Intelligent dehumidifier with air purification mechanism and control system thereof

Abstract

The intelligent dehumidifier with the air purification mechanism specifically comprises a dehumidification shell, air inlet covers are symmetrically and fixedly connected to one side of the dehumidification shell, and filter grid plates are symmetrically connected to the upper surface, close to the air inlet covers, of the dehumidification shell in an inserted mode; air is filtered on the basis of the filtering grid plate, dust, bacteria and harmful gas in the air are filtered out, the air is kept clean, fresh air exchange and dehumidification are conducted on the indoor space through the total heat exchange assembly, and therefore the indoor production environment is adjusted, and the indoor environment is protected. The working environment information is subjected to regional environment management, supervision, evaluation and analysis from the perspective of data processing so as to judge whether the environment of the current working area of the target dehumidifier needs to be adjusted or not, and the working environment of the working area of the target dehumidifier is intelligently and automatically adjusted based on working mode matching under environment adjustment. And the environment quality of the working area of the target dehumidifier is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of dehumidifiers, and in particular to an intelligent dehumidifier with an air purification mechanism and a control system thereof. Background Art

[0002] Dehumidifiers are also called dehumidifiers, dryers, and dehumidifiers. They can be divided into two categories: civil dehumidifiers and industrial dehumidifiers. They are part of an air-conditioned home. Conventional dehumidifiers are composed of a compressor, a heat exchanger, a fan, a water container, a casing, and a controller. The working principle is that the fan draws humid air into the machine, passes through the heat exchanger, and the water molecules in the air condense into water droplets. The treated dry air is discharged from the machine. This cycle keeps the indoor humidity at an appropriate relative humidity.

[0003] A dehumidifier is disclosed in the announcement number CN209512236U. It is possible to detect the humidity of the dehumidification space where the dehumidifier is located in real time without making major adjustments to the structure of the dehumidifier, which is conducive to the precise dehumidification function of the dehumidifier. However, the above patent content still has the problem that the gas entering the inside of the device cannot be purified, resulting in excessive impurities in the gas entering the room, affecting the indoor air quality. At the same time, impurities enter the inside of the device, affecting the stability of the use of the device. There is also a lack of supervision on the working regulation of the equipment, and it is difficult to carry out reasonable and targeted management based on the abnormal risk level of the environmental regulation control of the equipment, which reduces the working stability and safety of the equipment.

[0004] In view of the above technical defects, a solution is now proposed. Summary of the invention

[0005] The object of the present invention is to provide an intelligent dehumidifier with an air purification mechanism and a control system thereof to solve the above-mentioned technical defects.

[0006] The object of the present invention can be achieved by the following technical scheme: an intelligent dehumidifier with an air purification mechanism, comprising a dehumidification shell, one side of the dehumidification shell is symmetrically fixedly connected with an air inlet cover, the upper surface of the dehumidification shell close to the air inlet cover is symmetrically plugged with a filter grid, the upper surface of the dehumidification shell is fixedly connected with an upper protective door, the interior of the air inlet cover is fixedly connected with a protective grid, and the side of the dehumidification shell away from the air inlet cover is provided with an air outlet grid;

[0007] The interior of the dehumidification shell is slidably connected to a full heat exchange component, the interior of the dehumidification shell is symmetrically fixedly connected to a guide rail on one side of the full heat exchange component, and the guide rail is slidably connected to the full heat exchange component, and the front surface of the dehumidification shell is fixedly connected to an air outlet grille.

[0008] Among them, the control system of the intelligent dehumidifier with air purification mechanism includes a control server, an equipment information library, an environmental monitoring unit, a gas blocking unit, a processing and control unit, a control and evaluation unit and an environmental processing unit;

[0009] The control server retrieves the working environment information of the target dehumidifier from the device information library, and sends the working environment information to the environment monitoring unit;

[0010] The environmental supervision unit is used to conduct regional environmental governance supervision assessment and analysis on the received working environment information, and to perform discrimination processing on the obtained regional environmental control index to obtain a stable signal or an environmental regulation signal;

[0011] The gas obstruction unit is used to respond to the stable signal, collect the gas information of the target dehumidifier, conduct gas purification obstruction risk assessment and analysis on the gas information, and send the obtained normal signal or processed signal to the environmental processing unit;

[0012] The processing and control unit is used to respond to normal signals, analyze the processing cycle control requirements of gas information, perform discrimination processing on the obtained prediction deviation value, and send the obtained advance processing signal to the environmental processing unit;

[0013] The control and evaluation unit is used to respond to the stability signal and collect the state response information of the target dehumidifier, perform feedback analysis on the state response information and obtain the environmental control risk level HJ.

[0014] Preferably, the regional environmental governance supervision assessment and analysis process of the environmental supervision unit is as follows:

[0015] The working period of the target dehumidifier is collected and set as the time threshold, and the working environment information of the working area of ​​the target dehumidifier within the time threshold is obtained. The working environment information includes temperature and humidity. At the same time, the specified working environment information of the working area of ​​the target dehumidifier is obtained. The specified working environment information includes temperature range and humidity range. The number of deviations of the corresponding value of the working environment information from the specified working environment information is obtained and set as the regional environment control index to obtain a stable signal or an environmental control signal;

[0016] When an environmental control signal is generated, historical working environment information of multiple groups of target dehumidifiers within a time threshold is obtained, and the historical working environment information is preprocessed and an operation mode matching model is constructed. The preprocessing includes data cleaning and data screening. The working environment information corresponding to the current environmental control signal of the target dehumidifier is input into the operation mode matching model, and then the working mode of the target dehumidifier is obtained, and the working mode of the target dehumidifier is sent to the environmental processing unit.

[0017] Preferably, the gas purification obstruction risk assessment and analysis process of the gas obstruction unit is as follows:

[0018] The gas information of the target dehumidifier within the time threshold is obtained, and the gas information includes a gas quality index and a gas flow index; the gas quality index and the gas flow index are compared and analyzed with the preset gas quality index threshold and the preset gas flow index threshold entered and stored internally to obtain a normal signal or a processed signal.

[0019] Preferably, the gas quality index represents the reduction in the value corresponding to the gas impurity information of the gas entering the air inlet hood and the gas impurity information of the gas after being processed by the filter grid, and the gas impurity information includes the concentration of dust particles and the concentration of harmful gases; the gas flow index represents the difference between the actual ventilation area of ​​the current filter grid and the total ventilation area of ​​the filter grid.

[0020] Preferably, the processing cycle regulation demand analysis process of the processing regulation unit is as follows:

[0021] Obtain the gas information of the target dehumidifier within the current time threshold, and set the ratio between the gas quality index and the gas flow index in the gas information as the cleaning demand coefficient;

[0022] The time from the most recent time when the filter grid was cleaned or replaced to the current time is obtained, and it is set as the filter usage time, the filter usage time is divided into g sub-time nodes, g is a natural number greater than zero, the cleaning requirement coefficient of each sub-time node is obtained, a set of cleaning requirement coefficients is constructed, and the set of cleaning requirement coefficients is set as a sample training set, the sample training set is preprocessed and a cleaning requirement coefficient prediction model is constructed;

[0023] The duration between the current moment and the set moment corresponding to the cleaning or replacement of the filter grid is obtained, and is set as the periodic processing duration. The predicted cleaning requirement coefficient corresponding to the set moment is obtained based on the cleaning requirement coefficient prediction model, and the value obtained by subtracting the preset cleaning requirement coefficient threshold from the predicted cleaning requirement coefficient is set as the predicted deviation value. The predicted deviation value is discriminated and processed to obtain an advance processing signal.

[0024] Preferably, the environmental control risk division feedback analysis process of the control evaluation unit is as follows:

[0025] Obtaining the status response information of the target dehumidifier within the time threshold, the status response information includes the actual wind speed and air outlet opening;

[0026] The number of deviations of the numerical value corresponding to the status response information of the target dehumidifier from the set threshold is obtained, and it is set as the control response index; the operation efficiency risk index of the target dehumidifier within the time threshold is obtained, and the operation efficiency risk index indicates that the operation efficiency evaluation coefficient of the internal components of the target dehumidifier is lower than the number corresponding to the preset threshold. The internal components of the target dehumidifier include a full heat exchange component and a compressor. The operation efficiency evaluation coefficient indicates the ratio between the working efficiency of the internal components of the target dehumidifier and the energy consumption value.

[0027] Preferably, the control response index and the operation efficiency risk index are compared and analyzed with the corresponding preset control response index thresholds and preset operation efficiency risk index thresholds, and the number of control response indexes and operation efficiency risk indexes that are greater than or equal to the preset control response index thresholds and the preset operation efficiency risk index thresholds is obtained, and set as the control risk assessment coefficient, and the control risk assessment coefficient is discriminated and processed to obtain the first-level control risk, the second-level control risk and the third-level control risk, and the first-level control risk, the second-level control risk and the third-level control risk are set as the environmental control risk level HJ, HJ=1, 2, 3.

[0028] The beneficial effects of the present invention are as follows:

[0029] (1) The present invention uses a filter grid to filter air, filter out dust, bacteria and harmful gases in the air, keep the air clean, and use a full heat exchange component to ventilate and dehumidify the room with fresh air, and finally discharge it from the air outlet grid to adjust the indoor production environment. From the perspective of data processing, the work environment information is evaluated and analyzed for regional environmental governance supervision to determine whether the environment of the current target dehumidifier working area needs to be adjusted, and based on the working mode matching under environmental adjustment, the working environment of the target dehumidifier working area is intelligently and automatically adjusted to improve the environmental quality of the target dehumidifier working area;

[0030] (2) The present invention also conducts a risk assessment and analysis of gas purification obstruction on the gas information of the target dehumidifier by means of information feedback, so as to timely clean or replace the filter grid and ensure the gas purification effect of the target dehumidifier. At the same time, the cleaning or replacement plan of the filter grid is adjusted by means of model prediction, that is, the current treatment plan of the filter grid is adjusted to shorten the treatment interval of the filter grid to reduce the influence of the filter grid on gas purification, which helps to improve the continuous purification effect of the filter grid. In addition, the state response information is subjected to feedback analysis of the environmental regulation control risk classification, so as to intuitively understand the abnormal risk level of the environmental regulation control of the current target dehumidifier, so as to carry out reasonable and targeted management and improve the working stability and safety of the target dehumidifier. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] The present invention will be further described below in conjunction with the accompanying drawings;

[0032] Figure 1 It is a three-dimensional diagram of the structure of the present invention;

[0033] Figure 2 It is a schematic diagram of the structure of the protective grid of the present invention;

[0034] Figure 3 It is a top view of the structure of the present invention;

[0035] Figure 4 It is a structural schematic diagram of the guide rail of the present invention;

[0036] Figure 5 It is a flowchart of the system of the present invention;

[0037] Legend: 1. Dehumidification housing; 2. Air inlet cover; 3. Filter grille; 4. Upper protective door; 5. Protective grille; 6. Air outlet grille; 7. Full heat exchange assembly; 8. Guide rail; 9. Side protective plate. DETAILED DESCRIPTION

[0038] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0039] Example 1: Please refer to Figures 1 to 4 As shown, the intelligent dehumidifier with air purification mechanism in this embodiment includes a dehumidification housing 1, an air inlet cover 2 is symmetrically fixedly connected to one side of the dehumidification housing 1, a filter grid 3 is symmetrically inserted on the upper surface of the dehumidification housing 1 close to the air inlet cover 2, an upper protective door 4 is fixedly connected to the upper surface of the dehumidification housing 1, and a protective grid 5 is fixedly connected to the inside of the air inlet cover 2;

[0040] An air outlet grid plate 6 is arranged on one side of the dehumidification housing 1 away from the air inlet cover 2, a full heat exchange component 7 is slidably connected inside the dehumidification housing 1, a guide rail 8 is symmetrically fixedly connected on one side of the full heat exchange component 7 inside the dehumidification housing 1, and the guide rail 8 is slidably connected to the full heat exchange component 7, and the front surface of the dehumidification housing 1 is fixedly connected to the air outlet grid plate 6;

[0041] In the embodiment of the present invention, a control server is provided inside the dehumidification casing 1. When the device is in use, the dehumidification casing 1 is controlled by the control server inside the dehumidification casing 1 to operate so as to be set to perform ventilation and dehumidification indoors. The air is filtered through the filter grille 3 on one side of the air inlet hood 2 to filter out dust, bacteria and harmful gases in the air to keep the air clean. The room is ventilated and dehumidified with fresh air through the full heat exchange component 7, and finally discharged from the air outlet grille 6 to adjust the indoor production environment.

[0042] Example 2: Please refer to Figure 5 As shown, the control system of the intelligent dehumidifier with air purification mechanism in this embodiment includes a control server, a device information library, an environmental monitoring unit, a gas blocking unit, a processing and control unit, a control and evaluation unit and an environmental processing unit;

[0043] The equipment information database is connected to the control server in a one-way communication manner, the control server is connected to the environment monitoring unit in a one-way communication manner, the environment monitoring unit is connected to the gas barrier unit, the control and evaluation unit and the environment treatment unit in a one-way communication manner, the control and evaluation unit is connected to the environment treatment unit in a one-way communication manner, the gas barrier unit is connected to the processing and control unit and the environment treatment unit in a one-way communication manner, and the processing and control unit is connected to the environment treatment unit in a one-way communication manner;

[0044] The control server retrieves the working environment information of the target dehumidifier from the device information library and sends the working environment information to the environmental supervision unit. The environmental supervision unit is used to perform regional environmental governance supervision evaluation and analysis on the received working environment information to determine whether the environment of the current working area of ​​the target dehumidifier needs to be adjusted, and based on the working mode matching under environmental adjustment, the working environment of the working area of ​​the target dehumidifier is intelligently and automatically adjusted to improve the environmental quality of the working area of ​​the target dehumidifier. The specific regional environmental governance supervision evaluation and analysis process is as follows:

[0045] The working period of the target dehumidifier is collected and set as the time threshold, and the working environment information of the working area of ​​the target dehumidifier within the time threshold is obtained. The working environment information includes temperature, humidity, etc. At the same time, the specified working environment information of the working area of ​​the target dehumidifier is obtained. The specified working environment information includes temperature range, humidity range, etc. The number of deviations of the corresponding value of the working environment information from the specified working environment information is obtained and set as the regional environment control index. It should be noted that the larger the value of the regional environment control index, the higher the demand for regional environment regulation;

[0046] Identify and process the regional environmental control index:

[0047] If the regional environmental control index = zero, a stable signal is generated;

[0048] If the regional environmental control index = 1 or the regional environmental control index = 2, an environmental control signal is generated. When the environmental control signal is generated, the historical working environment information of multiple groups of target dehumidifiers within the time threshold is obtained, and the historical working environment information is preprocessed and an operation mode matching model is constructed. The preprocessing includes data cleaning, data screening, etc.;

[0049] The working environment information corresponding to the current environmental control signal of the target dehumidifier is input into the operation mode matching model, and then the working mode of the target dehumidifier is obtained. The working mode includes fresh air circulation replacement mode, purification mode, heat exchange dehumidification mode, etc. The working mode of the target dehumidifier is sent to the environmental processing unit. After receiving the working mode of the target dehumidifier, the environmental processing unit immediately operates the target dehumidifier to switch to the corresponding working mode to work, so as to realize intelligent and automatic adjustment of the working environment of the working area of ​​the target dehumidifier, so as to improve the environmental quality of the working area of ​​the target dehumidifier.

[0050] Embodiment 3: When a stable signal is generated, the gas obstruction unit is used to respond to the stable signal and collect gas information of the target dehumidifier, and perform gas purification obstruction risk assessment and analysis on the gas information, so as to clean or replace the filter grid plate 3 in time to ensure the gas purification effect of the target dehumidifier. The specific gas purification obstruction risk assessment and analysis process is as follows:

[0051] Obtaining gas information of the target dehumidifier within a time threshold, the gas information including a gas quality index and a gas flow index;

[0052] In the embodiment of the present invention, the gas quality index indicates the reduction in the value corresponding to the gas impurity information of the gas entering the air inlet hood 2 and the gas impurity information of the gas after being processed by the filter grid 3. The gas impurity information includes dust particle concentration, harmful gas concentration, etc. It should be noted that the larger the value of the gas quality index is, the better the gas purification treatment effect of the filter grid 3 is;

[0053] In the embodiment of the present invention, the gas flow index represents the difference between the actual ventilation area of ​​the current filter grid plate 3 and the total ventilation area of ​​the filter grid plate 3. It should be noted that the larger the value of the gas flow index is, the worse the gas purification effect of the filter grid plate 3 is.

[0054] Compare and analyze the gas quality index and gas flow index with the preset gas quality index threshold and preset gas flow index threshold that are stored internally:

[0055] If the gas quality index is greater than a preset gas quality index threshold, and the gas flow index is less than a preset gas flow index threshold, a normal signal is generated;

[0056] If the gas quality index is less than or equal to the preset gas quality index threshold, or the gas flow index is less than or equal to the preset gas flow index threshold, a processing signal is generated, and the normal signal or the processing signal is sent to the environment processing unit. After receiving the normal signal or the processing signal, the environment processing unit immediately performs a preset warning operation corresponding to the normal signal or the processing signal, so as to clean or replace the filter grid plate 3 in time to ensure the gas purification effect of the target dehumidifier;

[0057] When a normal signal is generated, the processing and control unit is used to respond to the normal signal and perform a processing cycle control demand analysis on the gas information, so as to clean or replace the filter grid plate 3 in advance to reduce the influence of the filter grid plate 3 on gas purification, thereby helping to improve the continuous purification effect of the filter grid plate 3. The specific processing cycle control demand analysis process is as follows:

[0058] Obtain the gas information of the target dehumidifier within the current time threshold, and set the ratio between the gas quality index and the gas flow index in the gas information as the cleaning demand coefficient;

[0059] The time from the most recent cleaning or replacement time of the filter grid plate 3 to the current time is obtained, and it is set as the use filter time, the use filter time is divided into g sub-time nodes, g is a natural number greater than zero, the cleaning requirement coefficient of each sub-time node is obtained, a set of cleaning requirement coefficients is constructed, and the set of cleaning requirement coefficients is set as a sample training set, the sample training set is preprocessed and a cleaning requirement coefficient prediction model is constructed;

[0060] The duration between the current moment and the set moment corresponding to the cleaning or replacement of the filter grid plate 3 is obtained, and it is set as the periodic processing duration. The predicted cleaning demand coefficient corresponding to the set moment is obtained based on the cleaning demand coefficient prediction model, and the value obtained by subtracting the preset cleaning demand coefficient threshold from the predicted cleaning demand coefficient is set as the predicted deviation value, and the predicted deviation value is discriminated:

[0061] If the prediction deviation value is a negative value and the prediction deviation value is less than the preset prediction deviation value threshold, an advance processing signal is generated;

[0062] If the predicted deviation value is not satisfied to be a negative value, and the predicted deviation value is less than the preset predicted deviation value threshold, an early processing signal is generated; otherwise, no signal is generated, and the early processing signal is sent to the environmental processing unit. After receiving the early processing signal, the environmental processing unit immediately displays the preset warning text corresponding to the early processing signal, so as to clean or replace the filter grid 3 in advance, and at the same time adjust the processing scheme of the current filter grid 3, so as to shorten the processing interval of the filter grid 3, so as to reduce the influence of the filter grid 3 on gas purification, thereby helping to improve the continuous purification effect of the filter grid 3.

[0063] Embodiment 4: When a stable signal is generated, the control and evaluation unit is used to respond to the stable signal, collect the state response information of the target dehumidifier, and perform feedback analysis on the state response information of the environmental control risk division, so as to intuitively understand the abnormal risk of the environmental control of the current target dehumidifier, so as to perform reasonable and targeted management to improve the working stability and safety of the target dehumidifier. The specific environmental control risk division feedback analysis process is as follows:

[0064] Obtaining status response information of the target dehumidifier within the time threshold;

[0065] In the embodiment of the present invention, the status response information includes actual wind speed, air outlet opening, etc.;

[0066] The number of deviations of the value corresponding to the state response information of the target dehumidifier from the set threshold is obtained, and the value is set as the control response index. It should be noted that the larger the value of the control response index, the greater the risk of damage to the working efficiency of the target dehumidifier;

[0067] The operation efficiency risk index of the target dehumidifier within the time threshold is obtained. The operation efficiency risk index indicates that the operation efficiency evaluation coefficient of the internal components of the target dehumidifier is lower than the number corresponding to the preset threshold. The internal components of the target dehumidifier include the full heat exchange component 7, the compressor, etc. The operation efficiency evaluation coefficient indicates the ratio between the working efficiency and the energy consumption value of the internal components of the target dehumidifier. It should be noted that the larger the value of the operation efficiency risk index, the greater the control abnormality risk of the target dehumidifier;

[0068] The control response index and the operation efficiency risk index are compared and analyzed with the corresponding preset control response index threshold and preset operation efficiency risk index threshold, and the number of control response index and operation efficiency risk index that are greater than or equal to the preset control response index threshold and preset operation efficiency risk index threshold is obtained, and it is set as the control risk assessment coefficient, and the control risk assessment coefficient is discriminated:

[0069] If the control risk assessment coefficient = 0, it is determined to be a level 1 control risk;

[0070] If the control risk assessment coefficient = 1, it is determined to be a secondary control risk;

[0071] If the control risk assessment coefficient = 2, it is determined to be a third-level control risk, wherein the control risks corresponding to the first-level control risk, the second-level control risk and the third-level control risk increase in sequence, and the first-level control risk, the second-level control risk and the third-level control risk are set as the environmental control risk level HJ, HJ = 1, 2, 3, and the environmental control risk level HJ corresponding to the target dehumidifier within the current time threshold is sent to the environmental processing unit. After receiving the environmental control risk level HJ, the environmental processing unit immediately displays the preset warning text corresponding to the environmental control risk level HJ, and intuitively understands the abnormal risk of environmental regulation control of the current target dehumidifier, so as to carry out reasonable and targeted management and improve the working stability and safety of the target dehumidifier;

[0072] In the embodiment of the present invention, if the environmental control risk level HJ=1, it indicates the first-level control risk, if the environmental control risk level HJ=2, it indicates the second-level control risk, and if the environmental control risk level HJ=3, it indicates the third-level control risk;

[0073] In summary, the present invention is based on the filtering grid plate 3 to filter out dust, bacteria and harmful gases in the air to keep the air clean, and the full heat exchange component 7 is used to ventilate and dehumidify the room with fresh air, and finally discharged from the air outlet grid plate 6 to adjust the indoor production environment;

[0074] From the perspective of data processing, the working environment information is evaluated and analyzed for regional environmental governance supervision to determine whether the environment of the current target dehumidifier working area needs to be adjusted, and based on the working mode matching under environmental adjustment, the working environment of the target dehumidifier working area is intelligently and automatically adjusted to improve the environmental quality of the target dehumidifier working area. Through information feedback, the gas information of the target dehumidifier is evaluated and analyzed for gas purification obstruction risks, and the filter grid plate 3 is cleaned or replaced in time to ensure the gas purification effect of the target dehumidifier.

[0075] At the same time, the cleaning or replacement plan of the filter grid 3 is adjusted by means of model prediction, that is, the treatment plan of the current filter grid 3 is adjusted to shorten the treatment interval of the filter grid 3, reduce the influence of the filter grid 3 on gas purification, and help improve the continuous purification effect of the filter grid 3, and perform feedback analysis on the environmental regulation control risk division of the state response information to intuitively understand the abnormal risk level of the environmental regulation control of the current target dehumidifier, so as to carry out reasonable and targeted management and improve the working stability and safety of the target dehumidifier.

[0076] The threshold is set to facilitate comparison. The size of the threshold depends on the amount of sample data and the number of bases set by technicians in this field for each group of sample data; as long as it does not affect the proportional relationship between the parameter and the quantized value.

[0077] The above are only preferred specific implementation modes of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical solutions and inventive concepts of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. An intelligent dehumidifier with an air purification mechanism, comprising a dehumidifying housing (1), characterized in that: An air inlet hood (2) is symmetrically fixedly connected to one side of the dehumidifier housing (1); a filter grid plate (3) is symmetrically inserted on the upper surface of the dehumidifier housing (1) close to the air inlet hood (2); an upper protective door (4) is fixedly connected to the upper surface of the dehumidifier housing (1); a protective grid plate (5) is fixedly connected to the inside of the air inlet hood (2); and an air outlet grid plate (6) is provided on the side of the dehumidifier housing (1) away from the air inlet hood (2); The interior of the dehumidifier shell (1) is slidably connected to a full heat exchange component (7); the interior of the dehumidifier shell (1) is symmetrically fixedly connected to a guide rail (8) located on one side of the full heat exchange component (7); the guide rail (8) is slidably connected to the full heat exchange component (7); and the front surface of the dehumidifier shell (1) is fixedly connected to an air outlet grille (6).

2. A control system for an intelligent dehumidifier with an air purification mechanism, applied to the intelligent dehumidifier with an air purification mechanism as claimed in claim 1, characterized in that: It includes a control server, a device information library, an environmental monitoring unit, a gas blocking unit, a processing and control unit, a control and evaluation unit, and an environmental processing unit; The control server retrieves the working environment information of the target dehumidifier from the device information library, and sends the working environment information to the environment monitoring unit; The environmental supervision unit is used to conduct regional environmental governance supervision assessment and analysis on the received working environment information, and to perform discrimination processing on the obtained regional environmental control index to obtain a stable signal or an environmental regulation signal; The gas obstruction unit is used to respond to the stable signal, collect the gas information of the target dehumidifier, conduct gas purification obstruction risk assessment and analysis on the gas information, and send the obtained normal signal or processed signal to the environmental processing unit; The processing and control unit is used to respond to normal signals, analyze the processing cycle control requirements of gas information, perform discrimination processing on the obtained prediction deviation value, and send the obtained advance processing signal to the environmental processing unit; The control and evaluation unit is used to respond to the stability signal and collect the state response information of the target dehumidifier, perform feedback analysis on the state response information and obtain the environmental control risk level HJ.

3. The control system of the intelligent dehumidifier with air purification mechanism according to claim 2, characterized in that: The regional environmental governance supervision assessment and analysis process of the environmental supervision unit is as follows: The working period of the target dehumidifier is collected and set as the time threshold, and the working environment information of the working area of ​​the target dehumidifier within the time threshold is obtained. The working environment information includes temperature and humidity. At the same time, the specified working environment information of the working area of ​​the target dehumidifier is obtained. The specified working environment information includes temperature range and humidity range. The number of deviations of the corresponding value of the working environment information from the specified working environment information is obtained and set as the regional environment control index to obtain a stable signal or an environmental control signal; When an environmental control signal is generated, historical working environment information of multiple groups of target dehumidifiers within a time threshold is obtained, and the historical working environment information is preprocessed and an operation mode matching model is constructed. The preprocessing includes data cleaning and data screening. The working environment information corresponding to the current environmental control signal of the target dehumidifier is input into the operation mode matching model, and then the working mode of the target dehumidifier is obtained, and the working mode of the target dehumidifier is sent to the environmental processing unit.

4. The control system of the intelligent dehumidifier with air purification mechanism according to claim 2, characterized in that: The gas purification obstruction risk assessment and analysis process of the gas obstruction unit is as follows: The gas information of the target dehumidifier within the time threshold is obtained, and the gas information includes a gas quality index and a gas flow index. The gas quality index and the gas flow index are compared and analyzed with the preset gas quality index threshold and the preset gas flow index threshold entered and stored internally to obtain a normal signal or a processed signal.

5. The control system of the intelligent dehumidifier with air purification mechanism according to claim 4, characterized in that: The gas quality index indicates the reduction in the value corresponding to the gas impurity information of the gas entering the air inlet hood (2) and the gas impurity information of the gas after being processed by the filter grid (3), the gas impurity information including the dust particle concentration and the harmful gas concentration; the gas flow index indicates the difference between the actual ventilation area of ​​the current filter grid (3) and the total ventilation area of ​​the filter grid (3).

6. The control system of the intelligent dehumidifier with air purification mechanism according to claim 2, characterized in that: The processing cycle control demand analysis process of the processing control unit is as follows: Obtain the gas information of the target dehumidifier within the current time threshold, and set the ratio between the gas quality index and the gas flow index in the gas information as the cleaning demand coefficient; The time from the most recent cleaning or replacement time of the filter grid plate (3) to the current time is obtained, and the time is set as the filter usage time, the filter usage time is divided into g sub-time nodes, g is a natural number greater than zero, the cleaning requirement coefficient of each sub-time node is obtained, a set of cleaning requirement coefficients is constructed, and the set of cleaning requirement coefficients is set as a sample training set, the sample training set is preprocessed, and a cleaning requirement coefficient prediction model is constructed; The duration between the current moment and the set moment corresponding to the cleaning or replacement of the filter grid plate (3) is obtained and set as the periodic processing duration, the predicted cleaning requirement coefficient corresponding to the set moment is obtained based on the cleaning requirement coefficient prediction model, and the value obtained by subtracting a preset cleaning requirement coefficient threshold from the predicted cleaning requirement coefficient is set as the predicted deviation value, and the predicted deviation value is discriminated and processed to obtain an advance processing signal.

7. The control system of the intelligent dehumidifier with air purification mechanism according to claim 2, characterized in that: The environmental control risk classification feedback analysis process of the control and assessment unit is as follows: Obtaining the status response information of the target dehumidifier within the time threshold, the status response information includes the actual wind speed and air outlet opening; Obtain the number of deviations of the numerical value corresponding to the state response information of the target dehumidifier from the set threshold, and set it as the control response index; The operation efficiency risk index of the target dehumidifier within the time threshold is obtained, and the operation efficiency risk index indicates that the operation efficiency evaluation coefficient of the internal components of the target dehumidifier is lower than the corresponding number of the preset threshold. The internal components of the target dehumidifier include a full heat exchange component (7) and a compressor. The operation efficiency evaluation coefficient indicates the ratio between the working efficiency and energy consumption value of the internal components of the target dehumidifier.

8. The control system of the intelligent dehumidifier with air purification mechanism according to claim 7, characterized in that: The control response index and the operation efficiency risk index are compared and analyzed with the corresponding preset control response index threshold and the preset operation efficiency risk index threshold, and the number of control response index and operation efficiency risk index that are greater than or equal to the preset control response index threshold and the preset operation efficiency risk index threshold is obtained, and it is set as the control risk assessment coefficient, and the control risk assessment coefficient is discriminated and processed to obtain the first-level control risk, the second-level control risk and the third-level control risk, and the first-level control risk, the second-level control risk and the third-level control risk are set as the environmental control risk level HJ, HJ=1, 2, 3.

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