CN114392492B - Intelligent nondestructive phototherapy system - Google Patents

Abstract

The invention discloses an intelligent nondestructive phototherapy system, which comprises: the device comprises a monitoring module, a processing module and a phototherapy module; the monitoring module acquires first eye information and second eye information of a patient; the processing module generates current change parameters of the eyes of the patient according to the acquired first eye information and the acquired second eye information; generating a second treatment parameter according to the change parameter, the current first treatment parameter and a preset adjustment range; the phototherapy module adjusts the light dose of the therapeutic light source according to the received second therapeutic parameter. The treatment using the phototherapy system of the present invention has no side effects on the patient's body.

Description

An intelligent non-destructive phototherapy system

technical field

The invention relates to the technical field of life and health, in particular to an intelligent non-destructive phototherapy system.

Background technique

Neurodegenerative diseases (Neurodegenerative diseases, NDs) are common chronic aging diseases, affecting the central nervous system and peripheral nervous system, characterized by irreversible, progressive loss of previously complete neurological function, and with age Deterioration, including Alzheimer's disease (Alzheimerdiseases, ADs), Parkinson's disease (Parkinson'sdisease, PDs), etc. Currently, the main treatment for ND is pharmacology, but the existing drugs can only relieve symptoms and have side effects, such as diarrhea, nausea, and headache. In addition, according to the characteristics of ND, the treatment is not limited to medical institutions, but more importantly, daily home care.

Light therapy (Light therapy, LT) is a non-invasive or minimally invasive treatment method that uses light to irradiate the damaged part to relieve or treat the disease, without side effects. At present, optical therapy has formed three major optical therapy technologies including strong laser therapy, photodynamic therapy, and weak laser therapy, which have been widely used in the treatment of many diseases. With the transformation of the medical treatment model, the disease spectrum of weak laser therapy has gradually expanded from common diseases to major chronic aging diseases, and the field of treatment has also extended from disease treatment to disease prevention. The main battlefield of its application has gradually shifted from medical institutions to communities. and family tilt.

Currently, there is no weak laser therapy system for ND treatment.

Contents of the invention

The invention provides an intelligent nondestructive phototherapy system to overcome at least one technical problem in the prior art.

An embodiment of the present invention provides an intelligent non-destructive phototherapy system, the phototherapy system includes: a monitoring module, a processing module and a phototherapy module, the monitoring model is connected to the processing module, and the processing module is connected to the phototherapy module; The monitoring module acquires the patient's first eye information and second eye information, and sends the first eye information and the second eye information to the processing module, and the first eye information and The second eye information includes the size of the pupil, the distribution of the capillaries of the eye, and the acquisition time interval between the first eye information and the second eye information is a preset time period; the processing module according to the acquired The first eye information and the second eye information generate the current change parameters of the patient's eyes; generate the second treatment parameters according to the change parameters, the current first treatment parameters and the preset adjustment range, and sending the second treatment parameter to the phototherapy module; the first treatment parameter and the second treatment parameter include light power and light frequency; the phototherapy module adjusts according to the received second treatment parameter The light dose of the therapeutic light source.

Optionally, the first eye information includes eye information at the first moment and eye information at the second moment, and the second eye information includes eye information at the third moment and eye information at the fourth moment; The step of the processing module generating the current change parameters of the patient's eyes according to the acquired first eye information and the second eye information includes: the processing module according to the first moment The eye information and the eye information at the second moment generate the first eye information of the patient; according to the eye information at the third moment and the eye information at the fourth moment, generate the second eye information of the patient; wherein , the first moment and the second moment, the third moment and the fourth moment are separated by a preset first period, and the second moment and the third moment are separated by a preset second time period.

Optionally, the first eye information and the second eye information also include blink frequency; the change parameters include: pupil variable, blood capillary distribution density variable, and blink frequency variable; the second treatment parameter includes a third treatment parameter and the fourth treatment parameter; the step of generating the second treatment parameter according to the change parameter, the current first treatment parameter and the preset adjustment range includes: the processing module according to the patient's pupil variation, bloodshot eyes The distribution density variation and the blink frequency variation are used to calculate the current fitness value; the processing module judges whether the current first treatment parameter is consistent with the The patients match; if they match, the processing module increases the preset adjustment range based on the first treatment parameter to generate a third treatment parameter; if not, the processing module Set the adjustment range, down-regulate the treatment parameters, and generate the fourth treatment parameters.

Optionally, the preset fitness value partition table includes a one-to-one correspondence between multiple intervals of fitness values and evaluations, and the evaluations include adaptation, mild incompatibility, incompatibility, and severe incompatibility.

Optionally, the processing module, according to the first treatment parameter and a preset adjustment range, down-regulates the treatment parameter to generate a fourth treatment parameter, including: if the fitness value is within the preset The evaluation in the fitness value partition table is mild incompatibility, then it is determined that the actual down-regulation range is the preset adjustment range of one time; if the evaluation of the fitness value in the preset fitness value partition table is If not suitable, then determine that the actual down-regulation range is twice the preset adjustment range; if the evaluation of the fitness value in the preset fitness value partition table is seriously unsuitable, then determine that the actual down-regulation range is three times the preset adjustment range; on the basis of the first treatment parameter, down-regulate the actual down-regulation range to generate a fourth treatment parameter.

Optionally, the evaluation also includes allergies; after the processing module finds the evaluation of the corresponding fitness value in the preset fitness value partition table according to the fitness value, the method It also includes: if it is evaluated as allergic, the processing module sends an instruction to stop treatment to the phototherapy module; after receiving the instruction to stop treatment, the phototherapy module turns off the treatment light source.

Optionally, the system further includes an adjustment module; the adjustment module obtains a fifth treatment parameter, and sends the fifth treatment parameter to the phototherapy module; the phototherapy module Adjust the light dose of the light source.

Optionally, the intelligent non-destructive phototherapy system includes intelligent non-destructive phototherapy glasses; the treatment module is a transparent LED pulse light lens on the intelligent non-destructive phototherapy glasses; The ultra-clear surveillance camera on the frame of non-destructive phototherapy glasses.

Optionally, the processing module is a microprocessor arranged on the intelligent non-destructive phototherapy glasses; the adjustment module is arranged on the side temples of the intelligent non-destructive phototherapy glasses, It includes an increment key for increasing the light dose and a decrement key for reducing the light dose; the microprocessor is respectively wired or wirelessly connected with the LED pulse light lens, the ultra-clear monitoring camera and the adjustment module.

Optionally, the intelligent nondestructive phototherapy system further includes a remote operation terminal; the intelligent nondestructive phototherapy glasses further include a first communication module; the remote operation terminal is provided with the processing module, the adjustment module and The second communication module; the intelligent non-destructive phototherapy glasses and the remote operation terminal are respectively connected through the first communication module and the second communication module.

The innovations of the embodiments of the present invention include:

1. The intelligent non-destructive phototherapy system proposed by the present invention can use weak laser to treat patients with neurodegenerative diseases (NDs). Compared with drug treatment, the phototherapy system of the present invention has no side effects on the patient's body. It is one of the innovative points of the embodiment of the present invention.

2. In the intelligent nondestructive phototherapy system proposed by the present invention, the processing module can monitor the patient's eye condition in real time according to the monitoring module, and automatically adjust the light dose of the phototherapy module according to the patient's current eye condition, which is convenient, safe and reliable, and does not require With professional skills, it is convenient for patients to use at home. It is one of the innovative points of the embodiment of the present invention.

3. In the intelligent non-destructive phototherapy system proposed by the present invention, the processing module can automatically adjust the light dose of the phototherapy module in stages according to the eye information of the patient in the current time period, so as to avoid the patient's eye damage caused by the large light dose. Discomfort, as well as poor treatment effect caused by insufficient light dose, take into account the patient's experience and treatment effect, so as to achieve the maximum improvement of the treatment effect on the premise that the patient's eyes are more comfortable. It is one of the innovative points of the embodiment of the present invention.

4. The intelligent non-destructive phototherapy system proposed by the present invention is small and convenient, can be carried around, and is suitable for daily care and treatment at home. Specifically, it can be worn on the patient's head. Since the LED pulsed light lens is transparent, the patient can The line of sight is not affected, and you can move freely. It is very convenient to use and has a better user experience. It is one of the innovative points of the embodiment of the present invention.

Description of drawings

In order to more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the following will briefly introduce the drawings that need to be used in the description of the embodiments or the prior art. Obviously, the accompanying drawings in the following description are only These are some embodiments of the present invention. Those skilled in the art can also obtain other drawings based on these drawings without creative work.

Fig. 1 is a kind of intelligent nondestructive phototherapy system that the present invention proposes;

Fig. 2 is another intelligent nondestructive phototherapy system proposed by the present invention;

Fig. 3 is the specific processing flowchart of step 213 in the present invention;

Fig. 4 is the intelligent non-destructive phototherapy glasses proposed by the present invention;

Fig. 5 shows the intelligent non-destructive phototherapy glasses and the remote operation terminal proposed by the present invention.

Detailed ways

The following will clearly and completely describe the technical solutions in the embodiments of the present invention with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only some, not all, embodiments of the present invention. Based on the embodiments of the present invention, all other embodiments obtained by persons of ordinary skill in the art without making creative efforts belong to the protection scope of the present invention.

It should be noted that the terms "include" and "have" and any variations thereof in the embodiments of the present invention and drawings are intended to cover non-exclusive inclusion. For example, a process, method, system, product or device comprising a series of steps or units is not limited to the listed steps or units, but optionally also includes unlisted steps or units, or optionally further includes For other steps or units inherent in these processes, methods, products or apparatuses.

The present invention proposes an intelligent non-destructive phototherapy system, refer to FIG. 1 , which is an intelligent non-destructive phototherapy system proposed by the present invention. As shown in FIG. 1 , the intelligent nondestructive phototherapy system includes: a monitoring module, a processing module and a phototherapy module, the monitoring module is connected to the processing module, and the processing module is connected to the phototherapy module. The interaction process of each module in the phototherapy system is as follows:

Step 101, the monitoring module acquires first eye information and second eye information of the patient, and sends the first eye information and the second eye information to the processing module.

Wherein, the first eye information and the second eye information include pupil size and bloodshot distribution of the eyeball, and the acquisition time interval of the first eye information and the second eye information is a preset time period.

In this step, the monitoring module can acquire the first eye information and the second eye information of the patient, wherein the acquisition time of the first eye information and the acquisition time of the second eye time can be separated by a preset time period, Assuming that the time period can be 10 100 μs, the first eye information and the second eye information can reflect the changes in the patient's eyes during this period of time, and provide a reference for the subsequent steps to judge whether the treatment parameters of the phototherapy module are appropriate.

It should be noted that the phototherapy module achieves the therapeutic effect by irradiating the patient's eyes. In order to monitor the patient's eye condition in real time, the first eye information and the second eye information can include the patient's pupil size, eye blood filament distribution, etc. The patient's clinical data that can reflect the patient's degree of adaptation to the treatment of the phototherapy module.

It is understandable that when the treatment parameters of the phototherapy module are inappropriate, it may cause adverse reactions such as large changes in the pupils of the patient and increased bloodshot eyes.

Step 103, the processing module generates current change parameters of the patient's eyes according to the received first eye information and the second eye information.

In this step, the processing module can generate changing parameters that reflect the patient's current response to the treatment effect of the phototherapy module according to the first eye information and the second eye information sent by the monitoring module, so as to achieve the purpose of real-time monitoring of the patient's eye condition.

It should be noted that the change parameter may reflect the change of the eye within the acquisition time period of the first eye information and the second eye information, that is, within the current time. If the parameter changes are large, it means that the patient's eyes are not adapted to the current treatment light source, and an allergic reaction may have occurred. The light dose can be reduced by modifying the treatment parameters, or the phototherapy can be stopped.

Step 105, the processing module generates a second treatment parameter according to the change parameter, the current first treatment parameter and a preset adjustment range, and sends the second treatment parameter to the phototherapy module.

Wherein, the first treatment parameter and the second treatment parameter include illumination power and illumination frequency.

In this step, the processing module can determine whether the current first treatment parameter is suitable for the patient according to the generated change parameters. If the treatment parameters are not suitable, you can adjust the treatment parameters down on the basis of the first treatment parameters according to the preset adjustment range, and finally get the second treatment parameters that match the current state of the patient. The treatment parameters are sent to the phototherapy module, so that the phototherapy module can adjust the treatment parameters and the light dose in time. On the one hand, on the premise that the patient's body can accept it, the light dose can be increased to improve the therapeutic effect. On the other hand, if the patient has an uncomfortable reaction, the light dose can be reduced or even stopped in time to improve the patient's experience.

It should be noted that the phototherapy module may be an LED pulsed light module, and the treatment parameters may include light power, light frequency and other parameters that can affect the light dose of the phototherapy module.

Step 107, the treatment module adjusts the light dose of the treatment light source according to the received second treatment parameter.

In this step, the phototherapy module can adjust treatment parameters such as light power and light frequency of the treatment light source according to the newly generated second treatment parameters sent by the processing module, so that the light dose of the treatment light source is adapted to the patient's eye condition, Avoid eye allergies or eye discomfort, and improve patient experience.

It can be seen that the intelligent non-destructive phototherapy system proposed by the present invention has no side effects on the patient's body compared with drug treatment; in addition, the processing module can monitor the patient's eye condition in real time through the monitoring module and according to the patient's current eye condition. The light dose of the phototherapy module can be automatically adjusted according to the local conditions. It is easy to use, safe and reliable, and does not require professional skills. It is convenient for patients to use at home and can improve the patient's experience.

The present invention also proposes another intelligent non-destructive phototherapy system, refer to FIG. 2 , which is another intelligent non-destructive phototherapy system proposed by the present invention. As shown in Figure 2, the processing steps of another intelligent nondestructive phototherapy system are as follows:

Step 201 , the monitoring module acquires the patient's eye information at the first moment, eye information at the second moment, eye information at the third moment, and eye information at the fourth moment.

Wherein, the first moment and the second moment, the third moment and the fourth moment are separated by a preset first time period, and the second moment and the third moment are separated by a preset first time period. Second period.

It should be noted that the interval between the first moment and the second moment, and between the third moment and the fourth moment is a preset first period, which can be set according to the actual situation, and usually can be set to 10 μs. The interval between the second moment and the third moment is a preset second period, which can be set to 100 μs under normal circumstances.

Step 203, the processing module generates the first eye information of the patient according to the eye information at the first moment and the eye information at the second moment; according to the eye information at the third moment and the eye information at the fourth moment Eye information, generate the patient's second eye information.

In this step, the processing module can generate the first eye information of the patient according to the eye information at the first moment and the eye information at the second moment sent by the monitoring module. The first eye information can be the eye information at the first moment. The average value of the facial information and the eye information at the second moment may also be a value obtained after data processing based on the eye information at the first moment and the eye information at the second moment. Similarly, the second eye information is also obtained based on the eye information at the third moment and the eye information at the fourth moment.

Step 205, the processing module generates the current change parameters of the patient's eyes according to the acquired first eye information and the second eye information.

It should be noted that the first eye information and the second eye information also include blinking frequency; correspondingly, the change parameters may include: pupil variables, bloodshot distribution density variables and blinking frequency variables, etc., which can reflect eye parameters of fitness.

Step 207 , the processing module calculates the current fitness value according to the patient's pupil variation, eye capillary distribution density variation, and eye blink frequency variation.

In this step, the processing module may calculate the patient's current fitness value according to the patient's pupil variation, eye capillary distribution density variation, and eye blink frequency variation.

Specifically, the formula for calculating the fitness value is as follows:

x=50%·a+20%·b+30%·c(1)

In the formula (1), a is the variable of the pupil, b is the variable of the distribution density of blood capillaries, and c is the variation of the blinking frequency.

It should be noted that the weight values corresponding to each change amount, such as the 50% weight value corresponding to the pupil variable in the formula (1), the 20% weight value corresponding to the bloodshot distribution density variable, and the 30% weight value corresponding to the blink frequency change amount The value can be adjusted according to the actual situation.

Step 209, the processing module judges whether the current first treatment parameter matches the patient according to the fitness value and the preset fitness value partition table; if it matches, execute step 211; if not , then step 213 is executed.

In this step, the processing module can query the preset fitness value partition table according to the calculated fitness value, and judge whether the first treatment parameter currently used by the phototherapy module is consistent with the patient's eye state according to the query result. match. If they match, perform step 207 to increase the light dose of the phototherapy module in time to improve the therapeutic effect; if not, perform step 209 to reduce the light dose in time to avoid damage to the patient's body.

In this step, the processing module can find the evaluation corresponding to the fitness value in the preset fitness value partition table according to the calculated fitness value, so as to further determine the treatment method that matches the patient's body.

Optionally, the preset fitness value partition table may include a one-to-one correspondence between multiple intervals of fitness values and evaluations, and the evaluations may include adaptation, mild discomfort, incompatibility, severe incompatibility and allergy. Specifically, the preset fitness value partition table may be as shown in Table 1.

fitness value evaluate ≥90 adapt 80-90 mild discomfort 70-80 do not adapt 60-70 Seriously unsuitable ≤60 allergy

Table 1

Of course, in practical applications, a preset fitness value partition table can be set according to the physical condition of the patient.

Step 211 , the processing module increases the preset adjustment range based on the first treatment parameter, generates a third treatment parameter, and sends the third treatment parameter to the phototherapy module.

In this step, since the first treatment parameter currently used by the phototherapy module matches the eye state of the patient, based on the first treatment parameter, the preset adjustment range can be raised to generate a third treatment parameter, and The third treatment parameter is sent to the phototherapy module, so that the light dose of the phototherapy module can be increased in time on the premise that the eyes of the patient are comfortable, and the treatment effect can be improved.

Normally, the preset adjustment range can be 10 40HZ.

It should be noted that, in order to correspond to the previous embodiment, the second treatment parameter in the previous embodiment may include the third treatment parameter and the fourth treatment parameter in this embodiment.

Step 213 , the processing module down-regulates the treatment parameter according to the first treatment parameter and the preset adjustment range, generates a fourth treatment parameter, and sends the fourth treatment parameter to the phototherapy module.

In this step, since the first treatment parameter currently used by the phototherapy module does not match the eye state of the patient, the preset adjustment range can be lowered based on the first treatment parameter to generate a fourth treatment parameter, and The fourth treatment parameter is sent to the phototherapy module, so as to improve the bad state of the patient's eyes, avoid damage to the patient's body, and improve the patient's experience.

Optionally, refer to FIG. 3. FIG. 3 is a specific processing flowchart of step 209 in the present invention. As shown in FIG. 3, step 213 may specifically include:

Sub-step 31, if the evaluation of the fitness value in the preset fitness value partition table is mildly unsuitable, then determine that the actual down-regulation range is double the preset adjustment range; if the fitness value If the evaluation of the value in the preset fitness value partition table is unsuitable, then it is determined that the actual down-regulation range is twice the preset adjustment range; if the fitness value is in the preset fitness value partition If the evaluation in the table is seriously unsuitable, then the actual down-regulation range is determined to be three times the preset adjustment range.

Sub-step 32, on the basis of the first treatment parameter, down-regulate the actual down-regulation range to generate a fourth treatment parameter.

Specifically, in the case that the light dose of the current phototherapy module does not match the patient, the implementation method of reducing the light dose will be more detailed, and the light dose will be reduced in stages. Seriously, the reduction of light dose is relatively large. In the case of not causing damage to the patient's body, try to ensure the therapeutic effect of the phototherapy module.

Optionally, the evaluation may also include allergies;

If it is evaluated as allergic, the processing module sends an instruction to stop treatment to the phototherapy module;

The phototherapy module turns off the treatment light source after receiving the instruction to stop treatment.

Specifically, when the fitness value is evaluated as allergic in the preset fitness value partition table, it means that the patient’s eyes have been allergic, and the processing module immediately sends a treatment stop instruction to the phototherapy module. After receiving the instruction to stop the treatment, the treatment light source is turned off, so as to avoid aggravating the allergic condition of the patient's eyes.

Specifically, the preset interval of the pupil variable can be 2.5-4mm. When the pupil variable exceeds the preset interval, the processing module sends an instruction to stop the treatment to the phototherapy module; the preset interval of the bloodshot distribution density variable can be 5% to 5%, When the bloodshot distribution density variable of the eyeball exceeds the preset interval, the processing module sends an instruction to stop the treatment to the phototherapy module; the preset interval of the blink frequency variation can be 10-30 times/minute, when the blink frequency variation is within the preset range , the processing module sends a treatment stop instruction to the phototherapy module.

In a specific implementation, the system also includes an adjustment module;

The adjustment module acquires a fifth treatment parameter, and sends the fifth treatment parameter to the phototherapy module;

The phototherapy module adjusts the light dose of the light source according to the received fifth treatment parameter.

Specifically, in some venues, the treatment parameters can be manually input through the adjustment module, which is recorded as the fifth treatment parameter, and the adjustment module will send the fifth treatment parameter to the phototherapy module, so that the phototherapy module will adjust the light dose of the light source according to the fifth treatment parameter. Make adjustments.

It can be seen that in another intelligent non-destructive phototherapy system proposed by the present invention, the processing module can automatically adjust the light dose of the phototherapy module in stages according to the eye information of the patient in the current time period, so as to avoid the occurrence of patients with high light dose. For problems such as eye discomfort and poor treatment effect caused by insufficient light dose, the patient's experience and treatment effect are taken into consideration, so as to maximize the treatment effect on the premise that the patient's eyes are more comfortable.

In a specific implementation, the intelligent nondestructive phototherapy system proposed by the present invention may specifically be a kind of intelligent nondestructive phototherapy glasses. Referring to Fig. 4, Fig. 4 shows the intelligent non-destructive phototherapy glasses proposed by the present invention.

As shown in Figure 4, the treatment module is a transparent LED pulse light lens 401 on the intelligent non-destructive phototherapy glasses 40; Camera 402; the processing module is a microprocessor 403 arranged on the phototherapy glasses 40; the adjustment module is arranged on the side mirror legs of the phototherapy glasses 40, and the adjustment module includes The keys 404 specifically include an increment key and a decrement key.

The microprocessor 403 is respectively wired or wirelessly connected with the LED pulse light lens 401 , the ultra-clear surveillance camera 402 and the adjustment module 404 .

Specifically, the interaction process of the internal modules of the intelligent non-destructive phototherapy glasses 40 is as follows:

The ultra-clear monitoring camera 402 in the intelligent non-destructive phototherapy glasses 40 acquires the patient's first eye information and second eye information, and passes the first eye information and the second eye information through the first The communication module 405 sends to the microprocessor 403, the first eye information and the second eye information include the pupil size, the bloodshot distribution of the eyeball, the first eye information and the second eye information Get the time interval preset time period;

The microprocessor 403 generates the current change parameter of the patient's eye according to the obtained first eye information and the second eye information; according to the change parameter, the current first treatment parameter and the preset The adjustment range of the second treatment parameter is generated, and the second treatment parameter is sent to the transparent LED pulsed light lens 401 through the second communication module; the first treatment parameter and the second treatment parameter include illumination power and illumination frequency.

The transparent LED pulsed light lens 401 adjusts the light dose of the treatment light source according to the received second treatment parameters.

For specific details in the processing method, reference may be made to the foregoing embodiments, and details are not repeated here.

In this embodiment, the intelligent non-destructive phototherapy glasses can solve the problem that the treatment process cannot be monitored in real time during treatment with the current treatment instrument, and can monitor the patient's eye condition in real time to adaptively adjust the phototherapy dose. In addition, the intelligent non-destructive phototherapy glasses have the freedom of operation. Under the premise of not affecting the treatment effect, patients can do other things while receiving treatment. It is convenient and safe to use, and is suitable for daily care at home.

In specific implementation, the present invention further proposes a phototherapy smart device, which specifically includes intelligent non-destructive phototherapy glasses and a remote operation terminal. Referring to Fig. 5, Fig. 5 shows the intelligent non-destructive phototherapy glasses and the remote operation terminal proposed by the present invention.

As shown in FIG. 5 , the phototherapy smart eye 40 is provided with a transparent LED pulse light lens 401 , an ultra-clear surveillance camera 402 and a first communication module 405 . The remote operation terminal 50 is provided with a processing module 501 , an adjustment module 502 and a second communication module 503 . The first communication module 405 is respectively connected with the ultra-clear surveillance camera 402 and the transparent LED pulsed light lens 401 . The second communication module 503 in the remote operation terminal 50 is wirelessly connected with the second communication module 405 in the intelligent nondestructive phototherapy glasses 40 .

Specifically, the interaction process between the intelligent nondestructive phototherapy glasses 40 and the remote operation terminal 50 is as follows:

The ultra-clear monitoring camera 402 in the intelligent non-destructive phototherapy glasses 40 acquires the patient's first eye information and second eye information, and passes the first eye information and the second eye information through the first The communication module 405 sends to the processing module 501 in the remote operation terminal 50, the first eye information and the second eye information include pupil size, bloodshot distribution of the eyeball, the first eye information and the second eye information The acquisition time interval of the second eye information is a preset time period;

The processing module 501 in the remote operation terminal 50 generates the current change parameters of the patient's eyes according to the acquired first eye information and the second eye information; according to the change parameters, the current first Treatment parameters and preset adjustment ranges, generate second treatment parameters, and send the second treatment parameters to the transparent LED pulsed light lens 401 in the intelligent non-destructive phototherapy glasses 40 through the second communication module; the first The treatment parameters and the second treatment parameters include light power and light frequency;

The transparent LED pulse light lens 401 in the intelligent nondestructive phototherapy glasses 40 adjusts the light dose of the treatment light source according to the received second treatment parameters.

It should be noted that the carrying entity of the remote operation terminal 50 may be a mobile phone, a tablet, a computer, or various smart wearable products such as a smart watch. The functions of the remote operation terminal 50 can be realized in various ways such as APP and applet. The specific implementation of the remote operation terminal 50 is not limited herein.

For details in the processing method, reference may be made to the foregoing embodiments, and details are not repeated here.

In this embodiment, compared with intelligent non-destructive phototherapy glasses, the adjustment and use of the phototherapy smart device is more convenient, and the remote operation terminal 50 can undertake more personalized function settings, which is convenient for later function expansion and product upgrades.

Those skilled in the art can understand that the accompanying drawing is only a schematic diagram of an embodiment, and the modules or processes in the accompanying drawing are not necessarily necessary for implementing the present invention.

Those of ordinary skill in the art can understand that: the modules in the device in the embodiment may be distributed in the device in the embodiment according to the description in the embodiment, or may be changed and located in one or more devices different from the embodiment. The modules in the above embodiments can be combined into one module, and can also be further split into multiple sub-modules.

Finally, it should be noted that: the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit them; although the present invention has been described in detail with reference to the foregoing embodiments, those of ordinary skill in the art should understand that: it can still be Modifications are made to the technical solutions described in the foregoing embodiments, or equivalent replacements are made to some of the technical features; these modifications or replacements do not make the essence of the corresponding technical solutions deviate from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims (6)

1. An intelligent, non-destructive phototherapy system, the phototherapy system employing weak lasers, the phototherapy system comprising: the system comprises a monitoring module, a processing module and a phototherapy module;

the monitoring module acquires the eye information of a patient at a first moment, the eye information of a patient at a second moment, the eye information of a patient at a third moment and the eye information of a patient at a fourth moment;

the processing module generates first eye information of the patient according to the eye information at the first moment and the eye information at the second moment; generating second eye information of the patient according to the eye information at the third moment and the eye information at the fourth moment;

the monitoring module acquires first eye information and second eye information of a patient, and sends the first eye information and the second eye information to the processing module, wherein the first eye information and the second eye information comprise pupil size, eyeball blood silk distribution condition and blinking frequency, and the acquisition time interval of the first eye information and the second eye information is preset time period;

the processing module generates a current change parameter of the patient eye according to the acquired first eye information and the acquired second eye information; the variation parameters include: pupil variation, eyeball blood silk distribution density variation and blink frequency variation;

the processing module calculates a current fitness value according to the pupil variation, the eyeball blood silk distribution density variation and the blinking frequency variation of the patient;

the processing module divides the table according to the fitness value and a preset fitness value and judges whether the current first treatment parameter is matched with the patient or not;

if the first therapeutic parameter is matched with the second therapeutic parameter, the processing module adjusts the preset adjustment range upwards based on the first therapeutic parameter to generate a third therapeutic parameter, and sends the third therapeutic parameter to the phototherapy module; if not, the processing module adjusts the treatment parameters downwards according to the first treatment parameters and preset adjustment amplitude, generates fourth treatment parameters, and sends the fourth treatment parameters to the phototherapy module; the first, third, and fourth treatment parameters include illumination power and illumination frequency;

the phototherapy module adjusts an illumination dose of a therapeutic light source according to the received third therapy parameter or the fourth therapy parameter.

2. The system of claim 1, wherein the first and second moments in time, the third moment in time, and the fourth moment in time are each separated by a predetermined first period of time, and the second and third moments in time are separated by a predetermined second period of time.

3. The system according to claim 1, wherein the predetermined fitness value partition table comprises a one-to-one correspondence relationship between a plurality of intervals of fitness values and evaluations, wherein the evaluations comprise adaptation, mild adaptation, non-adaptation and severe adaptation.

4. The system of claim 3, wherein the step of generating a fourth treatment parameter by the processing module adjusting the treatment parameter according to the first treatment parameter and a preset adjustment range comprises:

if the evaluation of the fitness value in the preset fitness value partition table is mild inadaptation, determining a preset adjustment amplitude with the actual down-regulation amplitude doubled; if the evaluation of the fitness value in the preset fitness value partition table is not suitable, determining a preset adjustment amplitude with the actual down-adjustment amplitude being two times; if the evaluation of the fitness value in the preset fitness value partition table is serious inadaptation, determining a preset adjustment amplitude with the actual down-adjustment amplitude being three times;

and on the basis of the first treatment parameter, the actual downward regulation amplitude is adjusted downward to generate a fourth treatment parameter.

5. The system of claim 4, wherein the assessment further comprises an allergy;

after the step of finding the corresponding evaluation of the fitness value in a preset fitness value partition table by the processing module according to the fitness value, the method further comprises the following steps:

if the evaluation is allergy, the processing module sends a treatment stopping instruction to the phototherapy module;

the phototherapy module turns off the therapeutic light source after receiving the therapeutic stopping instruction.

6. The system of claim 1, further comprising an adjustment module;

the adjusting module acquires a fifth treatment parameter and sends the fifth treatment parameter to the phototherapy module; the fifth treatment parameter is a treatment parameter manually input by the adjustment module;

the phototherapy module adjusts the illumination dosage of the light source according to the received fifth treatment parameter.

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