Intelligent atomizer system and monitoring method

Abstract

The present invention discloses an intelligent atomizer system and a monitoring and using method, and relates to the technical field of medical devices. The intelligent atomizer monitoring and using method obtains environmental status data in a set area in real time, performs real-time analysis, obtains the environmental comfort index, air quality index, air flow index, and surface thermal effect index in the set area, and performs comprehensive analysis to obtain the environmental response index in the set area, and performs judgment analysis with the preset environmental response interval. When the environmental response index in the set area is outside the preset environmental response interval, the intelligent atomizer is operated, and the atomization intensity value of the intelligent atomizer is synchronously analyzed. The present invention calculates the environmental comfort index, air quality index, air flow index, and surface thermal effect index according to real-time data, thereby more comprehensively and accurately reflecting the environmental changes in the set area, thereby ensuring that the atomizer responds in time, and then ensuring the improvement of air quality.

Description

Technical Field

[0001] The present invention relates to the technical field of medical devices, and in particular to an intelligent atomizer system and a monitoring and using method thereof. Background Art

[0002] As people's requirements for indoor air quality continue to increase, smart home devices have gradually entered people's daily lives. As a common device for improving air quality and regulating air humidity, smart atomizers have been widely used in home, office, medical and other fields. They mainly use atomization technology to convert moisture or other substances into fine particles, regulate air humidity, thereby improving air quality and providing a more comfortable living and working environment. However, existing smart atomizers usually use simple timing or manual control methods, which make it difficult to adaptively adjust the working state according to real-time changes in the environment.

[0003] Prior art, such as the invention patent application with announcement number: CN105999485B, discloses an intelligent nebulizer system and its monitoring and use method, which is characterized by: the intelligent nebulizer system includes an intelligent nebulizer and a server, the intelligent nebulizer includes an nebulization behavior detection module, a nebulizer optimization control module, a user behavior guidance / correction module, a first module of gamification / entertainment nebulization treatment, a server connection module, and a first module of nebulization treatment record storage and analysis; the server includes a social function module, an interactive function module, a second module of gamification / entertainment nebulization treatment, and a second module of nebulization treatment record storage and analysis. The intelligent nebulizer has its own or external user interface device, the server is wirelessly connected to the intelligent nebulizer through the network, the external user interface device is wirelessly connected to the intelligent nebulizer, and the opening and closing of the nozzle is controlled by the user interface device or the server. Intelligent detection, control, guidance and recording can be realized, and the compliance and participation of nebulizer users, especially children, in nebulization treatment can be improved, and nebulization treatment can be standardized.

[0004] Based on the above scheme, it is found that the limitations of the existing technology include at least the following problems. The limitation of the existing technology is that the monitoring method of the intelligent atomizer usually only relies on a single or a few environmental parameters, such as temperature and humidity for control, and fails to comprehensively analyze multiple environmental parameters in real time. The design defect is that different factors in the environment are often interrelated and influence each other. For example, changes in air quality may affect the air flow pattern, and changes in temperature and humidity will also affect the air flow. The impact of these factors on comfort is complex. If only one of the parameters is relied on to control the atomizer, it is difficult to accurately capture the real changes in the environment, which will easily cause the atomizer to respond slowly to environmental changes and lack accuracy. Summary of the invention

[0005] In view of the shortcomings of the prior art, the present invention provides an intelligent atomizer system and a monitoring method, which solves the problem that the prior art fails to comprehensively consider the real-time changes of multiple environmental parameters, which easily leads to the difficulty of the intelligent atomizer to accurately respond to complex environmental changes.

[0006] To achieve the above objectives, the present invention is implemented through the following technical solutions: a method for monitoring and using an intelligent atomizer, comprising the following steps: real-time acquisition of environmental status data in a set area, and real-time analysis to obtain an environmental comfort index, air quality index, air flow index, and surface thermal effect index in the set area; comprehensive analysis of the environmental comfort index, air quality index, air flow index, and surface thermal effect index in the set area to obtain an environmental response index in the set area; judging and analyzing the environmental response index in the set area and a preset environmental response interval, and when the environmental response index in the set area is outside the preset environmental response interval, running the intelligent atomizer, and synchronously analyzing the atomization intensity value of the intelligent atomizer until the environmental response index in the set area is within the preset environmental response interval; wherein the specific formula for calculating the environmental response index in the set area is as follows: ;in, To set the environmental response index in the area, To set the environmental comfort index in the area, is the comfort adjustment coefficient stored in the database, To set the air quality index in the area, is the air quality adjustment coefficient stored in the database, To set the air flow index in the area, is the air flow adjustment coefficient stored in the database, is the surface thermal effect index in the set area, It is the thermal effect adjustment coefficient stored in the database.

[0007] Furthermore, the environmental status data includes regional temperature value, regional humidity value, regional light intensity value, particulate matter concentration value, carbon dioxide concentration value, air ion concentration value, air flow rate value, and atomizer surface temperature value.

[0008] Furthermore, the specific steps for obtaining the environmental comfort index in the set area are as follows: obtain the environmental comfort parameter set in the set area, the environmental comfort parameter set including the regional temperature parameter value, the regional temperature maximum allowable deviation value, the regional humidity parameter value, the regional humidity maximum allowable deviation value, and the regional light intensity maximum parameter value; read the regional temperature value, regional humidity value, and regional light intensity value in the set area, and perform comprehensive analysis in combination with the environmental comfort parameter set in the set area to obtain the environmental comfort index in the set area.

[0009] Furthermore, the specific formula for calculating the environmental comfort index in the set area is as follows: ;in, To set the environmental comfort index in the area, is the regional temperature value in the set area, is the regional temperature parameter value in the set area, is the maximum allowable deviation of the regional temperature in the set area, is the temperature adjustment coefficient stored in the database, is the temperature correction coefficient stored in the database, To set the regional humidity value in the area, It is the regional humidity parameter value in the set area. The maximum allowable deviation value of regional humidity in the set area, is the humidity adjustment coefficient stored in the database, is the humidity correction factor stored in the database, To set the regional light intensity value in the area, It is the maximum parameter value of the regional illumination intensity in the set area. is the light intensity adjustment coefficient stored in the database, It is the light intensity correction factor stored in the database.

[0010] Furthermore, the specific steps for obtaining the air quality index in the set area are as follows: obtain the maximum parameter value of the air ion concentration in the set area; read the particulate matter concentration value, carbon dioxide concentration value, and air ion concentration value in the set area, and perform a comprehensive analysis in combination with the maximum parameter value of the air ion concentration in the set area to obtain the air quality index in the set area.

[0011] Furthermore, the specific steps for obtaining the air flow index in the set area are as follows: obtain the air flow parameter set, air pressure value, and maximum air pressure parameter value in the set area, wherein the air flow parameter set includes an air flow velocity parameter value and a maximum allowable deviation value of the air flow velocity; read the air flow velocity value in the set area, and perform a comprehensive analysis in combination with the air flow parameter set, air pressure value, and maximum air pressure parameter value in the set area to obtain the air flow index in the set area.

[0012] Furthermore, the specific formula for calculating the air flow index in the set area is as follows: ;in, To set the air flow index in the area, is the air velocity value in the set area, is the air velocity parameter value in the set area, is the maximum allowable deviation of air velocity in the set area. is the air velocity adjustment coefficient stored in the database, is the air pressure value in the set area, is the maximum parameter value of air pressure in the set area. Air pressure adjustment factors stored in the database.

[0013] Furthermore, the specific steps for obtaining the surface thermal effect index in the set area are as follows: obtaining the surface thermal effect parameter set, the heat source power value, and the maximum heat source power parameter value in the set area, wherein the surface thermal effect parameter set includes the atomizer surface temperature parameter value and the maximum allowable deviation value of the atomizer surface temperature; reading the atomizer surface temperature value in the set area, and performing a comprehensive analysis in combination with the surface thermal effect parameter set, the heat source power value, and the maximum heat source power parameter value in the set area to obtain the surface thermal effect index in the set area.

[0014] Furthermore, the specific steps of analyzing the atomization intensity value of the intelligent atomizer are as follows: based on the environmental response index in the set area, the atomization intensity value of the intelligent atomizer is analyzed, and the calculation formula is as follows: ;in, is the atomization intensity value of the smart atomizer, To set the environmental response index in the area, is the environmental response influence coefficient stored in the database, It is the atomization intensity adjustment coefficient stored in the database.

[0015] A smart atomizer system comprises: a real-time data acquisition module, an environmental analysis module, a response analysis module, and an operation judgment module; the real-time data acquisition module is used to acquire environmental status data in a set area in real time; the environmental analysis module is used to perform real-time analysis on the environmental status data in the set area to obtain an environmental comfort index, an air quality index, an air flow index, and a surface thermal effect index in the set area; the response analysis module is used to perform a comprehensive analysis on the environmental comfort index, the air quality index, the air flow index, and the surface thermal effect index in the set area to obtain an environmental response index in the set area; the operation judgment module is used to perform a judgment analysis on the environmental response index in the set area and a preset environmental response interval, and when the environmental response index in the set area is outside the preset environmental response interval, the smart atomizer is operated, and the atomization intensity value of the smart atomizer is synchronously analyzed until the environmental response index in the set area is within the preset environmental response interval.

[0016] The present invention has the following beneficial effects:

[0017] (1) The method for monitoring and using the intelligent atomizer comprehensively considers multiple environmental parameters, such as temperature and humidity, air flow rate, particle concentration, etc., and calculates the environmental comfort index, air quality index, air flow index and surface thermal effect index based on real-time data, so as to more comprehensively and accurately reflect the environmental changes in the set area. Different from the single or a few parameter control methods in the prior art, the present method can evaluate the multi-dimensional environmental status in real time and dynamically, avoiding the environmental control lag or error caused by ignoring a certain environmental factor. For example, when the indoor temperature and humidity are moderate but the air quality is poor, the traditional method is easy to be difficult to start the atomizer in time, while the present method can integrate the air quality index and other environmental data to ensure that the atomizer responds in time, thereby ensuring the improvement of air quality. This multi-parameter comprehensive analysis can improve the response accuracy of the intelligent atomizer, ensure the accuracy of environmental control, and avoid the discomfort and unsatisfactory effect that may be caused by a single control mode.

[0018] (2) The intelligent atomizer monitoring and use method introduces an environmental response index and combines it with real-time data analysis to automatically adjust the atomization intensity of the atomizer to keep it in an optimal working state. This means that the atomizer is only started when needed and dynamically adjusts the atomization intensity according to the environmental response index of the set area, thereby avoiding the problem of excessive operation of the atomizer. Traditional methods often start the atomizer based on a simple set threshold, which is easy to cause unnecessary waste. For example, when the environment is relatively comfortable, the atomizer will continue to work, causing unnecessary waste of energy. This method can ensure that the atomizer will no longer operate when there is no need to improve the air quality, thereby saving energy. This optimization process can not only extend the service life of the equipment, but also reduce the energy cost in long-term use.

[0019] (3) The monitoring and use method of the intelligent atomizer can more accurately judge the comfort state of the indoor environment by combining comprehensive analysis of multiple dimensions such as environmental comfort index, air quality index, air flow index and surface thermal effect index. When these indexes exceed the preset range, the intelligent atomizer can automatically start and adjust to the appropriate atomization intensity to improve the air quality and achieve the ideal comfort state. For example, if the indoor air flow is insufficient, resulting in temperature and humidity imbalance or poor air quality, the atomizer will be started and the atomization intensity will be automatically adjusted to help the air flow more evenly and reduce the discomfort caused by dryness or humidity. In addition, the use of a comprehensive analysis method also avoids the practice of over-reliance on a single environmental factor in traditional methods, thereby ensuring that the comfort of the air does not only depend on a single environmental parameter. This comprehensive control not only optimizes the air quality, but also effectively avoids user discomfort caused by environmental imbalance.

[0020] (4) The intelligent atomizer system can dynamically adjust the operating status of the atomizer by acquiring and analyzing the environmental status data in the set area in real time, thereby ensuring that the optimal air quality adjustment can be provided at any time. The real-time data acquisition module enables the system to continuously monitor environmental parameters. The environmental analysis module comprehensively evaluates the current environmental status by calculating multiple indicators such as the environmental comfort index, air quality index, air flow index and surface thermal effect index. The response analysis module comprehensively analyzes these indicators to obtain the environmental response index to ensure that the system responds accurately to environmental changes. When the environmental response index exceeds the preset range, the operation judgment module will automatically start the atomizer and adjust the atomization intensity until the environment returns to the ideal state. This intelligent and dynamic control method can effectively avoid excessive or insufficient atomization operations, reduce energy waste, and improve air quality and indoor comfort.

[0021] Of course, any product implementing the present invention does not necessarily need to achieve all of the advantages described above at the same time. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 The present invention is a flow chart of a method for monitoring and using an intelligent atomizer.

[0023] Figure 2 The present invention is a flowchart of the specific steps of obtaining the air quality index in a set area in a method for monitoring and using an intelligent atomizer.

[0024] Figure 3 The following is a block diagram of an intelligent atomizer system of the present invention. DETAILED DESCRIPTION

[0025] The overall idea of ​​the problem in the embodiment of this application is as follows:

[0026] First, the system obtains the environmental status data in the set area in real time, including parameters such as temperature, humidity, light intensity, particulate matter concentration, carbon dioxide concentration, air flow rate, etc. After comprehensive analysis of these data, multiple environmental indexes are calculated, including environmental comfort index, air quality index, air flow index and surface thermal effect index. Next, the system conducts a comprehensive analysis of these environmental indexes to calculate an environmental response index, which is used to measure the overall comfort and air quality of the current environment, and compares and judges with the preset environmental response range. When the environmental response index exceeds the preset range, the smart atomizer automatically starts and adjusts the atomization intensity until the environmental response index returns to the preset range. The adjustment of the atomization intensity will be optimized according to the environmental response index and the corresponding influence coefficient to ensure the best air quality and comfort.

[0027] See also Figure 1The embodiment of the present invention provides a technical solution: a method for monitoring and using an intelligent atomizer, comprising the following steps: acquiring environmental status data in a set area in real time, and performing real-time analysis to obtain an environmental comfort index, an air quality index, an air flow index, and a surface thermal effect index in the set area; performing a comprehensive analysis on the environmental comfort index, the air quality index, the air flow index, and the surface thermal effect index in the set area to obtain an environmental response index in the set area; performing a judgment and analysis on the environmental response index in the set area and a preset environmental response interval, and when the environmental response index in the set area is outside the preset environmental response interval, running the intelligent atomizer, and synchronously analyzing the atomization intensity value of the intelligent atomizer (referring to the amount and speed of mist released by the atomizer) until the environmental response index in the set area is within the preset environmental response interval.

[0028] The specific formula for calculating the environmental response index in the set area is as follows: ;in, To set the environmental response index in the area, To set the environmental comfort index in the area, is the comfort adjustment coefficient stored in the database, To set the air quality index in the area, is the air quality adjustment coefficient stored in the database, To set the air flow index in the area, is the air flow adjustment coefficient stored in the database, is the surface thermal effect index in the set area, It is the thermal effect adjustment coefficient stored in the database.

[0029] It needs to be explained that , , , The specific steps for obtaining are: Environmental comfort adjustment coefficient It is usually calculated based on the deviation between the real-time data of temperature, humidity and light intensity in the area and the preset standard values. The acquisition steps include measuring the temperature, humidity and light intensity in the area, comparing the difference between these data and the comfort reference standard, and adjusting according to the size of the difference; air quality adjustment coefficient Based on the real-time measurement of particulate matter concentration (such as PM2.5 concentration), carbon dioxide concentration and air ion concentration, the acquisition step includes reading the values ​​of these air quality parameters, combining the set maximum allowable deviation and the preset standard value, and adjusting the air quality control strategy; air flow adjustment coefficient The acquisition involves the measurement of air velocity and pressure in the area. By calculating the deviation between the air velocity value of the set area and the set velocity, combined with the change in air pressure, the corresponding adjustment coefficient is obtained, which can help ensure that the air flow meets the required environmental standards and avoid air stagnation or excessive flow; surface thermal effect adjustment coefficient The acquisition depends on the real-time monitoring of the atomizer surface temperature and the heat source power. The acquisition steps include measuring the atomizer surface temperature, comparing it with the preset temperature range and heat source power standard, calculating the deviation value, and adjusting the adjustment coefficient accordingly.

[0030] Among them, the specific implementation example of calculating the environmental response index in the set area is as follows, and the following data is available:

[0031] The environmental comfort index in the set area is approximately: 1.221, which indicates the environmental comfort.

[0032] The air quality index in the set area is approximately: 1.336, indicating that the air quality in the area is good.

[0033] The air flow index in the set area is approximately: 1.119, indicating that the air flow in the area is good.

[0034] The surface thermal effect index in the set area is approximately: 1.421, indicating that the surface thermal effect is strong.

[0035] The comfort adjustment coefficient stored in the database is approximately: 0.395.

[0036] The air quality adjustment factor stored in the database is approximately: 0.257.

[0037] The air flow adjustment coefficient stored in the database is approximately: 0.318.

[0038] The thermal effect adjustment coefficient stored in the database is approximately: 0.272.

[0039] Substituting the above data into the specific formula for calculating the environmental response index in the set area, we get:

[0040] Environmental response index in the set area = (1.221) 0.395 * (1.336) 0.257 * (1.119) 0.318 * (1.421) 0.272 ≈1.089*1.085*1.037*1.087≈1.261.

[0041] The environmental status data includes regional temperature value, regional humidity value, regional light intensity value, particulate matter concentration value (PM2.5 concentration in this embodiment), carbon dioxide concentration value, air ion concentration value, air flow rate value, and atomizer surface temperature value.

[0042] Among them, the regional temperature value is used to reflect the temperature level in the set area. Temperature is an important factor affecting air comfort. Too high or too low temperature may cause discomfort. This value helps to assess the warmth or coldness of the air and can be used as a basis for adjusting the atomization intensity or other environmental control measures.

[0043] The regional humidity value is used to measure the moisture content in the air. Too high humidity will cause damp air, which may cause discomfort or mold growth; too low humidity may cause dry air, affecting breathing and skin health. This value is used to ensure that the indoor humidity is within the appropriate range to improve comfort.

[0044] The regional light intensity value is used to reflect the light intensity in the set area. Light intensity affects visual comfort, work efficiency and biological rhythm. Too strong or too weak light may affect people's work and rest. Therefore, this value helps to monitor and adjust the lighting conditions in the environment to maintain a comfortable visual environment.

[0045] The particle concentration value, especially the PM2.5 concentration, is used to reflect the degree of fine particle pollution in the air. When the PM2.5 concentration is too high, it will affect respiratory health and increase the risk of cardiovascular disease. By monitoring the particle concentration in real time, the nebulizer or air purification system can be activated in time to reduce air pollution and improve air quality.

[0046] The carbon dioxide concentration value is used to reflect the carbon dioxide content in the air. High concentrations of carbon dioxide can lead to poor air quality, affect the comfort and attention of indoor personnel, and even cause harm to health. Monitoring this value helps ensure good ventilation and avoid carbon dioxide accumulation, thereby improving air quality.

[0047] The air ion concentration value is used to reflect the content of negative ions in the air. Negative ions are believed to have a positive effect on air purification and improving human health. They can help remove suspended particles, bacteria and viruses in the air and improve air freshness. Monitoring this value can help adjust the operation of the atomizer to maintain a high level of air freshness and comfort.

[0048] The air velocity value is used to reflect the speed of air flow in a set area. Appropriate air flow helps to evenly distribute temperature, humidity and pollutant concentration and avoid air stagnation. Too low air velocity may cause air stagnation and affect comfort; too high air velocity may cause discomfort. By controlling the air velocity, the indoor environment can be kept uniform and comfortable.

[0049] The atomizer surface temperature value is used to reflect the surface temperature of the atomizer itself. The temperature of the atomizer directly affects the atomization effect. If the atomizer surface temperature is too high, it may cause unnecessary energy waste or affect the atomization efficiency; if it is too low, it may lead to poor atomization effect and fail to effectively improve the air quality. This value helps to monitor the working status of the atomizer and ensure that it runs at the optimal temperature, thereby improving efficiency and extending service life.

[0050] Specifically, the specific steps to obtain the environmental comfort index in the set area are as follows: obtain the environmental comfort parameter set in the set area, the environmental comfort parameter set includes the regional temperature parameter value, the regional temperature maximum allowable deviation value, the regional humidity parameter value, the regional humidity maximum allowable deviation value, and the regional light intensity maximum parameter value; read the regional temperature value, regional humidity value, and regional light intensity value in the set area, and perform comprehensive analysis in combination with the environmental comfort parameter set in the set area to obtain the environmental comfort index in the set area.

[0051] The specific formula for calculating the environmental comfort index in the set area is as follows: ;in, To set the environmental comfort index in the area, is the regional temperature value in the set area, is the regional temperature parameter value in the set area, is the maximum allowable deviation of the regional temperature in the set area, is the temperature adjustment coefficient stored in the database, is the temperature correction coefficient stored in the database, To set the regional humidity value in the area, It is the regional humidity parameter value in the set area. The maximum allowable deviation value of regional humidity in the set area, is the humidity adjustment coefficient stored in the database, is the humidity correction factor stored in the database, To set the regional light intensity value in the area, It is the maximum parameter value of the regional illumination intensity in the set area. is the light intensity adjustment coefficient stored in the database, It is the light intensity correction factor stored in the database.

[0052] It needs to be explained that , , The specific acquisition steps are as follows: the temperature adjustment coefficient is used to adjust according to the ambient temperature of the set area, and its value is obtained through the temperature adjustment system stored in the database. The specific steps are to query the temperature adjustment coefficient value related to the set area from the database, and the value reflects the responsiveness of the area to temperature changes; the humidity adjustment coefficient is used to adjust the humidity influencing factors, and the acquisition steps are to read the humidity adjustment system parameters stored in the area from the database, which indicates the adjustment responsiveness of the humidity in the area; the light intensity adjustment coefficient affects the adjustment effect of the light intensity on the regional environment, and the acquisition steps are to query the light intensity adjustment system parameters of the set area from the database, which indicates the responsiveness of the light intensity adjustment in the area.

[0053] , , The specific acquisition steps are as follows: the temperature correction coefficient is used to correct the regional temperature value. The acquisition step is to correct the regional temperature through the temperature correction system stored in the database. The specific steps are to find the temperature correction coefficient value corresponding to the region in the database. This coefficient is dynamically adjusted according to the calibration data of the database; it is used to correct the influence of humidity. By finding the humidity correction coefficient related to the region from the database, the humidity is corrected to ensure a more accurate humidity adjustment effect; the light intensity correction coefficient is used to correct the light intensity value. The acquisition step of this coefficient is to query the coefficient related to the light correction in the database and correct it according to the correction rule of the light intensity in the regional environment.

[0054] In this implementation scheme, by defining the environmental comfort parameter set (such as the parameter values ​​and maximum allowable deviations of temperature, humidity and light intensity), the system can tailor the comfort requirements of each area according to the actual situation of the set area. Unlike the traditional method that uses fixed standards, this method allows dynamic adjustment according to the actual usage needs and conditions of different areas. For example, different areas may require different temperature, humidity or light intensity standards. By combining multiple parameters such as temperature, humidity and light intensity with their maximum allowable deviations for comprehensive analysis, the comprehensive impact of these environmental factors on comfort can be reflected in real time. For example, the comparison between the regional temperature value and the temperature parameter value, the comparison between humidity and the humidity parameter value, and the comparison between light intensity and the light intensity parameter value can all accurately quantify the degree of deviation of the environment. Combined with the adjustment coefficient and Correction coefficient, the system can make dynamic corrections for different environmental conditions to ensure that the environment remains in the most suitable comfortable state. This meticulous processing can effectively prevent deviations from single factors such as temperature, humidity or light from affecting the overall comfort. By using the adjustment coefficient and correction coefficient stored in the database, the system can automatically adjust the environmental comfort index dynamically based on real-time readings of regional temperature, humidity, light intensity and other parameters. This method reduces manual intervention and operational complexity, making the environmental adjustment process more intelligent and automated. For example, when the regional temperature slightly exceeds the set range, the system can not only accurately identify temperature fluctuations, but also automatically adjust the temperature adjustment coefficient to quickly restore the comfortable state without manual adjustment. This automated process greatly improves the response speed and efficiency of the system, while reducing the burden on maintenance personnel.

[0055] Specifically, Figure 2 As shown, the specific steps for obtaining the air quality index in the set area are as follows: obtain the maximum parameter value of the air ion concentration in the set area; read the particle concentration value, carbon dioxide concentration value, and air ion concentration value in the set area, and perform a comprehensive analysis in combination with the maximum parameter value of the air ion concentration in the set area to obtain the air quality index in the set area.

[0056] The specific formula for calculating the air quality index in a set area is as follows: ;in, To set the air quality index in the area, is the particle concentration value in the set area, is the particle concentration adjustment factor stored in the database, and in this embodiment, the value is 50. is the particle concentration adjustment coefficient stored in the database, To set the carbon dioxide concentration value in the area, is the carbon dioxide concentration adjustment factor stored in the database, and in this embodiment, the value is 500. is the carbon dioxide concentration adjustment coefficient stored in the database, is the air ion concentration value in the set area, is the maximum parameter value of air ion concentration in the set area. It is the air ion concentration adjustment coefficient stored in the database.

[0057] It needs to be explained that , , The specific acquisition steps are as follows: the particle matter concentration adjustment coefficient is used to adjust the particle matter concentration value in the set area, and the acquisition step is to query the parameter value stored in the particle matter concentration adjustment system in the set area from the database. Specifically, the queried value reflects the responsiveness of the regional environment to the change in particle matter concentration, and is dynamically adjusted through the corresponding database storage system; the carbon dioxide concentration adjustment coefficient is used to make corrections according to the change in carbon dioxide concentration in the area, and the acquisition step is to query the coefficient value stored in the carbon dioxide concentration adjustment system related to the set area from the database, indicating the adjustment responsiveness of the area to the change in carbon dioxide concentration; the air ion concentration adjustment coefficient is used to adjust the ion concentration value in the air to adapt to environmental requirements. The acquisition step of the coefficient is to search the database for the relevant coefficient value stored in the air ion concentration adjustment system in the set area, indicating the response and adjustment ability of the regional environment to the change in air ion concentration.

[0058] In this implementation, multiple key parameters such as particulate matter concentration, carbon dioxide concentration and air ion concentration are combined to conduct a comprehensive air quality analysis. Unlike the traditional method of relying on a single parameter (such as particulate matter concentration or carbon dioxide concentration) to evaluate air quality, a comprehensive analysis of multiple factors can more accurately reflect the air quality of the set area. For example, although particulate matter and carbon dioxide concentrations in the air are often related, the impact of air ion concentration on the air purification effect cannot be ignored. Relying on a single parameter alone can easily lead to misjudgment. This method ensures more accurate air quality judgment through multi-parameter comprehensive analysis. Each parameter (particle matter concentration, carbon dioxide concentration and air ion concentration) is combined with a corresponding adjustment factor and maximum parameter value, so that the system can be dynamically adjusted according to real-time data, and the adjustment factor and correction factor (such as particle concentration adjustment factor, carbon dioxide concentration adjustment factor, etc.) can be adapted according to actual changes in the environment. To ensure real-time optimization of air quality, for example, when the concentration of particulate matter is high, the system will automatically adjust the adjustment factor to enhance the air purification ability; when the concentration of carbon dioxide is high, the system can enhance air circulation or adjust the atomization intensity to avoid pollution accumulation. Such dynamic adjustment can adapt to the actual needs of different environments and ensure that the indoor air quality always remains in a healthy range. By combining the air ion concentration with other environmental data, the level of negative ions in the air can be effectively evaluated, which plays an important role in improving air freshness and comfort. For example, negative ions help purify the air and improve people's breathing comfort, while traditional methods usually ignore this parameter. Combined with the maximum parameter value of air ion concentration, it can ensure effective regulation of air freshness and improve the overall environmental comfort. Furthermore, through the adjustment factors stored in the database, the changes in air quality can be accurately controlled to avoid excessive or insufficient adjustment and ensure a comfortable indoor air environment.

[0059] Specifically, the specific steps for obtaining the air flow index in the set area are as follows: obtain the air flow parameter set, air pressure value, and maximum air pressure parameter value in the set area, the air flow parameter set including the air flow velocity parameter value and the maximum allowable deviation value of the air flow velocity; read the air flow velocity value in the set area, and perform a comprehensive analysis in combination with the air flow parameter set, air pressure value, and maximum air pressure parameter value in the set area to obtain the air flow index in the set area.

[0060] The specific formula for calculating the air flow index within a set area is as follows: ;in, To set the air flow index in the area, is the air velocity value in the set area, is the air velocity parameter value in the set area, is the maximum allowable deviation of air velocity in the set area. is the air velocity adjustment coefficient stored in the database, is the air pressure value in the set area, is the maximum parameter value of air pressure in the set area. Air pressure adjustment factors stored in the database.

[0061] What needs to be explained is that, The specific acquisition steps are as follows: the air flow rate adjustment coefficient is used to adjust the response of the air flow rate in the set area to the environment. The acquisition step is to query the parameter value stored in the air flow rate adjustment system related to the set area from the database to ensure that it can accurately reflect the adjustment ability of the change of air flow rate in the environment of the area to other environmental factors (such as temperature, humidity, etc.); the air pressure adjustment coefficient is used to adjust the impact of air pressure on the environment in the set area. The acquisition step is to search the adjustment system parameters related to the air pressure in the area from the database. The specific steps are to query the maximum deviation value of the air pressure in the environment of the area, and adjust the pressure according to the pressure adjustment system coefficient in the database.

[0062] In this implementation, by introducing air flow rate, air pressure and their respective parameter values ​​and maximum allowable deviations, the changes in air flow can be analyzed in all directions. Unlike the traditional approach of only considering air flow rate or pressure, this method simultaneously integrates the two key parameters of air flow rate and air pressure, and can more accurately simulate and judge the air flow state. Air flow not only depends on flow rate, but also is affected by pressure. Especially in closed or semi-closed spaces, the impact of pressure changes on air flow is particularly significant. By comprehensively analyzing air flow rate and pressure, it is ensured that the air flow index can truly reflect the air flow conditions in the set area, thereby improving the accuracy and reliability of air conditioning. By combining the adjustment coefficients of air flow rate and air pressure, the system can automatically adjust the air flow index according to real-time monitoring data, which enables the system to flexibly respond to changes in different environmental conditions and ensure that the best air can be achieved at any time. Flow, for example, when the air flow rate deviates or the air pressure changes, the system can dynamically adjust the adjustment coefficient, optimize the air flow, and avoid inappropriate air circulation conditions. During the operation of the air conditioning or ventilation system, the regulation of air flow is particularly important. Accurate control of air flow can effectively improve air quality and avoid air stagnation. Air flow is a key factor in maintaining a comfortable and healthy environment. Poor air flow can easily lead to air stagnation, causing problems such as uneven indoor temperature and humidity, accumulation of air pollutants, etc. By introducing the air flow index and the adjustment mechanism related to air flow, it can effectively ensure that the air flow in the set area is at a healthy and comfortable level, avoiding discomfort or health problems caused by poor air circulation. For example, when the air flow rate is low, it is easy to cause uneven indoor temperature and humidity, or pollutants are difficult to diffuse. This method can accurately optimize the air flow state by adjusting the air flow rate and pressure.

[0063] Specifically, the specific steps for obtaining the surface thermal effect index in the set area are as follows: obtain the surface thermal effect parameter set, heat source power value, and maximum heat source power parameter value in the set area, the surface thermal effect parameter set including the atomizer surface temperature parameter value and the atomizer surface temperature maximum allowable deviation value; read the atomizer surface temperature value in the set area, and perform a comprehensive analysis in combination with the surface thermal effect parameter set, heat source power value, and maximum heat source power parameter value in the set area to obtain the surface thermal effect index in the set area.

[0064] The specific formula for calculating the surface thermal effect index in the set area is as follows: ;in, is the surface thermal effect index in the set area, is the atomizer surface temperature value in the set area, is the atomizer surface temperature parameter value in the set area, is the maximum allowable deviation of the atomizer surface temperature in the set area. is the heat source power value in the set area, is the maximum parameter value of the heat source power in the set area, is the heat source power adjustment coefficient stored in the database, is the surface temperature adjustment coefficient stored in the database, It is the surface temperature influence coefficient stored in the database.

[0065] It needs to be explained that , The specific acquisition steps are as follows: the surface thermal effect adjustment coefficient is used to adjust the response of the surface thermal effect of the set area, and the acquisition step is to query the heat source power adjustment coefficient value stored in the heat source power adjustment system related to the set area from the database. The function of this coefficient is to reflect the adjustment effect of the surface temperature change on the thermal effect by finding the relevant data in the environment of the area; the surface temperature adjustment coefficient is used to adjust the impact of the surface temperature on the environment, and the acquisition step is to find the coefficient value stored in the surface temperature adjustment system of the area from the database to ensure that it can accurately reflect the effect of the change of the regional surface temperature on the environment.

[0066] The specific acquisition steps are as follows: The surface temperature influence coefficient is used to adjust the influence of the surface temperature in the environment on the system. The acquisition step is to query the surface temperature adjustment system parameters related to the set area from the database. This coefficient represents the direct influence of the change of surface temperature on the environmental thermal effect, and is dynamically adjusted through the adjustment data in the database.

[0067] In this implementation scheme, by combining multiple key factors such as surface temperature and heat source power, the impact of thermal effects on the environment can be fully reflected. Traditional methods often ignore the potential impact of heat source power on the environment, while this method ensures a comprehensive evaluation of the surface thermal effect by dynamically analyzing the changes in heat source power and atomizer surface temperature. In particular, when the heat source power and atomizer surface temperature are high, it is easy to have an adverse effect on the surrounding environment (such as uneven temperature, overheating, etc.), and through the calculation of the surface thermal effect index, these problems can be accurately identified and adjusted in time. The system can automatically adjust the working state of the atomizer according to real-time data by comprehensively considering adjustment parameters such as surface temperature adjustment coefficient and heat source power adjustment coefficient to ensure that the thermal effect is always at the optimal level. When the surface temperature or heat source power exceeds the preset range, When the environment is cold, the system will quickly adjust the parameters to avoid excessive or low thermal effects. Such intelligent adjustment not only optimizes the indoor temperature distribution and reduces the discomfort caused by overheating or uneven cooling, but also maintains a good comfort level under different environmental conditions and ensures the balance of air quality and indoor temperature and humidity. By introducing the adjustment of parameters such as heat source power and surface temperature, this method can adjust the heat source output according to the actual needs of the environment and avoid excessive energy consumption. In some cases, too much heat is easily wasted in unnecessary places. Through precise calculation of the thermal effect index, the system can avoid such waste and optimize heat distribution and energy use. For example, when the ambient temperature is high, the system will automatically reduce the heat source power output to avoid unnecessary heat accumulation, which not only saves energy but also extends the service life of the equipment.

[0068] Specifically, the specific steps for analyzing the atomization intensity value of the intelligent atomizer are as follows: Based on the environmental response index in the set area, the atomization intensity value of the intelligent atomizer is analyzed, and the calculation formula is as follows: ;in, is the atomization intensity value of the smart atomizer, To set the environmental response index in the area, is the environmental response influence coefficient stored in the database, It is the atomization intensity adjustment coefficient stored in the database.

[0069] It needs to be explained that The specific acquisition steps are as follows: The environmental response influence coefficient is used to adjust the response of the set area environment to the smart atomizer. The acquisition step is to query the coefficient value stored in the environmental response adjustment system related to the set area from the database. The coefficient reflects the impact of the environmental conditions (such as temperature, humidity, etc.) in the area on the adjustment intensity of the smart atomizer. By querying the changes in environmental conditions in the database, the corresponding response coefficient is obtained.

[0070] The specific acquisition steps are as follows: the atomization intensity adjustment coefficient is used to adjust the working intensity of the atomizer. The acquisition step is to find the coefficient value of the adjustment system related to the atomizer in the area from the database, which represents the working intensity required for the atomizer in the area environment. The coefficient is dynamically adjusted by the atomizer adjustment system stored in the database to ensure that the atomizer can adapt to different environmental changes.

[0071] In this embodiment, the atomization intensity is analyzed based on the environmental response index of the set area, so that the working state of the atomizer can be more accurately matched with the environmental requirements. The environmental response index is a comprehensive reflection of various environmental factors (such as air quality, temperature and humidity, air flow, etc.), which can reflect the current environmental status in real time. When the environmental response index changes, the atomization intensity of the atomizer is also adjusted accordingly to ensure that the output of the atomizer matches the actual needs of the environment, thereby effectively improving the air quality and comfort, and avoiding the problem of delayed response to the environment in traditional methods. Through the dynamic calculation of the environmental response influence coefficient and the atomization intensity adjustment coefficient, the system can automatically adjust the atomization intensity according to the real-time environmental changes. For example, when the environmental response index is low, it means that the air quality is good or the humidity is more suitable, and the system will automatically reduce the atomization intensity. to avoid wasting energy; when the environmental response index is high, it means that the air quality is poor or the humidity is not suitable. The system will increase the atomization intensity to improve the air quality more quickly. Such intelligent adjustment not only improves the energy utilization efficiency, but also ensures that the indoor air quality is always at a comfortable and healthy level. By dynamically adjusting the atomization intensity based on the environmental response index, the system can more flexibly adapt to different environmental conditions and user needs. For example, under high pollution or extreme weather conditions, the system can increase the atomization intensity and effectively improve the air quality; in a relatively comfortable environment, the atomization output is reduced to avoid excessive humidification or energy waste. This automatic adjustment can greatly enhance the user experience and avoid the tedious operations caused by manual adjustment. At the same time, it can also ensure that the system can provide the best air quality improvement effect under various environmental changes.

[0072] See also Figure 3The embodiment of the present invention provides a technical solution: an intelligent atomizer system, comprising: a real-time data acquisition module, an environmental analysis module, a response analysis module, and an operation judgment module; the real-time data acquisition module is used to acquire the environmental status data in a set area in real time; the environmental analysis module is used to perform real-time analysis on the environmental status data in the set area to obtain the environmental comfort index, air quality index, air flow index, and surface thermal effect index in the set area; the response analysis module is used to perform a comprehensive analysis on the environmental comfort index, air quality index, air flow index, and surface thermal effect index in the set area to obtain the environmental response index in the set area; the operation judgment module is used to judge and analyze the environmental response index in the set area with a preset environmental response interval, and when the environmental response index in the set area is outside the preset environmental response interval, the intelligent atomizer is operated, and the atomization intensity value of the intelligent atomizer is synchronously analyzed until the environmental response index in the set area is within the preset environmental response interval.

[0073] In summary, this application has at least the following effects:

[0074] By comprehensively considering multiple environmental parameters, such as temperature and humidity, air flow rate, particulate matter concentration, etc., and calculating the environmental comfort index, air quality index, air flow index and surface thermal effect index based on real-time data, the environmental changes in the set area can be more comprehensively and accurately reflected. Different from the single or a few parameter control methods in the prior art, this method can evaluate the multi-dimensional environmental status in real time and dynamically, avoiding environmental control lags or errors caused by ignoring a certain environmental factor. For example, when the indoor temperature and humidity are moderate but the air quality is poor, the traditional method is difficult to start the atomizer in time, while the present method can integrate the air quality index and other environmental data to ensure that the atomizer responds in time, thereby ensuring the improvement of air quality. This multi-parameter comprehensive analysis can improve the response accuracy of the intelligent atomizer, ensure the accuracy of environmental control, and avoid the discomfort and unsatisfactory effects that may be caused by a single control mode.

[0075] By introducing the environmental response index and combining it with real-time data analysis, the atomization intensity of the atomizer is automatically adjusted to keep it in an optimal working state. This means that the atomizer is only started when needed, and the atomization intensity is dynamically adjusted according to the environmental response index of the set area, thereby avoiding the problem of excessive operation of the atomizer. Traditional methods often start the atomizer based on a simple set threshold, which is easy to cause unnecessary waste. For example, when the environment is relatively comfortable, the atomizer will continue to work, causing unnecessary waste of energy. This method can ensure that the atomizer will no longer run when there is no need to improve the air quality, thereby saving energy. This optimization process can not only extend the service life of the equipment, but also reduce energy costs in long-term use.

[0076] By combining comprehensive analysis of multiple dimensions such as environmental comfort index, air quality index, air flow index and surface thermal effect index, the comfort state of the indoor environment can be judged more accurately. When these indexes exceed the preset range, the smart atomizer can automatically start and adjust to the appropriate atomization intensity to improve the air quality and achieve the ideal comfort state. For example, if the indoor air flow is insufficient, causing temperature and humidity imbalance or poor air quality, the atomizer will be started and the atomization intensity will be automatically adjusted to help the air flow more evenly and reduce the discomfort caused by dryness or humidity. In addition, the use of comprehensive analysis also avoids the traditional method of over-reliance on a single environmental factor, thereby ensuring that the comfort of the air does not only depend on a single environmental parameter. This comprehensive control not only optimizes the air quality, but also effectively avoids user discomfort caused by environmental imbalance.

[0077] By acquiring and analyzing the environmental status data in the set area in real time, the operating status of the atomizer can be dynamically adjusted to ensure that the optimal air quality adjustment can be provided at any time. The real-time data acquisition module enables the system to continuously monitor environmental parameters. The environmental analysis module comprehensively evaluates the current environmental status by calculating multiple indicators such as the environmental comfort index, air quality index, air flow index and surface thermal effect index. The response analysis module comprehensively analyzes these indicators to obtain the environmental response index to ensure that the system responds accurately to environmental changes. When the environmental response index exceeds the preset range, the operation judgment module will automatically start the atomizer and adjust the atomization intensity until the environment returns to the ideal state. This intelligent and dynamic control method can effectively avoid excessive or insufficient atomization operations, reduce energy waste, and improve air quality and indoor comfort.

[0078] Although the preferred embodiments of the present invention have been described, those skilled in the art may make other changes and modifications to these embodiments once they have learned the basic creative concept. Therefore, the appended claims are intended to be interpreted as including the preferred embodiments and all changes and modifications that fall within the scope of the present invention.

[0079] Obviously, those skilled in the art can make various changes and modifications to the present invention without departing from the spirit and scope of the present invention. Thus, if these modifications and variations of the present invention fall within the scope of the claims of the present invention and their equivalents, the present invention is also intended to include these modifications and variations.

Claims

1. A method for monitoring and using an intelligent atomizer, characterized in that: The following steps are involved: Acquire the environmental status data in the set area in real time, and perform real-time analysis to obtain the environmental comfort index, air quality index, air flow index, and surface thermal effect index in the set area; Comprehensively analyze the environmental comfort index, air quality index, air flow index, and surface thermal effect index in the set area to obtain the environmental response index in the set area; The environmental response index in the set area is judged and analyzed with the preset environmental response interval, and when the environmental response index in the set area is outside the preset environmental response interval, the intelligent atomizer is operated, and the atomization intensity value of the intelligent atomizer is simultaneously analyzed until the environmental response index in the set area is within the preset environmental response interval; The specific formula for calculating the environmental response index in the set area is as follows: ； in, , , , , They are the environmental response index, environmental comfort index, air quality index, air flow index, and surface thermal effect index in the set area. , , , They are the comfort adjustment coefficient, air quality adjustment coefficient, air flow adjustment coefficient, and thermal effect adjustment coefficient stored in the database in order; The environmental status data includes regional temperature value, regional humidity value, regional light intensity value, particle concentration value, carbon dioxide concentration value, air ion concentration value, air flow rate value, and atomizer surface temperature value; The specific steps to obtain the surface thermal effect index in the set area are as follows: Acquire a surface thermal effect parameter set, a heat source power value, and a maximum heat source power parameter value within a set area, wherein the surface thermal effect parameter set includes an atomizer surface temperature parameter value and an atomizer surface temperature maximum allowable deviation value; Read the atomizer surface temperature value in the set area, and conduct a comprehensive analysis based on the surface thermal effect parameter set, heat source power value, and heat source power maximum parameter value in the set area to obtain the surface thermal effect index in the set area; The specific formula for calculating the surface thermal effect index in the set area is as follows: ； in, , , , , , They are the surface thermal effect index in the set area, the atomizer surface temperature value, the atomizer surface temperature parameter value, the atomizer surface temperature maximum allowable deviation value, the heat source power value, and the heat source power maximum parameter value. , , They are the heat source power adjustment coefficient, surface temperature adjustment coefficient, and surface temperature influence coefficient stored in the database respectively.

2. The method for monitoring and using the intelligent atomizer according to claim 1, characterized in that: The specific steps to obtain the environmental comfort index in the set area are as follows: Acquire an environmental comfort parameter set in a set area, wherein the environmental comfort parameter set includes a regional temperature parameter value, a regional temperature maximum allowable deviation value, a regional humidity parameter value, a regional humidity maximum allowable deviation value, and a regional light intensity maximum parameter value; The regional temperature value, regional humidity value, and regional light intensity value in the set area are read, and a comprehensive analysis is performed in combination with the environmental comfort parameter set in the set area to obtain the environmental comfort index in the set area.

3. The method for monitoring and using the intelligent atomizer according to claim 2, characterized in that: The specific formula for calculating the environmental comfort index in the set area is as follows: ； in, To set the environmental comfort index in the area, , , They are the regional temperature value, regional temperature parameter value, and regional temperature maximum allowable deviation value in the set area. , , They are the regional humidity value, regional humidity parameter value, and regional humidity maximum allowable deviation value in the set area. , They are the regional illumination intensity value and the maximum parameter value of regional illumination intensity in the set area. , , They are the temperature correction coefficient, humidity correction coefficient, and light intensity correction coefficient stored in the database. , , It is the temperature adjustment coefficient, humidity adjustment coefficient, and light intensity adjustment coefficient stored in the database.

4. The method for monitoring and using the intelligent atomizer according to claim 1, characterized in that: The specific steps to obtain the air quality index in the set area are as follows: Obtain the maximum parameter value of air ion concentration in the set area; The particle concentration value, carbon dioxide concentration value, and air ion concentration value in the set area are read, and a comprehensive analysis is performed in combination with the maximum parameter value of the air ion concentration in the set area to obtain the air quality index in the set area.

5. The method for monitoring and using the intelligent atomizer according to claim 1, characterized in that: The specific steps for obtaining the air flow index in the set area are as follows: Acquire an air flow parameter set, an air pressure value, and a maximum air pressure parameter value in a set area, wherein the air flow parameter set includes an air flow velocity parameter value and a maximum allowable deviation value of the air flow velocity; The air velocity value in the set area is read, and a comprehensive analysis is performed in combination with the air flow parameter set, air pressure value, and maximum air pressure parameter value in the set area to obtain the air flow index in the set area.

6. The method for monitoring and using the intelligent atomizer according to claim 5, characterized in that: The specific formula for calculating the air flow index within a set area is as follows: ； in, To set the air flow index in the area, , , They are the air velocity value in the set area, the air velocity parameter value, and the maximum allowable deviation value of the air velocity. , They are the air pressure value in the set area and the maximum air pressure parameter value. , They are the air flow rate adjustment coefficient and the air pressure adjustment coefficient stored in the database respectively.

7. The method for monitoring and using the intelligent atomizer according to claim 1, characterized in that: The specific steps for analyzing the atomization intensity value of the intelligent atomizer are as follows: Based on the environmental response index in the set area, the atomization intensity value of the intelligent atomizer is analyzed, and the calculation formula is as follows: ； in, is the atomization intensity value of the smart atomizer, To set the environmental response index in the area, is the environmental response influence coefficient stored in the database, It is the atomization intensity adjustment coefficient stored in the database.

8. An intelligent atomizer system, using the intelligent atomizer monitoring and using method according to any one of claims 1 to 7, characterized in that: include: Real-time data acquisition module, environmental analysis module, response analysis module, and operation judgment module; The real-time data acquisition module is used to acquire the environmental status data in a set area in real time; The environmental analysis module is used to perform real-time analysis on the environmental status data in the set area to obtain the environmental comfort index, air quality index, air flow index, and surface thermal effect index in the set area; The response analysis module is used to comprehensively analyze the environmental comfort index, air quality index, air flow index, and surface thermal effect index in the set area to obtain the environmental response index in the set area; The operation judgment module is used to judge and analyze the environmental response index in the set area and the preset environmental response interval, and when the environmental response index in the set area is outside the preset environmental response interval, run the intelligent atomizer and synchronously analyze the atomization intensity value of the intelligent atomizer until the environmental response index in the set area is within the preset environmental response interval.

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