Intelligent moxibustion control method and system

Abstract

The present application relates to the field of moxibustion technology, and in particular to an intelligent moxibustion control method and system thereof. The method comprises: obtaining moxibustion data, analyzing the moxibustion data, and determining the moxibustion conditions at the current moment; obtaining real-time scanning information of a laser scanner, analyzing the real-time scanning information, and determining the skin condition of the moxibustion area; analyzing the skin condition and determining the skin sensitivity level; according to the skin sensitivity level, determining adjustment parameters and dynamically adjusting the moxibustion state according to the adjustment parameters. The adjustment parameters determined according to the skin sensitivity level, including the appropriate body temperature and moxibustion adjustment temperature, help to personalize moxibustion treatment. Dynamic adjustment helps to maintain the continuity and effectiveness of treatment while reducing the risk of adverse reactions.

Description

Technical Field

[0001] The present application relates to the technical field of moxibustion, and in particular to an intelligent moxibustion control method and system thereof. Background Art

[0002] Moxibustion, as an ancient Chinese medical treatment method, relies on the warm effect produced by burning mugwort to stimulate the human body's acupuncture points in order to promote blood circulation and regulate body functions.

[0003] Existing moxibustion fumigation equipment cannot meet the requirements of precision and personalized control during the moxibustion process. Traditional moxibustion often relies on the skills and experience of physical therapists, and there is a certain degree of operational difficulty and uncertainty in the treatment effect. Summary of the invention

[0004] The present application provides an intelligent moxibustion control method and system to solve the above problems.

[0005] In a first aspect, the present application provides an intelligent moxibustion control method, which is applied to a moxibustion device, wherein the moxibustion device includes a laser scanner and a server, and the method is applied to the server, and the method includes: Acquire moxibustion data, analyze the moxibustion data, and determine the moxibustion conditions at the current moment; Acquire real-time scanning information from a laser scanner, analyze the real-time scanning information, and determine the skin condition of the moxibustion area; Analyzing the skin condition to determine the level of skin sensitivity; According to the skin sensitivity level, an adjustment parameter is determined and the moxibustion state is dynamically adjusted according to the adjustment parameter.

[0006] Through this solution, the burning data and placement information of moxa cakes are collected through sensors, providing basic data for subsequent temperature and height adjustment. It helps to ensure that the temperature and position of moxibustion meet the treatment requirements and avoid burns or poor treatment effects caused by too high or too low temperatures. Analysis of the burning degree and placement of moxa cakes can determine the current moxibustion temperature and height, which are key parameters for moxibustion treatment. The correct temperature and height can maximize the treatment effect while reducing potential damage to the patient's skin. The skin surface information obtained by the laser scanner can help doctors or systems more accurately assess the skin condition, including the color, texture and vascular condition of the skin, which is crucial for adjusting the moxibustion plan. Analyzing the scan information, skin changes such as redness, swelling, burns or itching can be monitored in real time, so as to adjust the temperature and position of moxibustion in time to adapt to the patient's skin sensitivity. Through comprehensive analysis of skin conditions and physiological signals, the patient's skin sensitivity level can be determined; it is crucial for the formulation of personalized treatment plans and can help avoid discomfort or damage to sensitive skin. Adjustment parameters determined according to skin sensitivity levels, including appropriate body temperature and moxibustion adjustment temperature, help personalize moxibustion treatment; ensure that patients feel comfortable during treatment while achieving therapeutic effects. Dynamic adjustment of moxibustion status, including temperature, height, and position, can respond to patients' skin reactions and physiological signal changes in real time. Dynamic adjustment helps maintain the continuity and effectiveness of treatment while reducing the risk of adverse reactions.

[0007] Optionally, analyzing the moxibustion data to determine the moxibustion conditions at the current moment includes: Analyze the moxibustion data to determine the degree of burning of the moxa cake and the placement of the moxa cake; Determining the moxibustion temperature according to the burning degree of the moxa cake; According to the placement of the moxa cake, determining the moxibustion height between the moxa cake and the skin; The moxibustion height and the moxibustion temperature are used as the moxibustion conditions at the current moment.

[0008] Through this scheme, by analyzing the burning degree and placement of moxa cakes, it can be ensured that the moxibustion equipment works according to the preset parameters; it helps to avoid temperature fluctuations caused by uneven burning or improper placement, thereby improving the consistency and effect of moxibustion treatment. By real-time monitoring of the burning degree of moxa cakes, the temperature of moxibustion can be accurately controlled to ensure that the temperature is within a safe and effective range; it helps to reduce potential damage to the patient's skin caused by excessively high or low temperatures, while ensuring the warming effect of moxibustion. By accurately measuring the distance between the moxa cake and the skin, it can be ensured that the height of moxibustion meets the treatment requirements. Appropriate moxibustion height helps control the degree of heat transfer to the skin, avoid overheating or overcooling, and thus improve the patient's comfort. After integrating the moxibustion height and temperature data, it can be used as the moxibustion condition at the current moment, providing a basis for subsequent dynamic adjustments; it helps to ensure the consistency and effect of moxibustion treatment, while adjusting according to the patient's real-time response and physiological signals to provide a personalized treatment experience.

[0009] Optionally, analyzing the real-time scanning information to determine the skin condition of the moxibustion area includes: Analyze the real-time scanning information to determine the skin characteristics at the current moment; analyzing the skin characteristics to determine skin changes; Based on the skin changes, the skin condition of the moxibustion area is determined.

[0010] Through this solution, the skin feature data obtained through real-time scanning can accurately understand the color, texture, blood vessel distribution, etc. of the skin in the moxibustion area; these features are crucial for evaluating the health and sensitivity of the skin. By comparing the real-time scanned skin features with historical data or preset models, skin changes such as redness, swelling, burns, itching and other reactions can be identified; these changes are critical for evaluating the impact of moxibustion on the skin. Comprehensive analysis of skin characteristics and changes, combined with the patient's physiological signals (such as heart rate, skin galvanic response, etc.), can comprehensively evaluate the skin condition in the moxibustion area; help ensure the safety and effectiveness of moxibustion treatment.

[0011] Optionally, determining the adjustment parameter according to the skin sensitivity level includes: Determining a suitable body temperature according to the skin sensitivity level; Determining the current skin temperature according to the moxibustion temperature and the skin change; Determining the skin contact temperature according to the moxibustion height and the moxibustion temperature; Determine the temperature change per unit time according to the preset temperature conductivity coefficient; Determining a moxibustion adjustment temperature according to the current skin temperature, the suitable body temperature and the skin contact temperature; Determining a suitable adjustment height according to the moxibustion adjustment temperature and the temperature change per unit time; Determining skin change trends based on the skin sensitivity level; According to the skin change trend, the suitable adjustment height is screened to determine the optimal adjustment height; The optimal adjustment height and the moxibustion adjustment temperature are determined as the adjustment parameters.

[0012] Through this scheme, by determining the body temperature that the patient feels comfortable, the patient can avoid feeling overheated or overcooled during moxibustion, thereby improving the patient's comfort and treatment experience. Real-time monitoring of the skin temperature in the moxibustion area helps to adjust the moxibustion settings in time to prevent excessive skin temperature from causing burns or too low skin temperature from affecting the treatment effect. Calculating the skin contact temperature helps to understand the temperature at which the moxibustion heat is directly transferred to the skin surface, providing a basis for adjusting the moxibustion height and temperature to ensure skin safety. By calculating the temperature change through the preset temperature conductivity coefficient, the trend of skin temperature changes during moxibustion can be predicted and adjusted to prevent sudden temperature changes from causing damage to the skin. The moxibustion adjustment temperature is determined based on the current skin temperature, the appropriate body temperature and the skin contact temperature to ensure that the moxibustion treatment is both effective and safe. According to the moxibustion adjustment temperature and the temperature change per unit time, the appropriate moxibustion height is determined to control the speed and degree of heat transfer and maintain the stability of the skin temperature. Analyzing the trend of skin changes helps to predict the impact of moxibustion on the skin, providing a basis for adjusting the moxibustion settings and avoiding the occurrence of adverse reactions. Combining the skin sensitivity level and the skin change trend, the optimal adjustment height is screened out to optimize the effect of moxibustion treatment while protecting the patient's skin. The optimal adjustment height and moxibustion adjustment temperature are used as adjustment parameters to guide the real-time adjustment of the moxibustion equipment and achieve precise control of moxibustion treatment.

[0013] Optionally, determining the appropriate body temperature according to the skin sensitivity level includes: Analyzing the moxibustion data to determine the moxibustion acupoints in the moxibustion area; Acquire medical consultation data, analyze the medical consultation data, and determine the patient's condition; Determining the minimum effective temperature of the moxibustion acupoint according to the patient's condition; The appropriate body temperature of the moxibustion acupoint is determined according to the minimum effective temperature and the skin sensitivity level.

[0014] Through this solution, by analyzing moxibustion data, the acupoints in the moxibustion area can be accurately located to ensure that moxibustion treatment is performed on the correct acupoints, thereby improving the pertinence and accuracy of the treatment effect. By collecting and analyzing the consultation data, we can gain an in-depth understanding of the patient's health status and symptoms, providing an important reference for the subsequent determination of the appropriate moxibustion temperature. According to the patient's specific symptoms, the minimum effective temperature required for each moxibustion point is determined to ensure that moxibustion treatment can achieve the expected therapeutic effect, while avoiding poor treatment effects due to too low a temperature. Combining the minimum effective temperature and skin sensitivity level to determine the appropriate body temperature can ensure that patients feel comfortable during moxibustion treatment while receiving effective treatment.

[0015] Optionally, determining the skin contact temperature according to the moxibustion height and the moxibustion temperature includes: Analyzing the moxibustion data to determine moxibustion environment information; Analyzing the moxibustion environment information to determine the heat propagation range; The skin contact temperature is determined according to the moxibustion height, the moxibustion temperature and the heat propagation range.

[0016] Through this solution, by analyzing moxibustion data, we can accurately obtain environmental information during the moxibustion process, such as the burning state of moxa cakes, heat distribution, etc.; it helps to understand the specific situation of moxibustion treatment and provide a basis for the subsequent calculation of the heat propagation range. By analyzing the moxibustion environmental information, we can predict how heat propagates in the moxibustion area and determine the heat propagation range; it helps to avoid excessive heat concentration, reduce the risk of burns, and ensure uniform heat distribution. Combining the height, temperature and heat propagation range of moxibustion, the skin contact temperature can be calculated to ensure that the temperature can achieve the therapeutic effect without causing damage to the skin.

[0017] Optionally, before obtaining the moxibustion data, the method further includes: According to the patient's symptoms, determine all acupuncture points for moxibustion; Obtaining human body structure distribution data; Analyze the human body structure distribution data to determine the acupoint location of any acupoint; According to the acupoint locations, a moxibustion plan is planned.

[0018] Through this program, we can ensure that moxibustion treatment matches the patient's specific symptoms and select appropriate acupoints for treatment, thereby improving the pertinence and effectiveness of the treatment effect. By obtaining the human body structure distribution data, we can provide accurate anatomical information for subsequent acupoint positioning to ensure the accuracy of moxibustion treatment. Accurate acupoint positioning helps doctors or intelligent systems to accurately align acupoints during moxibustion treatment to avoid affecting the treatment effect due to inaccurate positioning. Planning a moxibustion program helps ensure the systematic and orderly nature of the treatment process. At the same time, the treatment plan can be adjusted according to the patient's specific situation to improve the level of personalization of treatment.

[0019] Optionally, before dynamically adjusting the moxibustion state according to the adjustment parameter, the method further includes: Get moxibustion structure data; Analyze the moxibustion structure data to determine the device structure; Determine the smoke exhaust port structure according to the equipment structure; Determine the amount of smoke generated per unit time according to the device structure and the moxibustion data; Analyze the moxibustion data to determine the smoke emission at the current moment; The number of smoke exhaust ports to be opened is determined according to the smoke emission amount, the smoke exhaust port structure and the smoke generation amount.

[0020] Through this scheme, by obtaining the three-dimensional structural data of the moxibustion equipment, detailed basic information can be provided for subsequent equipment analysis and smoke exhaust port design, which is helpful to optimize the design and performance of the equipment. The analysis of moxibustion structural data helps to understand the internal structure and working principle of the moxibustion equipment, thereby providing a scientific basis for the design of the smoke exhaust port and smoke management. Determining the smoke exhaust port structure can ensure that smoke can be effectively discharged from the moxibustion equipment while maintaining air circulation inside the equipment to avoid smoke accumulation. Understanding the amount of smoke generated per unit time helps to predict and control smoke emissions and provide important parameters for dynamically adjusting the smoke exhaust system. Real-time monitoring and determination of smoke emissions can timely adjust the operation of the smoke exhaust system to keep the moxibustion environment clean and the patient comfortable. Reasonable determination of the number of smoke exhaust ports can optimize the smoke exhaust effect and ensure that smoke emissions are effectively controlled while reducing energy consumption and maintenance costs.

[0021] Optionally, dynamically adjusting the moxibustion state according to the adjustment parameter includes: According to the moxibustion scheme, determine the duration of acupoint moxibustion; Determining the frequency of acupoint adjustment according to the duration of moxibustion on the acupoint; Determining the floating frequency according to the appropriate body temperature of the moxibustion acupoint and the optimal adjustment height; The moxibustion state is adjusted according to the floating frequency and the acupoint adjustment frequency.

[0022] Through this scheme, it is ensured that moxibustion treatment can be carried out according to the predetermined plan, and each acupoint can get the appropriate treatment time, thereby improving the pertinence and effectiveness of the treatment effect. By determining the acupoint adjustment frequency, it can be ensured that the adjustment of the acupoint position or height during the moxibustion process can be carried out in a timely manner to adapt to the patient's real-time response and physiological changes. Determining the floating frequency helps to ensure the comfort of the patient during moxibustion treatment while maintaining the effectiveness of the treatment. Appropriate body temperature and optimal adjustment height can reduce the patient's discomfort and improve the treatment experience. By adjusting the moxibustion state by combining the floating frequency and the acupoint adjustment frequency, precise control of moxibustion treatment can be achieved, optimizing the treatment effect while reducing the risk of burns or discomfort.

[0023] In a second aspect, the present application provides an intelligent moxibustion control system, the system comprising: A data analysis module, used to obtain moxibustion data, analyze the moxibustion data, and determine the moxibustion conditions at the current moment; An information analysis module, used to obtain real-time scanning information from a laser scanner, analyze the real-time scanning information, and determine the skin condition of the moxibustion area; A sensitivity analysis module, used to analyze the skin condition and determine the skin sensitivity level; The state adjustment module is used to determine the adjustment parameters according to the skin sensitivity level and dynamically adjust the moxibustion state according to the adjustment parameters.

[0024] Optionally, when the data analysis module analyzes the moxibustion data to determine the moxibustion conditions at the current moment, it is used to: Analyze the moxibustion data to determine the degree of burning of the moxa cake and the placement of the moxa cake; Determining the moxibustion temperature according to the burning degree of the moxa cake; According to the placement of the moxa cake, determining the moxibustion height between the moxa cake and the skin; The moxibustion height and the moxibustion temperature are used as the moxibustion conditions at the current moment.

[0025] Optionally, when the information analysis module analyzes the real-time scanning information to determine the skin condition of the moxibustion area, it is used to: Analyze the real-time scanning information to determine the skin characteristics at the current moment; analyzing the skin characteristics to determine skin changes; Based on the skin changes, the skin condition of the moxibustion area is determined.

[0026] Optionally, when the state adjustment module determines the adjustment parameter according to the skin sensitivity level, it is used to: Determining a suitable body temperature according to the skin sensitivity level; Determining the current skin temperature according to the moxibustion temperature and the skin change; Determining the skin contact temperature according to the moxibustion height and the moxibustion temperature; Determine the temperature change per unit time according to the preset temperature conductivity coefficient; Determining a moxibustion adjustment temperature according to the current skin temperature, the suitable body temperature and the skin contact temperature; Determining a suitable adjustment height according to the moxibustion adjustment temperature and the temperature change per unit time; Determining skin change trends based on the skin sensitivity level; According to the skin change trend, the suitable adjustment height is screened to determine the optimal adjustment height; The optimal adjustment height and the moxibustion adjustment temperature are determined as the adjustment parameters.

[0027] Optionally, when the state adjustment module determines the appropriate body temperature according to the skin sensitivity level, it is used to: Analyzing the moxibustion data to determine the moxibustion acupoints in the moxibustion area; Acquire medical consultation data, analyze the medical consultation data, and determine the patient's condition; Determining the minimum effective temperature of the moxibustion acupoint according to the patient's condition; The appropriate body temperature of the moxibustion acupoint is determined according to the minimum effective temperature and the skin sensitivity level.

[0028] Optionally, when the state adjustment module determines the skin contact temperature according to the moxibustion height and the moxibustion temperature, it is used to: Analyzing the moxibustion data to determine moxibustion environment information; Analyzing the moxibustion environment information to determine the heat propagation range; The skin contact temperature is determined according to the moxibustion height, the moxibustion temperature and the heat propagation range.

[0029] Optionally, the intelligent moxibustion control system further includes a solution analysis module, which is used to: According to the patient's symptoms, determine all acupuncture points for moxibustion; Obtaining human body structure distribution data; Analyze the human body structure distribution data to determine the acupoint location of any acupoint; According to the acupoint locations, a moxibustion plan is planned.

[0030] Optionally, the intelligent moxibustion control system further includes a smoke exhaust analysis module, which is used to: Get moxibustion structure data; Analyze the moxibustion structure data to determine the device structure; Determine the smoke exhaust port structure according to the equipment structure; Determine the amount of smoke generated per unit time according to the device structure and the moxibustion data; Analyze the moxibustion data to determine the smoke emission at the current moment; The number of smoke exhaust ports to be opened is determined according to the smoke emission amount, the smoke exhaust port structure and the smoke generation amount.

[0031] Optionally, when the state adjustment module dynamically adjusts the moxibustion state according to the adjustment parameter, it is used to: According to the moxibustion scheme, determine the duration of acupoint moxibustion; Determining the frequency of acupoint adjustment according to the duration of moxibustion on the acupoint; Determining the floating frequency according to the appropriate body temperature of the moxibustion acupoint and the optimal adjustment height; The moxibustion state is adjusted according to the floating frequency and the acupoint adjustment frequency. BRIEF DESCRIPTION OF THE DRAWINGS

[0032] In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, a brief introduction will be given below to the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are some embodiments of the present application. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative labor.

[0033] Figure 1 A schematic diagram of an application scenario provided for an embodiment of the present application; Figure 2 A flow chart of an intelligent moxibustion control method provided in one embodiment of the present application; Figure 3 A schematic diagram of the structure of an intelligent moxibustion control system provided in one embodiment of the present application. DETAILED DESCRIPTION

[0034] In order to make the purpose, technical scheme and advantages of the embodiments of the present application clearer, the technical scheme in the embodiments of the present application will be clearly and completely described below in conjunction with the drawings in the embodiments of the present application. Obviously, the described embodiments are part of the embodiments of the present application, not all of the embodiments. Based on the embodiments in the present application, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of this application.

[0035] In addition, the term "and / or" in this article is only a description of the association relationship of associated objects, indicating that there can be three relationships. For example, A and / or B can represent: A exists alone, A and B exist at the same time, and B exists alone. In addition, the character " / " in this article, unless otherwise specified, generally means that the associated objects before and after are in an "or" relationship.

[0036] The embodiments of the present application are further described in detail below in conjunction with the drawings in the specification.

[0037] Moxibustion, as an ancient Chinese medical treatment method, relies on the warm effect produced by burning mugwort to stimulate the human body's acupuncture points in order to promote blood circulation and regulate body functions.

[0038] Existing moxibustion fumigation equipment cannot meet the requirements of precision and personalized control during the moxibustion process. Traditional moxibustion often relies on the skills and experience of physical therapists, and there is a certain degree of operational difficulty and uncertainty in the treatment effect.

[0039] Based on this, the present application provides an intelligent moxibustion control method and system thereof, which obtains moxibustion data, analyzes moxibustion data, and determines the moxibustion conditions at the current moment; obtains real-time scanning information of a laser scanner, analyzes real-time scanning information, and determines the skin condition of the moxibustion area; analyzes the skin condition and determines the skin sensitivity level; according to the skin sensitivity level, determines the adjustment parameters and dynamically adjusts the moxibustion state according to the adjustment parameters. The combustion data and placement information of the moxa cake are collected by sensors, providing basic data for subsequent temperature and height adjustment. It helps to ensure that the temperature and position of moxibustion meet the treatment requirements and avoid burns or poor treatment effects caused by excessively high or low temperatures. Analysis of the burning degree and placement of the moxibustion cake can determine the current moxibustion temperature and height, which are key parameters for moxibustion treatment. The correct temperature and height can maximize the treatment effect while reducing potential damage to the patient's skin. The skin surface information obtained by the laser scanner can help doctors or systems more accurately assess skin conditions, including skin color, texture, and vascular conditions, which are crucial for adjusting moxibustion regimens. By analyzing the scan information, skin changes such as redness, swelling, burning or itching can be monitored in real time, so that the temperature and position of moxibustion can be adjusted in time to adapt to the patient's skin sensitivity. By comprehensively analyzing the skin condition and physiological signals, the patient's skin sensitivity level can be determined; it is essential for the formulation of personalized treatment plans and can help avoid discomfort or damage to sensitive skin. The adjustment parameters determined according to the skin sensitivity level, including the appropriate body temperature and moxibustion adjustment temperature, help to personalize moxibustion treatment; it can ensure that the patient feels comfortable during the treatment while achieving the treatment effect. Dynamic adjustment of the moxibustion state, including temperature, height and position, can respond to the patient's skin reaction and physiological signal changes in real time. Dynamic adjustment helps maintain the continuity and effectiveness of treatment while reducing the risk of adverse reactions.

[0040] Figure 1A schematic diagram of an application scenario provided for this application, when moxibustion is performed through a moxibustion device, the method provided by this application is applied. Specifically, the method provided by this application is applied to the server of any moxibustion device, and the server interacts with the laser scanner of the moxibustion device. Through the real-time scanning information of the laser scanner, the combustion data and placement information of the moxa cake are collected, and the basic data for the subsequent temperature and height adjustment is provided. It helps to ensure that the temperature and position of moxibustion meet the treatment requirements and avoid burns or poor treatment effects caused by excessively high or low temperatures. Analysis of the burning degree and placement of the moxibustion cake can determine the current moxibustion temperature and height, which are key parameters for moxibustion treatment. The correct temperature and height can maximize the treatment effect while reducing potential damage to the patient's skin. The skin surface information obtained by the laser scanner can help doctors or systems more accurately assess skin conditions, including skin color, texture and vascular conditions, which are crucial for adjusting moxibustion plans. By analyzing the scanning information, skin changes, such as redness, swelling, burns or itching, can be monitored in real time, so that the temperature and position of moxibustion can be adjusted in time to adapt to the patient's skin sensitivity. By comprehensively analyzing the skin condition and physiological signals, the patient's skin sensitivity level can be determined; this is crucial for the formulation of personalized treatment plans and can help avoid discomfort or damage to sensitive skin. The adjustment parameters determined according to the skin sensitivity level, including the appropriate body temperature and moxibustion adjustment temperature, help to personalize moxibustion treatment; it can ensure that the patient feels comfortable during the treatment while achieving the treatment effect. Dynamic adjustment of the moxibustion state, including temperature, height and position, can respond to the patient's skin reaction and physiological signal changes in real time. Dynamic adjustment helps to maintain the continuity and effectiveness of treatment while reducing the risk of adverse reactions. The specific implementation method can refer to the following embodiments.

[0041] Figure 2 This is a flow chart of an intelligent moxibustion control method provided in an embodiment of the present application. The method of this embodiment can be applied to the server in the above scenario. Figure 2 As shown, the method includes: S201, acquiring moxibustion data, analyzing the moxibustion data, and determining the moxibustion conditions at the current moment; Moxibustion data can be various information collected by moxibustion equipment, including parameters such as the degree of burning of the moxa cake, flame size, and temperature changes.

[0042] Moxibustion conditions can be a series of parameters and standards that need to be met when conducting moxibustion treatment, such as the burning state of the moxa cake, the temperature of the moxibustion, the height and position of the moxibustion, etc.

[0043] Specifically, the built-in sensors of the moxibustion equipment collect the burning status data of the moxa cake in real time, including the burning degree, flame size and temperature change of the moxa cake. At the same time, the placement and angle of the moxa cake are recorded, and the data generated by the burning of the moxa cake is analyzed using data processing algorithms to determine the moxibustion temperature and moxibustion height at the current moment. By comparing historical data with the preset moxibustion condition parameters, it is evaluated whether the real-time status of moxibustion meets the treatment requirements.

[0044] S202, obtaining real-time scanning information of the laser scanner, analyzing the real-time scanning information, and determining the skin condition of the moxibustion area; The real-time scanning information may be real-time images and data of the skin in the moxibustion area obtained by a laser scanner or other equipment.

[0045] The moxibustion area may be the area of ​​the body where the acupuncture points are located or the area targeted during moxibustion treatment.

[0046] Skin condition can be the current status of the skin in the moxibustion area, including skin color, texture, and whether there are redness, swelling, burns, itching and other reactions.

[0047] Specifically, a laser scanner is used to scan the moxibustion area to obtain real-time image information of the skin surface. The image information is analyzed to identify the skin's color, texture, and blood vessel condition to assess the skin's health and sensitivity.

[0048] S203, analyzing skin conditions and determining skin sensitivity levels; The skin sensitivity level may be the degree to which the skin is sensitive to heat. Skin with a high sensitivity level is more sensitive to heat and is more likely to experience discomfort or burns.

[0049] Specifically, the sensitivity level of the skin is comprehensively assessed based on the data provided by the laser scanner and combined with the patient's physiological signals (such as heart rate, skin galvanic response, etc.). Skin with high sensitivity needs to have the moxibustion temperature lowered or the moxibustion position adjusted to avoid discomfort or damage.

[0050] S204. Determine adjustment parameters according to the skin sensitivity level and dynamically adjust the moxibustion state according to the adjustment parameters.

[0051] The moxibustion status may be a real-time status during the moxibustion treatment process, including the burning status, temperature, height, and position of the moxa cake.

[0052] Specifically, according to the skin sensitivity level, determine the appropriate body temperature and moxibustion adjustment temperature. Calculate the temperature change per unit time, and determine the moxibustion adjustment temperature based on the current skin temperature, the appropriate body temperature and the skin contact temperature. According to the determined adjustment parameters, dynamically adjust the height and temperature of moxibustion to adapt to the patient's skin sensitivity and comfort. If necessary, adjust the working state of the smoke exhaust port to optimize heat distribution and maintain a comfortable temperature environment.

[0053] Through this solution, the burning data and placement information of moxa cakes are collected through sensors, providing basic data for subsequent temperature and height adjustment. It helps to ensure that the temperature and position of moxibustion meet the treatment requirements and avoid burns or poor treatment effects caused by too high or too low temperatures. Analysis of the burning degree and placement of moxa cakes can determine the current moxibustion temperature and height, which are key parameters for moxibustion treatment. The correct temperature and height can maximize the treatment effect while reducing potential damage to the patient's skin. The skin surface information obtained by the laser scanner can help doctors or systems more accurately assess the skin condition, including the color, texture and vascular condition of the skin, which is crucial for adjusting the moxibustion plan. Analyzing the scan information, skin changes such as redness, swelling, burns or itching can be monitored in real time, so as to adjust the temperature and position of moxibustion in time to adapt to the patient's skin sensitivity. Through comprehensive analysis of skin conditions and physiological signals, the patient's skin sensitivity level can be determined; it is crucial for the formulation of personalized treatment plans and can help avoid discomfort or damage to sensitive skin. Adjustment parameters determined according to skin sensitivity levels, including appropriate body temperature and moxibustion adjustment temperature, help personalize moxibustion treatment; ensure that patients feel comfortable during treatment while achieving therapeutic effects. Dynamic adjustment of moxibustion status, including temperature, height, and position, can respond to patients' skin reactions and physiological signal changes in real time. Dynamic adjustment helps maintain the continuity and effectiveness of treatment while reducing the risk of adverse reactions.

[0054] In some embodiments, moxibustion data is analyzed to determine the degree of burning of the moxa cake and the placement of the moxa cake; the moxibustion temperature is determined based on the degree of burning of the moxa cake; the moxibustion height between the moxa cake and the skin is determined based on the placement of the moxa cake; the moxibustion height and moxibustion temperature are used as the moxibustion conditions at the current moment.

[0055] The adjustment parameters can be parameters adjusted by the intelligent control system during the moxibustion treatment according to factors such as the patient's skin sensitivity level, the degree of burning of the moxa cake, the placement of the moxa cake, etc.; the adjustment parameters include but are not limited to moxibustion temperature, moxibustion height, moxibustion time, moxibustion frequency, etc.

[0056] The burning degree of the moxa cake can be the state of the moxa cake during the burning process, including the burning speed, flame intensity, heat generation, etc.

[0057] The placement of the moxa cake may refer to the placement position and angle of the moxa cake in the moxibustion device.

[0058] The moxibustion temperature may be the temperature at which the heat generated by the moxibustion device is transferred to the patient's skin during the moxibustion treatment.

[0059] Moxibustion height can be the distance between the moxibustion device and the patient's skin. Moxibustion height affects the speed and degree of heat transfer.

[0060] Specifically, the combustion data of the moxa cake, including the burning speed, flame intensity, etc., are collected through the sensors in the moxibustion equipment. At the same time, the placement data of the moxa cake, such as the distance and angle from the skin, is obtained. The burning speed and flame intensity of the moxa cake are analyzed using the sensor data to evaluate the burning degree of the moxa cake. The distance between the moxa cake and the skin is measured by devices such as laser scanners or cameras, and the moxibustion height is determined in combination with the placement angle of the moxa cake. In combination with the burning degree and placement height of the moxa cake, the actual temperature of the moxibustion area is measured using devices such as temperature sensors or infrared thermal imagers. The moxibustion height and temperature data obtained by analysis are integrated to form the moxibustion conditions at the current moment.

[0061] Through this scheme, by analyzing the burning degree and placement of moxa cakes, it can be ensured that the moxibustion equipment works according to the preset parameters; it helps to avoid temperature fluctuations caused by uneven burning or improper placement, thereby improving the consistency and effect of moxibustion treatment. By real-time monitoring of the burning degree of moxa cakes, the temperature of moxibustion can be accurately controlled to ensure that the temperature is within a safe and effective range; it helps to reduce potential damage to the patient's skin caused by excessively high or low temperatures, while ensuring the warming effect of moxibustion. By accurately measuring the distance between the moxa cake and the skin, it can be ensured that the height of moxibustion meets the treatment requirements. Appropriate moxibustion height helps control the degree of heat transfer to the skin, avoid overheating or overcooling, and thus improve the patient's comfort. After integrating the moxibustion height and temperature data, it can be used as the moxibustion condition at the current moment, providing a basis for subsequent dynamic adjustments; it helps to ensure the consistency and effect of moxibustion treatment, while adjusting according to the patient's real-time response and physiological signals to provide a personalized treatment experience.

[0062] In some embodiments, real-time scanning information is analyzed to determine skin characteristics at the current moment; skin characteristics are analyzed to determine skin changes; and skin conditions in the moxibustion area are determined based on skin changes.

[0063] Skin features may be various attributes of the skin in the moxibustion area obtained through real-time scanning information, including but not limited to skin color, texture, blood vessel distribution, humidity, oil content, etc.

[0064] Skin changes can be changes in the skin of the moxibustion area relative to its initial state during the moxibustion treatment, such as changes in color (red or white), changes in texture (such as wrinkles or sagging), expansion or contraction of blood vessels, changes in skin temperature, etc.

[0065] Specifically, a laser scanner or other imaging device is used to collect real-time image information of the moxibustion area; this information includes skin texture, color, blood vessel distribution and other characteristics. The real-time collected skin feature data is compared with the previous scan data or the preset skin model to analyze skin changes, such as redness, swelling, burns, itching and other reactions. The skin characteristics and changes are comprehensively analyzed, combined with the patient's physiological signals (such as heart rate, skin galvanic response, etc.) to determine the skin condition of the moxibustion area.

[0066] Through this solution, the skin feature data obtained through real-time scanning can accurately understand the color, texture, blood vessel distribution, etc. of the skin in the moxibustion area; these features are crucial for evaluating the health and sensitivity of the skin. By comparing the real-time scanned skin features with historical data or preset models, skin changes such as redness, swelling, burns, itching and other reactions can be identified; these changes are critical for evaluating the impact of moxibustion on the skin. Comprehensive analysis of skin characteristics and changes, combined with the patient's physiological signals (such as heart rate, skin galvanic response, etc.), can comprehensively evaluate the skin condition in the moxibustion area; help ensure the safety and effectiveness of moxibustion treatment.

[0067] In some embodiments, adjustment parameters are determined according to the skin sensitivity level, including: determining a suitable body temperature according to the skin sensitivity level; determining the current skin temperature according to the moxibustion temperature and skin changes; determining the skin contact temperature according to the moxibustion height and the moxibustion temperature; determining the temperature change per unit time according to a preset temperature conductivity coefficient; determining the moxibustion adjustment temperature according to the current skin temperature, the suitable body temperature and the skin contact temperature; determining the suitable adjustment height according to the moxibustion adjustment temperature and the temperature change per unit time; determining the skin change trend according to the skin sensitivity level; screening the suitable adjustment height according to the skin change trend and determining the optimal adjustment height; determining the optimal adjustment height and the moxibustion adjustment temperature as adjustment parameters.

[0068] The appropriate perceived temperature can be the temperature range that the patient feels comfortable and safe, and can be determined based on the patient's personal feelings and skin sensitivity level to ensure that the patient does not feel overheated during moxibustion treatment.

[0069] The current skin temperature may be the real-time temperature of the skin in the moxibustion area, and is used to evaluate the thermal effect of moxibustion on the skin.

[0070] The skin contact temperature can be the temperature of the part of the moxibustion device in contact with the patient's skin, reflecting the degree to which the moxibustion heat is transferred to the skin surface.

[0071] Thermal conductivity is the amount of heat transferred through a unit area per unit time, and is used to describe the ability of a material or medium to transfer heat.

[0072] Temperature changes can be the increase or decrease in skin temperature during the moxibustion process.

[0073] The moxibustion regulating temperature can be a temperature adjusted according to the patient's skin reaction and the real-time data of the moxibustion equipment.

[0074] Temperature changes can be the increase or decrease in skin temperature during the moxibustion process.

[0075] The appropriate height adjustment can be based on the moxibustion temperature and temperature changes, and adjust the distance between the moxibustion equipment and the skin to achieve an ideal temperature transfer effect.

[0076] Skin change trends can be the possible changes in the skin during moxibustion treatment, such as redness, swelling, itching, burning, etc., which helps to predict and prevent adverse reactions.

[0077] The optimal adjustment height can be the optimal distance between the moxibustion device and the skin determined according to the skin sensitivity level, skin change trend and moxibustion adjustment temperature.

[0078] Specifically, according to the patient's skin sensitivity level, the patient's comfortable body temperature range is determined through user input or system learning. The skin temperature of the moxibustion area is measured by a temperature sensor, and analyzed in combination with the moxibustion temperature and skin changes. According to the moxibustion height and moxibustion temperature, the skin contact temperature, that is, the temperature at which the moxibustion heat is transferred to the skin surface, is calculated. According to the preset temperature conductivity coefficient, the temperature change per unit time is calculated to predict the changing trend of the skin temperature. The moxibustion adjustment temperature is calculated based on the current skin temperature, the appropriate body temperature and the skin contact temperature. According to the moxibustion adjustment temperature and the temperature change per unit time, the appropriate moxibustion height adjustment amount is calculated. Real-time scanning information is analyzed to determine the trend of skin changes, such as redness, swelling, burns, etc. In combination with the skin sensitivity level and the skin change trend, a suitable moxibustion height adjustment scheme is screened out, and the optimal adjustment height is determined. The calculated optimal adjustment height and moxibustion adjustment temperature are used as adjustment parameters to guide the real-time adjustment of the moxibustion equipment.

[0079] Through this scheme, by determining the body temperature that the patient feels comfortable, the patient can avoid feeling overheated or overcooled during moxibustion, thereby improving the patient's comfort and treatment experience. Real-time monitoring of the skin temperature in the moxibustion area helps to adjust the moxibustion settings in time to prevent excessive skin temperature from causing burns or too low skin temperature from affecting the treatment effect. Calculating the skin contact temperature helps to understand the temperature at which the moxibustion heat is directly transferred to the skin surface, providing a basis for adjusting the moxibustion height and temperature to ensure skin safety. By calculating the temperature change through the preset temperature conductivity coefficient, the trend of skin temperature changes during moxibustion can be predicted and adjusted to prevent sudden temperature changes from causing damage to the skin. The moxibustion adjustment temperature is determined based on the current skin temperature, the appropriate body temperature and the skin contact temperature to ensure that the moxibustion treatment is both effective and safe. According to the moxibustion adjustment temperature and the temperature change per unit time, the appropriate moxibustion height is determined to control the speed and degree of heat transfer and maintain the stability of the skin temperature. Analyzing the trend of skin changes helps to predict the impact of moxibustion on the skin, providing a basis for adjusting the moxibustion settings and avoiding the occurrence of adverse reactions. Combining the skin sensitivity level and the skin change trend, the optimal adjustment height is screened out to optimize the effect of moxibustion treatment while protecting the patient's skin. The optimal adjustment height and moxibustion adjustment temperature are used as adjustment parameters to guide the real-time adjustment of the moxibustion equipment and achieve precise control of moxibustion treatment.

[0080] In some embodiments, the appropriate perceived temperature is determined based on the skin sensitivity level, including: analyzing moxibustion data to determine the moxibustion points in the moxibustion area; obtaining medical consultation data, analyzing the medical consultation data, and determining the patient's condition; determining the minimum effective temperature of the moxibustion points based on the patient's condition; determining the appropriate perceived temperature of the moxibustion points based on the minimum effective temperature and the skin sensitivity level.

[0081] Moxibustion points can be specific locations on the human body. According to traditional Chinese medicine theory, moxibustion points are believed to be closely related to certain organs or functions of the body. During moxibustion, the moxibustion points are used as targets in the hope of achieving a therapeutic effect by stimulating the moxibustion points.

[0082] Medical consultation data can be patient information collected by doctors during the diagnosis process, including the patient's symptom description, medical history, lifestyle habits, family medical history, physical examination results, etc.

[0083] The patient's condition may be the pathological symptoms and signs exhibited by the patient, such as pain, fever, cough, fatigue, etc.

[0084] The minimum effective temperature can be the lowest temperature that the heat generated by the burning moxa cake must reach in order to achieve the expected therapeutic effect during moxibustion treatment; the minimum effective temperature is sufficient to stimulate the acupoints and produce a therapeutic effect, but will not cause skin burns.

[0085] Specifically, the data collected by the moxibustion equipment, including the burning speed of the moxa cake, the size of the flame, the heat distribution, etc., are used to identify and locate the specific acupuncture points in the moxibustion area using image recognition technology. Through the patient's medical history, symptom description, physical examination results and other consultation data, artificial intelligence algorithms are used to process and analyze the consultation data and analyze the patient's specific symptoms. According to the patient's symptoms and acupuncture point characteristics, with reference to medical research and clinical experience, the minimum effective temperature required for each acupuncture point is determined to ensure the treatment effect. Combined with the patient's skin sensitivity level and the minimum effective temperature, the appropriate body temperature for the patient to feel comfortable is determined through a comprehensive analysis of the thermal physiology model and patient feedback data.

[0086] Through this solution, by analyzing moxibustion data, the acupoints in the moxibustion area can be accurately located to ensure that moxibustion treatment is performed on the correct acupoints, thereby improving the pertinence and accuracy of the treatment effect. By collecting and analyzing the consultation data, we can gain an in-depth understanding of the patient's health status and symptoms, providing an important reference for the subsequent determination of the appropriate moxibustion temperature. According to the patient's specific symptoms, the minimum effective temperature required for each moxibustion point is determined to ensure that moxibustion treatment can achieve the expected therapeutic effect, while avoiding poor treatment effects due to too low a temperature. Combining the minimum effective temperature and skin sensitivity level to determine the appropriate body temperature can ensure that patients feel comfortable during moxibustion treatment while receiving effective treatment.

[0087] In some embodiments, the skin contact temperature is determined according to the moxibustion height and the moxibustion temperature, including: analyzing the moxibustion data to determine the moxibustion environment information; analyzing the moxibustion environment information to determine the heat propagation range; determining the skin contact temperature according to the moxibustion height, the moxibustion temperature and the heat propagation range.

[0088] Moxibustion environment information is the sum of various environmental factors and conditions involved in moxibustion treatment, including but not limited to the temperature, humidity, air flow, burning state of moxa cakes, flame size and heat distribution in the moxibustion area.

[0089] The heat propagation range can be the range of spatial propagation and distribution of heat generated by the burning of moxa cakes during moxibustion treatment, which is usually affected by the location of the moxibustion source (such as moxibustion cakes), moxibustion height, moxibustion temperature and surrounding environment.

[0090] Specifically, the data generated by the moxibustion equipment is collected, including the burning speed of the moxa cake, the size of the flame, the heat distribution, etc., as well as the ambient temperature and humidity of the moxibustion area. Through physical models or simulation software, the heat generated by moxibustion is simulated to spread in the moxibustion area, and the heat propagation range and intensity are determined. Combined with the height, temperature and heat propagation range of the moxibustion, the skin contact temperature is calculated using the heat conduction equation or empirical formula.

[0091] Through this solution, by analyzing moxibustion data, we can accurately obtain environmental information during the moxibustion process, such as the burning state of moxa cakes, heat distribution, etc.; it helps to understand the specific situation of moxibustion treatment and provide a basis for the subsequent calculation of the heat propagation range. By analyzing the moxibustion environmental information, we can predict how heat propagates in the moxibustion area and determine the heat propagation range; it helps to avoid excessive heat concentration, reduce the risk of burns, and ensure uniform heat distribution. Combining the height, temperature and heat propagation range of moxibustion, the skin contact temperature can be calculated to ensure that the temperature can achieve the therapeutic effect without causing damage to the skin.

[0092] In some embodiments, before obtaining the moxibustion data, it also includes: determining all acupoints for moxibustion according to the patient's condition; obtaining human body structure distribution data; analyzing the human body structure distribution data to determine the acupoint location of any acupoint; and planning a moxibustion plan according to the acupoint location.

[0093] All acupoints may be all acupoints on the human body used for moxibustion treatment.

[0094] Human body structure distribution data can be the internal structure information of the human body obtained through medical imaging technology (such as X-ray, CT, MRI, etc.), including the position and shape of bones, muscles, and organs.

[0095] The acupuncture point location may be the specific location of a specific acupuncture point on the human body.

[0096] A moxibustion regimen can be a moxibustion treatment plan developed for a specific disease, including parameters such as which acupoints to choose for moxibustion, the order of moxibustion, time, temperature, and height.

[0097] Specifically, by analyzing the patient's symptoms and TCM theory, all acupuncture points that need to be treated with moxibustion are determined; this may involve consulting TCM classics, electronic medical records, and consulting professional doctors. Medical imaging technologies such as 3D scanning, MRI, or CT are used to obtain the patient's anatomy distribution data, including bones, muscles, acupuncture point locations, etc. Image processing and pattern recognition technologies are used to analyze the anatomy distribution data to determine the precise location of each acupuncture point. Based on the determined acupuncture point locations, a moxibustion plan is developed, including the order, time, temperature, and height of moxibustion.

[0098] In some embodiments, if the moxibustion scheme is walking moxibustion, due to the limited moving range of the moxibustion cakes in the existing structure, it is impossible to complete the simulation of the continuous and complete walking moxibustion technique. Therefore, it is necessary to determine the specific position of each moxa cake according to the placement of the moxa cakes after determining the moxibustion scheme, and quickly move after one moxa cake is completed according to the specific position of the moxa cake, and select the nearest moxa cake with a similar burning state to continue, and in the process of subsequent changes, ensure that the change in the heat propagation range of the original walking moxibustion trajectory is minimized, and keep the moxibustion temperature at that location unchanged by adjusting the moxibustion height.

[0099] Through this program, we can ensure that moxibustion treatment matches the patient's specific symptoms and select appropriate acupoints for treatment, thereby improving the pertinence and effectiveness of the treatment effect. By obtaining the human body structure distribution data, we can provide accurate anatomical information for subsequent acupoint positioning to ensure the accuracy of moxibustion treatment. Accurate acupoint positioning helps doctors or intelligent systems to accurately align acupoints during moxibustion treatment to avoid affecting the treatment effect due to inaccurate positioning. Planning a moxibustion program helps ensure the systematic and orderly nature of the treatment process. At the same time, the treatment plan can be adjusted according to the patient's specific situation to improve the level of personalization of treatment.

[0100] In some embodiments, before dynamically adjusting the moxibustion state according to the adjustment parameters, it also includes: obtaining moxibustion structure data; analyzing the moxibustion structure data to determine the equipment structure; determining the smoke exhaust port structure according to the equipment structure; determining the amount of smoke generated per unit time according to the equipment structure and moxibustion data; analyzing the moxibustion data to determine the smoke emission at the current moment; determining the number of smoke exhaust ports opened according to the smoke emission, the smoke exhaust port structure and the smoke generation.

[0101] The moxibustion structural data may be a collection of physical structures and design parameters related to the moxibustion equipment, such as the size, shape, material, internal structure, ventilation system design, etc. of the equipment.

[0102] The equipment structure may be the equipment structure refers to the specific structure and composition of the moxibustion equipment, including the combustion chamber, ventilation duct, smoke exhaust system, control system, etc.

[0103] The smoke exhaust port structure may be a design of an outlet portion in a moxibustion device for exhausting smoke.

[0104] The smoke generation amount may be the amount of smoke generated during the moxibustion process.

[0105] Smoke emission can be the amount of smoke emitted into the environment by the moxibustion equipment within a certain period of time.

[0106] The number of open smoke exhaust ports may be the number of open smoke exhaust ports in the moxibustion device.

[0107] Specifically, the three-dimensional structural data of the moxibustion equipment is obtained through the preliminary design data, including the size, shape and internal structure of the equipment. Through data processing and analysis algorithms, the equipment structure information is extracted from the moxibustion structure data, such as the ventilation duct, combustion chamber, smoke exhaust system, etc. of the equipment. According to the characteristics of the moxibustion equipment structure and the smoke emission requirements, the shape, size and position of the smoke exhaust port are designed. Combined with the structure of the moxibustion equipment and the data generated by the burning of moxa cakes, the amount of smoke generated per unit time is calculated. The smoke emission during the moxibustion process is monitored in real time, and the data is collected and analyzed through sensors. According to the real-time monitored smoke emission, the design of the smoke exhaust port and the amount of smoke generated, the required number of smoke exhaust ports to be opened is calculated.

[0108] Through this scheme, by obtaining the three-dimensional structural data of the moxibustion equipment, detailed basic information can be provided for subsequent equipment analysis and smoke exhaust port design, which is helpful to optimize the design and performance of the equipment. The analysis of moxibustion structural data helps to understand the internal structure and working principle of the moxibustion equipment, thereby providing a scientific basis for the design of the smoke exhaust port and smoke management. Determining the smoke exhaust port structure can ensure that smoke can be effectively discharged from the moxibustion equipment while maintaining air circulation inside the equipment to avoid smoke accumulation. Understanding the amount of smoke generated per unit time helps to predict and control smoke emissions and provide important parameters for dynamically adjusting the smoke exhaust system. Real-time monitoring and determination of smoke emissions can timely adjust the operation of the smoke exhaust system to keep the moxibustion environment clean and the patient comfortable. Reasonable determination of the number of smoke exhaust ports can optimize the smoke exhaust effect and ensure that smoke emissions are effectively controlled while reducing energy consumption and maintenance costs.

[0109] In some embodiments, the moxibustion state is dynamically adjusted according to the adjustment parameters, including: determining the acupoint moxibustion time according to the moxibustion plan; determining the acupoint adjustment frequency according to the acupoint moxibustion time; determining the floating frequency according to the appropriate body temperature and optimal adjustment height of the moxibustion acupoint; and adjusting the moxibustion state according to the floating frequency and the acupoint adjustment frequency.

[0110] The duration of acupoint moxibustion can be the length of time that moxibustion is continuously applied to specific acupoints during moxibustion treatment.

[0111] The frequency of acupoint adjustment can refer to how often the position or height of acupoints is adjusted during moxibustion treatment.

[0112] The floating frequency may be the frequency at which parameters such as the temperature, height or position of the moxibustion equipment are dynamically adjusted during the moxibustion treatment.

[0113] Specifically, the duration of moxibustion for each acupoint is determined according to the treatment goals and acupoint selection specified in the moxibustion plan; this may involve consideration of the burning speed of the moxa cake and the patient's condition. According to the moxibustion duration of each acupoint, the adjustment frequency of the acupoint is determined, that is, how often the position or height of the acupoint is adjusted. Combined with the patient's body temperature and the optimal adjustment height, the floating frequency of the moxibustion state, that is, the dynamic adjustment frequency of the moxibustion state (such as temperature and height), is determined. According to the floating frequency and the acupoint adjustment frequency, the temperature, height and position of the moxibustion are dynamically adjusted to adapt to the patient's real-time response and physiological signals.

[0114] Through this scheme, it is ensured that moxibustion treatment can be carried out according to the predetermined plan, and each acupoint can get the appropriate treatment time, thereby improving the pertinence and effectiveness of the treatment effect. By determining the acupoint adjustment frequency, it can be ensured that the adjustment of the acupoint position or height during the moxibustion process can be carried out in a timely manner to adapt to the patient's real-time response and physiological changes. Determining the floating frequency helps to ensure the comfort of the patient during moxibustion treatment while maintaining the effectiveness of the treatment. Appropriate body temperature and optimal adjustment height can reduce the patient's discomfort and improve the treatment experience. By adjusting the moxibustion state by combining the floating frequency and the acupoint adjustment frequency, precise control of moxibustion treatment can be achieved, optimizing the treatment effect while reducing the risk of burns or discomfort.

[0115] Figure 3 A schematic diagram of the structure of an intelligent moxibustion control system provided in one embodiment of the present application is shown in FIG. Figure 3 As shown, the intelligent moxibustion control system 300 of this embodiment includes: a data analysis module 301 , an information analysis module 302 , a sensitivity analysis module 303 , and a state adjustment module 304 .

[0116] The data analysis module 301 is used to obtain moxibustion data, analyze the moxibustion data, and determine the moxibustion conditions at the current moment; The information analysis module 302 is used to obtain real-time scanning information of the laser scanner, analyze the real-time scanning information, and determine the skin condition of the moxibustion area; A sensitivity analysis module 303 is used to analyze the skin condition and determine the skin sensitivity level; The state adjustment module 304 is used to determine adjustment parameters according to the skin sensitivity level and dynamically adjust the moxibustion state according to the adjustment parameters.

[0117] Optionally, when the data analysis module 301 analyzes the moxibustion data to determine the moxibustion conditions at the current moment, it is used to: Analyze the moxibustion data to determine the degree of burning of the moxa cake and the placement of the moxa cake; Determining the moxibustion temperature according to the burning degree of the moxa cake; According to the placement of the moxa cake, determining the moxibustion height between the moxa cake and the skin; The moxibustion height and the moxibustion temperature are used as the moxibustion conditions at the current moment.

[0118] Optionally, when the information analysis module 302 analyzes the real-time scanning information to determine the skin condition of the moxibustion area, it is used to: Analyze the real-time scanning information to determine the skin characteristics at the current moment; analyzing the skin characteristics to determine skin changes; Based on the skin changes, the skin condition of the moxibustion area is determined.

[0119] Optionally, when the state adjustment module 304 determines the adjustment parameter according to the skin sensitivity level, it is used to: Determining a suitable body temperature according to the skin sensitivity level; Determining the current skin temperature according to the moxibustion temperature and the skin change; Determining the skin contact temperature according to the moxibustion height and the moxibustion temperature; Determine the temperature change per unit time according to the preset temperature conductivity coefficient; Determining a moxibustion adjustment temperature according to the current skin temperature, the suitable body temperature and the skin contact temperature; Determining a suitable adjustment height according to the moxibustion adjustment temperature and the temperature change per unit time; Determining skin change trends based on the skin sensitivity level; According to the skin change trend, the suitable adjustment height is screened to determine the optimal adjustment height; The optimal adjustment height and the moxibustion adjustment temperature are determined as the adjustment parameters.

[0120] Optionally, when the state adjustment module 304 determines the appropriate body temperature according to the skin sensitivity level, it is used to: Analyzing the moxibustion data to determine the moxibustion acupoints in the moxibustion area; Acquire medical consultation data, analyze the medical consultation data, and determine the patient's condition; Determining the minimum effective temperature of the moxibustion acupoint according to the patient's condition; The appropriate body temperature of the moxibustion acupoint is determined according to the minimum effective temperature and the skin sensitivity level.

[0121] Optionally, when the state adjustment module 304 determines the skin contact temperature according to the moxibustion height and the moxibustion temperature, it is used to: Analyzing the moxibustion data to determine moxibustion environment information; Analyzing the moxibustion environment information to determine the heat propagation range; The skin contact temperature is determined according to the moxibustion height, the moxibustion temperature and the heat propagation range.

[0122] Optionally, the intelligent moxibustion control system 300 further includes a solution analysis module 305, which is used to: According to the patient's symptoms, determine all acupuncture points for moxibustion; Obtaining human body structure distribution data; Analyze the human body structure distribution data to determine the acupoint location of any acupoint; According to the acupoint locations, a moxibustion plan is planned.

[0123] Optionally, the intelligent moxibustion control system 300 further includes a smoke exhaust analysis module 306, which is used to: Get moxibustion structure data; Analyze the moxibustion structure data to determine the device structure; Determine the smoke exhaust port structure according to the equipment structure; Determine the amount of smoke generated per unit time according to the device structure and the moxibustion data; Analyze the moxibustion data to determine the smoke emission at the current moment; The number of smoke exhaust ports to be opened is determined according to the smoke emission amount, the smoke exhaust port structure and the smoke generation amount.

[0124] Optionally, when the state adjustment module 304 dynamically adjusts the moxibustion state according to the adjustment parameters, it is used to: According to the moxibustion scheme, determine the duration of acupoint moxibustion; Determining the frequency of acupoint adjustment according to the duration of moxibustion on the acupoint; Determining the floating frequency according to the appropriate body temperature of the moxibustion acupoint and the optimal adjustment height; The moxibustion state is adjusted according to the floating frequency and the acupoint adjustment frequency.

[0125] The system of this embodiment can be used to execute the method of any of the above embodiments. The implementation principles and technical effects are similar and will not be described in detail here.

Claims

1. An intelligent moxibustion control method, characterized in that: The method is applied to a moxibustion device, the moxibustion device includes a laser scanner and a server, and the method is applied to the server, and the method includes: Acquire moxibustion data, analyze the moxibustion data, and determine the moxibustion conditions at the current moment; Acquire real-time scanning information from a laser scanner, analyze the real-time scanning information, and determine the skin condition of the moxibustion area; Analyzing the skin condition to determine the level of skin sensitivity; According to the skin sensitivity level, an adjustment parameter is determined and the moxibustion state is dynamically adjusted according to the adjustment parameter.

2. The method according to claim 1, characterized in that The analyzing the moxibustion data to determine the moxibustion conditions at the current moment includes: Analyze the moxibustion data to determine the degree of burning of the moxa cake and the placement of the moxa cake; Determining the moxibustion temperature according to the burning degree of the moxa cake; According to the placement of the moxa cake, determining the moxibustion height between the moxa cake and the skin; The moxibustion height and the moxibustion temperature are used as the moxibustion conditions at the current moment.

3. The method according to claim 2, characterized in that The analyzing the real-time scanning information to determine the skin condition of the moxibustion area includes: Analyze the real-time scanning information to determine the skin characteristics at the current moment; analyzing the skin characteristics to determine skin changes; Based on the skin changes, the skin condition of the moxibustion area is determined.

4. The method according to claim 3, characterized in that Determining the adjustment parameters according to the skin sensitivity level includes: Determining a suitable body temperature according to the skin sensitivity level; Determining the current skin temperature according to the moxibustion temperature and the skin change; Determining the skin contact temperature according to the moxibustion height and the moxibustion temperature; Determine the temperature change per unit time according to the preset temperature conductivity coefficient; Determining a moxibustion adjustment temperature according to the current skin temperature, the suitable body temperature and the skin contact temperature; Determining a suitable adjustment height according to the moxibustion adjustment temperature and the temperature change per unit time; Determining skin change trends based on the skin sensitivity level; According to the skin change trend, the suitable adjustment height is screened to determine the optimal adjustment height; The optimal adjustment height and the moxibustion adjustment temperature are determined as the adjustment parameters.

5. The method according to claim 4, characterized in that Determining the appropriate body temperature according to the skin sensitivity level includes: Analyzing the moxibustion data to determine the moxibustion acupoints in the moxibustion area; Acquire medical consultation data, analyze the medical consultation data, and determine the patient's condition; Determining the minimum effective temperature of the moxibustion acupoint according to the patient's condition; The appropriate body temperature of the moxibustion acupoint is determined according to the minimum effective temperature and the skin sensitivity level.

6. The method according to claim 4, characterized in that Determining the skin contact temperature according to the moxibustion height and the moxibustion temperature includes: Analyzing the moxibustion data to determine moxibustion environment information; Analyzing the moxibustion environment information to determine the heat propagation range; The skin contact temperature is determined according to the moxibustion height, the moxibustion temperature and the heat propagation range.

7. The method according to claim 5, characterized in that Before obtaining the moxibustion data, the method further includes: According to the patient's symptoms, determine all acupuncture points for moxibustion; Obtaining human body structure distribution data; Analyze the human body structure distribution data to determine the acupoint location of any acupoint; According to the acupoint locations, a moxibustion plan is planned.

8. The method according to claim 5, characterized in that Before dynamically adjusting the moxibustion state according to the adjustment parameters, the method further includes: Get moxibustion structure data; Analyze the moxibustion structure data to determine the device structure; Determine the smoke exhaust port structure according to the equipment structure; Determine the amount of smoke generated per unit time according to the device structure and the moxibustion data; Analyze the moxibustion data to determine the smoke emission at the current moment; The number of smoke exhaust ports to be opened is determined according to the smoke emission amount, the smoke exhaust port structure and the smoke generation amount.

9. The method according to claim 7, characterized in that: The dynamically adjusting the moxibustion state according to the adjustment parameters includes: According to the moxibustion scheme, determine the duration of acupoint moxibustion; Determining the frequency of acupoint adjustment according to the duration of moxibustion on the acupoint; Determining the floating frequency according to the appropriate body temperature of the moxibustion acupoint and the optimal adjustment height; The moxibustion state is adjusted according to the floating frequency and the acupoint adjustment frequency.

10. An intelligent moxibustion control system, characterized in that: include: A data analysis module, used to obtain moxibustion data, analyze the moxibustion data, and determine the moxibustion conditions at the current moment; An information analysis module, used to obtain real-time scanning information from a laser scanner, analyze the real-time scanning information, and determine the skin condition of the moxibustion area; A sensitivity analysis module, used to analyze the skin condition and determine the skin sensitivity level; The state adjustment module is used to determine the adjustment parameters according to the skin sensitivity level and dynamically adjust the moxibustion state according to the adjustment parameters.

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