522.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between five lens 50 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical parameter of each lens (according to equation (A)) in the optical imaging lens of 7th embodiment
Detailed data is as shown in following table 7-1.
Table 7-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | 0.000000E+00 | 0.000000E+00 | -3.394831E-03 | -3.472317E-04 | 5.695724E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| First lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 5.740345E-06 | 7.956497E-04 | 4.276275E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+00 | 2.608690E-04 | -3.090883E-05 | 1.582499E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -6.017284E-03 | 3.924062E-04 | 4.171332E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+00 | 3.545214E-03 | 1.576197E-03 | -5.507806E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 7.050405E-03 | -1.007095E-03 | 5.301460E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+00 | -1.818134E-02 | -2.219238E-02 | 4.698582E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 9.325451E-03 | -2.644199E-02 | 6.526581E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (object side) | 0.000000E+00 | 0.000000E+00 | 2.678471E-02 | -2.416586E-02 | 5.581579E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -9.029286E-03 | -2.496884E-03 | 4.972266E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens are designed
50, all there is the air gap between optical filtering part CF1 and the imaging surface I1 of image sensor.However in other embodiments, also may be used
Without aforementioned any of which the air gap, such as：It is corresponding each other by the surface profile design of two relative lens, and can pastes each other
It closes, to eliminate the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 7-2.
Table 7-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 7-3.
Table 7-3：
| IH (image height, unit mm) | 1.792 |
| EFL (whole focal length of system, unit mm) | 11.31775531 |
| HFOV (half angle of view, unit °) | 8.976425931 |
| TTL (system overall length, unit mm) | 9.900047245 |
| Fno (f-number) | 2.363149409 |
| RI (relative illumination) | 0.8812 |
| CRA (chief ray angle, unit °) | 15.24 |
On the other hand, from Figure 26 to Figure 28 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
26), astigmatism (Figure 27, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 28) are all very good.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The image quality of the embodiment is better than first
Embodiment (aberration, distortion figure), the embodiment are more easily fabricated than first embodiment therefore yield is higher.
8th embodiment：
Shown in Figure 29, the optical lens of eighth embodiment of the invention includes sequentially one by object side A1 to image side surface A2
Aperture S1, one first lens 10, one second lens 20, a third lens 30, one the 4th lens 40 and one the 5th lens 50.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the convex surface part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the convex surface part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the concave part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the convex surface part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a concave part, with
And the convex surface part positioned at circumference near zone 322.
4th lens 40 have negative refractive index, and being located at optical axis near zone 411 in object side 41 has a convex surface part, with
And the convex surface part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a concave part, with
And the concave part positioned at circumference near zone 422.
5th lens 50 have positive refractive index, and being located at optical axis near zone 511 in object side 51 has a convex surface part, with
And the convex surface part positioned at circumference near zone 512.Being located at optical axis near zone 521 in image side surface 52 has a concave part, with
And the concave part positioned at circumference near zone 522.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between five lens 50 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical parameter of each lens (according to equation (A)) in the optical imaging lens of 8th embodiment
Detailed data is as shown in following table 8-1.
Table 8-1：
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens are designed
50, all there is the air gap between optical filtering part CF1 and the imaging surface I1 of image sensor.However in other embodiments, also may be used
Without aforementioned any of which the air gap, such as：It is corresponding each other by the surface profile design of two relative lens, and can pastes each other
It closes, to eliminate the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 8-2.
Table 8-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 8-3.
Table 8-3：
| IH (image height, unit mm) | 1.792 |
| EFL (whole focal length of system, unit mm) | 11.32537031 |
| HFOV (half angle of view, unit °) | 8.980652129 |
| TTL (system overall length, unit mm) | 10.90000791 |
| Fno (f-number) | 2.400207735 |
| RI (relative illumination) | 0.948 |
| CRA (chief ray angle, unit °) | 11.87 |
On the other hand, from Figure 30 to Figure 32 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
30), astigmatism (Figure 31, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 32) are all very good.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The angle of half field-of view of the embodiment is more than first
Embodiment, the image quality of the embodiment are easy to better than first embodiment (aberration, distortion figure), the embodiment than first embodiment
Therefore yield is higher for manufacture.
9th embodiment：
Shown in Figure 33, the optical lens of ninth embodiment of the invention includes sequentially one by object side A1 to image side surface A2
Aperture S1, one first lens 10, one second lens 20, a third lens 30, one the 4th lens 40 and one the 5th lens 50.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a concave part, with
And the concave part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the concave part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the concave part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the concave part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a convex surface part, with
And the convex surface part positioned at circumference near zone 322.
4th lens 40 have negative refractive index, and being located at optical axis near zone 411 in object side 41 has a concave part, with
And the concave part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a convex surface part, with
And the convex surface part positioned at circumference near zone 422.
5th lens 50 have negative refractive index, and being located at optical axis near zone 511 in object side 51 has a concave part, with
And the concave part positioned at circumference near zone 512.Being located at optical axis near zone 521 in image side surface 52 has a convex surface part, with
And the concave part positioned at circumference near zone 522.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between five lens 50 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical parameter of each lens (according to equation (A)) in the optical imaging lens of 9th embodiment
Detailed data is as shown in following table 9-1.
Table 9-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | 0.000000E+00 | 0.000000E+00 | 1.591800E-02 | -2.639523E-03 | 1.624097E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| First lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 3.053128E-02 | -6.590491E-03 | 3.325764E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+00 | -6.257214E-02 | 9.477143E-03 | -5.573112E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -8.299518E-02 | 1.263426E-02 | -2.189401E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+00 | -2.278565E-03 | -2.351123E-03 | -1.495329E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 3.781002E-03 | -2.382230E-04 | 3.554987E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+00 | 5.539648E-02 | -7.667448E-03 | 7.119074E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 2.350684E-02 | -1.657794E-05 | -3.497296E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (object side) | 0.000000E+00 | 0.000000E+00 | 2.941531E-02 | 1.372326E-04 | -4.170827E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 5.703558E-02 | -7.675676E-03 | 4.706221E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens are designed
50, all there is the air gap between optical filtering part CF1 and the imaging surface I1 of image sensor.However in other embodiments, also may be used
Without aforementioned any of which the air gap, such as：It is corresponding each other by the surface profile design of two relative lens, and can pastes each other
It closes, to eliminate the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 9-2.
Table 9-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 9-3.
Table 9-3：
| IH (image height, unit mm) | 2.3 |
| EFL (whole focal length of system, unit mm) | 7.295995613 |
| HFOV (half angle of view, unit °) | 17.4984064 |
| TTL (system overall length, unit mm) | 9.900009313 |
| Fno (f-number) | 2.407242077 |
| RI (relative illumination) | 0.835 |
| CRA (chief ray angle, unit °) | 24.99 |
On the other hand, from Figure 34 to Figure 36 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
34), astigmatism (Figure 35, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 36) are all very good.
In addition, the embodiment has effects that the angle of half field-of view of the following embodiment is more than first in fact compared to the first embodiment
Apply example, the image quality of the embodiment is easy to make better than first embodiment (aberration, distortion figure), the embodiment than first embodiment
It is higher to make therefore yield.
Tenth embodiment：
Shown in Figure 37, the optical lens of tenth embodiment of the invention includes sequentially one by object side A1 to image side surface A2
Aperture S1, one first lens 10, one second lens 20, a third lens 30, one the 4th lens 40 and one the 5th lens 50.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the convex surface part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the concave part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the convex surface part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the convex surface part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a concave part, with
And the concave part positioned at circumference near zone 322.
4th lens 40 have positive refractive index, and being located at optical axis near zone 411 in object side 41 has a convex surface part, with
And the convex surface part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a convex surface part, with
And the convex surface part positioned at circumference near zone 422.
5th lens 50 have negative refractive index, and being located at optical axis near zone 511 in object side 51 has a convex surface part, with
And the concave part positioned at circumference near zone 512.Being located at optical axis near zone 521 in image side surface 52 has a concave part, with
And the convex surface part positioned at circumference near zone 522.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between five lens 50 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical parameter of each lens (according to equation (A)) in the optical imaging lens of tenth embodiment
Detailed data is as shown in following table 10-1.
Table 10-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 8.338160E-03 | -5.714422E-03 | 2.977927E-03 | -4.021208E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 |
| First lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -1.069385E-02 | 3.338767E-03 | 1.649814E-03 | -6.461817E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -2.236436E-02 | 1.826548E-03 | -2.108754E-03 | -2.445071E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -2.601187E-02 | 3.269832E-03 | -5.362789E-03 | 1.003909E-03 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -1.040696E-01 | 1.860086E-02 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -9.581002E-02 | 1.742095E-02 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 2.168858E-02 | -4.665846E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 |
| 4th lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | 6.450638E-02 | -2.115909E-02 | 2.844383E-03 | -1.397134E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 |
| 5th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -4.288264E-02 | -8.516722E-03 | 3.101334E-03 | -2.653349E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 |
| 5th lens (image side surface) | -2.290363E+00 | 0.000000E+ 00 | -5.588068E-02 | 1.073637E-02 | -1.234685E-03 | 4.861536E-05 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens are designed
50, all there is the air gap between optical filtering part CF1 and the imaging surface I1 of image sensor.However in other embodiments, also may be used
Without aforementioned any of which the air gap, such as：It is corresponding each other by the surface profile design of two relative lens, and can pastes each other
It closes, to eliminate the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 10-2.
Table 10-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 10-3.
Table 10-3：
| IH (image height, unit mm) | 2.3 |
| EFL (whole focal length of system, unit mm) | 7.301200859 |
| HFOV (half angle of view, unit °) | 17.47650033 |
| TTL (system overall length, unit mm) | 9.278481572 |
| Fno (f-number) | 2.404153062 |
| RI (relative illumination) | 0.8285 |
| CRA (chief ray angle, unit °) | 8.571 |
On the other hand, from Figure 38 to Figure 40 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
38), astigmatism (Figure 39, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 40) are all very good.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The lens length TTL of the embodiment is than first
Embodiment is short, embodiment angle of half field-of view is more than first embodiment, the image quality of the embodiment better than first embodiment (as
Difference, distortion figure), the embodiment is more easily fabricated than first embodiment therefore yield is higher.
11st embodiment：
Shown in Figure 41, the optical lens of eleventh embodiment of the invention includes sequentially by object side A1 to image side surface A2
One aperture S1, one first lens 10, one second lens 20, a speculum M1, a third lens 30, one the 4th lens 40, and
One the 5th lens 50.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the convex surface part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the concave part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the convex surface part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the concave part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a concave part, with
And the convex surface part positioned at circumference near zone 322.
4th lens 40 have positive refractive index, and being located at optical axis near zone 411 in object side 41 has a convex surface part, with
And the convex surface part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a concave part, with
And the convex surface part positioned at circumference near zone 422.
5th lens 50 have negative refractive index, and being located at optical axis near zone 511 in object side 51 has a convex surface part, with
And the concave part positioned at circumference near zone 512.Being located at optical axis near zone 521 in image side surface 52 has a concave part, with
And the convex surface part positioned at circumference near zone 522.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between five lens 50 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical ginseng of each lens (according to equation (A)) in the optical imaging lens of 11st embodiment
Number detailed data is as shown in following table 11-1.
Table 11-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 3.055688E-03 | -1.564893E-04 | -1.232490E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| First lens (image side surface) | -4.777738E+00 | 0.000000E+ 00 | 8.030718E-03 | -5.222074E-03 | 6.552011E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -5.870225E-02 | 4.556704E-03 | 4.349718E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -7.637746E-02 | 1.271118E-02 | -8.741164E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -9.212740E-03 | 7.944253E-04 | 7.822457E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | 3.727101E-02 | -1.111096E-02 | 1.164069E-03 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 1.002811E-01 | -2.486522E-02 | 2.042214E-03 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| 4th lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -4.426812E-02 | 1.187196E-02 | -7.679733E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| 5th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 4.009537E-02 | -4.955352E-05 | -2.187769E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| 5th lens (image side surface) | -2.719604E+00 | 0.000000E+ 00 | 5.642665E-02 | -8.202082E-03 | 4.395025E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens are designed
50, all there is the air gap between optical filtering part CF1 and the imaging surface I1 of image sensor.However in other embodiments, also may be used
Without aforementioned any of which the air gap, such as：It is corresponding each other by the surface profile design of two relative lens, and can pastes each other
It closes, to eliminate the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 11-2.
Table 11-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 11-3.
Table 11-3：
| IH (image height, unit mm) | 2.3 |
| EFL (whole focal length of system, unit mm) | 7.2986 |
| HFOV (half angle of view, unit °) | 17.5 |
| TTL (system overall length, unit mm) | 5 |
| Fno (f-number) | 2.4 |
| RI (relative illumination) | 0.8438 |
| CRA (chief ray angle, unit °) | 14.43 |
On the other hand, from Figure 42 to Figure 44 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
42), astigmatism (Figure 43, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 44) are all very good.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The lens length TTL of the embodiment is than first
Embodiment is short, embodiment aperture F# (F# values are smaller, and aperture is bigger) smaller than first embodiment, embodiment angle of half field-of view
It is more real than first better than first embodiment (aberration, distortion figure), the embodiment more than first embodiment, the image quality of the embodiment
Apply that example is easily fabricated therefore yield is higher.
12nd embodiment：
Shown in Figure 45, the optical lens of twelveth embodiment of the invention includes sequentially by object side A1 to image side surface A2
One aperture S1, one first lens 10, one second lens 20, a third lens 30, a speculum M1, one the 4th lens 40, and
One the 5th lens 50.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the convex surface part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a concave part, with
And the concave part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the convex surface part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the concave part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a concave part, with
And the convex surface part positioned at circumference near zone 322.
4th lens 40 have positive refractive index, and being located at optical axis near zone 411 in object side 41 has a convex surface part, with
And the concave part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a convex surface part, with
And the convex surface part positioned at circumference near zone 422.
5th lens 50 have negative refractive index, and being located at optical axis near zone 511 in object side 51 has a concave part, with
And the convex surface part positioned at circumference near zone 512.Being located at optical axis near zone 521 in image side surface 52 has a concave part, with
And the convex surface part positioned at circumference near zone 522.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between five lens 50 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical ginseng of each lens (according to equation (A)) in the optical imaging lens of 12nd embodiment
Number detailed data is as shown in following table 12-1.
Table 12-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | 0.000000E+00 | 0.000000E+00 | 2.237230E-03 | -1.293905E-03 | 6.760912E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| First lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -2.894198E-03 | 1.944562E-03 | 1.287351E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+00 | -4.981790E-03 | -7.662794E-03 | 7.878285E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -8.759439E-03 | -6.272035E-03 | 1.159368E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+00 | -6.263737E-02 | 1.687886E-02 | -1.387456E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -5.628671E-02 | 1.223913E-02 | -1.027145E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+00 | 1.709764E-02 | -6.732610E-04 | 4.201266E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -1.690876E-02 | -2.808607E-03 | 5.741550E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (object side) | 0.000000E+00 | 0.000000E+00 | -1.664264E-02 | -4.321964E-03 | 6.611135E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 3.532432E-02 | -3.681103E-03 | 5.140712E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens are designed
50, all there is the air gap between optical filtering part CF1 and the imaging surface I1 of image sensor.However in other embodiments, also may be used
Without aforementioned any of which the air gap, such as：It is corresponding each other by the surface profile design of two relative lens, and can pastes each other
It closes, to eliminate the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 12-2.
Table 12-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 12-3.
Table 12-3：
| IH (image height, unit mm) | 2.3 |
| EFL (whole focal length of system, unit mm) | 7.5262 |
| HFOV (half angle of view, unit °) | 17.5 |
| TTL (system overall length, unit mm) | 4.9 |
| Fno (f-number) | 2.42 |
| RI (relative illumination) | 0.8659 |
| CRA (chief ray angle, unit °) | 11.3 |
On the other hand, from Figure 46 to Figure 48 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
46), astigmatism (Figure 47, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 48) are all very good.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The lens length TTL of the embodiment is than first
Embodiment is short, embodiment angle of half field-of view is more than first embodiment, the image quality of the embodiment better than first embodiment (as
Difference, distortion figure), the embodiment is more easily fabricated than first embodiment therefore yield is higher.
13rd embodiment：
Shown in Figure 49, the optical lens of thriteenth embodiment of the invention includes sequentially by object side A1 to image side surface A2
One aperture S1, one first lens 10, one second lens 20, a third lens 30, a speculum M1, one the 4th lens 40, and
One the 5th lens 50.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the convex surface part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the concave part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the convex surface part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the convex surface part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a concave part, with
And the concave part positioned at circumference near zone 322.
4th lens 40 have positive refractive index, and being located at optical axis near zone 411 in object side 41 has a convex surface part, with
And the concave part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a concave part, with
And the concave part positioned at circumference near zone 422.
5th lens 50 have negative refractive index, and being located at optical axis near zone 511 in object side 51 has a concave part, with
And the convex surface part positioned at circumference near zone 512.Being located at optical axis near zone 521 in image side surface 52 has a concave part, with
And the convex surface part positioned at circumference near zone 522.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between five lens 50 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical ginseng of each lens (according to equation (A)) in the optical imaging lens of 13rd embodiment
Number detailed data is as shown in following table 13-1.
Table 13-1：
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens are designed
50, all there is the air gap between optical filtering part CF1 and the imaging surface I1 of image sensor.However in other embodiments, also may be used
Without aforementioned any of which the air gap, such as：It is corresponding each other by the surface profile design of two relative lens, and can pastes each other
It closes, to eliminate the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 13-2.
Table 13-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 13-3.
Table 13-3：
On the other hand, from Figure 50 to Figure 52 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
50), astigmatism (Figure 51, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 52) are all very good.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The lens length TTL of the embodiment is than first
Embodiment is short, embodiment angle of half field-of view is more than first embodiment, the image quality of the embodiment better than first embodiment (as
Difference, distortion figure), the embodiment is more easily fabricated than first embodiment therefore yield is higher.
14th embodiment：
Shown in Figure 53, the optical lens of fourteenth embodiment of the invention includes sequentially by object side A1 to image side surface A2
One aperture S1, one first lens 10, one second lens 20, a third lens 30, one the 4th lens 40, one the 5th lens 50, with
And one the 6th lens 60.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the convex surface part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the convex surface part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the concave part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the convex surface part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a concave part, with
And the concave part positioned at circumference near zone 322.
4th lens 40 have positive refractive index, and being located at optical axis near zone 411 in object side 41 has a concave part, with
And the concave part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a convex surface part, with
And the convex surface part positioned at circumference near zone 422.
5th lens 50 have negative refractive index, and being located at optical axis near zone 511 in object side 51 has a concave part, with
And the concave part positioned at circumference near zone 512.Being located at optical axis near zone 521 in image side surface 52 has a concave part, with
And the convex surface part positioned at circumference near zone 522.
6th lens 60 have positive refractive index, and being located at optical axis near zone 611 in object side 61 has a concave part, with
And the convex surface part positioned at circumference near zone 612.Being located at optical axis near zone 621 in image side surface 62 has a convex surface part, with
And the convex surface part positioned at circumference near zone 622.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between six lens 60 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical ginseng of each lens (according to equation (A)) in the optical imaging lens of 14th embodiment
Number detailed data is as shown in following table 14-1.
Table 14-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | 0.000000E+00 | 0.000000E+00 | -1.602229E-03 | 5.196044E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| First lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 7.295833E-04 | -1.430742E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+00 | -2.031976E-03 | -6.320376E-05 | -1.443813E-06 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -1.706378E-03 | -3.988794E-05 | -1.296084E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+00 | 1.056845E-03 | 9.059694E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -6.225315E-03 | 1.847091E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+00 | -4.024277E-03 | -3.090753E-04 | 4.346715E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -6.621959E-03 | 8.333879E-05 | 7.306985E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (object side) | 0.000000E+00 | 0.000000E+00 | -8.741635E-02 | 6.930288E-03 | -5.645607E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -3.581700E-02 | 1.176639E-02 | -1.550581E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 6th lens (object side) | 0.000000E+00 | 0.000000E+00 | 2.822147E-02 | -2.006097E-03 | 9.409814E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 6th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 2.500687E-03 | 2.184594E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens are designed
50, all there is the air gap between the imaging surface I1 of the 6th lens 60, optical filtering part CF1 and image sensor.However in other realities
It applies in example, can also not have aforementioned any of which the air gap, such as：It is phase each other by the surface profile design of two relative lens
It answers, and can be bonded each other, to eliminate the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 14-2.
Table 14-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 14-3.
Table 14-3：
On the other hand, from Figure 54 to Figure 56 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
54), astigmatism (Figure 55, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 56) are all very good.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The angle of half field-of view of the embodiment is more than first
Embodiment, the image quality of the embodiment are easy to better than first embodiment (aberration, distortion figure), the embodiment than first embodiment
Therefore yield is higher for manufacture.
15th embodiment：
Shown in Figure 57, the optical lens of fifteenth embodiment of the invention includes sequentially by object side A1 to image side surface A2
One aperture S1, one first lens 10, one second lens 20, a third lens 30, one the 4th lens 40, one the 5th lens 50, with
And one the 6th lens 60.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the convex surface part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the convex surface part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the concave part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the convex surface part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a concave part, with
And the concave part positioned at circumference near zone 322.
4th lens 40 have negative refractive index, and being located at optical axis near zone 411 in object side 41 has a convex surface part, with
And the convex surface part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a concave part, with
And the concave part positioned at circumference near zone 422.
5th lens 50 have positive refractive index, and being located at optical axis near zone 511 in object side 51 has a concave part, with
And the concave part positioned at circumference near zone 512.Being located at optical axis near zone 521 in image side surface 52 has a convex surface part, with
And the convex surface part positioned at circumference near zone 522.
6th lens 60 have negative refractive index, and being located at optical axis near zone 611 in object side 61 has a concave part, with
And the concave part positioned at circumference near zone 612.Being located at optical axis near zone 621 in image side surface 62 has a convex surface part, with
And the convex surface part positioned at circumference near zone 622.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between six lens 60 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical ginseng of each lens (according to equation (A)) in the optical imaging lens of 15th embodiment
Number detailed data is as shown in following table 15-1.
Table 15-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | 0.000000E+00 | 0.000000E+00 | -8.727603E-04 | -1.010731E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| First lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 2.801430E-03 | -8.796013E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+00 | -1.110517E-03 | -5.231442E-05 | -2.377125E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 7.568185E-04 | -1.537422E-04 | -7.709252E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+00 | -2.935563E-03 | 2.898805E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -1.866008E-02 | 3.759008E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+00 | -8.697710E-03 | -6.129377E-03 | 3.514212E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 1.419032E-02 | -4.091948E-03 | 1.499486E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (object side) | 0.000000E+00 | 0.000000E+00 | -8.764215E-03 | -3.933216E-03 | 5.670498E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 6.298004E-03 | -1.572898E-03 | 2.395429E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 6th lens (object side) | 0.000000E+00 | 0.000000E+00 | 1.446219E-02 | 3.224591E-03 | -2.089744E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 6th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -1.038922E-02 | 2.063434E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens are designed
50, all there is the air gap between the imaging surface I1 of the 6th lens 60, optical filtering part CF1 and image sensor.However in other realities
It applies in example, can also not have aforementioned any of which the air gap, such as：It is phase each other by the surface profile design of two relative lens
It answers, and can be bonded each other, to eliminate the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 15-2.
Table 15-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 15-3.
Table 15-3：
| IH (image height, unit mm) | 1.792 |
| EFL (whole focal length of system, unit mm) | 11.32648645 |
| HFOV (half angle of view, unit °) | 8.988074632 |
| TTL (system overall length, unit mm) | 9.900002357 |
| Fno (f-number) | 2.39802922 |
| RI (relative illumination) | 0.9493 |
| CRA (chief ray angle, unit °) | 8.728 |
On the other hand, from Figure 58 to Figure 60 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
58), astigmatism (Figure 59, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 60) are all very good.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The angle of half field-of view of the embodiment is more than first
Embodiment, the image quality of the embodiment are easy to better than first embodiment (aberration, distortion figure), the embodiment than first embodiment
Therefore yield is higher for manufacture.
16th embodiment：
Shown in Figure 61, the optical lens of sixteenth embodiment of the invention includes sequentially by object side A1 to image side surface A2
One aperture S1, one first lens 10, one second lens 20, a third lens 30, one the 4th lens 40, one the 5th lens 50, with
And one the 6th lens 60.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the convex surface part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the convex surface part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the concave part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the convex surface part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a concave part, with
And the concave part positioned at circumference near zone 322.
4th lens 40 have negative refractive index, and being located at optical axis near zone 411 in object side 41 has a concave part, with
And the concave part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a concave part, with
And the concave part positioned at circumference near zone 422.
5th lens 50 have positive refractive index, and being located at optical axis near zone 511 in object side 51 has a convex surface part, with
And the convex surface part positioned at circumference near zone 512.Being located at optical axis near zone 521 in image side surface 52 has a concave part, with
And the concave part positioned at circumference near zone 522.
6th lens 60 have positive refractive index, and being located at optical axis near zone 611 in object side 61 has a concave part, with
And the convex surface part positioned at circumference near zone 612.Being located at optical axis near zone 621 in image side surface 62 has a convex surface part, with
And the convex surface part positioned at circumference near zone 622.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between six lens 60 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical ginseng of each lens (according to equation (A)) in the optical imaging lens of 16th embodiment
Number detailed data is as shown in following table 16-1.
Table 16-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | 0.000000E+00 | 0.000000E+00 | -1.684494E-03 | -8.252752E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| First lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 3.302219E-03 | -1.477411E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+00 | 4.917747E-04 | -1.845206E-04 | -3.276141E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -6.466397E-04 | -2.425617E-04 | -5.923455E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+00 | -2.096366E-03 | 1.030670E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -8.536090E-03 | -4.190214E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+00 | -2.819068E-02 | 6.053880E-03 | -2.339705E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -4.141194E-02 | 2.295422E-02 | -4.724196E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (object side) | 0.000000E+00 | 0.000000E+00 | -1.794628E-02 | 8.691410E-03 | -2.489349E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 6.378709E-03 | 6.837357E-04 | -1.217407E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 6th lens (object side) | 0.000000E+00 | 0.000000E+00 | 4.982011E-03 | 2.063785E-03 | -1.333238E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 6th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -8.931890E-03 | 1.958452E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens are designed
50, all there is the air gap between the imaging surface I1 of the 6th lens 60, optical filtering part CF1 and image sensor.However in other realities
It applies in example, can also not have aforementioned any of which the air gap, such as：It is phase each other by the surface profile design of two relative lens
It answers, and can be bonded each other, to eliminate the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 16-2.
Table 16-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 16-3.
Table 16-3：
| IH (image height, unit mm) | 1.792 |
| EFL (whole focal length of system, unit mm) | 11.3258561 |
| HFOV (half angle of view, unit °) | 8.989291307 |
| TTL (system overall length, unit mm) | 9.900005017 |
| Fno (f-number) | 2.396099125 |
| RI (relative illumination) | 0.9459 |
| CRA (chief ray angle, unit °) | 9.67 |
On the other hand, from Figure 62 to Figure 64 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
61), astigmatism (Figure 62, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 63) are all very good.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The angle of half field-of view of the embodiment is more than first
Embodiment, the image quality of the embodiment are easy to better than first embodiment (aberration, distortion figure), the embodiment than first embodiment
Therefore yield is higher for manufacture.
17th embodiment：
Shown in Figure 65, the optical lens of seventeenth embodiment of the invention includes sequentially by object side A1 to image side surface A2
One aperture S1, one first lens 10, one second lens 20, a third lens 30, one the 4th lens 40, one the 5th lens 50, with
And one the 6th lens 60.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the convex surface part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the concave part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the concave part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the convex surface part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a concave part, with
And the concave part positioned at circumference near zone 322.
4th lens 40 have negative refractive index, and being located at optical axis near zone 411 in object side 41 has a concave part, with
And the concave part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a concave part, with
And the convex surface part positioned at circumference near zone 422.
5th lens 50 have negative refractive index, and being located at optical axis near zone 511 in object side 51 has a concave part, with
And the concave part positioned at circumference near zone 512.Being located at optical axis near zone 521 in image side surface 52 has a concave part, with
And the concave part positioned at circumference near zone 522.
6th lens 60 have positive refractive index, and being located at optical axis near zone 611 in object side 61 has a concave part, with
And the convex surface part positioned at circumference near zone 612.Being located at optical axis near zone 621 in image side surface 62 has a convex surface part, with
And the convex surface part positioned at circumference near zone 622.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between six lens 60 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical ginseng of each lens (according to equation (A)) in the optical imaging lens of 17th embodiment
Number detailed data is as shown in following table 17-1.
Table 17-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | 0.000000E+00 | 0.000000E+00 | -3.323121E-03 | -1.494564E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| First lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 1.624697E-03 | -9.519187E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+00 | -3.306884E-03 | -5.582449E-04 | 8.668555E-06 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -5.047553E-03 | 4.322198E-04 | -1.312871E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+00 | 1.841665E-03 | 2.186321E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -1.788960E-02 | 1.128522E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+00 | -5.689628E-02 | 7.243379E-03 | 1.058488E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -1.299346E-01 | 3.560864E-02 | -3.077470E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (object side) | 0.000000E+00 | 0.000000E+00 | -1.191433E-01 | -4.696652E-02 | 2.537094E-02 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 8.213928E-02 | -4.434130E-02 | 9.556312E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 6th lens (object side) | 0.000000E+00 | 0.000000E+00 | 5.407830E-02 | -7.780020E-03 | 5.605516E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 6th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -5.224459E-03 | 1.506753E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens are designed
50, all there is the air gap between the imaging surface I1 of the 6th lens 60, optical filtering part CF1 and image sensor.However in other realities
It applies in example, can also not have aforementioned any of which the air gap, such as：It is phase each other by the surface profile design of two relative lens
It answers, and can be bonded each other, to eliminate the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 17-2.
Table 17-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 17-3.
Table 17-3：
| IH (image height, unit mm) | 1.792 |
| EFL (whole focal length of system, unit mm) | 11.31614619 |
| HFOV (half angle of view, unit °) | 8.990919308 |
| TTL (system overall length, unit mm) | 9.200067319 |
| Fno (f-number) | 2.383356589 |
| RI (relative illumination) | 0.9305 |
| CRA (chief ray angle, unit °) | 10.53 |
On the other hand, from Figure 66 to Figure 68 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
66), astigmatism (Figure 67, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 68) are all very good.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The lens length TTL of the embodiment is than first
Embodiment is short, embodiment angle of half field-of view is more than first embodiment, the image quality of the embodiment better than first embodiment (as
Difference, distortion figure), the embodiment is more easily fabricated than first embodiment therefore yield is higher.
18th embodiment：
Shown in Figure 69, the optical lens of eighteenth embodiment of the invention includes sequentially by object side A1 to image side surface A2
One aperture S1, one first lens 10, one second lens 20, a third lens 30, a speculum M1, one the 4th lens 40,1
Five lens 50 and one the 6th lens 60.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the convex surface part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the convex surface part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the concave part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the convex surface part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a concave part, with
And the concave part positioned at circumference near zone 322.
4th lens 40 have positive refractive index, and being located at optical axis near zone 411 in object side 41 has a convex surface part, with
And the convex surface part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a concave part, with
And the concave part positioned at circumference near zone 422.
5th lens 50 have negative refractive index, and being located at optical axis near zone 511 in object side 51 has a convex surface part, with
And the convex surface part positioned at circumference near zone 512.Being located at optical axis near zone 521 in image side surface 52 has a concave part, with
And the concave part positioned at circumference near zone 522.
6th lens 60 have positive refractive index, and being located at optical axis near zone 611 in object side 61 has a convex surface part, with
And the convex surface part positioned at circumference near zone 612.Being located at optical axis near zone 621 in image side surface 62 has a concave part, with
And the concave part positioned at circumference near zone 622.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between six lens 60 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical ginseng of each lens (according to equation (A)) in the optical imaging lens of 18th embodiment
Number detailed data is as shown in following table 18-1.
Table 18-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | 0.000000E+00 | 0.000000E+00 | -8.213179E-05 | -1.043774E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| First lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 2.019624E-04 | 9.144599E-07 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+00 | -2.992335E-04 | 7.519205E-06 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -2.359335E-05 | -1.581559E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+00 | -7.349536E-05 | -5.566477E-06 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -1.241117E-03 | 2.547702E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+00 | 3.107910E-03 | 2.932148E-04 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 4th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 2.945035E-03 | -6.026402E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (object side) | 0.000000E+00 | 0.000000E+00 | -2.565065E-03 | -8.775364E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 5th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | -3.041724E-03 | 3.684524E-05 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 6th lens (object side) | 0.000000E+00 | 0.000000E+00 | 2.698571E-02 | 1.815174E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
| 6th lens (image side surface) | 0.000000E+00 | 0.000000E+00 | 3.297614E-02 | 2.410941E-03 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+ 00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens are designed
50, all there is the air gap between the imaging surface I1 of the 6th lens 60, optical filtering part CF1 and image sensor.However in other realities
It applies in example, can also not have aforementioned any of which the air gap, such as：It is phase each other by the surface profile design of two relative lens
It answers, and can be bonded each other, to eliminate the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 18-2.
Table 18-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 18-3.
Table 18-3：
| IH (image height, unit mm) | 1.792 |
| EFL (whole focal length of system, unit mm) | 11.33 |
| HFOV (half angle of view, unit °) | 9 |
| TTL (system overall length, unit mm) | 7.8 |
| Fno (f-number) | 2.4 |
| RI (relative illumination) | 0.9493 |
| CRA (chief ray angle, unit °) | 11.08 |
On the other hand, from Figure 70 to Figure 72 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
70), astigmatism (Figure 71, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 72) are all very good.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The lens length TTL of the embodiment is than first
Embodiment is short, embodiment angle of half field-of view is more than first embodiment, the image quality of the embodiment better than first embodiment (as
Difference, distortion figure), the embodiment is more easily fabricated than first embodiment therefore yield is higher.
19th embodiment：
Shown in Figure 73, the optical lens of nineteenth embodiment of the invention includes sequentially by object side A1 to image side surface A2
One aperture S1, one first lens 10, one second lens 20, a third lens 30, one the 4th lens 40, one the 5th lens 50, with
And one the 6th lens 60.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the convex surface part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the convex surface part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the concave part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the convex surface part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a concave part, with
And the convex surface part positioned at circumference near zone 322.
4th lens 40 have positive refractive index, and being located at optical axis near zone 411 in object side 41 has a convex surface part, with
And the concave part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a convex surface part, with
And the convex surface part positioned at circumference near zone 422.
5th lens 50 have positive refractive index, and being located at optical axis near zone 511 in object side 51 has a concave part, with
And the concave part positioned at circumference near zone 512.Being located at optical axis near zone 521 in image side surface 52 has a convex surface part, with
And the convex surface part positioned at circumference near zone 522.
6th lens 60 have negative refractive index, and being located at optical axis near zone 611 in object side 61 has a concave part, with
And the concave part positioned at circumference near zone 612.Being located at optical axis near zone 621 in image side surface 62 has a concave part, with
And the convex surface part positioned at circumference near zone 622.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between six lens 60 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical ginseng of each lens (according to equation (A)) in the optical imaging lens of 19th embodiment
Number detailed data is as shown in following table 19-1.
Table 19-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -1.277958E-03 | 7.488550E-05 | -8.682821E-05 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| First lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | 1.092624E-03 | -8.729935E-04 | 7.884964E-05 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -8.514250E-03 | -3.857952E-04 | 7.992995E-05 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -2.128206E-02 | 1.646403E-03 | -2.660199E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -2.742660E-02 | 1.078126E-03 | 0.000000E+00 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -3.327121E-02 | 1.623446E-03 | 0.000000E+00 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -2.047790E-02 | -1.985683E-03 | 3.423333E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| 4th lens (image side surface) | -3.496093E+02 | 0.000000E+ 00 | -1.775584E-02 | -3.117001E-03 | 4.311350E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| 5th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 3.453103E-03 | -7.011976E-03 | 4.210611E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| 5th lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | 2.083807E-02 | -1.011384E-02 | 7.412089E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| 6th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -3.785186E-02 | 1.905518E-03 | 1.104405E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
| 6th lens (image side surface) | -1.207490E+01 | 0.000000E+ 00 | -3.244633E-02 | 4.015759E-03 | -1.729893E-04 | 0.000000E+ 00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens are designed
50, all there is the air gap between the imaging surface I1 of the 6th lens 60, optical filtering part CF1 and image sensor.However in other realities
It applies in example, can also not have aforementioned any of which the air gap, such as：It is phase each other by the surface profile design of two relative lens
It answers, and can be bonded each other, to eliminate the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 19-2.
Table 19-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 19-3.
Table 19-3：
| IH (image height, unit mm) | 2.3 |
| EFL (whole focal length of system, unit mm) | 7.294656514 |
| HFOV (half angle of view, unit °) | 17.50213992 |
| TTL (system overall length, unit mm) | 8.77144301 |
| Fno (f-number) | 2.400579913 |
| RI (relative illumination) | 0.8302 |
| CRA (chief ray angle, unit °) | 22.52 |
On the other hand, from Figure 74 to Figure 76 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
74), astigmatism (Figure 75, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 76) are all very good.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The angle of half field-of view of the embodiment is more than first
Embodiment, the image quality of the embodiment are easy to better than first embodiment (aberration, distortion figure), the embodiment than first embodiment
Therefore yield is higher for manufacture.
20th embodiment：
Shown in Figure 77, the optical lens of twentieth embodiment of the invention includes sequentially by object side A1 to image side surface A2
One aperture S1, one first lens 10, one second lens 20, a third lens 30, a speculum M1, one the 4th lens 40,1
Five lens 50 and one the 6th lens 60.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the convex surface part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the concave part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the convex surface part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the convex surface part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a concave part, with
And the convex surface part positioned at circumference near zone 322.
4th lens 40 have positive refractive index, and being located at optical axis near zone 411 in object side 41 has a convex surface part, with
And the concave part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a convex surface part, with
And the convex surface part positioned at circumference near zone 422.
5th lens 50 have negative refractive index, and being located at optical axis near zone 511 in object side 51 has a convex surface part, with
And the concave part positioned at circumference near zone 512.Being located at optical axis near zone 521 in image side surface 52 has a concave part, with
And the convex surface part positioned at circumference near zone 522.
6th lens 60 have negative refractive index, and being located at optical axis near zone 611 in object side 61 has a concave part, with
And the convex surface part positioned at circumference near zone 612.Being located at optical axis near zone 621 in image side surface 62 has a concave part, with
And the convex surface part positioned at circumference near zone 622.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between six lens 60 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
Each aspherical ginseng of each lens (according to equation (A)) in the optical imaging lens of 20th embodiment
Number detailed data is as shown in following table 20-1.
Table 20-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -2.082627E-03 | 3.778618E-03 | -7.116784E-05 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| First lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -1.439692E-02 | 7.432939E-03 | -1.166330E-03 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -6.476473E-03 | -1.590677E-02 | 6.324486E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -2.305104E-02 | -1.902476E-02 | 2.840674E-03 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -7.686608E-02 | 1.011476E-02 | 0.000000E+00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -5.729437E-02 | 6.695329E-03 | 0.000000E+00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -1.479007E-02 | 2.021202E-03 | 8.390044E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| 4th lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -5.339079E-02 | 1.165924E-02 | -8.340500E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| 5th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 4.887943E-02 | -7.544975E-04 | -4.977288E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| 5th lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | 9.022761E-02 | -1.153751E-02 | 9.421703E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| 6th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 3.724350E-02 | -1.097529E-02 | 9.056166E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| 6th lens (image side surface) | -1.116935E+01 | 0.000000E+ 00 | 2.128696E-02 | -4.926593E-03 | 5.012599E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens are designed
50, all there is the air gap between the imaging surface I1 of the 6th lens 60, optical filtering part CF1 and image sensor.However in other realities
It applies in example, can also not have aforementioned any of which the air gap, such as：It is phase each other by the surface profile design of two relative lens
It answers, and can be bonded each other, to eliminate the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 20-2.
Table 20-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 20-3.
Table 20-3：
| IH (image height, unit mm) | 2.3 |
| EFL (whole focal length of system, unit mm) | 7.297 |
| HFOV (half angle of view, unit °) | 17.5 |
| TTL (system overall length, unit mm) | 5 |
| Fno (f-number) | 2.42 |
| RI (relative illumination) | 0.8183 |
| CRA (chief ray angle, unit °) | 10.35 |
On the other hand, from Figure 78 to Figure 80 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
78), astigmatism (Figure 79, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 80) are all very good.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The lens length TTL of the embodiment is than first
Embodiment is short, embodiment angle of half field-of view is more than first embodiment, the image quality of the embodiment better than first embodiment (as
Difference, distortion figure), the embodiment is more easily fabricated than first embodiment therefore yield is higher.
21st embodiment：
Shown in Figure 81, the optical lens of 21st embodiment of the invention is sequentially wrapped by object side A1 to image side surface A2
Include an aperture S1, one first lens 10, one second lens 20, a third lens 30, a speculum M1, one the 4th lens 40, one
5th lens 50 and one the 6th lens 60.
First lens 10 have positive refractive index, and being located at optical axis near zone 111 in object side 11 has a convex surface part, with
And the convex surface part positioned at circumference near zone 112.Being located at optical axis near zone 121 in image side surface 12 has a convex surface part, with
And the convex surface part positioned at circumference near zone 122.
Second lens 20 have negative refractive index, and being located at optical axis near zone 211 in object side 21 has a convex surface part, with
And the concave part positioned at circumference near zone 212.Being located at optical axis near zone 221 in image side surface 22 has a concave part, with
And the concave part positioned at circumference near zone 222.
The third lens 30 have positive refractive index, and being located at optical axis near zone 311 in object side 31 has a convex surface part, with
And the convex surface part positioned at circumference near zone 312.Being located at optical axis near zone 321 in image side surface 32 has a concave part, with
And the convex surface part positioned at circumference near zone 322.
4th lens 40 have positive refractive index, and being located at optical axis near zone 411 in object side 41 has a convex surface part, with
And the concave part positioned at circumference near zone 412.Being located at optical axis near zone 421 in image side surface 42 has a convex surface part, with
And the convex surface part positioned at circumference near zone 422.
5th lens 50 have negative refractive index, and being located at optical axis near zone 511 in object side 51 has a convex surface part, with
And the concave part positioned at circumference near zone 512.Being located at optical axis near zone 521 in image side surface 52 has a concave part, with
And the convex surface part positioned at circumference near zone 522.
6th lens 60 have negative refractive index, and being located at optical axis near zone 611 in object side 61 has a concave part, with
And the convex surface part positioned at circumference near zone 612.Being located at optical axis near zone 621 in image side surface 62 has a concave part, with
And the convex surface part positioned at circumference near zone 622.
Further include an optical filtering part CF1, an illustratively infrared filter (IR cut filter) herein is set to the
Between six lens 60 and imaging surface I1.Optical filtering part CF1 will filter out the wavelength of specific band by the light of optical imaging lens,
Such as：Infrared ray wave band is filtered out, can make one the wavelength for the infrared ray wave band that eye can't see will not image on imaging surface I1 and shadow
Ring image quality.
In the optical imaging lens of 21st embodiment each lens (according to equation (A)) it is each aspherical
Parameter detailed data is as shown in following table 21-1.
Table 21-1：
| Face | K | A2 | A4 | A6 | A8 | A10 | A12 | A14 | A16 |
| First lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 7.594295E-04 | 1.627479E-04 | 1.682797E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| First lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -5.419412E-03 | 2.253369E-03 | -2.205103E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -3.638745E-02 | 1.085075E-03 | -3.722267E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| Second lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -5.030367E-02 | 8.733707E-04 | -1.136248E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -3.712144E-02 | 4.030976E-03 | 0.000000E+00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| The third lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -2.994472E-02 | 2.898356E-03 | 0.000000E+00 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| 4th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 7.620427E-03 | -4.507583E-03 | 1.684660E-03 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| 4th lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -3.626410E-02 | 4.257718E-03 | 2.625152E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| 5th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | -4.294127E-02 | 1.557293E-02 | -1.304960E-03 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| 5th lens (image side surface) | 0.000000E+00 | 0.000000E+ 00 | -3.529436E-02 | 1.382335E-02 | -1.267886E-03 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| 6th lens (object side) | 0.000000E+00 | 0.000000E+ 00 | 1.530825E-02 | -7.149381E-03 | 5.331097E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
| 6th lens (image side surface) | -1.775912E+01 | 0.000000E+ 00 | 3.074813E-02 | -5.741746E-03 | 4.171678E-04 | 0.000000E+ 00 | 0.000000E+00 | 0.000000E+00 | 0.000000E+00 |
In the present embodiment, the first lens 10, the second lens 20, the third lens 30, the 4th lens 40, the 5th lens are designed
50, all there is the air gap between the imaging surface I1 of the 6th lens 60, optical filtering part CF1 and image sensor.However in other realities
It applies in example, can also not have aforementioned any of which the air gap, such as：It is phase each other by the surface profile design of two relative lens
It answers, and can be bonded each other, to eliminate the air gap therebetween.
About each lens in the optical imaging lens of the present embodiment each optical characteristics and each the air gap width such as
Shown in the following table 21-2.
Table 21-2：
The systematic parameter of optical imaging lens about the present embodiment is as shown in following table 21-3.
Table 21-3：
| IH (image height, unit mm) | 2.3 |
| EFL (whole focal length of system, unit mm) | 8.021 |
| HFOV (half angle of view, unit °) | 17.5 |
| TTL (system overall length, unit mm) | 5 |
| Fno (f-number) | 2.4 |
| RI (relative illumination) | 0.854 |
| CRA (chief ray angle, unit °) | 14.67 |
On the other hand, from Figure 82 to Figure 84 in as can be seen that the present embodiment optical imaging lens longitudinal spherical aberration (figure
82), astigmatism (Figure 83, the sagitta of arc, meridian direction), the performance of distortion aberration (Figure 84) are all very good.
In addition, the embodiment have effects that compared to the first embodiment it is as follows：The lens length TTL of the embodiment is than first
Embodiment is short, embodiment angle of half field-of view is more than first embodiment, the image quality of the embodiment better than first embodiment (as
Difference, distortion figure), the embodiment is more easily fabricated than first embodiment therefore yield is higher.
Each parameter value for calculating above 20 one embodiment is concluded, as shown in table 22 below.
Table 22 (1)：
| Condition | Range lower limit | Range limit | Embodiment 1 | Embodiment 2 | Embodiment 3 | Embodiment 4 | Embodiment 5 | Embodiment 6 |
| HFOV | 3.000 | 25.000 | 8.980 | 8.981 | 8.984 | 17.500 | 17.496 | 8.990 |
| TTL | 6.000 | 20.000 | 9.401 | 9.900 | 9.400 | 8.765 | 8.700 | 9.900 |
| EFL/IH | 1.000 | 7.587 | 6.312 | 6.310 | 6.309 | 3.172 | 3.172 | 6.318 |
| EFL | 5.836 | 20.000 | 11.311 | 11.307 | 11.306 | 7.297 | 7.295 | 11.323 |
| TTL/EFL | 0.650 | 1.400 | 0.831 | 0.876 | 0.831 | 1.201 | 1.193 | 0.874 |
| IH | 1.434 | 5.000 | 1.792 | 1.792 | 1.792 | 2.300 | 2.300 | 1.792 |
| Fno | 1.872 | 2.991 | 2.341 | 2.356 | 2.493 | 2.400 | 2.402 | 2.385 |
| RI | 0.637 | 1.139 | 0.878 | 0.880 | 0.864 | 0.837 | 0.830 | 0.937 |
| CRA | 3.359 | 29.988 | 15.870 | 16.260 | 17.910 | 14.830 | 21.420 | 4.199 |
| ALT | 2.113 | 7.203 | 3.130 | 2.931 | 3.160 | 2.641 | 3.156 | 5.259 |
| Gaa | 1.832 | 8.969 | 3.182 | 3.966 | 2.717 | 4.780 | 3.604 | 3.641 |
| BFL | 0.800 | 5.245 | 3.088 | 3.004 | 3.523 | 1.344 | 1.939 | 1.000 |
| TTL/IH | 3.026 | 9.978 | 5.246 | 5.525 | 5.246 | 3.811 | 3.783 | 5.525 |
| HFOV/IH | 4.007 | 9.132 | 5.011 | 5.012 | 5.013 | 7.609 | 7.607 | 5.017 |
| Fno/IH | 0.835 | 1.669 | 1.306 | 1.315 | 1.391 | 1.043 | 1.045 | 1.331 |
| Fno/RI | 2.020 | 3.632 | 2.666 | 2.678 | 2.885 | 2.867 | 2.895 | 2.545 |
| EFL/ALT | 1.250 | 4.630 | 3.613 | 3.859 | 3.578 | 2.762 | 2.311 | 2.153 |
| EFL/Gaa | 1.170 | 5.934 | 3.555 | 2.851 | 4.161 | 1.527 | 2.024 | 3.110 |
| EFL/BFL | 2.073 | 13.591 | 3.662 | 3.765 | 3.209 | 5.430 | 3.762 | 11.319 |
| EFL/T1 | 5.123 | 29.498 | 6.473 | 23.880 | 24.582 | 6.655 | 6.403 | 9.260 |
| EFL/G12 | 15.446 | 137.358 | 48.900 | 84.285 | 114.465 | 73.132 | 73.013 | 113.289 |
| EFL/T2 | 4.501 | 45.330 | 11.411 | 5.627 | 5.685 | 27.051 | 25.907 | 37.775 |
| EFL/G23 | 1.358 | 136.419 | 3.833 | 2.951 | 113.683 | 1.698 | 2.143 | 113.291 |
| EFL/T3 | 2.598 | 34.656 | 28.880 | 25.278 | 27.494 | 7.715 | 8.820 | 4.948 |
| HFOV/T1 | 4.111 | 40.611 | 5.139 | 18.967 | 19.533 | 15.962 | 15.358 | 7.353 |
| HFOV/G12 | 24.683 | 216.616 | 38.822 | 66.945 | 90.953 | 175.399 | 175.120 | 89.952 |
| HFOV/T2 | 3.575 | 78.707 | 9.059 | 4.469 | 4.517 | 64.879 | 62.137 | 29.994 |
| HFOV/G23 | 1.875 | 211.500 | 3.043 | 2.344 | 90.332 | 4.072 | 5.139 | 89.953 |
| HFOV/T3 | 2.696 | 54.474 | 22.928 | 20.077 | 21.846 | 18.504 | 21.155 | 3.929 |
Table 22 (2)：
Table 22 (3)：
Table 22 (4)：
Table 22 (5)：
Table 22 (6)：
Table 22 (7)：
Table 22 (8)：
Range qualified relation listed by aforementioned table, which also can optionally merge, to be applied in an embodiment of the present invention,
It is not limited to this.
Above-mentioned qualified relation is changed with manufacturing technology door, optical characteristics quality and field angle greatly according to parameters
The angle of small relationship is set out, and proposes the above conditions, can be designed that have favorable optical performance, system length shortening and technology
Feasible optical imaging lens in upper feasible, manufacture.
Wherein, as HFOV≤25, camera lens of the present invention is indicated by structure design and there is smaller angle of half field-of view, and energy
Reduce image deformation.
As TTL≤20, indicate camera lens of the present invention by structure design and can the good image quality of maintenance premise it
Under, so that camera lens volume is narrowed down to applicable size, when further reaching TTL≤15 by the design of asphericity coefficient, has
More preferably configure.
As EFL≤20, indicate that camera lens of the present invention can be suitably used for by structure design with focal length more appropriate in turn
Most of shooting occasion.
Optical imaging lens of the present invention meet a following wherein 2.0≤EFL/IH of conditional；5.123≦EFL/T1；
15.446≦EFL/G12；4.501≦EFL/T2；1.358≦EFL/G23；When 2.598≤EFL/T3, it is preferable to indicate that it has
Configuration can generate good image quality under the premise for maintaining appropriate yield.If following either condition can be further conformed to
When formula, then volume more appropriate can be further maintained：2.0≦EFL/IH≦7.587；5.123≦EFL/T1≦29.498；
15.446≦EFL/G12≦137.358；4.501≦EFL/T2≦45.33；1.358≦EFL/G23≦136.419；2.598≦
EFL/T3≦34.656。
When optical imaging lens of the present invention meet following either condition formula, indicate when denominator is constant, the length energy of molecule
It is opposite to shorten, and the effect of reducing camera lens volume can be reached：TTL/EFL≦1.4；HFOV≦25；TTL≦20；EFL≦20；IH
≦5；ALT≦7.203；Gaa≦8.969；BFL≦5.245；TTL/IH≦9.978；HFOV/IH≦9.132；Fno/IH≦
1.669；Fno/RI≦3.632；EFL/ALT≦4.63；EFL/Gaa≦5.934；EFL/BFL≦13.591；HFOV/T1≦
40.611；HFOV/G12≦216.616；HFOV/T2≦78.707；HFOV/G23≦211.5；HFOV/T3≦
54.474……….If following either condition formula can be further conformed to, additionally it is possible to generate more excellent image quality：3≦
HFOV≦25；6≦TTL≦20；5.836≦EFL≦20；0.65≦TTL/EFL≦1.4；1.434≦IH≦5；2.113≦ALT
≦7.203；1.832≦Gaa≦8.969；0.8≦BFL≦5.245；3.026≦TTL/IH≦9.978；4.007≦HFOV/IH
≦9.132；0.835≦Fno/IH≦1.669；2.02≦Fno/RI≦3.632；1.25≦EFL/ALT≦4.63；1.17≦
EFL/Gaa≦5.934；2.073≦EFL/BFL≦13.591；4.111≦HFOV/T1≦40.611；24.683≦HFOV/G12
≦216.616；3.575≦HFOV/T2≦78.707；1.875≦HFOV/G23≦211.5；2.696≦HFOV/T3≦
54.474。
On the other hand, if all lens all to be used to plastic production, it can more highlight conducive to aspherical manufacture, reduce
The advantages of cost and mitigation camera lens weight.
In view of the unpredictability of Optical System Design, under the framework of the present invention, meeting the above conditions can be compared with
Goodly shorten lens length of the present invention, can be increased with aperture increase, field angle, image quality promotion, or assembling Yield lmproved
And the shortcomings that improving prior art.
In view of the unpredictability of Optical System Design, under the framework of the present invention, meeting the above conditions can be compared with
Goodly shorten lens length of the present invention, can be increased with aperture increase, field angle, image quality promotion, or assembling Yield lmproved
And the shortcomings that improving the prior art.
To sum up, the longitudinal spherical aberration of various embodiments of the present invention, astigmatic image error, distortion all meet operating specification.In addition, red, green,
Blue three kinds represent wavelength and are all concentrated near imaging point in the Off-axis-light of different height, can be seen by the skewness magnitude level of each curve
The imaging point deviation for going out the Off-axis-light of different height is all controlled and has good spherical aberration, aberration, distortion rejection ability.
Further regard to image quality data, it is also fairly close that three kinds of red, green, blue represents the distance of wavelength to each other, the display present invention
It is good to the centrality of different wave length light under various regimes and have excellent dispersion rejection ability.In conclusion of the invention
Design by the lens be collocated with each other, and excellent image quality can be generated.
Therefore the present invention can shorten lens length to reach micromation under conditions of maintaining favorable optical performance really
Target.
Based on above-mentioned optical imaging lens, the present invention also proposes the electronic device using aforementioned optical imaging lens.It should
First preferred embodiment of electronic device, is to include：One casing and an image module being mounted in casing.Only it is herein
Illustrate the electronic device by taking mobile phone as an example, but the pattern of electronic device is not limited, for example, electronic device may also include
But be not limited to camera, tablet computer, personal digital assistant (personal digital assistant, abbreviation PDA) etc..
The image module includes a foregoing optical imaging lens, such as illustratively selects aforementioned first reality herein
Apply the optical imaging lens, a lens barrel for be arranged for optical imaging lens, a module for being used to be arranged for lens barrel of example
Rear seat unit (module housing unit), the substrate of confession module rear seat unit setting and one are set to optics
The image sensor of imaging lens image side.Imaging surface is formed at image sensor.
Though it is noted that the present embodiment shows optical filtering part, however can also omit the knot of optical filtering part in other embodiments
Structure is not limited with necessity of optical filtering part, and casing, lens barrel, and/or module rear seat unit can be single component or multiple components
Assemble, without being defined in this；Secondly, image sensor used in the present embodiment is using linking chip package on plate
The packaged type of (Chip on Board, COB) is connected directly between on substrate and traditional die sized package (Chip Scale
Package, CSP) packaged type the difference is that on plate linking chip package be without the use of protective glass (cover
Glass it), therefore in optical imaging lens does not need to that protective glass is arranged before image sensor, the right present invention is not
As limit.
The whole two-piece type lens with refractive index are illustratively to be respectively present a air gap between two lens
Mode be set in lens barrel.
Module rear seat unit includes one with the camera lens back seat being arranged for lens barrel and an image sensor back seat.Lens barrel be with
Camera lens back seat is arranged along an axis coaxle, and lens barrel is set on the inside of camera lens back seat, after image sensor back seat is located at the camera lens
Between seat and the image sensor, and the image sensor back seat and the camera lens back seat fit, so in other embodiments,
It is not necessarily present image sensor back seat.
It, can by the size design of the electronic device due to the length only 2.479338363mm of optical imaging lens
It is more light and short, and remain able to provide good optical property and image quality.Therefore, the present embodiment is reduced in addition to having
Outside the economic benefit of casing raw material dosage, moreover it is possible to meet light and short product design trend and consumption demand.
The electronic device of second preferred embodiment and the electronic device of the first preferred embodiment main difference is that：Camera lens
There are one First body unit, a second pedestal unit, a coil and a magnet assemblies for back seat tool.First body unit
It fits with lens barrel outside and is set along optical axis setting, the second pedestal unit along optical axis and around First body unit outside
It sets.Coil is arranged on the outside of First body unit between the second pedestal unit inside.Magnet assembly be arranged on the outside of coil with
Between second pedestal unit inside.
First body unit can be moved with lens barrel and the optical imaging lens being arranged in lens barrel along optical axis.Electronics fills
The other assemblies structure for the 8th embodiment set is then similar with the electronic device of first embodiment, and details are not described herein.
It similarly, can be by portable electronic devices due to the length of optical imaging lens only 2.479338363mm
Size design it is more light and short, and remain able to provide good optical property and image quality.Therefore, the present embodiment removes
Have outside the economic benefit for reducing casing raw material dosage, moreover it is possible to meet light and short product design trend and consumption demand.
By among the above it is known that the electronic device of the present invention and its optical imaging lens, each by controlling two panels lens
The thin portion structure of lens and/or the design of refractive index to maintain favorable optical performance, and effectively shorten lens length.
Although specifically showing and describing the present invention in conjunction with preferred embodiment, those skilled in the art should be bright
In vain, it is not departing from the spirit and scope of the present invention defined by the appended claims, it in the form and details can be right
The present invention makes a variety of changes, and is protection scope of the present invention.
Claims (20)
1. a kind of optical imaging lens, along an optical axis include sequentially from an object side a to image side one first lens, one second thoroughly
Mirror, a third lens, one the 4th lens and one the 5th lens, and first lens include respectively that a direction is somebody's turn to do to the 5th lens
Object side and the object side that makes imaging light pass through and one are towards the image side and the image side surface that makes imaging light pass through；Its feature exists
In：
First lens have positive refractive index；
The object side of 5th lens, which is located at the optical axis near zone, has a concave part, and the image side surface of the 5th lens
There is a convex surface part positioned at circumference near zone；
Wherein, which there are the lens of refractive index there was only five and satisfy the following conditional expression：
3.000≦HFOV≦25.000；
0.835≦Fno/IH≦1.669；
Wherein, HFOV is angle of half field-of view, and Fno is the f-number of the optical imaging lens, and IH is system in being imaged on imaging surface
Image height.
2. a kind of optical imaging lens, along an optical axis include sequentially from an object side a to image side one first lens, one second thoroughly
Mirror, a third lens, one the 4th lens and one the 5th lens, and first lens include respectively that a direction is somebody's turn to do to the 5th lens
Object side and the object side that makes imaging light pass through and one are towards the image side and the image side surface that makes imaging light pass through；Its feature exists
In：
The image side surface of first lens with positive refractive index and first lens is located at circumference near zone with a convex surface part；
The object side of second lens, which is located at circumference near zone, has a convex surface part, and the image side surface position of second lens
There is a concave part in circumference near zone；
The image side surface of 5th lens, which is located at circumference near zone, has a convex surface part；
Wherein, which there are the lens of refractive index there was only five and satisfy the following conditional expression：
3.000≦HFOV≦25.000；
HFOV/IH≦9.132；
Wherein, HFOV is angle of half field-of view, and IH is system in the image height being imaged on imaging surface.
3. optical imaging lens according to claim 1 or 2, it is characterised in that：The optical imaging lens more meet 0.442
≤ ALT/Gaa≤2.304, ALT be first lens to the 5th lens thickness on the optical axis summation, Gaa be this first thoroughly
Summation of the mirror to the air gap between the 5th lens on the optical axis.
4. optical imaging lens according to claim 1 or 2, it is characterised in that：The image side surface of the third lens is located at
Circumference near zone has a concave part.
5. optical imaging lens according to claim 1 or 2, it is characterised in that：The third lens have positive refractive index.
6. optical imaging lens according to claim 1 or 2, it is characterised in that：The optical imaging lens more meet 5.836
≤ EFL≤20.000, EFL are the system effective focal length of the optical imaging lens.
7. optical imaging lens according to claim 1 or 2, it is characterised in that：The optical imaging lens more meet 1.273
≤ Gaa/T3≤14.206, Gaa are the summation of first lens to the air gap between the 5th lens on the optical axis, and T3 is
Thickness of the third lens on the optical axis.
8. optical imaging lens according to claim 1 or 2, it is characterised in that：The optical imaging lens more meet 2.000
≤ EFL/IH, EFL are the system effective focal length of the optical imaging lens.
9. optical imaging lens according to claim 1 or 2, it is characterised in that：The optical imaging lens more meet 5.123
≤ EFL/T1≤29.498, EFL are the system effective focal length of the optical imaging lens, and T1 is first lens on the optical axis
Thickness.
10. optical imaging lens according to claim 1 or 2, it is characterised in that：The optical imaging lens more meet
2.073≤EFL/BFL≤13.591, EFL are the system effective focal length of the optical imaging lens, and BFL is the picture of the 5th lens
Length of the side to imaging surface on the optical axis.
11. optical imaging lens according to claim 1 or 2, it is characterised in that：The optical imaging lens more meet
4.501≤EFL/T2≤45.330, EFL are the system effective focal length of the optical imaging lens, and T2 is second lens in the light
Thickness on axis.
12. optical imaging lens according to claim 1 or 2, it is characterised in that：The optical imaging lens more meet
1.358≤EFL/G23≤136.419, EFL are the system effective focal length of the optical imaging lens, and G23 is being somebody's turn to do for second lens
Image side surface to the third lens the distance of the object side on the optical axis.
13. optical imaging lens according to claim 1 or 2, it is characterised in that：The optical imaging lens more meet
2.598≤EFL/T3≤34.656, EFL are the system effective focal length of the optical imaging lens, and T3 is the third lens in the light
Thickness on axis.
14. optical imaging lens according to claim 1 or 2, it is characterised in that：The optical imaging lens more meet
4.111≤HFOV/T1≤40.611, T1 are the thickness of first lens on the optical axis.
15. optical imaging lens according to claim 1 or 2, it is characterised in that：The optical imaging lens more meet
3.575≤HFOV/T2≤78.707, T2 are the thickness of second lens on the optical axis.
16. optical imaging lens according to claim 1 or 2, it is characterised in that：The optical imaging lens more meet
1.875≤HFOV/G23≤211.500, G23 be second lens the image side surface to the object side of the third lens at this
Distance on optical axis.
17. optical imaging lens according to claim 1 or 2, it is characterised in that：The optical imaging lens more meet
0.492≤ALT/G23≤72.033, ALT are summation of first lens to the 5th lens thickness on the optical axis, and G23 is should
The image side surface of second lens to the third lens the distance of the object side on the optical axis.
18. optical imaging lens according to claim 1 or 2, it is characterised in that：The optical imaging lens more meet
0.536≤ALT/G34≤50.868, ALT are summation of first lens to the 5th lens thickness on the optical axis, and G34 is should
The image side surface of the third lens to the 4th lens the distance of the object side on the optical axis.
19. optical imaging lens according to claim 1 or 2, it is characterised in that：The optical imaging lens more meet
0.549≤BFL/T1≤9.192, BFL are length of the image side surface to imaging surface on the optical axis of the 5th lens, T1 be this
Thickness of one lens on the optical axis.
20. optical imaging lens according to claim 1 or 2, it is characterised in that：The optical imaging lens more meet
1.064≤BFL/T2≤17.486, BFL are length of the image side surface of the 5th lens to imaging surface on the optical axis, and T2 is should
Thickness of second lens on the optical axis.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201810627862.5A CN108761728B (en) | 2014-09-05 | 2014-09-05 | Optical imaging lens and electronic device |
Applications Claiming Priority (2)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201410452628.5A CN105467562A (en) | 2014-09-05 | 2014-09-05 | Optical imaging lens and electronic device |
| CN201810627862.5A CN108761728B (en) | 2014-09-05 | 2014-09-05 | Optical imaging lens and electronic device |
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| Application Number | Title | Priority Date | Filing Date |
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| CN201410452628.5A Division CN105467562A (en) | 2014-09-05 | 2014-09-05 | Optical imaging lens and electronic device |
Publications (2)
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| CN108761728A true CN108761728A (en) | 2018-11-06 |
| CN108761728B CN108761728B (en) | 2021-04-09 |
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| CN201410452628.5A Pending CN105467562A (en) | 2014-09-05 | 2014-09-05 | Optical imaging lens and electronic device |
| CN201810622249.4A Pending CN109375339A (en) | 2014-09-05 | 2014-09-05 | Optical imaging lens and electronic device |
| CN201810620901.9A Pending CN109407270A (en) | 2014-09-05 | 2014-09-05 | Optical imaging lens and electronic device |
| CN201810627863.XA Active CN108761729B (en) | 2014-09-05 | 2014-09-05 | Optical imaging lens and electronic device |
| CN201810627862.5A Active CN108761728B (en) | 2014-09-05 | 2014-09-05 | Optical imaging lens and electronic device |
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| CN201410452628.5A Pending CN105467562A (en) | 2014-09-05 | 2014-09-05 | Optical imaging lens and electronic device |
| CN201810622249.4A Pending CN109375339A (en) | 2014-09-05 | 2014-09-05 | Optical imaging lens and electronic device |
| CN201810620901.9A Pending CN109407270A (en) | 2014-09-05 | 2014-09-05 | Optical imaging lens and electronic device |
| CN201810627863.XA Active CN108761729B (en) | 2014-09-05 | 2014-09-05 | Optical imaging lens and electronic device |
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| WO2022088225A1 (en) * | 2020-10-26 | 2022-05-05 | 诚瑞光学(深圳)有限公司 | Camera lens |
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Also Published As
| Publication number | Publication date |
|---|---|
| CN109407270A (en) | 2019-03-01 |
| CN108761729B (en) | 2021-04-09 |
| CN108761729A (en) | 2018-11-06 |
| CN109375339A (en) | 2019-02-22 |
| CN105467562A (en) | 2016-04-06 |
| CN108761728B (en) | 2021-04-09 |
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