TWI767843B - Adjustment and relaxation device using positive lens haze method - Google Patents

Abstract

The present invention includes a frame, a movable lens, an optotype frame and at least two auxiliary lenses. The frame has an eye-gazing space and a through-groove which are communicated with each other; the movable lens can be moved relative to the eye-gazing space and temporarily positioned through the through-groove. The optotype frame is connected with the frame, and has an optotype portion corresponding to the movable lens, and the auxiliary lens is used to make the subject's vision focus on the optotype portion after passing through the movable lens. Therefore, this case has the advantages of effectively achieving adjustment and relaxation and enabling intraocular muscle training, and the head-mounted product can be used for adjustment and relaxation training in any place, which is quite convenient.

Description

Adjustment and relaxation device using positive lens haze method

The present invention relates to an adjustment and relaxation device applying the positive lens haze method, in particular to an adjustment and relaxation device that can effectively achieve adjustment and relaxation and can perform intraocular muscle training, and a head-mounted product that can be used for adjustment and relaxation training in any place, which is quite convenient. Adjustment and relaxation device using positive lens haze method.

The accommodation theory known in the related field of vision optics: myopia is not over-accommodation at short distances, but rather delayed or insufficient accommodation, which increases the curvature of the lens and enhances the accommodation of the eye. Seeing close-range objects and changing the diopter of the eye is called accommodation (accommodation). ). School children's eyes have strong adjustment ability, and they have strong adaptability and adjustment ability when using their eyes at close distances, so they are not prone to fatigue when looking at close distances. However, the use of the eye for close work makes the intraocular muscles excessively tight, resulting in fatigue and spasm, resulting in hyperaccommodative myopia. If the adjustment spasm is not eliminated immediately, the continuous development of the eyeball will become true myopia.

So far, there is no device that can adjust relaxation and can perform intraocular muscle training and can be used for adjustment and relaxation training in any place.

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 an adjustment and relaxation device using the positive lens haze method, which is effective in achieving adjustment and relaxation and can perform intraocular muscle training, and the head-mounted product can be used for adjustment and relaxation training in any place, which is very convenient. Etc. In particular, the problem to be solved by the present invention is that there is no known device that can adjust relaxation and can perform intraocular muscle training, and can be used for adjustment and relaxation training in any place.

The technical means to solve the above problem is to provide an adjustment and relaxation device using the positive lens haze method, which includes: a frame with a main body part, at least one fixing part, at least one eye gaze space, at least two through grooves and a virtual vision axis; the at least one fixed part is extended from both sides of the main body part, the at least one eye gaze space The at least two through grooves are perpendicular to the virtual vision axis, respectively pass through the main body, and communicate with the at least one eye gaze space; a mobile type a lens, which is arranged in at least one of the eye-gazing space and the at least two through-grooves, and can be moved relatively and temporarily positioned; the movable lens has a first lens unit and a second lens unit that are juxtaposed to each other; The first lens unit has a plurality of first lenses, the plurality of first lenses respectively have different powers and are arranged in a straight line; the second lens unit has a plurality of second lenses, the plurality of second lenses respectively have different powers, and Arranged in a straight line, at least one of the plurality of first lenses and at least one of the plurality of second lenses can be located in the eye gaze space at the same time; the plurality of first lenses and the plurality of second lenses are both Fresnel ear lens structure; its number is defined as M, where M≧4; an optotype frame is connected to the main body, the optotype frame has a closed space and an optotype portion; the closed space is connected to the At least one of the at least one eye gaze space and the at least two through grooves, the optotype portion is located in the closed space and faces the at least one eye gaze space and at least one of the at least two through grooves, and the optotype portion has A first optotype and a second optotype; and two auxiliary lenses, which are arranged in one of the frame and the optotype frame, and the two auxiliary lenses are used to make the left and right vision of a subject respectively is focused on the corresponding first optotype and the second optotype.

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

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

10: Frames

11: Main body

12: Fixed part

13: Eye gaze space

14: Through the groove

14A: Left through slot group

14B: Right through groove group

14C: Front penetration groove group

14D: Rear penetration groove group

20: Mobile Lenses

21: The first lens unit

21A: Left end of the first lens unit

21B: Right side end of the first lens unit

211: The first lens

22: Second lens unit

22A: Left end of the second lens unit

22B: Right side end of second lens unit

221: Second lens

30: optotype frame

31: Enclosed Space

32: Optotype Department

321: The first sight

322: Second Vision

40: Auxiliary lens

50: Rolling and unwinding device

51: Scroll Department

52: Rolling and unwinding power department

91: Subject

Z: virtual vision axis

A1: Electric Motor

A2: Battery

B1: Hand rocker

B2: Transmission gear

LA1: Pre-training curve of the first right eye

LA2: Pre-training curve of the first left eye

LA3: Post-training curve of the first right eye

LA4: Curve after first left eye training

LB1: second right eye pre-training curve

LB2: Second left eye pre-training curve

LB3: Post-training curve of the second right eye

LB4: Post-training curve of the second left eye

D1: Slot width

D2: Lens unit thickness

D3: lens thickness

FIG. 1A is a schematic diagram of a first embodiment of the present invention.

Fig. 1B is a cross-sectional view of the main structure of Fig. 1A.

Fig. 2A is a cross-sectional view of the partial structure of Fig. 1A before installation.

Fig. 2B is a cross-sectional view of the partial structure of Fig. 1A after installation.

Fig. 3 is an enlarged schematic view of a part of the structure of Fig. 1A.

FIG. 4A is a cross-sectional view of the position IVA-IVA of FIG. 3. FIG.

Fig. 4B is a cross-sectional view of Fig. 3 at the position IVB-IVB.

FIG. 5 is a schematic diagram of a second embodiment of the present invention.

FIG. 6A is a schematic diagram of a third embodiment of the present invention.

Fig. 6B is a cross-sectional view of the main structure of Fig. 6A.

Fig. 7A is a cross-sectional view of a part of the structure of Fig. 6A.

Fig. 7B is a schematic diagram of part of the structure of Fig. 7A.

FIG. 8 is a schematic diagram of a fourth embodiment of the present invention.

FIG. 9 is a schematic diagram of part of the structure of FIG. 8 .

FIG. 10 is a schematic diagram of a fifth embodiment of the present invention.

FIG. 11 is a cross-sectional view of FIG. 10 .

FIG. 12A is a schematic diagram of the corresponding relationship of the first adjustment relaxation degree of the fifth embodiment.

FIG. 12B is a schematic diagram of the corresponding relationship of the second adjustment relaxation degree of the fifth embodiment.

FIG. 12C is a schematic diagram of the corresponding relationship of the third degree of relaxation adjustment in the fifth embodiment.

FIG. 12D is a schematic diagram of the corresponding relationship of the fourth adjustment relaxation degree of the fifth embodiment.

Fig. 13 is a graph showing the first application example of adjustment and relaxation of the present invention.

Fig. 14 is a graph showing a second application example of adjustment and relaxation of the present invention.

Referring to Figures 1, 2A, 2B, 3, 4A, and 4B, the present invention is an adjustment and relaxation device applying the positive lens haze method, the first embodiment of which includes: A frame 10 has a main body portion 11 , at least one fixing portion 12 , at least one eye gaze space 13 , at least two through grooves 14 and a virtual vision axis Z. The at least one fixing portion 12 extends from both sides of the main body portion 11 , and the at least one eye gaze space 13 is provided in the main body portion 11 and is parallel to the virtual visual acuity axis Z, and penetrates through the main body portion 11 , the at least two The through grooves 14 are perpendicular to the virtual vision axis Z, respectively pass through the main body portion 11 and communicate with the at least one eye gaze space 13 .

A movable lens 20 is disposed in at least one of the eye-gazing space 13 and the at least two through-grooves 14, and can be relatively moved and temporarily positioned. The movable lens 20 has a first lens unit juxtaposed to each other 21 and a second lens unit 22 . The first lens unit 21 has a plurality of first lenses 211 , and the plurality of first lenses 211 respectively have different powers and are arranged in a straight line. The second lens unit 22 has a plurality of second lenses 221, the second lenses 221 have different powers and are arranged in a straight line, at least one of the first lenses 211 and one of the second lenses 221 At least one of them can be located in the eye gaze space 13 at the same time. The plurality of first mirrors 211 and the plurality of second mirrors 221 are both Fresnel lens structures; their numbers are defined as M, where M≧4.

An optotype frame 30 is connected to the main body portion 11 , and the optotype frame 30 has a closed space 31 and an optotype portion 32 . The closed space 31 communicates with at least one of the at least one eye gaze space 13 and the at least two through grooves 14 , and the optotype portion 32 is located in the closed space 31 and faces the at least one eye gaze space 13 and the at least two through grooves 14 . In at least one of the grooves 14 , the optotype portion 32 has a first optotype 321 and a second optotype 322 .

Two auxiliary lenses 40 are disposed in one of the frame 10 and the optotype frame 30 , and the two auxiliary lenses 40 are used to focus the vision of the left and right eyes of a subject 91 to the corresponding The first optotype 321 and the second optotype 322 .

For example, assuming that the optotype portion 32 is located 10 cm in front of the subject 91's eyes, the two auxiliary lenses 40 are 10D lenses.

In practice, both the frame 10 and the optotype frame 30 can be opaque structures.

Each of the at least two through grooves 14 has a groove width D1; the first lens unit 21 and the second lens unit 22 both have a lens unit thickness D2, which is less than or equal to the groove width D1 , and is subject to the relative movement and temporary positioning of the movable lens 20 and the aforementioned at least two through-grooves 14 .

The plurality of first lenses 211 and the plurality of second lenses 221 both have a lens thickness D3, which is smaller than the thickness D2 of the lens unit, and is also compatible with the movable lens 20 and the aforementioned at least two through-slots 14 that can move relative to each other. and temporary positioning shall prevail.

The plurality of first mirrors 211 and the plurality of second mirrors 221 are both positive lenses.

The optotype portion 32 can be one of a display and a plate structure.

When used as a display, it can automatically illuminate the enclosed space 31 and display the first optotype 321 and the second optotype 322 . For example, the character E or C is displayed so that both the left and right eyes of the subject 91 can watch.

When it is a plate structure, it can further include an illuminating device (not shown in the figure, which will be shown together), so as to illuminate the closed space 31; the first optotype 321 and the second optotype 322 can be sprayed, arranged printed and pasted on the plate structure.

Referring to FIG. 5, the second embodiment of the present invention differs from the first embodiment only in that: the at least one eye gaze space 13 is provided with two (please refer to FIG. 6A or FIG. 8 for further details); The at least two through-slots 14 are set in four, and they are opposite to each other and perpendicular to the virtual vision axis Z. Two of the aforementioned four through-slots 14 are defined as the left through-slot group 14A, and the aforementioned four through-slots 14 are defined as the left through-slot group 14A. The other two through-slots 14 are defined as a right through-slot group 14B. The left through-slot group 14A and the right through-slot group 14B respectively penetrate the main body portion 11 in the longitudinal direction of one left and one right, and are connected to the aforementioned two. Each eye gazes at space 13.

The first lens unit 21 and the second lens unit 22 respectively correspond to the left through groove group 14A and the right through groove group 14B, and are two independent structures.

Thereby, the first lens unit 21 extends into and out of the corresponding eye-gazing space 13 through the left through groove group 14A, so as to be relatively movable and temporarily positioned. And the second lens unit 22 extends into and out of the corresponding eye-gazing space 13 through the right penetration groove group 14B, so as to be relatively movable and temporarily positioned.

Referring to Figures 6A, 6B, 7A, and 7B, the third embodiment of the present case differs from the second embodiment only in that the left through groove group 14A and the right through groove group 14B are respectively one The left-right transverse direction runs through the main body portion 11 , and communicates with the aforementioned two eye-gazing spaces 13 respectively.

The adjusting and relaxing device using the positive lens haze method further includes: two rolling and unwinding devices 50, which are respectively arranged on the main body portion 11, and are juxtaposed and close to the opposite inner sides of the two eye-gazing spaces 13; The device 50 includes a reel part 51 and a reeling and unwinding power part 52 , and the reeling and unwinding power part 52 can be one of an electric winding and unwinding structure and a manual winding and unwinding structure. It is used to drive the reel portion 51 to perform either forward rotation or reverse rotation. In the second embodiment, the winding and unwinding power part 52 is an electric winding and unwinding structure, which can be a combined component of an electric motor A1, a battery A2 and a related deceleration structure, and further, a single battery A2 can supply two electric motors A1 (as shown in Figure 6A) required power.

The first lens unit 21 and the second lens unit 22 correspond to the two reel portions 51 , and both are flexible structures, and are then wound around the reel portion 51 to be rolled, pushed out, and temporarily positioned. action.

Referring to Figs. 8 and 9, the difference between the fourth embodiment of the present case and the third embodiment is mainly that the two rolling and unwinding power parts 52 are both manual winding and unwinding structures, which can be a hand rocker The combined component of B1 and transmission gear B2 (the drawing is for reference only, in fact, there may be adjustments and changes in size and position, and it is a technical means that can be implemented). The hand rocker B1 is used to coaxially drive one end of the transmission gear B2 ; the other end of the transmission gear B2 is coaxially driven to the corresponding reel portion 51 . Further, it is preferable to use a single hand lever B1 to drive two mutually meshing transmission gears B2, and the hand rocker B1 is used to coaxially drive the two mutually meshing transmission gears. One end of one of the driving gears B2; the other ends of the two mutually meshing transmission gears B2 are coaxially connected to the corresponding reel portion 51 .

Referring to Figures 10 and 11, the fifth embodiment of the present case differs from the first embodiment only in that: the at least two through grooves 14 are provided with four, and the virtual vision is vertically opposite to each other. Axis Z, two of the aforementioned four through grooves 14 are defined as the front through groove group 14C, and the other two of the aforementioned four through grooves 14 are defined as the rear through groove group 14D, the front through grooves 14D. The groove group 14C and the rear penetrating groove group 14D respectively penetrate the main body portion 11 one after the other, and communicate with the at least one eye gaze space 13 at the same time.

The first lens unit 21 and the second lens unit 22 correspond to the front penetrating groove group 14C and the rear penetrating groove group 14D, respectively, and are two independent structures. The first lens unit 21 has a left end 21A of the first lens unit and a right end 21B of the first lens unit, and the second lens unit 22 has a left end 22A of the second lens unit and a right end 22B of the second lens unit .

The power of each first lens 211 in the plurality of first lenses 211 sequentially has a first lens power difference in the direction from the left end 21A of the first lens unit to the right end 21B of the first lens unit.

The power of each second lens 221 of the plurality of second lenses 221 sequentially has a second lens power difference in the direction from the left end 22A of the second lens unit to the right end 22B of the second lens unit.

Thereby, the first lens unit 21 can be one of the left end 21A of the first lens unit and the right end 21B of the first lens unit to extend into and out of the eye gaze space 13 through the front through-groove group 14C, and further Relative movement and temporary positioning are possible. And the second lens unit 22 can be one of the left end 22A of the second lens unit and the right end 22B of the second lens unit, through the rear penetration groove group 14D to extend into and out of the eye-gazing space 13, and then to be opposite to each other. Movement and temporary positioning.

Two of the plurality of first lenses 211 and two of the plurality of second lenses 221 are in a configuration in which two sets of left and right (refer to FIG. 12A) are respectively overlapped in the frame 10, and the aforementioned The sum of the power of the lenses after each group is overlapped, the left and right groups are the same.

For example (refer to Figure 12A): the power of each first lens 211 in the plurality of first lenses 211 is from the left end 21A of the first lens unit to the right end 21B of the first lens unit, according to The order is 2.0, 1.75, 1.5 and 1.25 respectively, that is, the difference value of the first lens power therebetween is 0.25 (decreasing).

In addition, the power of each second lens 221 in the plurality of second lenses 221 is from the left end 22A of the second lens unit to the right end 22B of the second lens unit, respectively -0.5 and -0.25 in sequence. , 0 and +0.25, that is, the second lens power difference value therebetween is 0.25 (increment).

Here are the following four correspondences of the degree of relaxation:

The corresponding relationship of the first adjustment relaxation degree: As shown in Figure 12A, the sum of the lens degree of the left and right groups is 2.0.

The corresponding relationship of the second adjustment relaxation degree: as shown in Figure 12B, the sum of the lens degree of the left and right groups is 1.75.

The corresponding relationship of the third adjustment relaxation degree: As shown in Figure 12C, the sum of the lens degree of the left and right groups is 1.5.

The corresponding relationship of the fourth adjustment relaxation degree: As shown in Figure 12D, the sum of the lens power of the left and right groups is 1.25 (the optotype frame 30 in the above-mentioned Figures 12A, 12B, 12C and 12D). The component numbers are omitted and not shown, and will be stated first.)

And so on, the last corresponding relationship of adjusting the relaxation degree, the sum of the lens degree of the left (1.5-0.5=1) and right (1.25-0.25=1) groups is 1.

The part that needs to be explained here is that the industry knows that the intraocular muscles mainly adjust the eyes to see far and near. If you work at close range for a long time, such as watching a computer, the adjustment sensitivity of the eyes will decrease. Again, check Fogging, one of the optical processes, can relax the eye muscles of the subjects, and it is also well known in the industry.

For this part, the present invention applies a training device for positive lens haze (known in the optical field, and will not be described in detail), and sets the plurality of first lenses 211 with different powers on the first lens unit 21 . And set the plurality of second lenses 221 with different powers on the second lens unit 22; then perform the following training steps:

Step 1: Confirm the preliminary refraction data of the subject 91 measured by the refractometer.

Step 2: Correctly correct the power to see the clearest vision of 1.0.

Step 3: Put on the near-use haze training device (that is, the adjustment and relaxation device using the positive lens haze method in this case) on the subject 91 .

Step 4: Cut in the device to the plate mirror with the added power required by the positive lens haze method (that is, the movable lens 20 in this case). For example, connect the first lens 211 with the power of +2.00D to the The second lens 221 is set in the eye-gazing space 13 , so that the eyes of the subject 91 can look at the first optotype 321 and a second optotype 322 through the first lens 211 and the second lens 221 , respectively.

Step 5: Five minutes apart, move the plate mirror upwards to switch the added degree. For example, adjust (move up, move down, move left or move right) the mobile lens 20, and change the degree to +1.75D. The first lens 211 and the second lens 221 are arranged in the eye-gazing space 13 , and then the eyes of the subject 91 can watch the first optotype 321 and a second optotype 322 respectively.

Step 6: Use a computer optometry machine to measure and compare it with the first record. If the degree is stable, it means that the visual fatigue has been relaxed, if not, it means that it has not been relaxed.

Step 7: Repeat steps 4-6 until the power is stable. For example, the first lens 211 and the second lens 221 in the eye gaze space 13 are sequentially transformed from power +1.75D to +1.50D , +1.25D, +1.00D, +0.75D, and finally +0.50D. Each time the subject 91 is changed, the eyes of the subject 91 are respectively fixed on the first optotype 321 and a second optotype 322 .

Further, this case cites the following two examples to illustrate the test results:

The first case: refer to Figure 13, the subject is male, myopic, 26 years old, and has been working in close proximity for a long time. The data corresponding to the curve LA1 before the first right eye training and the curve LA2 before the first left eye training show that the visual acuity value before training is about 0.6 unstable, and the visual acuity is stable after the relaxation training (the curve LA3 after the first right eye training and the first curve LA3 after the training After the left eye training curve LA4 corresponding data display), the effect is very good.

The second example: refer to Figure 14, the subject is male, myopic, 33 years old, and has been using mobile phones for a long time. The data corresponding to the curve LB1 before the second right eye training and the curve LB2 before training The visual acuity value is about 0.7, and the visual acuity is stable after the relaxation training (shown by the corresponding data of the curve LB3 after the second right eye training and the curve LB4 after the second left eye training), and the effect is very good.

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

[1] Effectively achieve regulation and relaxation and can perform intraocular muscle training. The invention utilizes the first lens and the second lens of different degrees to carry out vision training, forcing the intraocular muscles of the subject to relax, eliminating the tension of eye regulation, and achieving the purpose of normal eye regulation and regulation relaxation. During the training, the intraocular muscles of the subjects relax and adjust the exercise continuously to relieve the tension of the intraocular muscles and achieve a stable diopter. Therefore, it can effectively achieve adjustment and relaxation and can perform intraocular muscle training.

[2] It is very convenient for head-mounted products to adjust and relax training in any place. The present invention is a head-mounted design, and it does not need to go to the ophthalmology clinic to use the medicine, and also does not need to go to the optometry to do other aggregation and dispersal actions. Therefore, it is very convenient for the head-mounted product to perform adjustment and relaxation training in any place.

The above is only to describe the present invention in detail by means of preferred embodiments, and any simple modifications and changes made to the embodiments do not depart from the spirit and scope of the present invention.

10: Frames

11: Main body

12: Fixed part

13: Eye gaze space

14: Through the groove

20: Mobile Lenses

21: The first lens unit

211: The first lens

22: Second lens unit

221: Second lens

30: optotype frame

31: Enclosed Space

32: Optotype Department

321: The first sight

322: Second Vision

40: Auxiliary lens

91: Subject

Z: virtual vision axis

Claims (8)

An adjustment and relaxation device applying positive lens haze method, comprising: a frame having a main body part, at least one fixing part, at least one eye gaze space, at least two through grooves and a virtual vision axis; the at least one fixing part is Extending from both sides of the main body portion, the at least one eye-gazing space is set on the main body portion and is parallel to the virtual vision axis, and penetrates through the main body portion, the at least two through grooves are perpendicular to the virtual vision axis, and respectively penetrate the main body part is connected to the at least one eye gaze space; a movable lens is arranged in at least one of the eye gaze space and the at least two through grooves, and can be relatively moved and temporarily positioned; the movable lens has mutual A first lens unit and a second lens unit are juxtaposed; the first lens unit has a plurality of first lenses, the plurality of first lenses respectively have different powers and are arranged in a straight line; the second lens unit has a plurality of first lenses two lenses, the plurality of second lenses respectively have different powers and are arranged in a straight line, at least one of the plurality of first lenses and at least one of the plurality of second lenses can be located in the eye gaze space at the same time; the The plurality of first mirrors and the plurality of second mirrors are all Fresnel lens structures; their numbers are all defined as M, where M≧4; an optotype frame is connected to the main body, and the optotype frame has a closed space and an optotype; the closed space is connected to the at least one eye gaze space and at least one of the at least two through grooves, the optotype part is located in the closed space and faces the at least one eye gaze space, the At least one of at least two through grooves, the optotype portion has a first optotype and a second optotype; and two auxiliary lenses are arranged in one of the frame and the optotype frame, the two auxiliary lenses The lens is used for focusing the left and right visual acuity of a subject to the corresponding first optotype and the second optotype, respectively. The adjustment and relaxation device using the positive lens haze method as described in claim 1, wherein: the at least one eye gaze space is provided with two; The at least two through-slots are set in four, and they are opposite to each other and perpendicular to the virtual vision axis. Two of the four through-slots are defined as the left through-slot group, and one of the four through-slots is defined as a left through-slot group. The other two through-slots are defined as a right through-slot group, the left through-slot group and the right through-slot group respectively pass through the main body in the longitudinal direction of one left and one right, and respectively communicate with the two eye gaze spaces; the first lens The unit and the second lens unit respectively correspond to the left through-slot group and the right through-slot group, and are two independent structures; thus, the first lens unit extends into and out of the left through-slot group correspondingly The eye-gazing space can be relatively moved and temporarily positioned; and the second lens unit is inserted into and extended relative to the eye-gazing space through the right through-groove group, and can be relatively moved and temporarily positioned. The adjusting and relaxing device applying the positive lens haze method as described in claim 1, wherein: the at least one eye gaze space is provided with two; the at least two through-slots are provided with four, and the virtual vision is vertically opposite to each other Axes, two of the above-mentioned four through-slots are defined as left through-slot group, and the other two of the aforementioned four through-slots are defined as right through-slot group, the left through-slot group and the right through-slot group The through-groove groups penetrate the main body in a left and a right direction respectively, and are respectively connected with the two eye gaze spaces; the first lens unit and the second lens unit correspond to the left through-slot group and the right through-slot group, respectively , and are two independent structures; wherein, the adjusting and relaxing device applying the positive lens haze method further comprises: two rolling and unwinding devices, which are respectively arranged on the main body part, and are juxtaposed and close to the opposite inner side of the two eye gaze spaces each of the two winding and unwinding devices includes a reel part and a winding and unwinding power part; the winding and unwinding power part is an electric winding and unwinding structure, which includes an electric motor and a battery; the electric motor uses to drive the reel part to perform one of forward rotation and reverse rotation; the first lens unit and the second lens unit The element system corresponds to the two reel parts, both of which are flexible structures, and can be wound around the corresponding reel parts and perform one of rolling, pushing out, and temporary positioning; thereby, the first lens can be controlled The unit extends into and out of the corresponding eye-gazing space through the left through-slot group, and can be moved relatively and temporarily positioned; and the second lens unit can be controlled to extend into and out of the corresponding eye-gazing space through the right through-slot group Eyes should be fixed in space and can be moved relative to and temporarily positioned. The adjusting and relaxing device applying the positive lens haze method as described in claim 1, wherein: the at least one eye gaze space is provided with two; the at least two through-slots are provided with four, and the virtual vision is vertically opposite to each other Axes, two of the above-mentioned four through-slots are defined as left through-slot group, and the other two of the aforementioned four through-slots are defined as right through-slot group, the left through-slot group and the right through-slot group The through-groove groups penetrate the main body in a left and a right direction respectively, and are respectively connected with the two eye gaze spaces; the first lens unit and the second lens unit correspond to the left through-slot group and the right through-slot group, respectively , and are two independent structures; wherein, the adjusting and relaxing device applying the positive lens haze method further comprises: two rolling and unwinding devices, which are respectively arranged on the main body part, and are juxtaposed and close to the opposite inner side of the two eye gaze spaces each of the two winding and unwinding devices includes a reel part and a winding and unwinding power part; the winding and unwinding power part is a manual winding and unwinding structure, which includes a hand rocker and a transmission gear; the hand The rocker is used to drive one end of the transmission gear; the other end of the transmission gear drives the corresponding reel part to perform either forward rotation or reverse rotation; the first lens unit and the second lens unit correspond to the two The reel parts are all flexible structures, and can be wound around the corresponding reel part and perform one of the actions of winding, pushing out, and temporarily positioning; Thereby, the first lens unit can be controlled to extend into and out of the corresponding eye-gazing space through the left penetration groove group, and can be relatively moved and temporarily positioned; and the second lens unit can be controlled to pass through the right penetration The groove group extends into and out of the space corresponding to the eye gaze, and can be moved relatively and temporarily positioned. The adjustment and relaxation device using the positive lens haze method as described in claim 1, wherein: the at least two through-slots are provided with four, and are perpendicular to the virtual vision axis in pairs, and one of the four above The two through-slots are defined as a front through-slot group, and the other two through-slots among the above four are defined as a rear through-slot group, the front through-slot group and the rear through-slot group respectively penetrate the The main body part is connected to the at least one eye gaze space at the same time; the first lens unit and the second lens unit correspond to the front through-slot group and the rear through-slot group respectively, and are two independent structures; the first lens unit There is a left end of the first lens unit and a right end of the first lens unit, and the second lens unit has a left end of the second lens unit and a right end of the second lens unit; each of the plurality of first lenses The power of a lens, from the left end of the first lens unit to the right end of the first lens unit, sequentially has a first lens power difference value; the power of each second lens in the plurality of second lenses, It has a second lens power difference value in sequence from the left end of the second lens unit to the right end of the second lens unit; thus, the first lens unit can be the left end of the first lens unit, the first lens unit One of the right ends of a lens unit extends into and out of the eye gaze space through the front through-slot group, so as to be relatively movable and temporarily positioned; and the second lens unit can be the left end of the second lens unit, the One of the right ends of the second lens unit extends into and out of the eye gaze space through the rear through-groove group, so as to be relatively movable and temporarily positioned; and two of the plurality of first lenses and the plurality of second lenses Two of the lenses are arranged in the form that the left and right groups are respectively overlapped in the frame. Moreover, the sum of the above-mentioned lens powers after each group is overlapped, the left and right groups are the same. The adjustment and relaxation device applying the positive lens haze method as claimed in claim 1, wherein: each of the at least two through grooves has a groove width; the first lens unit and the second lens unit are both There is a lens unit thickness, which is less than or equal to the groove width; the plurality of first lenses and the plurality of second lenses both have a lens thickness, which is smaller than the thickness of the lens unit; the plurality of first lenses and the plurality of second lenses have a thickness The lenses are all positive lenses. The adjustment and relaxation device applying the positive lens haze method as described in claim 1, wherein: the optotype part is a display, which can emit light to illuminate the enclosed space, and can display the first optotype and the second optotype mark. The adjusting and relaxing device applying the positive lens haze method according to claim 1, wherein: the optotype part is a plate structure, and further comprises an illumination device for illuminating the enclosed space; The pattern marked on the plate structure is selected from one of spraying, printing, and pasting; the pattern marked on the plate structure is selected from one of spraying, printing, and pasting. By.

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