CN113244045A - High-efficiency vision recovery method and equipment - Google Patents
High-efficiency vision recovery method and equipment Download PDFInfo
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- A61F9/00—Methods or devices for treatment of the eyes; Devices for putting-in contact lenses; Devices to correct squinting; Apparatus to guide the blind; Protective devices for the eyes, carried on the body or in the hand
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Abstract
The invention belongs to the field of ophthalmic treatment equipment and methods, and particularly relates to a high-efficiency vision recovery method and equipment. The high-efficiency vision recovery method comprises the following steps: (1) identifying the pupil distance, identifying the pupil distance of the user through an automatic pupil distance identification system, and adjusting the width of an eye socket matched with the pupil distance through an automatic telescopic part; (2) performing electromagnetic stimulation and infrared light treatment on acupuncture points around the eye socket through an electromagnetic infrared needle head module, wherein the electromagnetic stimulation intensity and the infrared light energy density can be set into various intensity modes; (3) pupil positioning, namely locking the pupil position of a user through a pupil identification system, and emitting near infrared light to irradiate the fundus by a near infrared emitter. The high-efficiency vision recovery device consists of an identification module, an electromagnetic infrared needle head module and a near-infrared illumination module. The high-efficiency vision recovery instrument improves eye acupuncture point blood microcirculation through automatically adjusting the interpupillary distance by the electromagnetic infrared needle head, and accurately applies near infrared light to irradiate the eyeground to improve visual function cell metabolism through pupil identification and positioning, and the two can quickly improve and recover visual functions in cooperation.
Description
Technical Field
The invention belongs to the field of ophthalmologic treatment equipment and methods, and particularly relates to an efficient vision recovery method and equipment.
Background
Along with the rapid development of social informatization, the popularity and the utilization rate of electronic equipment are increasing day by day. People rely on electronic screen equipment such as computers and mobile phones in work and life to cause the incidence of a plurality of ophthalmic diseases, particularly rare eye diseases, and the trend is younger and younger, and the diagnosis and treatment of the eye diseases are more and more emphasized. Myopia is the most common and most common eye problem. At present, various eye massage instruments exist in the market, the recovery of the pseudomyopia is realized mainly by exercising ciliary muscles or eye massage, but the adaptation adjustment according to the interpupillary distance of different users is not considered, the eye massage instruments are mainly used for exercising the pseudomyopia, the regeneration and repair of retinal cells are not involved, and the cell regeneration of the true myopia cannot be improved. The widely used ophthalmological therapeutic apparatus for treating the photophobia can stimulate the relevant acupuncture points of eyes and bodies by adopting an electromagnetic needle technology, such as Zanzhu, Yuyao, Tongziliao, Chengqi, Sibai, Jingming, Baihui and Fengchi, and the blood flow of the acupuncture points is improved by electromagnetic combined stimulation, but the method needs manual assistance, is inconvenient to operate, only stimulates the acupuncture points, and does not consider the regeneration and repair of retinal cells.
Patent application No. 201680085322.8 discloses a system and method for neuroprotective therapy of glaucoma, which employs a micro-pulse laser beam to directly irradiate retina to improve the function of retinal cells or optic nerve, which is mainly used for neuroprotective therapy of glaucoma, and cannot set different treatment schemes according to different degrees of myopia, and does not consider the effect of acupuncture points on improving myopia.
Chinese patent application No.: CN201010155354.5 discloses an eye near-infrared therapeutic apparatus, which uses an eye mask with several near-infrared light sources, and can treat chronic mitochondrial injury pathological changes, neurological diseases and the like of eyes by irradiating the eyes with traditional Chinese medicine false and false.
Chinese patent application No.: CN201310038260.3 discloses a multifunctional vision therapeutic apparatus, which combines the traditional Chinese medicine meridian acupuncture points and music conditioning as the leading factors, carries out physiological stimulation and regulation on optic nerves through magnetic sheets on a magnetic therapy head cap, improves microcirculation, improves the flexible movement of eye muscles by using visual field movement, mainly stimulates the head acupuncture points through the magnetic sheets, does not carry out targeted stimulation on key acupuncture points of eyes or eyeground, and does not consider the regeneration and repair of retinal cells.
Chinese patent application No.: CN201320185674.4 discloses an eyeball treatment cover of an acoustic-optical-electromagnetic combined treatment apparatus of a multi-frequency vision enhancing apparatus, which adopts an electromagnetic treatment ring to stimulate visual cells through electromagnetic pulses, and can stimulate the visual cells more deeply compared with the traditional method of simply adopting colors or patterns to stimulate the retinal cells. But it can not carry out adaptability adjustment according to different user's interpupillary distance sizes, also can not adjust the intensity of electromagnetic pulse according to different near-sightedness degree, and the electromagnetic treatment circle is located eyeball periphery, and it has no contrast test to the stimulation effect of visual cell and proves.
Aiming at the problems that the traditional Chinese medicine acupuncture point stimulation is adopted for treating myopia in the prior art, or the auxiliary treatment effect by optical stimulation is limited, the requirement of different acupuncture point stimulation intensities for different myopia degrees is not considered, and the effect of retinal cell regeneration on myopia treatment is not considered.
Disclosure of Invention
In order to solve the above technical problems, the present invention provides an efficient vision recovery method and apparatus. The high-efficiency vision recovery method comprises the following steps: (1) identifying the pupil distance, identifying the pupil distance of the user by a pupil distance identification module, and adjusting the width of an eye socket component matched with the pupil distance by an automatic telescopic component; (2) electromagnetic stimulation and infrared light treatment are carried out on acupuncture points around the eye socket through the electromagnetic infrared needle head module, blood microcirculation of the acupuncture points is improved, and the electromagnetic stimulation intensity and the infrared light energy density can be set into various intensity modes; (3) pupil positioning, namely locking the pupil position of a user through a pupil identification system, emitting near infrared light by a near infrared emitter to irradiate the fundus, and setting different irradiation time of near infrared light energy density according to different myopia degrees; the efficient vision recovery method is realized through efficient vision recovery equipment, wherein the efficient vision recovery equipment is composed of an identification module, an electromagnetic infrared pinhead module and a near-infrared illumination module, the identification module comprises interpupillary distance identification, the electromagnetic infrared pinhead module comprises an electromagnetic head and an infrared emission light source, the near-infrared illumination module is composed of pupil identification and a near-infrared emitter, the interpupillary distance identification module is used for acquiring the width of an automatic telescopic part for adjusting an eyebox part of a user, and the near-infrared illumination module is used for accurately emitting near-infrared light to illuminate the eyebox through a pupil identification part locking position by the near-infrared emitter.
Furthermore, the automatic telescopic part comprises a micro motor, and the micro motor is connected with a telescopic rod.
Furthermore, the electromagnetic stimulation and infrared light processing are set in various modes through a controller, and the controller can input the myopic degree and the age of a patient and can calculate matched electromagnetic parameters and infrared light parameters.
Further, the electromagnetic parameters include voltage, magnetic field strength, and time, and the infrared parameters include infrared wavelength and time.
Further, the controller can calculate matched electromagnetic parameters and infrared parameters by inputting the myopic degree and the age of a patient, and comprises the following simple modes: when the eyesight of the eyes of the user is 50-100 ℃, the patient ages for 1-2 years, the controller calculates that the voltage is 3V, the magnetic field intensity is 0.05T, the infrared wavelength is 880-1000nm, and the time is 10-15 min; when the eyesight of the eyes of the user is 50-100 ℃, the disease age is 2-5 years, the controller calculates that the voltage is 4V, the magnetic field intensity is 0.08T, the infrared wavelength is 860-900nm, and the time is 15-20 min; when the eyesight of the eyes of the user is at 100-; when the eyesight of the eyes of the user is at 400 ℃ at 200-; when the vision of the user is more than 400 ℃, the disease age is more than 5 years, the controller calculates to obtain the voltage of 6V, the magnetic field intensity of 0.20T, the infrared wavelength of 850-.
Furthermore, the pupil identification component is realized by installing a pupil tracking system, can identify the pupil position of an eyeball, and dynamically transmits the position information to the near-infrared transmitter to realize accurate transmission of near-infrared light.
Furthermore, different near infrared light energy densities and irradiation times are set according to different myopia degrees and are realized through a controller, the controller can input the myopia degrees and the disease age, and the matched near infrared light energy density, wavelength and irradiation time can be calculated.
Further, it is characterized in that: the controller can input the myopic degree and the age of a patient, and can calculate the matched infrared energy density, wavelength and irradiation time, and the controller comprises the following simple modes: when the eyesight of the user is 50-100 degrees and the disease age is 1-2 years, the controller calculates that the near infrared light energy density is 150-200mW/cm2The wavelength is 860-870nm, and the time is 5-6 min; when the eyesight of the user is 50-100 degrees and the patient ages for 2-5 years, the controller calculates that the near infrared light energy density is 150-200mW/cm2The wavelength is 850-; when the eyesight of the user is 200 ℃ at 100-2The wavelength is 840-850nm, and the time is 6-8 min; when the vision of the eyes of the user is at 400 ℃ at 200-2The wavelength is 820-840nm, and the time is 6-8 min; when the vision of the user is more than 400 degrees, the disease age is more than 5 years, and the controller calculates that the near infrared light energy density is 400-580mW/cm2The wavelength is 780-810nm, and the time is 7-10 min.
The invention has the beneficial effects that:
(1) aiming at the difference of the pupil distances of different users, a pupil distance identification module is adopted to identify the pupil distance of the user, an automatic telescopic component adjusts the width of an orbit component matched with the pupil distance, the orbit distance is adjusted in a self-adaptive manner, and the treatment requirement is met;
(2) different myopia degrees need different acupuncture point stimulation intensities, the invention integrates traditional Chinese medicine acupuncture point treatment, carries out electromagnetic stimulation and infrared light treatment on acupuncture points around an orbit through an electromagnetic infrared needle module, improves acupuncture point blood microcirculation, wherein the electromagnetic stimulation intensity and the infrared light energy density can set various intensity modes, a controller can calculate matched electromagnetic parameters and infrared light parameters by inputting myopia degrees and age, and sets corresponding treatment schemes according to different myopia groups and treatment processes;
(3) accurately irradiating the eyeground to stimulate retinal cell regeneration through pupil identification, setting different near-infrared light energy densities and irradiation times according to different myopia degrees, inputting myopia degrees and disease ages by a controller, calculating the matched near-infrared light energy densities, wavelengths and irradiation times, and setting corresponding treatment schemes according to different myopia groups and treatment processes;
(4) the stimulation treatment of the electromagnetic infrared needle head at the acupuncture point around the eye part is combined with the near-infrared fundus irradiation to stimulate the retinal cell regeneration, and the two are used for synergistic treatment, so that the effect on the recovery and treatment of the eyesight of the myopia patient is more obvious compared with the single method.
Drawings
FIG. 1 is a schematic diagram of the high efficiency vision recovery device of the present invention;
wherein, 1 high-efficient eyesight recovery equipment casing, 2 eye socket parts, 3 eyeball district, 4 electromagnetic infrared syringe needles, 5 automatic flexible parts, 6 dead levers, 7 near infrared transmitter, 8 electromagnetic infrared syringe needle main parts, 9 infrared transmitter, 10 electromagnetic needles.
Detailed Description
Example 1
High-efficient eyesight recovery equipment comprises identification module and electromagnetic infrared syringe needle module and near-infrared illumination module, identification module includes interpupillary distance discernment, electromagnetic infrared syringe needle module includes electromagnetic head and infrared emission light source, near-infrared illumination module is by pupil discernment, near-infrared emitter constitutes, wherein interpupillary distance identification module is used for acquireing the width that the automatic flexible part of user's interpupillary distance was convenient for adjusted eye socket part, near-infrared illumination module passes through pupil identification part latched position and is irradiated the eye ground by the accurate near-infrared of near-infrared emitter transmission.
The automatic telescopic part comprises a micro motor, and the micro motor is connected with a telescopic rod. The electromagnetic stimulation and infrared light processing are set in different modes via setting controller, and the controller can input myopia degree and age and calculate matched electromagnetic parameters and infrared parameters. The electromagnetic parameters include voltage, magnetic field strength, and time, and the infrared parameters include infrared wavelength and time.
200 cases of 7-25 year old juvenile myopia patients tested from 1 month to 2021 month in 2020 are selected (wherein the corrected vision is less than 1.0, the ocular organic disease, the change of the ocular organic disease has the history of eye surgery and trauma history, and the dominant, intermittent exostrabismus and the cryptostrabismus cannot establish the binocular vision function). The treatment group, the control group 1, the control group 2 and the control group 3 were randomly divided into 50 each. Data were collected for statistics at 1 month and 2 months after treatment. The treatment group is treated by the method of the invention, the control group 1 is only treated by the traditional electromagnetic needle acupuncture point massage, the control group 2 is treated by the near-infrared irradiator, and the control group 3 is treated by the traditional method. The results are shown in Table 1.
TABLE 1 comparison of vision before and after four treatments
The results show that: compared with the control group 3 which adopts the traditional method to massage the eye acupuncture points, the control group 1 only adopts the traditional electromagnetic needle acupuncture point massage therapy, the control group 2 adopts the near-infrared irradiation instrument therapy, the vision improvement range is higher after 2 months of treatment, and the improvement effect of the control group 1 is more obvious, probably because the electromagnetic needle acupuncture point therapy can more effectively stimulate the acupuncture point blood microcirculation, the ciliary muscle tension is improved through the comprehensive action of micro-current and magnetic field, the fusion function of the central nervous system is intensively integrated, the nervous system is stimulated, the eye fatigue symptom is eliminated, and the vision is improved. The control group 2 adopts near-infrared irradiation instrument to treat the eye disease, mainly stimulates visual cell regeneration, improves the blood flow and metabolic rate of the eyeground, thereby promoting the recovery of vision, and the recovery of vision is massaged by the traditional method, but is slightly lower than the acupuncture point massage of an electromagnetic needle. As can be seen from Table 1 above, the treatment group using the present invention showed a significant improvement in vision after 1 month of treatment, the improvement effect is obviously better than that of the control group 1-3, after 2 months of treatment, the treatment group can finally improve 80 percent of vision and is far higher than the improvement level of the control group 1-3, this may be due to the fact that the treatment group is more beneficial for improving vision with different treatment regimens depending on the different users, and the electromagnetic infrared needle is adopted to stimulate acupuncture points and infrared light is adopted to irradiate the eyeground to cooperatively stimulate the regeneration and repair of visual cells, and relieving ciliary muscle, compared with single means, the utility model has more remarkable effect on improving vision, thus being capable of improving vision of teenagers, especially pseudomyopia, and the improvement speed is faster, and the treatment can be more targeted to the eyesight and the age of a patient through different user inputs, so that the over-treatment or the delay of the treatment effect is prevented.
Finally, it should be noted that: although the present invention has been described in detail with reference to the foregoing embodiments, it will be apparent to those skilled in the art that changes may be made in the embodiments and/or equivalents thereof without departing from the spirit and scope of the invention. Any modification, equivalent replacement, or improvement made within the spirit and principle of the present invention should be included in the protection scope of the present invention.
Claims (8)
1. An efficient vision recovery method is characterized in that: the high-efficiency vision recovery method comprises the following steps: (1) identifying the pupil distance, identifying the pupil distance of the user by a pupil distance identification module, and adjusting the width of an eye socket component matched with the pupil distance by an automatic telescopic component; (2) electromagnetic stimulation and infrared light treatment are carried out on acupuncture points around the eye socket through the electromagnetic infrared needle head module, and blood microcirculation of the acupuncture points is improved, wherein the electromagnetic stimulation and the infrared light treatment can be set in various modes; (3) pupil positioning, namely locking the pupil position of a user through a pupil identification module, emitting near infrared light by a near infrared emitter to irradiate the fundus, and setting different near infrared light energy density wavelengths and irradiation time according to different myopia degrees; the efficient vision recovery method is realized through efficient vision recovery equipment, wherein the efficient vision recovery equipment is composed of a pupil distance identification module, an electromagnetic infrared needle head module and a near-infrared illumination module, the electromagnetic infrared needle head module comprises an electromagnetic head and an infrared emission light source, the near-infrared illumination module is composed of pupil identification and a near-infrared emitter, the pupil distance identification module is used for acquiring the width of an eye socket part which is convenient for an automatic telescopic part of the user pupil distance, and the near-infrared illumination module irradiates the eye ground through the near-infrared emitter which accurately emits near-infrared light through a pupil identification part locking position.
2. A method of efficient vision recovery as defined in claim 1, wherein: the automatic telescopic part comprises a micro motor, and the micro motor is connected with a telescopic rod.
3. A method of efficient vision recovery as defined in claim 1, wherein: the electromagnetic stimulation and infrared light processing are set in different modes via setting controller, and the controller can input myopia degree and age and calculate matched electromagnetic parameters and infrared parameters.
4. A method of efficient vision recovery as defined in claim 3, wherein: the electromagnetic parameters include voltage, magnetic field strength, and time, and the infrared parameters include infrared wavelength and time.
5. The method of efficient vision recovery of claim 4, wherein: the controller can calculate matched electromagnetic parameters and infrared parameters by inputting the myopia degree and the age of a patient, and comprises the following simple modes: when the eyesight of the eyes of the user is 50-100 ℃, the patient ages for 1-2 years, the controller calculates that the voltage is 3V, the magnetic field intensity is 0.05T, the infrared wavelength is 880-1000nm, and the time is 10-15 min; when the eyesight of the eyes of the user is 50-100 ℃, the disease age is 2-5 years, the controller calculates that the voltage is 4V, the magnetic field intensity is 0.08T, the infrared wavelength is 860-900nm, and the time is 15-20 min; when the eyesight of the eyes of the user is at 100-; when the eyesight of the eyes of the user is at 400 ℃ at 200-; when the vision of the user is more than 400 ℃, the disease age is more than 5 years, the controller calculates to obtain the voltage of 6V, the magnetic field intensity of 0.20T, the infrared wavelength of 850-.
6. A method of efficient vision recovery as defined in claim 1, wherein: the pupil identification component is realized by installing a pupil tracking system, can identify the position of the pupil of the eyeball and dynamically transmits the position information to the near-infrared transmitter, so that the near-infrared light is accurately transmitted.
7. A method of efficient vision recovery as defined in claim 1, wherein: different near infrared light energy densities and irradiation times are set according to different myopia degrees and are realized through a controller, the controller can input the myopia degrees and the disease age, and the matched near infrared light energy density, wavelength and irradiation time can be calculated.
8. The method for efficient vision recovery of claim 7, wherein: the controller can input the myopic degree and the age of a patient, and can calculate the matched infrared energy density, wavelength and irradiation time, and the controller comprises the following simple modes: when the eyesight of the user is 50-100 degrees and the disease age is 1-2 years, the controller calculates that the near infrared light energy density is 150-200mW/cm2The wavelength is 860-870nm, and the time is 5-6 min; when the eyesight of the user is 50-100 degrees and the patient ages for 2-5 years, the controller calculates that the near infrared light energy density is 150-200mW/cm2The wavelength is 850-; when the vision of the eyes of the user is 100-20At 0 deg.C, the disease age is 2-5 years, the controller calculates near infrared light energy density of 200-250mW/cm2The wavelength is 840-850nm, and the time is 6-8 min; when the vision of the eyes of the user is at 400 ℃ at 200-2The wavelength is 820-840nm, and the time is 6-8 min; when the vision of the user is more than 400 degrees, the disease age is more than 5 years, and the controller calculates that the near infrared light energy density is 400-580mW/cm2The wavelength is 780-810nm, and the time is 7-10 min.
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