CN219015603U

CN219015603U - Combined analysis type VR glasses detection system

Info

Publication number: CN219015603U
Application number: CN202223482694.6U
Authority: CN
Inventors: 谭少沛; 邓英韬; 舒光兵; 张晓锋; 董植锋; 姚鹏; 胡红影
Original assignee: Zhongshan Uvata Optical Co ltd
Current assignee: Zhongshan Uvata Optical Co ltd
Priority date: 2022-12-26
Filing date: 2022-12-26
Publication date: 2023-05-12
Anticipated expiration: 2032-12-26

Abstract

The utility model discloses a combined analysis type VR glasses detection system, which is characterized in that: the device comprises a test box body and an industrial camera, wherein a test lens module is arranged on the box body and comprises a symmetrical optical system and a telescopic optical system which are arranged along an optical axis, and light rays emitted by a tested lens are received by the industrial camera to form images after passing through the symmetrical optical system and the telescopic optical system. After the system is used, the AA manufacturing process can be used for production; moreover, the distance reduction optical system can take partial images from the VR screen, so that the realization of the partial combination analysis method is ensured.

Description

Combined analysis type VR glasses detection system

Technical Field

The utility model relates to VR projection lens module detection, in particular to a combined analysis type VR glasses detection system.

Background

The VR glasses 100 mainly comprise a VR projection lens and a VR screen, and the VR glasses 100 need to simulate an object distance range from 0.5 m to infinity, and the object distance range is large. For the existing method for detecting the VR glasses 100, an industrial camera and a special lens are generally used to form a human eye camera 200 at the exit pupil position of the VR glasses 100 to replace human eyes to obtain images (as shown in fig. 2), the form of the images on the industrial camera is analyzed through software, and the clear condition of the images is judged mainly according to an MTF data diagram, so that whether the position assembly of the VR projection lens and the VR screen meets the requirements is judged. Industrial cameras and special lenses must be very close to VR glasses 100, as well as the distance from human eye 300 to VR glasses 100 (as shown in fig. 1), which is detrimental to the AA process of VR glasses; in addition, the detection method using the eye camera 300 can only use one camera to detect the entire VR projection image plane, that is, the image displayed on the VR screen is projected onto the industrial camera through a special lens, and then the software selects a plurality of local areas of the image projected onto the industrial camera to analyze the sharpness thereof, so as to determine whether the assembly of the VR projection lens and the VR screen meets the standard, and the detection method has the following disadvantages: the number of the pixels of the whole screen is huge, but the resolution is ensured, so that the requirements on an industrial camera are very high, the cost is high, and the data transmission time is long because of the large data volume when the pixel data are transmitted to the background for analysis.

Thus, the present company adopts a local combinatorial analysis method to solve the above problems: the method comprises the steps that a plurality of areas, generally five areas, are directly selected on a VR screen, then images of each area are projected onto corresponding industrial cameras through corresponding combined analysis type VR glasses detection systems, data of the images on the five industrial cameras are collected through software, image forms are analyzed, and clear conditions of the images are judged, so that whether position assembly of the VR projection lens and the VR screen meets requirements or not is judged.

The method does not need to project the whole screen image, thus greatly reducing the resolution requirement for each industrial camera, greatly reducing the cost, reducing the total price of even five cameras compared with the previous one, reducing the data transmission quantity and greatly reducing the data transmission time. The application provides a combination analysis type VR glasses detection system.

Disclosure of Invention

In order to overcome the defects in the prior art, the utility model provides a combined analysis type VR glasses detection system.

The technical scheme adopted for solving the technical problems is as follows:

a combination analysis formula VR glasses detecting system, its characterized in that: the device comprises a test box body and an industrial camera, wherein a test lens module is arranged on the box body and comprises a symmetrical optical system and a telescopic optical system which are arranged along an optical axis, and light rays emitted by a tested lens are received by the industrial camera to form images after passing through the symmetrical optical system and the telescopic optical system.

The symmetrical optical system comprises a first lens group and a second lens group, wherein the first lens group comprises a first lens, a second lens, a third lens and a fourth lens, the second lens group comprises a fifth lens, a sixth lens, a seventh lens and a eighth lens, and the first lens and the eighth lens have the same structure and are symmetrically arranged relative to a virtual plane; the second lens is identical to the seventh lens in structure and is symmetrically arranged relative to the virtual plane; the third lens is identical to the sixth lens in structure and is symmetrically arranged relative to the virtual plane; the fourth lens and the fifth lens are identical in structure and are symmetrically arranged relative to a virtual plane, and the virtual plane is positioned at the center position between the first lens group and the second lens group and perpendicular to the optical axis.

The first lens and the eighth lens are biconcave lenses, the second lens, the fourth lens, the fifth lens and the seventh lens are biconvex lenses, the third lens and the sixth lens are convex-concave lenses, and the first lens is a negative focal lens and the curvature values of the two surfaces are equal; the second lens is a positive focal lens, and the surface with the small curvature radius value faces towards the industrial camera with the large curvature radius value of the measured lens; the third lens is a negative focal lens, and the convex surface faces towards the concave surface of the tested lens and towards the industrial camera; the fourth lens is a positive focal lens, and a face with a large curvature radius value faces towards an industrial camera with a small curvature radius value of the measured lens; the fifth lens is a positive focal lens, and the surface with the small curvature radius value faces towards the industrial camera with the large curvature radius value of the measured lens; the lens six is a negative focal lens, and the concave surface faces towards the convex surface of the tested lens and towards the industrial camera; the lens seven is a positive focal lens, and a face with a large curvature radius value faces towards an industrial camera with a small curvature radius value of the measured lens; the lens eight is a negative focal lens and the curvature values of the two surfaces are equal.

The lens-refractive index range: 1.55 to 1.75, dispersion coefficient range: 25-45, a radius of curvature of the surface: -110mm to-130 mm, radius of curvature of face two: 110 mm-130 mm; refractive index range of lens two: 1.70 to 1.90, dispersion coefficient range: 35-55, a surface-radius of curvature: 50 mm-70 mm, radius of curvature of the second surface: -80mm to-100 mm; lens three refractive index range: 1.70 to 1.90; dispersion coefficient range: 35-55, radius of curvature: surface one: 40-60 parts of second surface and 30-50 parts of second surface; lens four refractive index range: 1.40 to 1.6; dispersion coefficient range: 70-90, radius of curvature: surface one: 70-90, wherein the second surface is-40 to-60; five refractive index ranges of the lens: 1.40 to 1.6; dispersion coefficient range: 70-90, radius of curvature: surface one: 40-60, wherein the second surface is-70 to-90; lens six refractive index range: 1.70 to 1.90; dispersion coefficient range: 35-55, radius of curvature: surface one: -30 to-50, and-40 to-60; lens seven refractive index range: 1.70 to 1.90, dispersion coefficient range: 35-55, a surface-radius of curvature: 80 mm-100 mm, radius of curvature of the second surface: -50mm to-70 mm; lens eight refractive index range: 1.55 to 1.75, dispersion coefficient range: 25-45, a radius of curvature of the surface: -110mm to-130 mm, radius of curvature of face two: 110 mm-130 mm.

The lens has a focal length: f= -90mm; lens two focal lengths: f=45 mm; lens three focal lengths: f= -300mm; lens four focal lengths: f=60 mm; five focal lengths of the lens: f=60 mm; six-fold focal length of lens: f= -300mm; seven focal lengths of the lens: f=45 mm; eight focal lengths of lens: f= -90mm.

The telescopic optical system comprises a lens nine, a lens ten, a lens eleven, a lens twelve and a lens thirteen, wherein the lens eleven is a biconcave lens, the lens nine, the lens twelve and the lens thirteen are biconvex lenses, the lens ten is a plano-convex lens, the lens nine is a positive focal lens, and a face with a large curvature radius value faces towards an industrial camera with a small curvature radius value of a measured lens; the lens ten is a positive focal lens, and the convex surface faces towards the plane of the measured lens and towards the industrial camera; the lens eleven is a negative focal lens, and a face with a large curvature radius value faces towards an industrial camera with a small curvature radius value of the measured lens; the lens twelve is a positive focal lens, and a face with a large curvature radius value faces towards an industrial camera with a small curvature radius value of the measured lens; the lens thirteen is a positive focal lens, and the face with the large curvature radius value faces towards the industrial camera with the small curvature radius value of the measured lens.

The nine refractive index ranges of the lens: 1.60 to 1.80; dispersion coefficient range: 40-60, radius of curvature: surface one: 45-65, two faces: -5 to-25; lens ten refractive index range: 1.75 to 1.95; dispersion coefficient range: 10 to 30, radius of curvature: surface one: 10-30, two faces: a plane; lens eleven refractive index range: 1.50 to 1.70; dispersion coefficient range: 50-70, radius of curvature: surface one: -120 to-140, face two: 70-90; twelve refractive index ranges of the lens: 1.55 to 1.75; dispersion coefficient range: 40-60, radius of curvature: surface one: 90-110, two faces: -60 to-80; thirteen refractive index ranges of the lens: 1.40 to 1.60; dispersion coefficient range: 70-90, radius of curvature: surface one: 40-60, two faces: -20 to-40.

Nine focal lengths of the lens: f=10mm; ten focal lengths of lens: f=20 mm; eleven focal lengths of lens: f= -80mm; twelve focal lengths of lens: f=60 mm; thirteen focal lengths of lens: f=40 mm.

The beneficial effects of the utility model are as follows: according to the utility model, the symmetrical optical system is arranged between the tested lens and the telescopic optical system, the symmetrical optical system mirrors the virtual image of the tested lens to the entrance pupil of the telescopic optical system, and the telescopic optical system receives the virtual image from the entrance pupil and images the virtual image on the CCD of the industrial camera, so that the distance between the VR glasses and the detection system is greatly increased, and the problems that the VR glasses or the VR lens module are large in detection requirement space, long in distance and inconvenient to detect are solved; the problem that VR glasses are required to be detected at the entrance pupil position is solved, and after the system is used, the system can be produced by using an AA process; moreover, the distance reduction optical system can take partial images from the VR screen, so that the realization of the partial combination analysis method is ensured.

Drawings

The utility model will be further described with reference to the drawings and examples.

FIG. 1 is a schematic diagram of a human eye looking at VR glasses;

FIG. 2 is a schematic diagram of a human eye camera looking at VR glasses;

FIG. 3 is an optical path diagram of the present utility model;

FIG. 4 is an optical path diagram at A of FIG. 3;

FIG. 5 is a light path diagram at B of FIG. 3;

FIG. 6 is an internal structural view of the test case;

FIG. 7 is a lens arrangement;

FIG. 8 is a data plot of field curvature and distortion;

FIG. 9 is a diagram of the present system for testing VR glasses _MTF And (5) a data graph.

Detailed Description

Advantages and features of the present disclosure, as well as methods of practicing the same, will be elucidated by the following embodiments described with reference to the accompanying drawings. This disclosure may, however, be embodied in different forms and should not be construed as limited to the embodiments set forth herein. Rather, these embodiments are provided so that this disclosure will be thorough and complete, and will fully convey the scope of the disclosure to those skilled in the art. Furthermore, the disclosure is limited only by the scope of the claims.

The shapes, sizes, proportions, angles, and numbers disclosed in the drawings for describing embodiments of the present disclosure are merely examples, and thus the present disclosure is not limited to the details shown. Like reference numerals refer to like elements throughout the specification. In the following description, when a detailed description of related known functions or configurations is determined to unnecessarily obscure the gist of the present disclosure, the detailed description will be omitted. Where the terms "comprising," "having," and "including" are used in this specification, other components may be added unless the term "only" is used. Unless indicated to the contrary, singular terms may include the plural.

In interpreting the elements, although not explicitly described, the elements are understood to include the scope of error.

In describing the positional relationship, for example, when the positional relationship is described as "on … …", "above … …", "below … …", and "adjacent to … …", unless "immediately" or "directly" is used, one or more portions may be arranged between two other portions.

In describing the temporal relationship, for example, when the temporal sequence is described as "after … …", "subsequent", "next", and "before … …", unless "just" or "direct" is used, a discontinuous condition may be included.

It will be understood that, although the terms "first," "second," etc. may be used herein to describe various elements, these elements should not be limited by these terms. These terms are only used to distinguish one element from another element. For example, a first element could be termed a second element, and, similarly, a second element could be termed a first element, without departing from the scope of the present disclosure.

As those skilled in the art will fully appreciate, the features of the different embodiments of the present disclosure may be partially or fully coupled or combined with each other and may cooperate and be technically driven in various ways. Embodiments of the present disclosure may be performed independently of each other or may be performed together in an interdependent relationship.

Referring to fig. 3 and 7, the utility model discloses a combined analysis type VR glasses detection system, which comprises a test box 1 and an industrial camera 2, wherein a test lens module is arranged on the test box 1, the industrial camera 2 and the test lens module are both arranged in the test box 1 for facilitating integration, the test lens module comprises a symmetrical optical system 3 and a telescopic optical system 4 which are arranged along an optical axis, light rays emitted by a tested lens are received by the industrial camera 2 to form an image after passing through the symmetrical optical system 3 and the telescopic optical system 4, the tested lens is a VR glasses, an image position 5 of a virtual image generated by the VR glasses is positioned on one side of the optical system 3, the VR glasses are positioned between the image position 5 of the virtual image and the optical system 3, and the industrial camera for testing is a special industrial camera without a lens.

As shown in fig. 4, the symmetrical optical system 3 includes a first lens group and a second lens group, the first lens group includes a first lens 8, a second lens 9, a third lens 10 and a fourth lens 11, the second lens group includes a fifth lens 12, a sixth lens 13, a seventh lens 14 and a eighth lens 15, and the first lens 8 and the eighth lens 15 have the same structure and are symmetrically arranged relative to a virtual plane; the second lens 9 and the seventh lens 14 have the same structure and are symmetrically arranged relative to the virtual plane; the third lens 10 and the sixth lens 13 have the same structure and are symmetrically arranged relative to the virtual plane; the fourth lens 11 and the fifth lens 12 are identical in structure and are symmetrically arranged relative to a virtual plane, the virtual plane is located at the center position between the first lens group and the second lens group and perpendicular to the optical axis, and the symmetrical optical system 3 mirrors the virtual image of the VR glasses to the entrance pupil 7 of the telescopic optical system 4, so that the distance between the VR glasses and the detection system is increased.

As shown in the figure, the first lens 8 and the eighth lens 15 are biconcave lenses, the second lens 9, the fourth lens 11, the fifth lens 12 and the seventh lens 14 are biconvex lenses, the third lens 10 and the sixth lens 13 are convex-concave lenses, and the first lens 8 is a negative focal lens and the curvature values of the two surfaces are equal; the second lens 9 is a positive focal lens, and faces with small curvature radius values face towards the industrial camera 2 with large curvature radius values of the tested lens; the third lens 10 is a negative focal lens, and the convex surface faces towards the concave surface of the tested lens and towards the industrial camera 2; the fourth lens 11 is a positive focal lens, and faces with large curvature radius values face towards the industrial camera 2, and the curvature radius values of the lenses to be measured are small; the fifth lens 12 is a positive focal lens, and faces with small curvature radius values face towards the industrial camera 2 with large curvature radius values of the tested lens; the sixth lens 13 is a negative focal lens, and the concave surface faces the convex surface of the measured lens and faces the industrial camera 2; the seventh lens 14 is a positive focal lens, and faces with large curvature radius values face towards the industrial camera 2, and the curvature radius values of the lenses to be measured are small; the lens eight 15 is a negative focal lens and has equal values of curvature on both sides.

As specific data:

the lens-8 focal length preferably: f= -90mm; lens two 9 focal lengths are preferably: f=45 mm; lens three 10 focal length is preferably: f= -300mm; lens four 11 focal length is preferably: f=60 mm; the five 12 focal lengths of the lens are preferably: f=60 mm; the six 13-fold focal length of the lens is preferably: f= -300mm; the seven 14 focal lengths of the lens are preferably: f=45 mm; the eight 15 focal length of the lens is preferably: f= -90mm.

Lens one 8 refractive index preferably: 1.65; the dispersion coefficient is preferably: 35; the radius of curvature of the first surface is preferably: -120mm, the radius of curvature of face two is preferably: 120mm;

the refractive index of lens two 9 is preferably: 1.80; the dispersion coefficient is preferably: 45; the radius of curvature of the first surface is preferably: 60mm, the radius of curvature of the second surface is preferably: -90mm;

the refractive index of lens three 10 is preferably: 1.80; the dispersion coefficient is preferably: 45; the radius of curvature of the first surface is preferably: 50mm, the radius of curvature of the second surface is preferably: 40mm;

the refractive index of lens four 11 is preferably: 1.50; the dispersion coefficient is preferably: 80; the radius of curvature of the first surface is preferably: 80mm, the radius of curvature of the second surface is preferably: -50mm;

the refractive index of lens five 12 is preferably: 1.50; the dispersion coefficient is preferably: 80; the radius of curvature of the first surface is preferably: 50mm, the radius of curvature of the second surface is preferably: -80mm;

the six 13 refractive index of the lens is preferably: 1.80; the dispersion coefficient is preferably: 45; the radius of curvature of the first surface is preferably: -40mm, the radius of curvature of the face two is preferably: -50mm;

the seven 14 refractive index of the lens is preferably: 1.80; the dispersion coefficient is preferably: 45; the radius of curvature of the first surface is preferably: 90mm, the radius of curvature of the second surface is preferably: -60mm;

the refractive index of lens eight 15 is preferably: 1.65; the dispersion coefficient is preferably: 35; the radius of curvature of the first surface is preferably: -120mm, the radius of curvature of face two is preferably: 120mm;

the above specific lens arrangement can make the working distance of the symmetric optical system 3 reach 80mm, that is, the symmetric optical system 3 can have a distance of 80mm from the previous entrance pupil position, and the symmetric optical system mirrors the virtual image of the previous entrance pupil position 6 to the entrance pupil position 7 of the telescopic optical system, so that the telescopic optical system can receive the virtual image, therefore, the system can realize a working distance of 80mm, the distance from the previous entrance pupil position 6 to the VR glasses is very short, only tens of millimeters, and the human eye camera can only receive the virtual image of the VR glasses when placed at the position, which is unfavorable for the AA process.

As shown in fig. 5, the telescopic optical system 4 includes a lens nine 16, a lens ten 17, a lens eleven 18, a lens twelve 19 and a lens thirteen 20, wherein the lens eleven 18 is a biconcave lens, the lens nine 16, the lens twelve 19 and the lens thirteen 20 are biconvex lenses, the lens ten 17 is a plano-convex lens, the lens nine 16 is a positive focal lens, and a face with a large curvature radius value faces towards the industrial camera 2 with a small curvature radius value of the measured lens; the lens ten 17 is a positive focal lens, and the convex surface faces towards the plane of the measured lens and towards the industrial camera 2; the lens eleven 18 is a negative focal lens, and a face with a large curvature radius value faces towards the industrial camera 2, and the curvature radius value of the lens to be measured is small; the twelve lenses 19 are positive focal lenses, and the face with the large curvature radius value faces towards the industrial camera 2, and the curvature radius value of the lens to be measured is small; the thirteen lenses 20 are positive focal lenses, and face with a large curvature radius value faces towards the industrial camera 2, and the curvature radius value of the lens to be measured is small.

The nine 16 refractive index ranges of the lens: 1.60 to 1.80; dispersion coefficient range: 40-60, radius of curvature: surface one: 45-65, two faces: -5 to-25; lens ten 17 refractive index range: 1.75 to 1.95; dispersion coefficient range: 10 to 30, radius of curvature: surface one: 10-30, two faces: a plane; lens eleven 18 refractive index range: 1.50 to 1.70; dispersion coefficient range: 50-70, radius of curvature: surface one: -120 to-140, face two: 70-90; lens twelve 19 refractive index range: 1.55 to 1.75; dispersion coefficient range: 40-60, radius of curvature: surface one: 90-110, two faces: -60 to-80; thirteen 20 refractive index ranges of lens: 1.40 to 1.60; dispersion coefficient range: 70-90, radius of curvature: surface one: 40-60, two faces: -20 to-40.

As specific data:

the nine 16 focal lengths of the lens are preferably: f=10mm; lens ten 17 focal length preferably: f=20 mm; lens eleven 18 focal length preferably: f= -80mm; the twelve 19 focal lengths of the lens are preferably: f=60 mm; the thirteen 20 focal lengths of the lens are preferably: f=40 mm.

The nine 16 refractive index of the lens is preferably: 1.70; the dispersion coefficient is preferably: 50; the radius of curvature of the first surface is preferably: 55mm, the radius of curvature of the second surface is preferably: -15mm;

the refractive index of lens ten 17 is preferably: 1.85; the dispersion coefficient is preferably: 20, a step of; the radius of curvature of the first surface is preferably: 20mm;

the refractive index of lens eleven 18 is preferably: 1.60; the dispersion coefficient is preferably: 60; the radius of curvature of the first surface is preferably: -130mm, face two radius of curvature preferably: 80mm;

the twelve 19 refractive index of the lens is preferably: 1.65; the dispersion coefficient is preferably: 50; the radius of curvature of the first surface is preferably: 100mm, the radius of curvature of the second surface is preferably: -70mm;

the thirteen 20 refractive index of the lens is preferably: 1.50; the dispersion coefficient is preferably: 80; the radius of curvature of the first surface is preferably: 50mm, the radius of curvature of the second surface is preferably: -30mm;

the first middle plane represents the left side of each lens in fig. 3, and the second middle plane represents the right side of each lens in fig. 3.

As shown in fig. 8 and 9, by the above specific lens arrangement, the distortion and curvature of field of the test lens module of the present application are small, and the angle of view of the telescopic optical system 4 of the present application is small within ten degrees, preferably nine degrees, while the angle of view of the previous specific lens is large, so that the telescopic optical system 4 of the present application is designed solely for adapting to the implementation of the present local combination analysis method, and directly receives the local image through a small angle of view and then projects onto the industrial camera 2.

As a further structure, the application may further provide a motion module (not shown in the figure), where the distance reduction optical system 4 or the industrial camera 2 is disposed on the motion module, and is driven by the motion module to move back and forth along the optical axis, where the distance reduction optical system 4 is connected with the motion module to move, so that the distance between the industrial camera 2 and the distance reduction optical system 4 changes, and the specific structure is that: the symmetrical optical system 3 is arranged at the front end in the large lens cone, the telescopic optical system 4 is arranged in the small lens cone, the end part of the small lens cone is positioned in the large lens cone, and the movement module is connected with the small lens cone so as to drive the small lens cone to move along the central axis of the large lens cone, and the movement module comprises a motor, a screw rod assembly and a guide rail assembly, so that the movement module is a conventional element in the mechanical field, and the mounting structure and the movement principle of the motor, the screw rod assembly and the guide rail assembly are clear to those skilled in the art. By precisely controlling the motion precision, the distance between the industrial camera 2 and the telescopic optical system 4 is changed, and the optical path is changed, so that the change of the simulation distance is realized.

The above description of a combined analysis VR glasses detection system provided by the embodiment of the present utility model applies specific examples to illustrate the principles and embodiments of the present utility model, and the above description of the embodiments is only used to help understand the method and core ideas of the present utility model; meanwhile, as those skilled in the art will have variations in the specific embodiments and application scope in accordance with the ideas of the present utility model, the present description should not be construed as limiting the present utility model in view of the above.

Claims

1. A combination analysis formula VR glasses detecting system, its characterized in that: the device comprises a test box body and an industrial camera, wherein a test lens module is arranged on the box body and comprises a symmetrical optical system and a telescopic optical system which are arranged along an optical axis, and light rays emitted by a tested lens are received by the industrial camera to form images after passing through the symmetrical optical system and the telescopic optical system.

2. The combination analysis VR glasses detection system of claim 1, wherein: the symmetrical optical system comprises a first lens group and a second lens group, wherein the first lens group comprises a first lens, a second lens, a third lens and a fourth lens, the second lens group comprises a fifth lens, a sixth lens, a seventh lens and a eighth lens, and the first lens and the eighth lens have the same structure and are symmetrically arranged relative to a virtual plane; the second lens is identical to the seventh lens in structure and is symmetrically arranged relative to the virtual plane; the third lens is identical to the sixth lens in structure and is symmetrically arranged relative to the virtual plane; the fourth lens and the fifth lens are identical in structure and are symmetrically arranged relative to a virtual plane, and the virtual plane is positioned at the center position between the first lens group and the second lens group and perpendicular to the optical axis.

3. The combination analysis VR glasses detection system of claim 2, wherein: the first lens and the eighth lens are biconcave lenses, the second lens, the fourth lens, the fifth lens and the seventh lens are biconvex lenses, the third lens and the sixth lens are convex-concave lenses, and the first lens is a negative focal lens and the curvature values of the two surfaces are equal; the second lens is a positive focal lens, and the surface with the small curvature radius value faces towards the industrial camera with the large curvature radius value of the measured lens; the third lens is a negative focal lens, and the convex surface faces towards the concave surface of the tested lens and towards the industrial camera; the fourth lens is a positive focal lens, and a face with a large curvature radius value faces towards an industrial camera with a small curvature radius value of the measured lens; the fifth lens is a positive focal lens, and the surface with the small curvature radius value faces towards the industrial camera with the large curvature radius value of the measured lens; the lens six is a negative focal lens, and the concave surface faces towards the convex surface of the tested lens and towards the industrial camera; the lens seven is a positive focal lens, and a face with a large curvature radius value faces towards an industrial camera with a small curvature radius value of the measured lens; the lens eight is a negative focal lens and the curvature values of the two surfaces are equal.

4. The combination analysis VR glasses detection system of claim 2, wherein: the lens-refractive index range: 1.55 to 1.75, dispersion coefficient range: 25-45, a radius of curvature of the surface: -110mm to-130 mm, radius of curvature of face two: 110 mm-130 mm; refractive index range of lens two: 1.70 to 1.90, dispersion coefficient range: 35-55, a surface-radius of curvature: 50 mm-70 mm, radius of curvature of the second surface:

-80mm to-100 mm; lens three refractive index range: 1.70 to 1.90; dispersion coefficient range: 35-55, radius of curvature: surface one: 40-60 parts of second surface and 30-50 parts of second surface; lens four refractive index range: 1.40 to 1.6; dispersion coefficient range: 70-90, radius of curvature: surface one: 70-90, wherein the second surface is-40 to-60; five refractive index ranges of the lens: 1.40 to 1.6; dispersion coefficient range: 70-90, radius of curvature: surface one: 40-60, wherein the second surface is-70 to-90; lens six refractive index range: 1.70 to 1.90; dispersion coefficient range: 35-55, radius of curvature: surface one: -30 to-50, and-40 to-60; lens seven refractive index range: 1.70 to 1.90, dispersion coefficient range: 35-55, a surface-radius of curvature: 80 mm-100 mm, radius of curvature of the second surface: -50mm to-70 mm; lens eight refractive index range: 1.55 to 1.75, dispersion coefficient range: 25-45, a radius of curvature of the surface: -110mm to-130 mm, radius of curvature of face two: 110 mm-130 mm.

5. The combination analysis VR glasses detection system of claim 2, wherein: the lens has a focal length: f= -90mm; lens two focal lengths: f=45 mm; lens three focal lengths: f= -300mm; lens four focal lengths: f=60 mm; five focal lengths of the lens: f=60 mm; six-fold focal length of lens: f= -300mm; seven focal lengths of the lens: f=45 mm; eight focal lengths of lens: f= -90mm.

6. The combination analysis VR glasses detection system of claim 1, wherein: the telescopic optical system comprises a lens nine, a lens ten, a lens eleven, a lens twelve and a lens thirteen, wherein the lens eleven is a biconcave lens, the lens nine, the lens twelve and the lens thirteen are biconvex lenses, the lens ten is a plano-convex lens, the lens nine is a positive focal lens, and a face with a large curvature radius value faces towards an industrial camera with a small curvature radius value of a measured lens; the lens ten is a positive focal lens, and the convex surface faces towards the plane of the measured lens and towards the industrial camera; the lens eleven is a negative focal lens, and a face with a large curvature radius value faces towards an industrial camera with a small curvature radius value of the measured lens; the lens twelve is a positive focal lens, and a face with a large curvature radius value faces towards an industrial camera with a small curvature radius value of the measured lens; the lens thirteen is a positive focal lens, and the face with the large curvature radius value faces towards the industrial camera with the small curvature radius value of the measured lens.

7. The combination analysis VR glasses detection system of claim 4, wherein: the nine refractive index ranges of the lens: 1.60 to 1.80; dispersion coefficient range: 40-60, radius of curvature: surface one: 45-65, two faces: -5 to-25; lens ten refractive index range: 1.75 to 1.95; dispersion coefficient range: 10 to 30, radius of curvature: surface one: 10-30, two faces: a plane; lens eleven refractive index range: 1.50 to 1.70; dispersion coefficient range: 50-70, radius of curvature: surface one: -120 to-140, face two: 70-90; twelve refractive index ranges of the lens: 1.55 to 1.75; dispersion coefficient range: 40-60, radius of curvature: surface one: 90-110, two faces: -60 to-80; thirteen refractive index ranges of the lens: 1.40 to 1.60; dispersion coefficient range: 70-90, radius of curvature: surface one: 40-60, two faces: -20 to-40.

8. The combination analysis VR glasses detection system of claim 4, wherein: nine focal lengths of the lens: f=10mm; ten focal lengths of lens: f=20 mm; eleven focal lengths of lens: f= -80mm; twelve focal lengths of lens: f=60 mm; thirteen focal lengths of lens: f=40 mm.