Wearable intelligent physiotherapy equipment for assisting patient in synthesizing vitamin D

Abstract

The invention discloses wearable intelligent physiotherapy equipment for helping a patient synthesize vitamin D, and belongs to the technical field of medical instruments. Comprising an intelligent vest body, hook-and-loop fasteners and a light-emitting plate are arranged in the intelligent vest body, a host is arranged in an outer pocket of the intelligent vest body, and the host and the light-emitting plate are connected with an intelligent control system. The problems that existing equipment is difficult to adapt to numerous patients and is not beneficial to rehabilitation of the patients are solved, the intelligent vest is worn, the light-emitting plate irradiates the body with infrared and ultraviolet light, and the effects of accelerating generation and absorption of vitamin D are achieved through combination of the infrared and ultraviolet light; an intelligent control system is used for controlling irradiation duration and interval nodes, and an intelligent vest reverse wearing prompting function is achieved, so that the same piece of skin is prevented from being irradiated repeatedly within one day; the light-emitting plate is automatically turned off when the skin temperature is abnormal, so that the safety of wearing and using the intelligent vest by the patient is improved, the patient is helped to better supplement vitamin D, and various diseases caused by lack of vitamin D are treated or prevented.

Description

Technical Field

[0001] The present invention relates to the technical field of medical devices, and in particular to a wearable intelligent physiotherapy device for helping patients synthesize vitamin D. Background Art

[0002] Vitamin D is a steroid hormone that, in addition to regulating calcium and phosphorus metabolism, can also affect cell growth and differentiation, fat metabolism, and immune regulation. "According to the dietary nutrient reference intake formulated by my country, under the condition of adequate calcium and phosphorus supply, the recommended intake of vitamin D for children, adolescents, adults, pregnant women, and nursing mothers, and the appropriate intake for infants aged 0 to 1 year old is 10 micrograms per day, and the recommended intake for people over 65 years old is 15 micrograms per day; the maximum tolerable intake for people aged 11 years and above (including pregnant women and nursing mothers) is 50 micrograms per day, and the appropriate intake for children aged 1 to 4 years old is 20 micrograms per day. The tolerable maximum intake for people aged 4-7, 7-11 is 20 micrograms, 30 micrograms and 45 micrograms per day respectively. The vitamin D needed by the human body is mainly obtained by irradiating the skin with ultraviolet rays in sunlight. With the development of science and technology, society and changes in living environment, people generally expose their skin to sunlight less, so that a large part of the population lacks vitamin D. In hospital ICU, surgical wards and other wards, patients have difficulty getting out of bed and have almost no opportunity to sunbathe. Vitamin D deficiency is also common, which is not conducive to the patient's recovery.

[0003] Traditional methods of promoting vitamin D synthesis include sunbathing, food intake, oral supplements, physical therapy, etc. However, sunbathing is difficult to supplement the patient's vitamin D deficiency due to the influence of season, environment, etc.; traditional ultraviolet physical therapy methods are cumbersome and generally require professionals to complete. Treatment sites are generally limited to hospitals and other medical and health service places, with high time costs, and patients usually find it difficult to persist; the vitamin D content in food is limited, and due to the patient's food preferences and digestion and absorption capacity, it is usually difficult to supplement the vitamin D needed by the patient. Some patients will experience diarrhea, constipation and other adverse reactions when taking oral vitamin D supplements.

[0004] Therefore, the existing needs are not met, and we propose a wearable smart physiotherapy device to help patients synthesize vitamin D. Summary of the invention

[0005] The purpose of the present invention is to provide a wearable intelligent physiotherapy device for helping patients synthesize vitamin D. By wearing a smart vest and using a light-emitting panel to irradiate the body with infrared and ultraviolet lights, the two are combined to accelerate the production and absorption of vitamin D; an intelligent control system is used to control the irradiation duration and interval nodes, and the smart vest has a reverse wear reminder function to prevent repeated irradiation of the same skin within a day; and the light-emitting panel is automatically turned off when the skin temperature is abnormal, thereby improving the safety of patients wearing and using the smart vest, thereby helping patients to better supplement vitamin D, and then treat or prevent various diseases caused by vitamin D deficiency, thereby solving the problems raised in the above-mentioned background technology.

[0006] To achieve the above object, the present invention provides the following technical solutions:

[0007] A wearable intelligent physiotherapy device for helping patients synthesize vitamin D, comprising: an intelligent vest, wherein a magic mother patch is arranged inside the intelligent vest, a light-emitting board is adhered to the magic mother patch, a pocket is arranged outside the intelligent vest, a host is arranged inside the pocket, an option physical button is arranged on the host, and the host and the light-emitting board are electrically connected to the intelligent control system respectively;

[0008] The intelligent control system comprises:

[0009] The timing switch module is used to set the one-time luminous duration and interval luminous time nodes of the luminous panel, automatically control the luminous panel to irradiate according to the preset time nodes, and automatically turn off the luminous panel after the one-time luminous duration ends;

[0010] The temperature acquisition module is a temperature sensor installed on the smart vest, which is used to detect the patient's skin temperature data and feed the patient's skin temperature data back to the automatic on-off module through Bluetooth communication technology;

[0011] The automatic on-off module is used to receive the patient's skin temperature data and automatically control the operating state of the light-emitting board according to the patient's skin temperature data;

[0012] The display terminal is a display screen installed on the surface of the host, and is used to display the amount of vitamin D supplemented, the battery level, the reverse charge prompt and the time;

[0013] The remote terminal is used to connect to the customized APP in the smart device held by medical staff through Bluetooth communication technology, and is used to assist medical workers in setting vitamin D treatment dosage and equipment parameters in the customized APP.

[0014] Furthermore, the temperature acquisition module includes:

[0015] A timing acquisition module is used to set a timing acquisition time point for the temperature sensor in advance according to the operating time node of the light-emitting board, and obtain the patient's skin temperature data when the light-emitting board is in operation;

[0016] The abnormal feedback module is used to feed back the current abnormal signal to the automatic on-off module for judgment as soon as possible when the temperature sensor detects that the skin temperature data of the current patient is abnormal, and continue to collect the subsequent skin temperature data of the patient through the temperature sensor;

[0017] The normal feedback module is used to feed back the collected patient skin temperature data to the automatic on-off module after the temperature sensor completes a collection task;

[0018] The reverse wearing reminder module is used to send a reminder to the patient to wear the smart vest backwards through the display terminal of the host after the patient wears the smart vest for the first round of vitamin D supplementation and before the second round of vitamin D supplementation, so as to avoid repeated exposure to the same skin in one day.

[0019] Furthermore, the anti-penetration prompt module includes:

[0020] The reverse confirmation module is used to send a confirmation option to the patient whether the reverse wearing of the smart vest has been completed through the display terminal of the host when prompting the patient to put on the smart vest backwards and carry out the second round of vitamin D supplementation. After the patient confirms that the reverse wearing of the smart vest has been completed through the physical buttons of the host, the light-emitting board continues the second round of vitamin D supplementation; if the patient has not completed the reverse wearing of the smart vest, the reverse reminder module continues to send a reminder to put on the smart vest backwards, and the reverse confirmation module continues to confirm whether the reverse wearing of the smart vest has been completed until the patient completes the reverse wearing of the smart vest, thereby ensuring the safety of the patient's use of the light-emitting board.

[0021] Furthermore, the automatic on-off module comprises:

[0022] The threshold setting module is used to collect the patient's historical skin temperature data, screen out multiple groups of data that meet the normal skin temperature status, use the average extraction method to obtain the average skin temperature of the patient, and use it as the skin temperature threshold;

[0023] The data comparison module is used to compare the skin temperature data of the current patient with the skin temperature threshold to determine whether the skin temperature state of the current patient is abnormal;

[0024] The abnormal pause module is used to automatically turn off the light-emitting panel when the skin temperature of the current patient is abnormal, so as to prevent the patient's skin from being burned.

[0025] Furthermore, the threshold setting module includes:

[0026] Collect historical skin temperature data of patients;

[0027] Extracting skin temperature data below a first skin temperature node from the historical skin temperature data as a first skin temperature data group; wherein the value of the first skin temperature node is 36.7;

[0028] Extract skin temperature data from the first skin temperature node to the second skin temperature node from the historical skin temperature data as a second skin temperature data group; wherein the value of the second skin temperature node is 37.2;

[0029] The first skin temperature data group is used to obtain a first temperature reference coefficient; wherein the first temperature reference coefficient is obtained by the following formula:

[0030]

[0031] Among them, C 01 represents the first temperature reference coefficient; n represents the number of data included in the first skin temperature data set; T 01i represents the temperature value of the i-th skin temperature data in the first skin temperature data group; Mode(T 01 ) represents the mode corresponding to the first skin temperature data set, representing the temperature value with the highest frequency; Range(T 01 ) represents the temperature range corresponding to the first skin temperature data set, that is, the difference between the maximum temperature and the minimum temperature;

[0032] The second skin temperature data group is used to obtain a second temperature reference coefficient; wherein the second temperature reference coefficient is obtained by the following formula:

[0033]

[0034] Among them, C 02 represents the second temperature reference coefficient; m represents the number of data included in the second skin temperature data set; T 02i represents the temperature value of the i-th skin temperature data in the second skin temperature data group; Median(T 02 ) represents the median value in the second skin temperature data set; Range(T 02 ) represents the temperature range corresponding to the second skin temperature data set, that is, the difference between the maximum temperature and the minimum temperature;

[0035] The first temperature reference coefficient and the second temperature reference coefficient are compared, and a skin temperature threshold node is determined according to the comparison result. The skin temperature threshold node is used to obtain the average skin temperature of the patient by using the extraction mean method, and the average skin temperature is used as the skin temperature threshold.

[0036] Further, the first temperature reference coefficient and the second temperature reference coefficient are compared, and a skin temperature threshold node is determined according to the comparison result, and the skin temperature threshold node is used to obtain the average value of the patient's skin temperature by extracting the average value method, and the average value is used as the skin temperature threshold, including:

[0037] When the first temperature reference coefficient is greater than the second temperature reference coefficient, extracting a first skin temperature data set;

[0038] The first skin temperature data group is used to obtain a first skin temperature threshold node, wherein the first skin temperature threshold node is obtained by the following formula:

[0039]

[0040] Among them, T k01 represents the first skin temperature threshold node; Median(T 01 ) represents the median value in the first skin temperature data set; V(T 01 ) represents the corresponding variance value in the first skin temperature data set; Range(T 01 ) represents the temperature range corresponding to the first skin temperature data set, that is, the difference between the maximum temperature and the minimum temperature; T 01p represents the average temperature corresponding to the first skin temperature data group; B 01 represents the standard deviation corresponding to the first skin temperature data group;

[0041] After determining the first skin temperature threshold node, using an average extraction method to obtain an average skin temperature of the patient for skin temperatures below the first skin temperature threshold node, and using the average skin temperature as a skin temperature threshold;

[0042] When the second temperature reference coefficient is greater than the first temperature reference coefficient, extracting a second skin temperature data set;

[0043] The second skin temperature threshold node is obtained by using the second skin temperature data group, wherein the second skin temperature threshold node is obtained by the following formula:

[0044]

[0045] Among them, T k02 represents the second skin temperature threshold node; Median(T 02 ) represents the median value in the second skin temperature data set; V(T 02 ) represents the corresponding variance value in the second skin temperature data set; Range(T 02 ) represents the temperature range corresponding to the second skin temperature data set, that is, the difference between the maximum temperature and the minimum temperature; T 02p represents the average temperature corresponding to the second skin temperature data group; B 02 represents the standard deviation corresponding to the second skin temperature data group;

[0046] After determining the second skin temperature threshold node, an average skin temperature of the patient is obtained by extracting the average value method for skin temperatures below the second skin temperature threshold node, and the average value is used as the skin temperature threshold.

[0047] Furthermore, the abnormal suspension module includes:

[0048] The level setting module is used to establish an abnormal level mechanism according to the level at which the skin temperature data of the current patient exceeds the skin temperature threshold, and automatically control the closing time point of the light-emitting panel according to the abnormal level;

[0049] The level feedback module is used to feed back the skin temperature data of the current patient, the proportion exceeding the skin temperature threshold, and the abnormal level of the skin temperature to the display terminal and the remote terminal for display.

[0050] Furthermore, the effective area of ​​the light-emitting panel is: 225±20*3cm 2 Ultraviolet LED lamp beads and infrared LED lamp beads are arranged at intervals on the front of the light-emitting panel. The wavelength of ultraviolet light is 310±3nm, and the irradiation intensity is 100±20%μw. The ultraviolet LED lamp beads are used to promote the production of vitamin D; the wavelength of infrared light is 940±5nm, and the irradiation intensity is 1200±25%μw. The infrared LED lamp beads are used to promote the patient's blood circulation.

[0051] Furthermore, the number of the light-emitting panels is three, and the shapes of the three light-emitting panels are all rectangles of the same size. The interval between every two light-emitting panels is 2-3 cm, and a partition layer is provided at the interval between every two light-emitting panels. The three light-emitting panels perform irradiation work in turn during operation, and each light-emitting panel works for 15 minutes at a time. The time interval between irradiation of each light-emitting panel and the next light-emitting panel is 2 hours. The three light-emitting panels work once as a cycle to avoid repeated irradiation of the skin by each light-emitting panel.

[0052] Furthermore, the back of the light-emitting panels are provided with Velcro tapes, and each light-emitting panel is adhered to the Velcro tapes via the Velcro tapes on the back.

[0053] Compared with the prior art, the present invention has the following beneficial effects:

[0054] The present invention allows the patient to wear a smart vest, and uses the light-emitting panel adhered inside the smart vest to irradiate the patient's body with infrared and ultraviolet light, thereby promoting and producing vitamin D through ultraviolet light, and promoting blood circulation through infrared light. The combination of the two can achieve the effect of accelerating the production and absorption of vitamin D; at the same time, the light-emitting panel is connected to an intelligent control system, and the system is used to accurately control the duration of each irradiation and the interval time nodes, and the smart vest is loaded with a reverse wear prompt function, thereby preventing the light-emitting panel from repeatedly irradiating the same piece of skin within a day, thereby ensuring the safety of the patient wearing and using the smart vest; at the same time, a temperature sensor is combined to detect in real time whether the patient's skin temperature is abnormally high, and the light-emitting panel is automatically turned off when the skin temperature is abnormal, thereby further improving the safety of the patient wearing and using the smart vest, thereby helping the patient to better supplement vitamin D, and then treat or prevent various diseases caused by vitamin D deficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0055] Figure 1 This is a front view of the wearable intelligent physiotherapy device for helping patients synthesize vitamin D according to the present invention;

[0056] Figure 2 This is an internal diagram of the wearable intelligent physiotherapy device for helping patients synthesize vitamin D according to the present invention;

[0057] Figure 3 This is a main diagram of the wearable intelligent physiotherapy device for helping patients synthesize vitamin D according to the present invention;

[0058] Figure 4 It is a composition diagram of the intelligent control system of the present invention.

[0059] In the figure: 1. Smart vest; 2. Velcro mother sticker; 3. Light-emitting board; 4. Host; 5. Temperature sensor; 6. Velcro sub-strip. DETAILED DESCRIPTION

[0060] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0061] In order to solve the problem that traditional ultraviolet therapy methods are cumbersome to operate, they generally require professionals to complete the operation. The treatment venue is generally limited to medical and health service places such as hospitals, which has a high time cost and patients usually find it difficult to persist. The vitamin D content in food is limited, and it is usually difficult to supplement the vitamin D required by patients due to the patient's food preferences and digestion and absorption capacity. Some patients will experience diarrhea, constipation and other adverse reactions when taking oral vitamin D supplements. For technical issues, please refer to Figure 1-Figure 4 , this embodiment provides the following technical solutions:

[0062] A wearable intelligent physiotherapy device for helping patients synthesize vitamin D includes: an intelligent vest 1, which is designed as a vest style so that it can be worn on the patient, thereby improving the scope of application of the intelligent physiotherapy device. A magic mother patch 2 is provided inside the intelligent vest 1, and a light-emitting board 3 is adhered to the magic mother patch 2. The back of the light-emitting board 3 is provided with a magic sub-patch 6, and each light-emitting board 3 is adhered to the magic mother patch 2 through the magic sub-patch 6 on the back; the magic mother patch 2 and the magic sub-patch 6 are adhered to each other, so that the light-emitting board 3 is installed in the intelligent vest 1, and the light-emitting board 3 is conveniently removed from the intelligent vest 1, thereby facilitating the cleaning and disinfection of the intelligent vest 1 and extending the service life of the intelligent vest 1. The number of light-emitting panels 3 is three, and the shapes of the three light-emitting panels 3 are all rectangles of the same size. The interval between every two light-emitting panels 3 is 2-3 cm, and a partition layer is provided at the interval between every two light-emitting panels 3. The three light-emitting panels 3 perform irradiation work in sequence during operation to avoid repeated irradiation; the specific irradiation process is: each light-emitting panel 3 works for 15 minutes at a time, and the time interval between each light-emitting panel 3 and the next light-emitting panel 3 is 2 hours. The three light-emitting panels 3 work once as a cycle to avoid repeated irradiation of the skin by each light-emitting panel 3; the effective area of ​​the light-emitting panel 3 is: 225±20*3cm 2 , ultraviolet LED lamp beads and infrared LED lamp beads are arranged at intervals on the front of the light-emitting board 3, the wavelength of ultraviolet light is: 310±3nm, the irradiation intensity is: 100±20%μw, and the ultraviolet LED lamp beads are used to promote the production of vitamin D; the wavelength of infrared light is: 940±5nm, the irradiation intensity is: 1200±25%μw, and the infrared LED lamp beads are used to promote the patient's blood circulation; a pocket is provided on the outside of the smart vest 1, and a host 4 is provided on the inside of the pocket. The host 4 is provided with option physical buttons, and the option physical buttons include: an on / off button, a yes / no button and other related physical buttons, and the host 4 and the light-emitting board 3 are electrically connected to the intelligent control system respectively, and the intelligent control system is mainly used to control the overall use status of the smart vest 1.

[0063] Specifically, the three light-emitting panels 3 are completely attached to the Velcro mother tape 2 by using the Velcro tape 6 on the back of the light-emitting panel 3, and the patient wears the smart vest 1. The operating state of the light-emitting panel 3 is controlled by operating the host 4, and the light-emitting panel 3 adhered inside is used to irradiate the body with infrared and ultraviolet light respectively, and the ultraviolet light is used to promote and produce vitamin D, and the infrared light is used to promote blood circulation. The combination of the two can achieve the effect of accelerating the production and absorption of vitamin D, thereby helping patients to better supplement vitamin D, and then treat or prevent various diseases caused by vitamin D deficiency.

[0064] Intelligent control system includes:

[0065] The timing switch module is used to set the one-time lighting duration and the interval lighting time node of the light-emitting panel 3, automatically control the light-emitting panel 3 to irradiate according to the preset time node, and automatically turn off the light-emitting panel 3 after the one-time lighting duration ends; specifically: the use time of the light-emitting panel 3 is limited by the timing switch module. As mentioned above, each light-emitting panel 3 works for 15 minutes at a time, and the time interval between each light-emitting panel 3 and the next light-emitting panel 3 is 2 hours. Three light-emitting panels 3 work once as a cycle.

[0066] In this embodiment, for example, the patient is arranged to complete the wearing steps of the smart vest 1 before 8:00am every day, the working time of the first light-emitting panel 3 is set to between 8:00am and 8:20am, and the interval time between it and the next light-emitting panel 3 is set to 6 hours according to the current symptoms of the patient; based on this, the working time of the second light-emitting panel 3 is set to between 14:20pm and 14:40pm, and the interval time with the third light-emitting panel 3 is also set to 6 hours, the working time of the second light-emitting panel 3 is set to between 20:40pm and 21:00pm, and the patient is arranged to take off the smart vest 1 after 21:00pm. Through the above three rounds of light irradiation, the vitamin D supplementation process for the patient today is completed.

[0067] The temperature acquisition module is a temperature sensor 5 installed on the smart vest 1, which is used to detect the patient's skin temperature data and feed the patient's skin temperature data back to the automatic on-off module through Bluetooth communication technology; the temperature acquisition module includes:

[0068] The timing collection module is used to set the timing collection time point for the temperature sensor 5 in advance according to the operating time node of the light-emitting board 3, and obtain the skin temperature data of the patient when the light-emitting board 3 is in operation; specifically: by limiting the detection time of the temperature sensor 5, it aims to ensure that the patient's skin temperature data is detected while reducing the use time of the temperature sensor 5, further reducing the electricity cost, and extending the service life of the stable sensor.

[0069] Continuing with the above embodiment, for example, the working hours of the three light-emitting panels 3 each day are respectively: between 8:00am and 8:20am, between 14:20pm and 14:40pm, and between 20:40pm and 21:00pm. Based on this, the working hours of the temperature sensor 5 on that day can be limited to: between 7:50am and 8:30am, between 14:10pm and 14:50pm, and between 20:30pm and 21:10pm; by extending the skin temperature detection of each round of patients by 10 minutes before and after the detection, it is convenient to grasp the skin temperature changes of the patients before and after the lighting, so as to obtain more accurate skin temperature data; such as: before the patient is irradiated with the light-emitting panel 3, the skin temperature is detected 10 minutes in advance, so as to effectively check whether the patient has a fever on that day, avoid physical discomfort caused by irradiating the light-emitting panel 3, thereby reducing the possibility of doctor-patient conflicts; at the same time, the skin temperature detection is continued for 10 minutes after the patient's lighting ends, so as to effectively judge whether the patient's skin temperature decreases with the end of the lighting, thereby improving the performance of the smart vest 1.

[0070] The abnormal feedback module is used to feed back the current abnormal signal to the automatic on-off module for judgment as soon as possible when the temperature sensor 5 detects that the skin temperature data of the current patient is abnormal, and continue to collect the subsequent skin temperature data of the patient through the temperature sensor 5;

[0071] Continuing with the above embodiment, for example, when the temperature sensor 5 detects the skin temperature 10 minutes before, during or after lighting, if a higher body temperature is detected, it is regarded as an abnormal skin temperature phenomenon. Based on this, the phenomenon can be promptly fed back to the automatic on-off module for judgment and processing, thereby judging whether it is necessary to interrupt the lighting work of the light-emitting panel 3.

[0072] The normal feedback module is used to feed back the collected patient skin temperature data to the automatic on-off module after the temperature sensor 5 completes a collection task;

[0073] The reverse wearing prompt module is used to send a prompt to the patient to wear the smart vest 1 in reverse through the display terminal of the host 4 after the patient wears the smart vest 1 for the first round of vitamin D supplementation and before the second round of vitamin D supplementation, so as to avoid repeated exposure to the same skin in one day; specifically, since the area where the smart vest 1 is worn on the body is limited, in order to prevent discomfort or other negative effects caused by long-term exposure to one body area, after completing a round of lighting by the light-emitting panel 3, the smart vest 1 can be worn in reverse, thereby irradiating the other side of the body, thereby evenly covering the range of vitamin D and accelerating the absorption of vitamin D.

[0074] The anti-penetration prompt module includes:

[0075] The reverse wearing confirmation module is used to send a confirmation option to the patient whether the reverse wearing of the smart vest 1 has been completed through the display terminal of the host 4 when sending a reminder to the patient to put on the smart vest 1 in reverse and carry out the second round of vitamin D supplementation. After the patient confirms that the reverse wearing of the smart vest 1 has been completed through the physical button of the host 4, the light-emitting board 3 continues the second round of vitamin D supplementation; if the patient has not completed the reverse wearing of the smart vest 1, the reverse wearing reminder module continues to send a reminder to put on the smart vest 1 in reverse, and the reverse wearing confirmation module continues to confirm whether the reverse wearing of the smart vest 1 has been completed until the patient completes the reverse wearing of the smart vest 1, thereby ensuring the safety of the patient in using the light-emitting board 3;

[0076] Continuing with the above embodiment, for example, if the patient has completed the lighting process at three time points on the same day and the time point for the next round of lighting is defined for the patient, a reverse wearing prompt message can be sent to the host 4 in the pocket of the smart vest 1. After receiving the message, the user adjusts the wearing direction of the smart vest 1 according to the message instructions. After the adjustment is completed, the received prompt message is confirmed to have been reversed. After confirming the message to the host 4, the confirmation signal is transmitted to the timing switch module, and then the patient is irradiated with the next round of light; if the patient has not confirmed that the reverse wearing has been done or confirmed that the reverse wearing has not been done, the host 4 will also feed back the current signal to the timing switch module, and the timing switch module will pause the light panel 3 until the patient confirms that the reverse wearing has been done; if the patient confirms that the reverse wearing has not arrived at the time point for the next round of lighting, the lighting will be performed according to the preset time point for the next round of lighting; if the patient confirms that the reverse wearing has exceeded the time point for the next round of lighting, the lighting time point will be reset according to the current time node.

[0077] The automatic on-off module is used to receive the patient's skin temperature data and automatically control the operating state of the light-emitting board 3 according to the high and low skin temperature data of the patient; the automatic on-off module includes:

[0078] The threshold setting module is used to collect the patient's historical skin temperature data, screen out multiple groups of data that meet the normal skin temperature status, use the average extraction method to obtain the average skin temperature of the patient, and use it as the skin temperature threshold;

[0079] The data comparison module is used to compare the skin temperature data of the current patient with the skin temperature threshold to determine whether the skin temperature state of the current patient is abnormal;

[0080] Continuing with the above embodiment, for example: the normal temperature of the human body should be: 35℃-37℃, so 35℃-37℃ can be used as the skin temperature threshold; and the patient's skin temperature detected by the temperature sensor 5 is 36.5℃, which is compared with the skin temperature threshold to obtain: the patient's current skin temperature is within the skin temperature threshold range, confirming that the patient's current skin temperature is normal; for example: the patient's skin temperature detected by the temperature sensor 5 is 37.5℃, which is compared with the skin temperature threshold to obtain: the patient's current skin temperature exceeds the skin temperature threshold range, confirming that the patient's current skin temperature is abnormal, and the abnormal signal is fed back.

[0081] Specifically, the threshold setting module includes:

[0082] Collect historical skin temperature data of patients;

[0083] Extracting skin temperature data below a first skin temperature node from the historical skin temperature data as a first skin temperature data group; wherein the value of the first skin temperature node is 36.7;

[0084] Extract skin temperature data from the first skin temperature node to the second skin temperature node from the historical skin temperature data as a second skin temperature data group; wherein the value of the second skin temperature node is 37.2;

[0085] The first skin temperature data group is used to obtain a first temperature reference coefficient; wherein the first temperature reference coefficient is obtained by the following formula:

[0086]

[0087] Among them, C 01 represents the first temperature reference coefficient; n represents the number of data included in the first skin temperature data set; T 01i represents the temperature value of the i-th skin temperature data in the first skin temperature data group; Mode(T 01 ) represents the mode corresponding to the first skin temperature data set, representing the temperature value with the highest frequency; Range(T 01 ) represents the temperature range corresponding to the first skin temperature data set, that is, the difference between the maximum temperature and the minimum temperature;

[0088] The second skin temperature data group is used to obtain a second temperature reference coefficient; wherein the second temperature reference coefficient is obtained by the following formula:

[0089]

[0090] Among them, C 02 represents the second temperature reference coefficient; m represents the number of data included in the second skin temperature data set; T 02irepresents the temperature value of the i-th skin temperature data in the second skin temperature data group; Median(T 02 ) represents the median value in the second skin temperature data set; Range(T 02 ) represents the temperature range corresponding to the second skin temperature data set, that is, the difference between the maximum temperature and the minimum temperature;

[0091] The first temperature reference coefficient and the second temperature reference coefficient are compared, and a skin temperature threshold node is determined according to the comparison result. The skin temperature threshold node is used to obtain the average skin temperature of the patient by using the extraction mean method, and the average skin temperature is used as the skin temperature threshold.

[0092] The technical effect of the above technical solution is: by analyzing the patient's historical skin temperature data, the technology can set a personalized skin temperature threshold for each patient. This personalized setting can more accurately reflect the patient's skin temperature status than the universal fixed threshold, thereby improving the accuracy and effectiveness of monitoring. The technology divides the historical skin temperature data into two different data groups and calculates their temperature reference coefficients separately. This refined data analysis method can capture more details of the skin temperature data, thereby more accurately evaluating the patient's skin temperature status.

[0093] By comparing two temperature reference coefficients and determining the skin temperature threshold node, the technology can dynamically adapt to the patient's skin temperature changes. This helps to detect abnormal fluctuations in skin temperature in a timely manner and provide doctors with a more accurate basis for diagnosis. Using the skin temperature threshold node to extract the average value of the patient's skin temperature and use it as the skin temperature threshold can simplify the monitoring process and improve monitoring efficiency. Doctors can quickly understand the patient's skin temperature status without the need for tedious analysis of large amounts of data. This technical solution provides doctors with a scientific basis based on data, which helps doctors to more accurately judge the patient's skin temperature status and formulate more reasonable treatment plans based on this. This helps to improve the scientificity and effectiveness of medical decision-making.

[0094] In summary, this technical solution significantly improves the accuracy and effectiveness of skin temperature monitoring through personalized skin temperature threshold setting, refined data analysis, dynamic adaptation to skin temperature changes, improved monitoring efficiency, and enhanced scientific nature of medical decision-making.

[0095] Specifically, the first temperature reference coefficient and the second temperature reference coefficient are compared, and a skin temperature threshold node is determined according to the comparison result, and the skin temperature threshold node is used to obtain the average skin temperature of the patient by using the average extraction method, and the average skin temperature is used as the skin temperature threshold, including:

[0096] When the first temperature reference coefficient is greater than the second temperature reference coefficient, extracting a first skin temperature data set;

[0097] The first skin temperature data group is used to obtain a first skin temperature threshold node, wherein the first skin temperature threshold node is obtained by the following formula:

[0098]

[0099] Among them, T k01 represents the first skin temperature threshold node; Median(T 01 ) represents the median value in the first skin temperature data set; V(T 01 ) represents the corresponding variance value in the first skin temperature data set; Range(T 01 ) represents the temperature range corresponding to the first skin temperature data set, that is, the difference between the maximum temperature and the minimum temperature; T 01p represents the average temperature corresponding to the first skin temperature data group; B 01 represents the standard deviation corresponding to the first skin temperature data group;

[0100] After determining the first skin temperature threshold node, using an average extraction method to obtain an average skin temperature of the patient for skin temperatures below the first skin temperature threshold node, and using the average skin temperature as a skin temperature threshold;

[0101] When the second temperature reference coefficient is greater than the first temperature reference coefficient, extracting a second skin temperature data set;

[0102] The second skin temperature threshold node is obtained by using the second skin temperature data group, wherein the second skin temperature threshold node is obtained by the following formula:

[0103]

[0104] Among them, T k02 represents the second skin temperature threshold node; Median(T 02 ) represents the median value in the second skin temperature data set; V(T 02 ) represents the corresponding variance value in the second skin temperature data set; Range(T 02 ) represents the temperature range corresponding to the second skin temperature data set, that is, the difference between the maximum temperature and the minimum temperature; T 02p represents the average temperature corresponding to the second skin temperature data group; B 02 represents the standard deviation corresponding to the second skin temperature data group;

[0105] After determining the second skin temperature threshold node, an average skin temperature of the patient is obtained by extracting the average value method for skin temperatures below the second skin temperature threshold node, and the average value is used as the skin temperature threshold.

[0106] The technical effect of the above technical solution is: by comparing the first temperature reference coefficient and the second temperature reference coefficient, the technology can dynamically select a suitable skin temperature data group to set the skin temperature threshold. This dynamic selection method is more adaptable to the patient's actual skin temperature condition than a fixed threshold, and improves the accuracy and flexibility of monitoring. This technology uses complex formulas to calculate skin temperature threshold nodes, which take into account multiple factors such as median, variance, temperature range, average temperature and standard deviation. This refined calculation method can more accurately reflect the patient's skin temperature characteristics, thereby setting a more reasonable skin temperature threshold.

[0107] This technology can improve the sensitivity to skin temperature changes by using the mean value extraction method for skin temperatures below the skin temperature threshold node to obtain the average skin temperature of the patient and use it as the skin temperature threshold. This helps to detect abnormal fluctuations in skin temperature in a timely manner and provide doctors with a more timely basis for diagnosis. This technical solution sets personalized skin temperature thresholds based on the patient's historical skin temperature data, which enhances the personalization of monitoring. The skin temperature characteristics of different patients may be different, so personalized monitoring can more accurately reflect the actual condition of each patient. By automatically calculating and setting skin temperature thresholds, this technology can reduce the workload of doctors and improve the efficiency of medical decision-making. Doctors can quickly understand the patient's skin temperature condition and formulate appropriate treatment plans based on this without spending a lot of time on manual analysis and calculations.

[0108] In summary, this technical solution significantly improves the accuracy and practicality of skin temperature monitoring through dynamic threshold setting, refined threshold calculation, improved monitoring sensitivity, enhanced personalized monitoring, and improved medical decision-making efficiency.

[0109] The abnormal suspension module is used to automatically turn off the light-emitting panel 3 when the skin temperature of the current patient is abnormal, so as to prevent the patient's skin from being burned; the abnormal suspension module includes:

[0110] A level setting module is used to establish an abnormal level mechanism according to whether the skin temperature data of the current patient exceeds the skin temperature threshold, and automatically control the closing time point of the light-emitting panel 3 according to the abnormal level;

[0111] Continuing with the above embodiment, for example, the skin temperature threshold is 35°C-37°C. Since the body temperature of the human body will remain normal or rise after being illuminated by the light-emitting panel 3, the level of temperature rise can be limited, that is, 37°C-38°C is a first-level alarm, 38°C-38.5°C is a second-level alarm, and 38.5°C or above is a third-level alarm. If the patient's skin temperature is between 37°C and 38°C, that is, when the first-level alarm occurs, the closing time point of the light-emitting panel 3 can be delayed for 2 minutes, and the skin temperature data after 2 minutes can be compared to make a judgment. If the patient's skin temperature is between 38°C-38.5°C, that is, when the second-level alarm occurs, the closing time point of the light-emitting panel 3 can be delayed for 2 minutes. Delay for 2 minutes, and make a judgment after comparing the skin temperature data after 1 minute; when the above-mentioned delayed closing time is made, the patient's skin temperature data must continue to be detected. If the patient's skin temperature data continues to rise within 2 minutes or 1 minute, the light-emitting board 3 is immediately turned off; if the patient's skin temperature data remains the same within 2 minutes or 1 minute, the closing time of the light-emitting board 3 can be further delayed; if the patient's skin temperature is above 38°C, that is: when the third-level alarm occurs, the light-emitting board 3 is immediately turned off to prevent excessive body temperature from causing damage to the patient's body; according to the above operations, the use performance of the smart vest 1 is optimized, and the safety and intelligence of its use process are increased.

[0112] The level feedback module is used to feed back the skin temperature data of the current patient, the proportion exceeding the skin temperature threshold, and the abnormal level of the skin temperature to the display terminal and the remote terminal for display.

[0113] The display terminal is a display screen installed on the surface of the host 4, which is used to display the amount of vitamin D supplemented, the battery level, the reverse wear prompt and the time; the display screen is mainly used to facilitate patients to view the operating status of the smart vest 1 in real time, and to provide timely feedback on items that need to be confirmed.

[0114] The remote terminal is used to connect with the customized APP in the smart device held by the medical staff through Bluetooth communication technology, and is used to assist medical workers in setting the vitamin D treatment dose and equipment parameters in the customized APP; the remote terminal is the smart phone or computer held by the medical staff. By installing a dedicated APP connected to the intelligent control system in their device, they log in to the system page through the APP, and input the corresponding equipment parameters, treatment dose, etc. to the light-emitting panel 3, temperature sensor 5 and its related control modules based on the system page, so as to facilitate the medical staff to control the use status of the smart vest 1, and then help patients better supplement vitamin D, and treat or prevent various diseases caused by vitamin D deficiency.

[0115] Beneficial effects achieved by the above content: Through the above operation, a safe, convenient, low-cost, and efficient wearable physiotherapy device for supplementing vitamin D is provided for clinical use, so as to help patients better supplement vitamin D, and then treat or prevent various diseases caused by vitamin D deficiency.

[0116] Working principle: by letting the patient wear the smart vest 1, the internal light panel 3 is used to irradiate the patient's body with infrared and ultraviolet light, ultraviolet light is used to promote and produce vitamin D, infrared light is used to promote blood circulation, and the combination of the two can achieve the effect of accelerating the production and absorption of vitamin D; at the same time, the intelligent control system is used to accurately control the duration and interval time nodes of each irradiation of the light panel 3, and the smart vest 1 is loaded with a reverse wear reminder function, so as to prevent the light panel 3 from repeatedly irradiating the same skin within a day, ensuring the safety of the patient wearing and using the smart vest 1; at the same time, combined with the temperature sensor 5, whether the patient's skin temperature is abnormally high, and automatically shut down the light panel 3 when the skin temperature is abnormal, which improves the safety of the patient wearing and using the smart vest 1, thereby helping the patient to better supplement vitamin D, and then treat or prevent various diseases caused by vitamin D deficiency.

[0117] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0118] While the embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and alterations may be made to the embodiments without departing from the principles and spirit of the invention.

Claims

1. Wearable smart physiotherapy equipment for helping patients synthesize vitamin D, including: A smart vest (1), characterized in that: a magic mother patch (2) is arranged inside the smart vest (1), a light-emitting board (3) is adhered to the magic mother patch (2), a pocket is arranged outside the smart vest (1), a host (4) is arranged inside the pocket, a physical option button is arranged on the host (4), and the host (4) and the light-emitting board (3) are respectively electrically connected to the smart control system; The intelligent control system comprises: A timing switch module, used to set the one-time luminous duration and the interval luminous time node of the luminous panel (3), automatically control the luminous panel (3) to irradiate at the preset time node, and automatically turn off the luminous panel (3) after the one-time luminous duration ends; The temperature acquisition module is a temperature sensor (5) installed on the smart vest (1) and is used to detect the patient's skin temperature data and feed the patient's skin temperature data back to the automatic on-off module via Bluetooth communication technology; An automatic on-off module, used to receive the patient's skin temperature data and automatically control the operating state of the light-emitting panel (3) according to the patient's skin temperature data; The display terminal is a display screen installed on the surface of the host (4) and is used to display the amount of vitamin D supplemented, the battery level, the reverse charge prompt and the time; The remote terminal is used to connect to the customized APP in the smart device held by medical staff through Bluetooth communication technology, and is used to assist medical workers in setting vitamin D treatment dosage and equipment parameters in the customized APP.

2. The wearable intelligent physiotherapy device for helping patients synthesize vitamin D according to claim 1, characterized in that: The temperature acquisition module comprises: A timing acquisition module, used to set a timing acquisition time point in advance for the temperature sensor (5) according to the operating time node of the light-emitting panel (3), and to obtain the skin temperature data of the patient when the light-emitting panel (3) is in the operating state; An abnormality feedback module is used to immediately feed back the current abnormality signal to the automatic on-off module for judgment when the temperature sensor (5) detects that the skin temperature data of the current patient is abnormal, and to continue to collect subsequent skin temperature data of the patient through the temperature sensor (5); A normal feedback module, used for feeding back the collected patient skin temperature data to the automatic on-off module after the temperature sensor (5) completes a collection task; The reverse wearing prompt module is used to send a prompt to the patient to wear the smart vest (1) reversely through the display terminal of the host (4) after the patient wears the smart vest (1) for the first round of vitamin D supplementation and before the second round of vitamin D supplementation, so as to avoid repeated exposure to the same piece of skin in one day.

3. The wearable intelligent physiotherapy device for helping patients synthesize vitamin D according to claim 2, characterized in that: The anti-penetration prompt module includes: The reverse wear confirmation module is used to send a confirmation option to the patient whether the reverse wear of the smart vest (1) has been completed through the display terminal of the host (4) when sending a prompt to the patient to put on the smart vest (1) reversely and carry out a second round of vitamin D supplementation. After the patient confirms that the reverse wear of the smart vest (1) has been completed through the physical button of the host (4), the light-emitting board (3) continues the second round of vitamin D supplementation; if the patient has not completed the reverse wear of the smart vest (1), the reverse wear prompt module continues to send a prompt to put on the smart vest (1) reversely, and the reverse wear confirmation module continues to confirm whether the reverse wear of the smart vest (1) has been completed until the patient completes the reverse wear of the smart vest (1), thereby ensuring the safety of the patient using the light-emitting board (3).

4. The wearable intelligent physiotherapy device for helping patients synthesize vitamin D according to claim 1, characterized in that: The automatic on-off module comprises: The threshold setting module is used to collect the patient's historical skin temperature data, screen out multiple groups of data that meet the normal skin temperature status, use the average value extraction method to obtain the patient's skin temperature average value, and use it as the skin temperature threshold; The data comparison module is used to compare the skin temperature data of the current patient with the skin temperature threshold to determine whether the skin temperature state of the current patient is abnormal; The abnormal pause module is used to automatically turn off the light-emitting panel (3) when the skin temperature of the current patient is abnormal, so as to prevent the patient's skin from being burned.

5. The wearable intelligent physiotherapy device for helping patients synthesize vitamin D according to claim 4, characterized in that: Threshold setting module, including: Collect historical skin temperature data of patients; Extracting skin temperature data below a first skin temperature node from the historical skin temperature data as a first skin temperature data group; wherein the value of the first skin temperature node is 36.7; Extract skin temperature data from the first skin temperature node to the second skin temperature node from the historical skin temperature data as a second skin temperature data group; wherein the value of the second skin temperature node is 37.2; The first skin temperature data group is used to obtain a first temperature reference coefficient; wherein the first temperature reference coefficient is obtained by the following formula: Among them, C 01 represents the first temperature reference coefficient; n represents the number of data included in the first skin temperature data set; T 01i represents the temperature value of the i-th skin temperature data in the first skin temperature data group; Mode(T 01 ) represents the mode corresponding to the first skin temperature data set, representing the temperature value with the highest frequency; Range(T 01 ) represents the temperature range corresponding to the first skin temperature data set, that is, the difference between the maximum temperature and the minimum temperature; The second skin temperature data group is used to obtain a second temperature reference coefficient; wherein the second temperature reference coefficient is obtained by the following formula: Among them, C 02 represents the second temperature reference coefficient; m represents the number of data included in the second skin temperature data set; T 02i represents the temperature value of the i-th skin temperature data in the second skin temperature data group; Median(T 02 ) represents the median value in the second skin temperature data set; Range(T 02 ) represents the temperature range corresponding to the second skin temperature data set, that is, the difference between the maximum temperature and the minimum temperature; The first temperature reference coefficient and the second temperature reference coefficient are compared, and a skin temperature threshold node is determined according to the comparison result. The skin temperature threshold node is used to obtain the average skin temperature of the patient by using the extraction mean method, and the average skin temperature is used as the skin temperature threshold.

6. The wearable intelligent physiotherapy device for helping patients synthesize vitamin D according to claim 5, characterized in that: The first temperature reference coefficient and the second temperature reference coefficient are compared, and a skin temperature threshold node is determined according to the comparison result, and the skin temperature threshold node is used to obtain the average skin temperature of the patient by using the average extraction method, and the average skin temperature is used as the skin temperature threshold, including: When the first temperature reference coefficient is greater than the second temperature reference coefficient, extracting a first skin temperature data set; The first skin temperature data group is used to obtain a first skin temperature threshold node, wherein the first skin temperature threshold node is obtained by the following formula: Among them, T k01 represents the first skin temperature threshold node; Median(T 01 ) represents the median value in the first skin temperature data set; V(T 01 ) represents the corresponding variance value in the first skin temperature data set; Range(T 01 ) represents the temperature range corresponding to the first skin temperature data set, that is, the difference between the maximum temperature and the minimum temperature; T 01p represents the average temperature corresponding to the first skin temperature data group; B 01 represents the standard deviation corresponding to the first skin temperature data set; After determining the first skin temperature threshold node, using an average extraction method to obtain an average skin temperature of the patient for skin temperatures below the first skin temperature threshold node, and using the average skin temperature as a skin temperature threshold; When the second temperature reference coefficient is greater than the first temperature reference coefficient, extracting a second skin temperature data set; The second skin temperature threshold node is obtained by using the second skin temperature data group, wherein the second skin temperature threshold node is obtained by the following formula: Among them, T k02 represents the second skin temperature threshold node; Median(T 02 ) represents the median value in the second skin temperature data set; V(T 02 ) represents the corresponding variance value in the second skin temperature data set; Range(T 02 ) represents the temperature range corresponding to the second skin temperature data set, that is, the difference between the maximum temperature and the minimum temperature; T 02p represents the average temperature corresponding to the second skin temperature data group; B 02 represents the standard deviation corresponding to the second skin temperature data group; After determining the second skin temperature threshold node, an average skin temperature of the patient is obtained by extracting the average value method for skin temperatures below the second skin temperature threshold node, and the average value is used as the skin temperature threshold.

7. The wearable intelligent physiotherapy device for helping patients synthesize vitamin D according to claim 4, characterized in that: The abnormal suspension module comprises: A level setting module is used to establish an abnormal level mechanism according to the level at which the skin temperature data of the current patient exceeds the skin temperature threshold, and automatically control the closing time point of the light-emitting panel (3) according to the abnormal level; The level feedback module is used to feed back the skin temperature data of the current patient, the proportion exceeding the skin temperature threshold, and the abnormal level of the skin temperature to the display terminal and the remote terminal for display.

8. The wearable intelligent physiotherapy device for helping patients synthesize vitamin D according to claim 1, characterized in that: Ultraviolet LED lamp beads and infrared LED lamp beads are arranged at intervals on the front of the light-emitting panel (3). The ultraviolet LED lamp beads are used to promote the production of vitamin D, and the infrared LED lamp beads are used to promote the blood circulation of patients.

9. The wearable intelligent physiotherapy device for helping patients synthesize vitamin D according to claim 1, characterized in that: The number of the light-emitting panels (3) is three, and the shapes of the three light-emitting panels (3) are all rectangles of the same size. The interval between every two light-emitting panels (3) is 2-3 cm, and a partition layer is provided at the interval between every two light-emitting panels (3). The three light-emitting panels (3) perform irradiation work in sequence during operation, and each light-emitting panel (3) works for 15 minutes at a time. The time interval between each light-emitting panel (3) and the next light-emitting panel (3) for irradiation is 2 hours. The three light-emitting panels (3) work once as one cycle, so as to avoid each light-emitting panel (3) from repeatedly irradiating the skin.

10. The wearable intelligent physiotherapy device for helping patients synthesize vitamin D according to claim 1, characterized in that: The back of each light-emitting panel (3) is provided with a Velcro tape (6), and each light-emitting panel (3) is adhered to the Velcro tape (2) via the Velcro tape (6) on the back.

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