TWI747797B - Mobile strabismus correction device with bagolini striped lens and its use method - Google Patents

Abstract

The invention includes a housing, a two-bagolini striped lens and an optical component for correcting strabismus. The housing has two ends, one of which has a ruler and a point light source, and the other end is provided with a left-eye view hole and a right-eye view hole; the two-bagolini striped lens includes a left spectacle lens And a right spectacle lens, respectively corresponding to the left and right eye vision holes, the left spectacle lens has a plurality of left straight engraved lines that do not interfere with vision and form a 45-degree oblique angle with the meridian. The right spectacle lens has a plurality of right straight engraved lines that do not interfere with vision and form an oblique angle of 135 degrees with the meridian. The heterotropia correction optical assembly is arranged at the second end and has two lens frames corresponding to the left and right eye sight holes; each lens frame is equipped with at least one heterotropia correction lens. Therefore, this case has the advantages that the ruler department is easy to clearly state the amount of strabismus, the mobile device is easy to carry to different places for testing, and it is not interfered by external light.

Description

Mobile strabismus correction device with bagolini stripe lens and its use How to use

The present invention relates to a mobile strabismus correction device with Bagolini striped lenses and a method of use thereof, in particular to a mobile device with a ruler for clear statement of the amount of strabismus, and a mobile device that is easy to carry to different places for testing. A mobile strabismus correction device with Bagolini striped lenses disturbed by external light and its use method.

The well-known Bagorini striped lens is one of the detection devices for detecting heterotropia. The disadvantage is that because there is no ruler design, the examinee cannot clearly state the amount of strabismus.

In more detail, the well-known Bagorini striped lens can only allow the subject to see the state of the light stripe imaging independently during the process of detecting heterotropia. However, there is no ruler device that can be used for visual comparison and measurement. Therefore, even if the autonomic vision can be used to measure the heterotropia, the subject can only approximate and roughly state the state of the light stripe imaging of the heterotropia. Then repeat the visual experience to the tester, and then the tester will slowly adjust the related testing equipment to complete the visual test of various types of heterotropia, which is very troublesome and inconvenient, and the method of reporting is easy to be judged by the individual subjective (such as light stripe). The imaging position,..., angle, etc.) are different, resulting in inaccurate detection. Therefore, no ruler design cannot clearly state the amount of strabismus.

In view of this, it is necessary to develop a technology that can solve the above-mentioned conventional shortcomings.

The purpose of the present invention is to provide a mobile strabismus correction device with Bagolini striped lenses and a method of using the same, which has both a ruler for clear statement of the amount of strabismus, and the mobile device is easy to carry to different places for testing, and The advantages of not being interfered by external light. In particular, the problem to be solved by the present invention is that the known device cannot clearly state the problem of the amount of strabismus due to its irregular design.

The technical means to solve the above problems is to provide a mobile strabismus correction device with Bagolini striped lenses and its use method. The device part includes: a housing with a first end and a second end Part and an inner space; the first end has a ruler part and a point light source part, the ruler part and the point light source part are facing the inner space and the second end; the second end is provided A left-eye view hole, a right-eye view hole and a first connecting member; two bagolini striped lenses, including a left eye lens and a right eye lens, respectively corresponding to the left eye view hole and On the right eye hole; the left spectacle lens has a plurality of left straight scoring lines that do not interfere with vision, the plurality of left straight scoring lines are parallel to each other, and are inclined at 45 degrees with the meridian; the right spectacle lens has a plurality of non-interfering vision The right straight engraved line, the plural right straight engraved lines are parallel to each other and form a 135-degree oblique angle with the meridian; a hidden strabismus correction optical assembly is arranged at the second end, and the hidden strabismus correction optical assembly has two Lens frame, at least two strabismus correction lenses and a second connecting member; the two lens frames are arranged corresponding to the left eye and the right eye optics, and the at least two strabismus correction lenses are respectively arranged on the two lenses Frame; The second connecting piece is for the hidden strabismus correction optical assembly to connect the first connecting piece.

The method of use includes the following steps: preparation steps; steps for correcting myopia, hyperopia, and astigmatism; steps for hand-held mobile heterotropia correction devices; steps for turning on the point light source; steps for judging light strip imaging; steps for normal binocular vision, steps in both eyes Steps for any abnormal visual function, correction steps for heterotropia; and steps for recording examination results.

The above-mentioned objects and advantages of the present invention can be easily understood from the detailed description of the following selected embodiments and the accompanying drawings.

Hereinafter, the present invention will be described in detail with the following examples and drawings:

10: Shell

11: The first end

111: Ruler Department

112: Point light source

12: second end

121: Left eye hole

122: right eye hole

123: The first link

13: Internal space

20: Bagorini striped lenses

21: Left spectacle lens

211: Left straight engraved line

22: Right spectacle lens

221: Right straight engraved line

30: Optical components for heterotropia correction

31: lens frame

32: Helicoptia correction lenses

33: The second link

91: Subject

92: Eyes

S1: Preparation steps

S2: Correction steps for myopia, hyperopia, and astigmatism

S3: Steps of Hand-held Mobile Helen Strabismus Correction Device

S4: Steps to turn on the point light source

S5: Discrimination of light strip imaging steps

S61: Steps for normal binocular vision

S62A: Steps for abnormal visual function in either eye

S62B: Steps to correct strabismus

S7: Steps to record inspection results

M: light strip imaging

M1: Left eye linear light strip image

M2: Right eye linear light strip image

M11, M21: center point

M12, M22: line segment

P11: First esotropia position

P21: Second esotropia position

P12: The first exotropia position

P22: second exotropia position

D21: first length

D22: second length

Figure 1 is a flow chart of the method of use of the present invention

Figure 2A is a schematic diagram of the ruler part of the present invention is a round target and a cross shape

Figure 2B is a schematic diagram of the ruler part of the present invention in a cross-scale shape

Figure 2C is a schematic diagram of the first end of the present invention as the display portion

Figure 2D is a schematic diagram of the optical component for correction of strabismus of the present invention

Figure 3 is a partial cross-sectional view of one of the two eyes of the present invention corresponding to the Bagolini striped lens

Figure 4 is a schematic diagram of the left-eye linear light bar image of the present invention

Figure 5 is a schematic diagram of the right-eye linear light strip image of the present invention

Figure 6 is a schematic diagram of the light bar imaging of the present invention as a complete X shape

Figure 7 is a schematic diagram of the binocular function test of the present invention for esotropia light strip imaging

Figure 8 is a schematic diagram of the binocular function inspection of the present invention for exotropia light strip imaging

Figure 9 is a schematic diagram of the binocular visual function test of the present invention, which is the light bar imaging suppressed by the center of the retina image of the right eye

Figure 10 is a schematic diagram of the binocular visual function test of the present invention, which is a light bar imaging with suppression of the periphery of the right eye retinal image

Figure 11 is a schematic diagram of the binocular function test of the present invention as a light bar imaging of non-crossed diplopia

Figure 12 is a schematic diagram of the binocular function test of the present invention as a light bar imaging of crossed diplopia

Figure 13A is a schematic diagram of the binocular function test of the present invention for the scale measurement of esotropia

Figure 13B is a schematic diagram of the binocular function test of the present invention as the scale measurement of exotropia

Referring to Figures 1, 2A, 2B, 2C, 2D, 3, 4, 5, and 6, the present invention is a mobile strabismus correction device with Bagolini striped lenses and the same In the method of use, the part of the device includes: a housing 10 with a first end 11, a second end 12 and an internal space 13. The first end portion 11 has a ruler portion 111 and a point light source portion 112. The ruler portion 111 and the point light source portion 112 face the inner space 13 and the second end portion 12; the second end portion 12 A left-eye view hole 121, a right-eye view hole 122, and a first connecting member 123 are provided.

The two-bagellini striped lens 20 includes a left eyeglass lens 21 and a right eyeglass lens 22, which are correspondingly provided on the left eye view hole 121 and the right eye view hole 122, respectively. The left spectacle lens 21 has a plurality of left straight score lines 211 that do not interfere with vision. The plurality of left straight score lines 211 are parallel to each other and form a 45-degree oblique angle with the meridian. The right spectacle lens 22 has a plurality of right straight score lines 221 that do not interfere with vision. The plurality of right straight score lines 221 are parallel to each other and form an oblique angle of 135 degrees with the meridian.

A strabismus correction optical assembly 30 is arranged at the second end 12, and the strabismus correction optical assembly 30 has two lens frames 31, at least two strabismus correction lenses 32, and a second connecting member 33; the two lenses The frame 31 is corresponding to the left-eye view hole 121 and the right-eye view hole 122. The at least two strabismus correction lenses 32 are respectively arranged on the two lens frames 31; the second connecting member 33 is provided for the strabismus correction The optical assembly 30 is connected to the first connecting member 123.

In practice, the plurality of left straight scribe lines 211 may be a plurality of parallel straight stripes provided on the left spectacle lens 21 with different lengths, a width between 0.5 mm and 1 mm, and a depth unit of micrometers.

The plurality of right straight engraved lines 221 may be a plurality of parallel straight stripes provided on the right spectacle lens 22 with different lengths, a width between 0.5 mm and 1 mm, and a depth unit of micrometers.

The first end portion 11 may be one of a board body and a display portion.

The ruler portion 111 can be at least one of a scribed structure, an independent ruler structure, and a digital image (as shown in FIG. 2C).

The ruler portion 111 can be at least one of a round target plus a cross shape (as shown in Figure 2A) and a cross scale shape (as shown in Figure 2B).

The point light source 112 can be at least one of an electrical structure and a digital image.

When the first end 11 is a plate.

The ruler part 111 corresponds to the board, and is at least one of a scoring structure and an independent ruler structure, and faces the second end 12.

The scoring structure is integrally formed and scribed on the first end 11.

The independent ruler structure is fixed on the first end 11.

The point light source portion 112 corresponds to the board and has an electrical structure; the electrical structure can be one of a light-emitting diode (LED for short) and a tungsten bulb.

When the first end portion 11 is a display portion.

The ruler part 111 corresponds to the display part and is a digital image.

And the point light source 112 corresponds to the display, and is a digital image.

The heterotropia corrective lens 32 can be at least one of spherical lens, cylindrical lens, rotating prism lens, crossed cylindrical lens, ..., auxiliary function lens.

Regarding the part of the method of use, the department includes the following steps:

Preparation step S1: prepare a housing 10, a two-bagolini stripe lens 20, and a strabismus correction optical assembly 30. The casing 10 has a first end 11, a second end 12 and an inner space 13. The first end portion 11 has a ruler portion 111 and a point light source portion 112. The ruler portion 111 and the point light source portion 112 face the inner space 13 and the second end portion 12; the second end portion 12 A left-eye view hole 121, a right-eye view hole 122, and a first connecting member 123 are provided. The two-bagellini striped lens 20 includes a left eye lens 21 and a right eye lens 22, which are correspondingly provided on the left eye view hole 121 and the right eye view hole 122, respectively. The left spectacle lens 21 has a plurality of left straight score lines 211 that do not interfere with vision. The plurality of left straight score lines 211 are parallel to each other and form a 45-degree oblique angle with the meridian. The right spectacle lens 22 has plural numbers that do not interfere with vision The right straight engraved line 221, the plural right straight engraved lines 221 are parallel to each other, and form a 135 degree oblique angle with the meridian. The heterotropia correction optical assembly 30 is disposed at the second end 12, and the heterotropia correction optical assembly 30 has two lens frames 31, at least two heterotropia correction lenses 32, and a second connecting member 33; the two lens frames 31 is set corresponding to the left-eye view hole 121 and the right-eye view hole 122, the at least two strabismus correction lenses 32 are respectively arranged on the two lens frames 31; the second connecting member 33 is provided for the strabismus correction optics The assembly 30 is connected to the first connecting member 123; the housing 10, the two-bagolini stripe lens 20 and the strabismus correction optical assembly 30 constitute a mobile strabismus correction device.

Correction of myopia, hyperopia, and astigmatism step S2: If the visual function of the subject 91's eyes has at least one of myopia, hyperopia, and astigmatism, the correction of the myopia in this case must be completed before the correction is completed.

Hand-held mobile strabismus correction device Step S3: The subject 91 holds the mobile strabismus corrector, and the eyes 92 correspond to the dibagorini striped lens 20 (refer to FIG. 3).

Turn on the point light source step S4: Turn on the point light source portion 112, and the eyes 92 of the subject 91 look at the point light source portion 112 through the two-bagolini striped lens 20.

Discriminating the light stripe imaging step S5: The subject 91 can automatically determine whether the light stripe imaging M (refer to Figure 6) seen by the two eyes 92 is a complete X shape and has a single center point at the intersection. If the result is yes, proceed to step S61 of normal binocular vision function, and if the result is no, proceed to step S62A of abnormal vision function of any of the eyes.

Regarding the normal binocular vision function step S61: the light stripe image M seen by the eyes 92 of the subject 91 is a complete X-shaped and has a single center point at the intersection, which represents the binocular vision function of the binoculars 92 If it is normal, proceed to step S7 of recording the inspection result, and then end.

Regarding any abnormal visual function of the eyes. Step S62A: The light stripe image M seen by the two eyes 92 of the subject 91 is a complete X shape and has a shape other than a single center point at the intersection (such as 7. As shown in Figures 8, 9 and 10), it means that the binocular vision function of the binocular 92 is abnormal, and then proceed to the next step.

Heliotropia correction step S62B: When the visual function of any one of the eyes 92 of the subject 91 is abnormal, the corresponding at least one strabismus correction lens 32 can be installed toward the corresponding lens frame 31, Make the light stripe image M seen by the two eyes 92 have a complete X shape and have a single center point at the intersection, complete the correction, and then proceed to the next step.

Record inspection result Step S7: Record relevant inspection data, and then end.

In practice, in the preparation step S1, the plurality of left straight engraved lines 211 may be a plurality of parallel parallel lines provided on the left spectacle lens 21 with different lengths, 0.5mm-1mm in width, and micrometers in depth. Straight stripes.

The plurality of right straight scribe lines 221 may be a plurality of parallel straight stripes provided on the right spectacle lens 22 with various lengths, a width between 0.5 mm and 1 mm, and a depth unit of micrometers.

The first end portion 11 may be one of a board body and a display portion.

The ruler portion 111 can be at least one of a scribed structure, an independent ruler structure, and a digital image (as shown in FIG. 2C).

The ruler portion 111 can be at least one of a round target plus a cross shape (as shown in Figure 2A) and a cross scale shape (as shown in Figure 2B).

The point light source 112 can be at least one of an electrical structure and a digital image.

When the first end 11 is a plate.

The ruler part 111 corresponds to the board, and is at least one of a scoring structure and an independent ruler structure, and faces the second end 12.

The scoring structure is integrally formed and scribed on the first end 11.

The independent ruler structure is fixed on the first end 11.

The point light source portion 112 corresponds to the board and has an electrical structure; the electrical structure can be one of a light-emitting diode (LED for short) and a tungsten bulb.

When the first end portion 11 is a display portion.

The ruler part 111 corresponds to the display part and is a digital image.

And the point light source 112 corresponds to the display, and is a digital image.

In the discriminating light bar imaging step S5, the X-shaped light bar imaging M consists of a left-eye straight light bar image M1 (as shown in Fig. 4) and a right eye straight light bar image M2 (as shown in Fig. 5). As shown in the figure) composition.

The left-eye linear light strip image M1 has a center point M11 and two line segments M12, and the two line segments M12 are located on both sides of the center point M11 and are in the same straight line.

The right-eye linear light strip image M2 has a center point M21 and two line segments M22. The two line segments M22 are located on both sides of the center point M21 and are in the same straight line.

In step S61 of the normal binocular vision function, the left-eye linear light strip image M1 (as shown in Figure 4) and the right-eye linear light strip image M2 (as shown in Figure 5) form a complete X The word-shaped light strip forms an image M (as shown in Figure 6, the center points M11 and M21 overlap as one).

In addition, regarding the abnormal visual function of any of the eyes in step S62A, the left-eye linear light stripe image M1 (as shown in FIG. 4) and the right-eye linear light stripe image M2 (as shown in FIG. 5) are also used in step S62A. ) Constitutes the light strip imaging M, but due to the abnormal binocular vision function, the light strip imaging M may present the following forms:

[a] The first type of abnormality: referring to Figure 7, the center point M11 of the left-eye linear light strip image M1 is biased to the line segment M12 located below (located at a first esotropia position P11); and the right The center point M21 of the straight-line light strip image M2 of the eye is also biased to the lower line segment M22 (located at a second esotropia position P21). This abnormal pattern is that the binocular function test is esotropia.

[b] The second type of abnormality: referring to Figure 8, the center point M11 of the left-eye linear light strip image M1 is biased to the upper line segment M12 (located at a first exotropia position P12); and The center point M21 of the right-eye linear light strip image M2 is also skewed to the upper line segment M22 (located at a second exotropia position P22). This abnormal pattern is that the binocular vision function test is exotropia.

[c] The third type of abnormality: referring to Figure 9, the center point M11 and the two line segments M12 of the left-eye linear light strip image M1 are in a normal state; the center points M11 and M21 overlap as one. But the right eye is straight The two line segments M22 of the line light strip image M2 are all shortened to a first length D21, and then separate from the center point M21. This abnormal pattern is the center suppression phenomenon of the right eye retinal image.

[d] The fourth type of abnormality: referring to Figure 10, the center point M11 and the two line segments M12 of the left-eye linear light strip image M1 are in a normal state; the center points M11 and M21 overlap as one. However, the two line segments M22 of the right-eye linear light strip image M2 are all shortened to a second length D22, which is smaller than the first length D21. In turn, a larger distance is generated between the center point M21 and the center point M21 (for example, the distance in the 10th image is larger than that in the 9th image). This abnormal pattern is caused by the suppression of the periphery of the right-eye retinal image.

[e] The fifth type of abnormality: referring to Figure 11, the center point M11 of the left-eye linear light stripe image M1 is biased to the line segment M12 below; however, the right-eye linear light stripe image M2 is The center point M21 is skewed to the upper line segment M22. This abnormal pattern is that the binocular vision function test is cross diplopia (a type of strabismus).

[f] The sixth type of abnormality: Refer to Figure 12, the center point M11 of the left-eye linear light stripe image M1 is biased to the upper line segment M12; however, the right-eye linear light stripe image M2 The center point M21 is skewed to the line segment M22 located below. This abnormal pattern is that the binocular vision function test is non-crossed diplopia (a type of strabismus).

The aforementioned six abnormal types are just examples for the convenience of the description of this case. In fact, there are more different types of strabismus, so I won’t repeat them here.

In addition, regarding the step S62B of the correction of strabismus, an example is described as follows:

[a] As shown in Figure 13A, assuming that the two eyes 92 of the subject 91 are detected as esotropia, the ruler 111 can be further adapted to dictate consciously, the left eye linear light strip image M1 The center point M11 is located between the penultimate scale on the line M12 and the third scale (located at the first squint position P11); And the center point M21 of the right-eye linear light strip image M2 is also skewed between the penultimate scale on the line segment M22 and the third scale (located at the second esoscopic position P21), so that it can be clearly detected The amount of strabismus within the eyes 92.

Further, the corresponding strabismus corrective lens 32 can be set on the corresponding lens frame 31, so that the light strip image M seen by the two eyes 92 is a complete X-shape and has a single center point at the intersection , Complete the correction.

[b] As shown in Figure 13B, assuming that the two eyes 92 of the subject 91 are detected as exotropia, the ruler 111 can be further adapted to dictate consciously, the left-eye linear light strip image M1 The center point M11 is offset between the second scale and the third scale on the line segment M12 located above (located at the first exotropia position P12); and the center point M21 of the right-eye linear light strip image M2 is similarly Deviation between the second scale and the third scale on the line segment M22 located above (located at the second exotropia position P22), in the same way, the amount of esotropia of the two eyes 92 can be clearly detected.

In the same way, the corresponding heterotropia correction lens 32 is set on the corresponding lens frame 31, so that the light stripe image M seen by the two eyes 92 is a complete X shape and has a single center point at the intersection. Complete the correction.

The point is that when faced with retinal defects and other related strabismus caused by organ defects, only the results can be detected in this case, and the results cannot be corrected.

In addition, a total of 20 subjects in this study participated in the experiment. The results of the experiment were that 14 had normal binocular vision, 4 had esotropia, and 2 had an exotropia. The binocular vision function of 14 patients is normal and does not need to be corrected, and the other 6 patients can be properly corrected by using 稜鏡. Further comparison tests were carried out with the use of prism cover, von-Graefe and binocular vision function quick screening device, and the error of the three measurement values was within ±1 ^Δ (the prism degree). It is proved by experiments that this device can be used clinically and used for prescription treatment. This measurement method is not interfered by the environment, does not require a complete set of inspection equipment in the optometry place, and can also check the binocular visual function of the subject, and quickly analyze and judge the binocular visual function of the subject.

The advantages and effects of the present invention can be summarized as follows:

[1] The ruler department makes it easy to clearly state the amount of strabismus. The present invention is provided with the ruler part, so that the subject can cooperate with the clear statement of the ruler part (including at least exotropia,..., esotropia) strabismus amount when performing conscious strabismus detection, which is quite convenient and can greatly reduce the transmission Then the error caused by the operation of the inspector. Therefore, the ruler department is convenient to clearly state the amount of strabismus.

[2] The mobile device is easy to carry to different places for testing. This case is a stand-alone portable structure, which can increase the rapid timeliness and convenience of its detection. It can be carried indoors or outdoors. The detection space is not limited, the lighting source is not limited, and it is not restricted by site conditions. It is inconvenient for the elderly and the elderly. It can be used by subjects such as infants and children. The subject only needs to hold the mobile strabismus correction device and inject the point light source through the two-bagolini stripe lens in both eyes to state whether the light strip imaging is The complete X shape is very convenient to meet the testing requirements. Therefore, the mobile device is easy to carry to different places for testing.

[3] Not disturbed by external light. In the present invention, the detection is performed by looking at the point light source part from the two-bagolini stripe lens at the second end part and toward the first end part through the inner space. In principle, it is bright or dim with the external light. It doesn't matter. Therefore, it is not disturbed by external light.

The above is a detailed description of the present invention based on a preferred embodiment, and any simple modifications and changes made to the embodiment will not depart from the spirit and scope of the present invention.

S1: Preparation steps

S2: Correction steps for myopia, hyperopia, and astigmatism

S3: Steps of Hand-held Mobile Helen Strabismus Correction Device

S4: Steps to turn on the point light source

S5: Discrimination of light strip imaging steps

S61: Steps for normal binocular vision

S62A: Steps for abnormal visual function in either eye

S62B: Steps to correct strabismus

S7: Steps to record inspection results

Claims (8)

A mobile strabismus correction device with Bagolini striped lenses, comprising: a housing with a first end, a second end and an inner space; the first end has a foot The ruler part and the point light source part, the ruler part and the point light source part are directed to the inner space and the second end; the second end is provided with a left-eye view hole, a right-eye view hole and a first Connecting piece; Two Bagolini striped lenses, including a left spectacle lens and a right spectacle lens, which are respectively corresponding to the left eye view hole and the right eye view hole; the left spectacle lens has a plurality of non-interference The left straight score line of vision, the plural left straight score lines are parallel to each other, and the meridian is at a 45 degree oblique angle to each other; the right spectacle lens has a plurality of right straight score lines that do not interfere with vision, and the plural right straight score lines are parallel to each other, It is at a 135 degree oblique angle to the meridian; a strabismus correction optical assembly is arranged at the second end, and the strabismus correction optical assembly has two lens frames, at least two strabismus correction lenses, and a second connecting member ; The two lens frames correspond to the left eye view hole and the right eye view hole, the at least two strabismus corrective lenses are respectively arranged on the two lens frames; the second connecting member is for the strabismus corrective optical assembly Connect the first link. The mobile strabismus correction device with Bagolini striped lenses according to claim 1, wherein: the first end is a plate body; the ruler part corresponds to the plate body, and is a scoring structure, At least one of the independent ruler structures faces the second end; the scoring structure is integrally formed and scribed on the first end; the independent ruler structure is fixed on the first end; the The point light source part corresponds to the board body and is an electrical structure; the electrical structure is one of a light-emitting diode and a tungsten bulb. The mobile strabismus correction device with Bagolini striped lenses according to claim 1, wherein: the first end is a display part; the ruler part corresponds to the display part and is a digital image; the The point light source part corresponds to the display part and is a digital image. The mobile strabismus correction device with Bagolini striped lenses according to claim 1, wherein the strabismus corrective lens is at least one of a spherical lens, a cylindrical lens, a rotating lens, and a cross cylindrical lens. A method for using a mobile strabismus correction device with bagolini striped lenses includes the following steps: preparation steps: preparing a shell, two bagolini striped lenses and a strabismus correction optical component; the shell system It has a first end, a second end and an inner space; the first end has a ruler part and a point light source part, the ruler part and the point light source part are facing the inner space and the first end Two ends; the second end is provided with a left-eye view hole, a right-eye view hole and a first connecting member; the two bagolini striped lens includes a left eye lens and a right eye lens, respectively Corresponding to the left-eye view port and the right-eye view port, the left spectacle lens has a plurality of left straight score lines that do not interfere with vision, and the plurality of left straight score lines are parallel to each other and form an oblique angle of 45 degrees with the meridian. ; The right spectacle lens has a plurality of right straight engraved lines that do not interfere with vision, the plurality of right straight engraved lines are parallel to each other and form an oblique angle of 135 degrees with the meridian; the strabismus correction optical component is located at the second end, The optical component for correcting strabismus has two lens frames, at least two corrective lenses for strabismus, and a second connecting member; the two lens frames are corresponding to the left eye and the right eye, and the at least two strabismus The corrective lenses are respectively arranged in the two lens frames; the second connecting piece is for the oblique The vision correction optical component is connected to the first connecting member; the housing, the two-bagolini stripe lens and the strabismus correction optical component constitute a mobile strabismus correction device; the correction steps of myopia, hyperopia, and astigmatism: be If the visual function of the examinee’s eyes has at least one of myopia, hyperopia, and astigmatism, the correction must be completed before the correction of the hemophoria in this case; the steps of the handheld mobile helicopia correction device: the examinee holds the action A type of heterotropia correction device, the eyes correspond to the bisbagolini striped lens; the step of turning on the point light source: turn on the point light source part, and the eyes of the subject will look at the point through the bisbagolini striped lens The light source part; the step of judging the light strip imaging: the subject can autonomously judge whether the light strip imaging seen by the two eyes is a complete X-shaped and there is a single center point at the intersection? If the result is yes, proceed to the steps of normal binocular vision function, if the result is no, proceed to any of the steps of abnormal binocular vision function in both eyes; steps regarding the normal binocular vision function: what the subject’s eyes see The light bar is imaged as a complete X shape and has a single center point at the intersection, which represents that the binocular vision function of the eyes is normal, and the inspection result step is performed, and then ends; regarding any abnormal vision function of the eyes: If the image of the light bar seen by the eyes of the subject is a complete X shape and there is a pattern other than a single center point at the intersection, it means that the binocular vision function of the eyes is abnormal, then proceed to the next step; The step of correcting strabismus: When the visual function of any one of the eyes of the subject is abnormal, the corresponding at least one strabismus corrective lens can be installed toward the corresponding lens frame, so that the eyes can see The light bar is imaged as a complete X-shape and has a single center point at the intersection. The correction is completed, and then the next step; and the step of recording inspection results: recording related inspection data, and then ending. The method of using the mobile strabismus correction device with Bagolini striped lenses according to claim 5, wherein: the first end is a plate body; the ruler part corresponds to the plate body and is an engraved At least one of a scribing structure and an independent ruler structure, and faces the second end; the scribing structure is integrally formed and scribed on the first end; the independent ruler structure is fixed to the first end Top; The point light source corresponds to the board and is an electrical structure; the electrical structure is one of a light-emitting diode and a tungsten bulb. According to claim 5, the method of using the mobile strabismus correction device with bagolini striped lenses, wherein: the first end is a display part; the ruler part is a digital display part corresponding to the display part Image; the point light source part corresponds to the display part and is a digital image. According to claim 5, the method of using the mobile helicopia correction device with bagolini striped lenses, wherein the helicopia correction lens is a spherical lens, a cylindrical lens, a rotating squint lens, and a cross-cylindrical lens. One.

Images