A fluorine pump air conditioning control method based on indoor and outdoor air quality

Abstract

The invention discloses a fluorine pump air conditioner control method based on indoor and outdoor air quality, relates to the field of equipment control, solves the problem of poor control effect of the existing fluorine pump air conditioner control method, comprises step S1: respectively obtaining indoor air quality coefficient and outdoor air quality coefficient to obtain air quality data, step S2: respectively obtaining indoor temperature coefficient and indoor humidity coefficient to obtain climate monitoring data, step S3: respectively obtaining mode switching coefficient, first mode switching coefficient threshold value and second mode switching coefficient value by analyzing air quality data and climate monitoring data to obtain mode switching analysis data, step S4: switching the working mode of the fluorine pump air conditioner according to the mode switching analysis data, the invention effectively ensures the flexibility and efficiency of air conditioner mode switching, and improves the intelligence level of the fluorine pump air conditioner.

Description

Technical Field

[0001] The invention belongs to the field of equipment control and relates to environmental monitoring technology, in particular to a fluorine pump air-conditioning control method based on indoor and outdoor air quality. Background Art

[0002] The existing fluorine pump air conditioner control method has the following defects when controlling the fluorine pump air conditioner:

[0003] 1. The existing fluorine pump air conditioning system cannot quickly switch to the most suitable working mode, resulting in increased air conditioning energy consumption, thereby increasing the cost of use;

[0004] 2. Existing fluorine pump air conditioning systems usually rely on a single temperature factor to switch the working mode of the air conditioner, which leads to a lack of flexibility in switching the air conditioning mode.

[0005] Therefore, we propose a fluorine pump air conditioning control method based on indoor and outdoor air quality. Summary of the invention

[0006] In view of the deficiencies in the prior art, the purpose of the present invention is to provide a fluorine pump air conditioner control method based on indoor and outdoor air quality. The present invention is based on respectively obtaining the indoor air quality coefficient and the outdoor air quality coefficient to obtain air quality data, respectively obtaining the indoor temperature coefficient and the indoor humidity coefficient to obtain climate monitoring data, and obtaining a mode switching coefficient, a first mode switching coefficient threshold and a second mode switching coefficient value by analyzing the air quality data and the climate monitoring data to obtain mode switching analysis data, and switching the working mode of the fluorine pump air conditioner according to the mode switching analysis data.

[0007] In order to achieve the above object, the present invention adopts the following technical scheme: A fluorine pump air conditioning control method based on indoor and outdoor air quality comprises the following specific steps:

[0008] Step S1: Acquire the indoor air quality coefficient and the outdoor air quality coefficient respectively to obtain air quality data;

[0009] Step S2: respectively obtaining the indoor temperature coefficient and the indoor humidity coefficient to obtain climate monitoring data;

[0010] Step S3: acquiring a mode switching coefficient by analyzing air quality data and climate monitoring data, and acquiring a first mode switching coefficient threshold and a second mode switching coefficient threshold for the mode switching coefficient, and defining the mode switching coefficient, the first mode switching coefficient threshold and the second mode switching coefficient threshold as mode switching analysis data;

[0011] Step S4: Switching the working mode of the fluorine pump air conditioner according to the mode switching analysis data.

[0012] Furthermore, the step S1 further includes the following specific steps:

[0013] Step S11: in the process of controlling the fluorine pump air conditioner, respectively selecting m different types of pollutant gases as characteristic pollutant gases, and marking them as the first characteristic pollutant gas to the mth characteristic pollutant gas respectively;

[0014] Step S12: Analyze the air quality of the fluorine pump air conditioning control area to obtain the indoor air quality coefficient;

[0015] Step S13: Analyze the air quality of the outdoor unit area of ​​the fluorine pump air conditioner to obtain the outdoor air quality coefficient;

[0016] Step S14: defining the indoor air quality coefficient and the outdoor air quality coefficient as air quality data;

[0017] The step S13 further includes the following specific steps:

[0018] Step S131: acquiring the same volume of air at different locations in the outdoor unit area of ​​the fluorine pump air conditioner as outdoor air samples to obtain multiple outdoor air samples;

[0019] Step S132: Repeat step S122 to perform air quality analysis on each outdoor air sample to obtain multiple outdoor air sample quality coefficients, and average the obtained multiple outdoor air sample quality coefficients to obtain the outdoor air quality coefficient.

[0020] Furthermore, the step S12 further includes the following specific steps:

[0021] Step S121: acquiring the same volume of air at different locations in the fluorine pump air conditioning control area as indoor air samples, obtaining multiple indoor air samples, and randomly selecting one indoor air sample from the multiple indoor air samples as a characteristic indoor air sample;

[0022] Step S122: performing air quality analysis on the characteristic indoor air sample to obtain the indoor air sample quality coefficient;

[0023] Step S123: performing air quality analysis on each indoor air sample to obtain a plurality of indoor air sample quality coefficients, and averaging the obtained plurality of indoor air sample quality coefficients to obtain the indoor air quality coefficient.

[0024] Furthermore, the step S122 further includes the following specific steps:

[0025] Step S1221: Obtain gas concentration values ​​corresponding to the first characteristic pollutant gas to the mth characteristic pollutant gas in the characteristic indoor air sample, and obtain the first pollutant gas concentration value to the mth pollutant gas concentration value;

[0026] Step S1222: Calculate the average of the first pollutant gas concentration value to the mth pollutant gas concentration value to obtain the average pollutant gas concentration value;

[0027] Step S1223: respectively obtaining gas reference concentration values ​​corresponding to the first characteristic pollutant gas to the mth characteristic pollutant gas, and obtaining the first pollutant gas reference concentration value to the mth pollutant gas reference concentration value;

[0028] Step S1224: Calculate the first pollutant gas concentration value and the first pollutant gas reference concentration value to obtain a pollution reference difference ratio corresponding to the first characteristic pollutant gas, and name it the first pollution reference difference ratio;

[0029] The first pollution benchmark difference ratio is calculated, and the specific formula configuration is as follows:

[0030] ;

[0031] Wherein, Wcb1 is the first pollution reference difference ratio, Wrn1 is the first pollutant gas concentration value, and Wrj1 is the first pollutant gas reference concentration value;

[0032] Step S1225: respectively acquiring the pollution reference difference ratios corresponding to the second characteristic pollution gas to the mth characteristic pollution gas, and obtaining the second pollution reference difference ratio to the mth pollution reference difference ratio;

[0033] Step S1226: Compare the values ​​of the first pollution reference difference ratio to the mth pollution reference difference ratio, and define the pollution reference difference ratio with the largest value as the key pollution reference difference;

[0034] Step S1227: Calculate the indoor air sample quality coefficient by using the average concentration value of polluted gas and the key pollution benchmark difference;

[0035] Calculate the indoor air sample quality coefficient, the specific formula configuration is as follows:

[0036] ;

[0037] Among them, Ykz is the indoor air sample quality coefficient, Ndp is the average concentration value of polluted gas, and Gjc is the key pollution benchmark difference.

[0038] Furthermore, the step S2 further includes the following specific steps:

[0039] Step S21: in the process of controlling the fluorine pump air conditioner, a climate monitoring period is set, the time value corresponding to the current moment is used as the end point of the climate monitoring period, and the time point one climate monitoring period before the end point of the climate monitoring period is marked as the starting point of the climate monitoring period;

[0040] Step S22: performing temperature analysis on the fluorine pump air conditioning control area during the climate monitoring period to obtain the indoor temperature coefficient;

[0041] Step S23: performing humidity analysis on the fluorine pump air conditioning control area during the climate monitoring period to obtain the indoor humidity coefficient;

[0042] Step S24: define the indoor temperature coefficient and the indoor humidity coefficient as climate monitoring data.

[0043] Furthermore, the step S22 further includes the following specific steps:

[0044] Step S221: in the climate monitoring period, mark a plurality of indoor temperature monitoring time points respectively, and name them as the first temperature monitoring time point to the i-th temperature monitoring time point;

[0045] Step S222: respectively acquiring the temperature values ​​corresponding to the fluorine pump air conditioning control area from the first temperature monitoring time point to the i-th temperature monitoring time point, to obtain the first indoor temperature value to the i-th indoor temperature value;

[0046] Step S223: Calculate the average of the first indoor temperature value to the i-th indoor temperature value to obtain an indoor average temperature value;

[0047] Step S224: Calculate the indoor temperature stability coefficient by combining the first indoor temperature value to the i-th indoor temperature value and the indoor average temperature value;

[0048] Calculate the indoor temperature stability coefficient, the specific formula is as follows:

[0049] ;

[0050] Wherein, Swx is the indoor temperature stability coefficient, Sn1 to Sni are the first indoor temperature value to the i-th indoor temperature value respectively, and Snp is the indoor average temperature value;

[0051] Step S225: Calculate the indoor temperature coefficient by using the indoor temperature stability coefficient and the indoor average temperature value;

[0052] Calculate the indoor temperature coefficient, the specific formula is configured as follows:

[0053] ;

[0054] Among them, Qwx is the indoor temperature coefficient, Swx is the indoor temperature stability coefficient, and Snp is the indoor average temperature value.

[0055] Furthermore, the step S23 further includes the following specific steps:

[0056] Step S231: in the climate monitoring period, mark a plurality of indoor humidity monitoring time points respectively, and name them as the first humidity monitoring time point to the jth humidity monitoring time point;

[0057] Step S232: respectively acquiring the humidity values ​​corresponding to the first humidity monitoring time point to the jth humidity monitoring time point of the fluorine pump air conditioning control area to obtain the first indoor humidity value to the jth indoor humidity value;

[0058] Step S233: Calculate the average of the first indoor humidity value to the jth indoor humidity value to obtain an indoor average humidity value;

[0059] Step S234: Calculate the indoor humidity stability coefficient by combining the first indoor humidity value to the jth indoor humidity value and the indoor average humidity value;

[0060] To calculate the indoor humidity stability coefficient, the specific formula is as follows:

[0061] ;

[0062] Wherein, Wsx is the indoor humidity stability coefficient, Wn1 to Wnj are the first indoor humidity value to the jth indoor humidity value respectively, and Wnp is the indoor average humidity value;

[0063] Step S235: Calculate the indoor humidity coefficient by using the indoor humidity stability coefficient and the indoor average humidity value;

[0064] To calculate the indoor humidity coefficient, the specific formula is as follows:

[0065] ;

[0066] Among them, Swx is the indoor humidity coefficient, Wsx is the indoor humidity stability coefficient, and Wnp is the indoor average humidity value.

[0067] Furthermore, the step S3 further includes the following specific steps:

[0068] Step S31: Acquire air quality data, and acquire indoor air quality coefficient and outdoor air quality coefficient according to the air quality value;

[0069] Step S32: Calculate the indoor air quality coefficient and the outdoor air quality coefficient to obtain an air quality analysis coefficient;

[0070] To calculate the air quality analysis coefficient, the specific formula is as follows:

[0071] ;

[0072] Among them, Kxx is the air quality analysis coefficient, Sqn is the indoor air quality coefficient, and Sqw is the outdoor air quality coefficient;

[0073] Step S33: Acquire climate monitoring data, and acquire indoor temperature coefficient and indoor humidity coefficient respectively according to the climate monitoring data;

[0074] Step S34: Calculate the air quality analysis coefficient, the indoor temperature coefficient and the indoor humidity coefficient to obtain a mode switching coefficient;

[0075] The mode switching coefficient is calculated, and the specific formula is as follows:

[0076] ;

[0077] Among them, Msq is the mode switching coefficient, Kxx is the air quality analysis coefficient, Swx is the indoor humidity coefficient, and Qwx is the indoor temperature coefficient;

[0078] Step S35: respectively obtaining a first mode switching coefficient threshold and a second mode switching coefficient threshold;

[0079] Step S36: defining the mode switching coefficient, the first mode switching coefficient threshold and the second mode switching coefficient threshold as mode switching analysis data.

[0080] Furthermore, the step S35 further includes the following specific steps:

[0081] Step S351: respectively obtaining a first air quality analysis coefficient threshold, a first indoor temperature coefficient threshold, and a first indoor humidity coefficient threshold;

[0082] Step S352: obtaining a first mode switching coefficient threshold by calculating the first air quality analysis coefficient threshold, the first indoor temperature coefficient threshold, and the first indoor humidity coefficient threshold;

[0083] The first mode switching coefficient threshold is calculated, and the specific formula is as follows:

[0084] ;

[0085] Among them, Msq1 is the first mode switching coefficient threshold, Kxx1 is the first air quality analysis coefficient threshold, Swx1 is the first indoor humidity coefficient threshold, and Qwx1 is the first indoor temperature coefficient threshold;

[0086] Step S353: respectively obtaining a second air quality analysis coefficient threshold, a second indoor temperature coefficient threshold, and a second indoor humidity coefficient threshold;

[0087] Step S354: obtaining a second mode switching coefficient threshold by calculating the second air quality analysis coefficient threshold, the second indoor temperature coefficient threshold, and the second indoor humidity coefficient threshold;

[0088] The second mode switching coefficient threshold is calculated, and the specific formula is as follows:

[0089] ;

[0090] Among them, Msq2 is the second mode switching coefficient threshold, Kxx2 is the second air quality analysis coefficient threshold, Swx2 is the second indoor humidity coefficient threshold, and Qwx2 is the second indoor temperature coefficient threshold.

[0091] Furthermore, the step S4 further includes the following specific steps:

[0092] Step S41: acquiring mode switching analysis data, and acquiring a mode switching coefficient, a first mode switching coefficient threshold, and a second mode switching coefficient threshold according to the mode switching analysis data;

[0093] Step S42: when the mode switching coefficient is greater than or equal to the first mode switching coefficient threshold, the fluorine pump air conditioner is switched to the pure fluorine pump mode;

[0094] Step S43: when the mode switching coefficient is less than the first mode switching coefficient threshold and greater than the second mode switching coefficient threshold, the fluorine pump air conditioner is switched to the hybrid power cooling mode;

[0095] Step S44: when the mode switching coefficient is less than or equal to the second mode switching coefficient threshold, the fluorine pump air conditioner is switched to the compressor cooling mode.

[0096] In summary, due to the adoption of the above technical solution, the beneficial effects of the present invention are:

[0097] 1. The present invention switches the working mode of the fluorine pump air conditioner by obtaining the mode switching coefficient through analysis of air quality data and climate monitoring data, which effectively ensures the flexibility and efficiency of the air conditioner mode switching;

[0098] 2. The present invention uses temperature data and humidity data as reference factors to switch the working mode of the fluorine pump air conditioner, thereby improving the intelligence level of the fluorine pump air conditioner. BRIEF DESCRIPTION OF THE DRAWINGS

[0099] In order to facilitate understanding by those skilled in the art, the present invention is further described below with reference to the accompanying drawings.

[0100] Figure 1 It is a diagram of the implementation steps of the present invention;

[0101] Figure 2 is the overall system block diagram of the present invention;

[0102] Figure 3 It is the pattern matching diagram of the present invention. DETAILED DESCRIPTION

[0103] The technical solution of the present invention will be clearly and completely described below in conjunction with the embodiments. 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.

[0104] Embodiment 1

[0105] See also Figure 1 The present invention provides a technical solution: a fluorine pump air conditioning control method based on indoor and outdoor air quality, comprising the following specific steps:

[0106] Step S1: Acquire the indoor air quality coefficient and the outdoor air quality coefficient respectively to obtain air quality data;

[0107] Step S11: in the process of controlling the fluorine pump air conditioner, respectively selecting m different types of pollutant gases as characteristic pollutant gases, and marking them as the first characteristic pollutant gas to the mth characteristic pollutant gas respectively;

[0108] Step S12: Analyze the air quality of the fluorine pump air conditioning control area to obtain the indoor air quality coefficient;

[0109] The step S12 further includes the following specific steps:

[0110] Step S121: acquiring the same volume of air at different locations in the fluorine pump air conditioning control area as indoor air samples, obtaining multiple indoor air samples, and randomly selecting one indoor air sample from the multiple indoor air samples as a characteristic indoor air sample;

[0111] Step S122: performing air quality analysis on the characteristic indoor air sample to obtain the indoor air sample quality coefficient;

[0112] The step S122 further includes the following specific steps:

[0113] Step S1221: Obtain gas concentration values ​​corresponding to the first characteristic pollutant gas to the mth characteristic pollutant gas in the characteristic indoor air sample, and obtain the first pollutant gas concentration value to the mth pollutant gas concentration value;

[0114] Step S1222: Calculate the average of the first pollutant gas concentration value to the mth pollutant gas concentration value to obtain the average pollutant gas concentration value;

[0115] Step S1223: respectively obtaining gas reference concentration values ​​corresponding to the first characteristic pollutant gas to the mth characteristic pollutant gas, and obtaining the first pollutant gas reference concentration value to the mth pollutant gas reference concentration value;

[0116] Step S1224: Calculate the first pollutant gas concentration value and the first pollutant gas reference concentration value to obtain a pollution reference difference ratio corresponding to the first characteristic pollutant gas, and name it the first pollution reference difference ratio;

[0117] The first pollution benchmark difference ratio is calculated, and the specific formula configuration is as follows:

[0118] ;

[0119] Wherein, Wcb1 is the first pollution reference difference ratio, Wrn1 is the first pollutant gas concentration value, and Wrj1 is the first pollutant gas reference concentration value;

[0120] Step S1225: respectively acquiring the pollution reference difference ratios corresponding to the second characteristic pollution gas to the mth characteristic pollution gas, and obtaining the second pollution reference difference ratio to the mth pollution reference difference ratio;

[0121] Step S1226: Compare the values ​​of the first pollution reference difference ratio to the mth pollution reference difference ratio, and define the pollution reference difference ratio with the largest value as the key pollution reference difference;

[0122] Step S1227: Calculate the indoor air sample quality coefficient by using the average concentration value of polluted gas and the key pollution benchmark difference;

[0123] Calculate the indoor air sample quality coefficient, the specific formula configuration is as follows:

[0124] ;

[0125] Among them, Ykz is the indoor air sample quality coefficient, Ndp is the average concentration value of pollutant gas, and Gjc is the key pollution benchmark difference;

[0126] Step S123: performing air quality analysis on each indoor air sample to obtain multiple indoor air sample quality coefficients, and averaging the obtained multiple indoor air sample quality coefficients to obtain the indoor air quality coefficient;

[0127] Step S13: Analyze the air quality of the outdoor unit area of ​​the fluorine pump air conditioner to obtain the outdoor air quality coefficient;

[0128] The details are as follows:

[0129] Step S131: acquiring the same volume of air at different locations in the outdoor unit area of ​​the fluorine pump air conditioner as outdoor air samples to obtain multiple outdoor air samples;

[0130] Step S132: repeating step S122, respectively performing air quality analysis on each outdoor air sample to obtain a plurality of outdoor air sample quality coefficients, and averaging the obtained plurality of outdoor air sample quality coefficients to obtain an outdoor air quality coefficient;

[0131] Step S14: defining the indoor air quality coefficient and the outdoor air quality coefficient as air quality data;

[0132] Step S2: respectively obtaining the indoor temperature coefficient and the indoor humidity coefficient to obtain climate monitoring data;

[0133] Step S21: in the process of controlling the fluorine pump air conditioner, a climate monitoring period is set, the time value corresponding to the current moment is used as the end point of the climate monitoring period, and the time point one climate monitoring period before the end point of the climate monitoring period is marked as the starting point of the climate monitoring period;

[0134] Step S22: performing temperature analysis on the fluorine pump air conditioning control area during the climate monitoring period to obtain the indoor temperature coefficient;

[0135] The step S22 further includes the following specific steps:

[0136] Step S221: in the climate monitoring period, mark a plurality of indoor temperature monitoring time points respectively, and name them as the first temperature monitoring time point to the i-th temperature monitoring time point;

[0137] Step S222: respectively acquiring the temperature values ​​corresponding to the fluorine pump air conditioning control area from the first temperature monitoring time point to the i-th temperature monitoring time point, to obtain the first indoor temperature value to the i-th indoor temperature value;

[0138] Step S223: Calculate the average of the first indoor temperature value to the i-th indoor temperature value to obtain an indoor average temperature value;

[0139] Step S224: Calculate the indoor temperature stability coefficient by combining the first indoor temperature value to the i-th indoor temperature value and the indoor average temperature value;

[0140] Calculate the indoor temperature stability coefficient, the specific formula is as follows:

[0141] ;

[0142] Wherein, Swx is the indoor temperature stability coefficient, Sn1 to Sni are the first indoor temperature value to the i-th indoor temperature value respectively, and Snp is the indoor average temperature value;

[0143] Step S225: Calculate the indoor temperature coefficient by using the indoor temperature stability coefficient and the indoor average temperature value;

[0144] Calculate the indoor temperature coefficient, the specific formula is configured as follows:

[0145] ;

[0146] Among them, Qwx is the indoor temperature coefficient, Swx is the indoor temperature stability coefficient, and Snp is the indoor average temperature value;

[0147] Step S23: performing humidity analysis on the fluorine pump air conditioning control area during the climate monitoring period to obtain the indoor humidity coefficient;

[0148] The step S23 further includes the following specific steps:

[0149] Step S231: in the climate monitoring period, mark a plurality of indoor humidity monitoring time points respectively, and name them as the first humidity monitoring time point to the jth humidity monitoring time point;

[0150] Step S232: respectively acquiring the humidity values ​​corresponding to the first humidity monitoring time point to the jth humidity monitoring time point of the fluorine pump air conditioning control area to obtain the first indoor humidity value to the jth indoor humidity value;

[0151] Step S233: Calculate the average of the first indoor humidity value to the jth indoor humidity value to obtain an indoor average humidity value;

[0152] Step S234: Calculate the indoor humidity stability coefficient by combining the first indoor humidity value to the jth indoor humidity value and the indoor average humidity value;

[0153] To calculate the indoor humidity stability coefficient, the specific formula is as follows:

[0154] ;

[0155] Wherein, Wsx is the indoor humidity stability coefficient, Wn1 to Wnj are the first indoor humidity value to the jth indoor humidity value respectively, and Wnp is the indoor average humidity value;

[0156] Step S235: Calculate the indoor humidity coefficient by using the indoor humidity stability coefficient and the indoor average humidity value;

[0157] To calculate the indoor humidity coefficient, the specific formula is as follows:

[0158] ;

[0159] Among them, Swx is the indoor humidity coefficient, Wsx is the indoor humidity stability coefficient, and Wnp is the indoor average humidity value;

[0160] Step S24: defining the indoor temperature coefficient and the indoor humidity coefficient as climate monitoring data;

[0161] Step S3: acquiring a mode switching coefficient by analyzing air quality data and climate monitoring data, and acquiring a first mode switching coefficient threshold and a second mode switching coefficient threshold for the mode switching coefficient, and defining the mode switching coefficient, the first mode switching coefficient threshold and the second mode switching coefficient value as mode switching analysis data;

[0162] Step S31: Acquire air quality data, and acquire indoor air quality coefficient and outdoor air quality coefficient according to the air quality value;

[0163] Step S32: Calculate the indoor air quality coefficient and the outdoor air quality coefficient to obtain an air quality analysis coefficient;

[0164] To calculate the air quality analysis coefficient, the specific formula is as follows:

[0165] ;

[0166] Among them, Kxx is the air quality analysis coefficient, Sqn is the indoor air quality coefficient, and Sqw is the outdoor air quality coefficient;

[0167] Step S33: Acquire climate monitoring data, and acquire indoor temperature coefficient and indoor humidity coefficient respectively according to the climate monitoring data;

[0168] Step S34: Calculate the air quality analysis coefficient, the indoor temperature coefficient and the indoor humidity coefficient to obtain a mode switching coefficient;

[0169] The mode switching coefficient is calculated, and the specific formula is as follows:

[0170] ;

[0171] Among them, Msq is the mode switching coefficient, Kxx is the air quality analysis coefficient, Swx is the indoor humidity coefficient, and Qwx is the indoor temperature coefficient;

[0172] Step S35: respectively obtaining a first mode switching coefficient threshold and a second mode switching coefficient threshold;

[0173] The step S35 further includes the following specific steps:

[0174] Step S351: respectively obtaining a first air quality analysis coefficient threshold, a first indoor temperature coefficient threshold, and a first indoor humidity coefficient threshold;

[0175] Step S352: obtaining a first mode switching coefficient threshold by calculating the first air quality analysis coefficient threshold, the first indoor temperature coefficient threshold, and the first indoor humidity coefficient threshold;

[0176] The first mode switching coefficient threshold is calculated, and the specific formula is as follows:

[0177] ;

[0178] Among them, Msq1 is the first mode switching coefficient threshold, Kxx1 is the first air quality analysis coefficient threshold, Swx1 is the first indoor humidity coefficient threshold, and Qwx1 is the first indoor temperature coefficient threshold;

[0179] Step S353: respectively obtaining a second air quality analysis coefficient threshold, a second indoor temperature coefficient threshold, and a second indoor humidity coefficient threshold;

[0180] Step S354: obtaining a second mode switching coefficient threshold by calculating the second air quality analysis coefficient threshold, the second indoor temperature coefficient threshold, and the second indoor humidity coefficient threshold;

[0181] The second mode switching coefficient threshold is calculated, and the specific formula is as follows:

[0182] ;

[0183] Wherein, Msq2 is the second mode switching coefficient threshold, Kxx2 is the second air quality analysis coefficient threshold, Swx2 is the second indoor humidity coefficient threshold, and Qwx2 is the second indoor temperature coefficient threshold;

[0184] Step S36: defining the mode switching coefficient, the first mode switching coefficient threshold and the second mode switching coefficient threshold as mode switching analysis data;

[0185] Step S4: Please refer to Figure 3 , switch the working mode of the fluorine pump air conditioner according to the mode switching analysis data;

[0186] Step S41: acquiring mode switching analysis data, and acquiring a mode switching coefficient, a first mode switching coefficient threshold, and a second mode switching coefficient threshold according to the mode switching analysis data;

[0187] Step S42: when the mode switching coefficient is greater than or equal to the first mode switching coefficient threshold, the fluorine pump air conditioner is switched to the pure fluorine pump mode;

[0188] Step S43: when the mode switching coefficient is less than the first mode switching coefficient threshold and greater than the second mode switching coefficient threshold, the fluorine pump air conditioner is switched to the hybrid power cooling mode;

[0189] Step S44: when the mode switching coefficient is less than or equal to the second mode switching coefficient threshold, switching the fluorine pump air conditioner to the compressor cooling mode;

[0190] In this application, if corresponding calculation formulas appear, the above calculation formulas are all dimensionless and take their numerical calculations. The weight coefficients, proportional coefficients and other coefficients in the formulas are set to a result value obtained by quantifying each parameter. The size of the weight coefficient and the proportional coefficient can be determined as long as it does not affect the proportional relationship between the parameter and the result value.

[0191] Embodiment 2

[0192] See also Figure 2 Based on another concept of the same invention, a fluorine pump air conditioning control system based on indoor and outdoor air quality is now proposed, which is applied to a fluorine pump air conditioning control method based on indoor and outdoor air quality. The fluorine pump air conditioning control system includes an air quality module, a climate data module, a data analysis module, a mode switching module and a server. The air quality module, the climate data module, the data analysis module and the mode switching module are respectively connected to the server, and the server controls the air quality module, the climate data module, the data analysis module and the mode switching module respectively;

[0193] The air quality module obtains the indoor air quality coefficient and the outdoor air quality coefficient respectively to obtain air quality data;

[0194] In the process of controlling the fluorine pump air conditioner, different types of pollutant gases in m are selected as characteristic pollutant gases, and are marked as the first characteristic pollutant gas to the mth characteristic pollutant gas respectively;

[0195] It should be noted here that:

[0196] Here, m is the type quantity value corresponding to the polluted gas, and m is an integer greater than 0;

[0197] In the present application, the first characteristic pollutant gas may be sulfur dioxide, the second characteristic pollutant gas may be carbon monoxide, and the third characteristic pollutant gas may be nitrogen oxides;

[0198] Conduct air quality analysis on the fluorine pump air conditioning control area to obtain the indoor air quality coefficient;

[0199] The same volume of air is obtained at different locations in the fluorine pump air conditioning control area as indoor air samples to obtain multiple indoor air samples, and one indoor air sample is randomly selected from the multiple indoor air samples as a characteristic indoor air sample;

[0200] Perform air quality analysis on characteristic indoor air samples to obtain indoor air sample quality coefficients;

[0201] The details are as follows:

[0202] Obtaining gas concentration values ​​corresponding to the first characteristic pollutant gas to the mth characteristic pollutant gas in the characteristic indoor air sample, and obtaining the first pollutant gas concentration value to the mth pollutant gas concentration value;

[0203] Calculate the average of the first pollutant gas concentration value to the mth pollutant gas concentration value to obtain the average pollutant gas concentration value;

[0204] Respectively obtain gas reference concentration values ​​corresponding to the first characteristic pollutant gas to the mth characteristic pollutant gas, and obtain the first pollutant gas reference concentration value to the mth pollutant gas reference concentration value;

[0205] The first pollutant gas concentration value and the first pollutant gas reference concentration value are calculated to obtain a pollution reference difference ratio corresponding to the first characteristic pollutant gas, and the pollution reference difference ratio is named as the first pollution reference difference ratio;

[0206] The first pollution benchmark difference ratio is calculated, and the specific formula configuration is as follows:

[0207] ;

[0208] Wherein, Wcb1 is the first pollution reference difference ratio, Wrn1 is the first pollutant gas concentration value, and Wrj1 is the first pollutant gas reference concentration value;

[0209] Respectively acquiring the pollution reference difference ratios corresponding to the second characteristic pollution gas to the mth characteristic pollution gas to obtain the second pollution reference difference ratio to the mth pollution reference difference ratio;

[0210] Compare the values ​​of the first pollution benchmark difference ratio to the mth pollution benchmark difference ratio, and define the pollution benchmark difference ratio with the largest value as the key pollution benchmark difference;

[0211] The indoor air sample quality coefficient is obtained by calculating the average concentration value of polluted gas and the key pollution benchmark difference;

[0212] Calculate the indoor air sample quality coefficient, the specific formula configuration is as follows:

[0213] ;

[0214] Among them, Ykz is the indoor air sample quality coefficient, Ndp is the average concentration value of pollutant gas, and Gjc is the key pollution benchmark difference;

[0215] Performing air quality analysis on each indoor air sample to obtain multiple indoor air sample quality coefficients, and averaging the multiple indoor air sample quality coefficients to obtain an indoor air quality coefficient;

[0216] Conduct air quality analysis on the outdoor unit area of ​​the fluorine pump air conditioner to obtain the outdoor air quality coefficient;

[0217] The same volume of air is obtained at different locations of the outdoor unit area of ​​the fluorine pump air conditioner as outdoor air samples to obtain multiple outdoor air samples;

[0218] Repeat the analysis process of the indoor air sample quality coefficient, respectively perform air quality analysis on each outdoor air sample to obtain a plurality of outdoor air sample quality coefficients, and average the obtained plurality of outdoor air sample quality coefficients to obtain the outdoor air quality coefficient;

[0219] Indoor air quality factor and outdoor air quality factor are defined as air quality data;

[0220] The air quality module acquires the air quality data and transmits it to the data analysis module;

[0221] The climate data module obtains the indoor temperature coefficient and the indoor humidity coefficient respectively to obtain the climate monitoring data;

[0222] In the process of controlling the fluorine pump air conditioner, a climate monitoring period is set, the time value corresponding to the current moment is used as the end point of the climate monitoring period, and the time point one climate monitoring period before the end point of the climate monitoring period is marked as the starting point of the climate monitoring period;

[0223] It should be noted here that:

[0224] As the time value corresponding to the current moment changes, the end point of the climate monitoring period changes randomly, thereby realizing the dynamic update of the climate monitoring period;

[0225] During the climate monitoring period, the temperature of the fluorine pump air conditioning control area is analyzed to obtain the indoor temperature coefficient;

[0226] The details are as follows:

[0227] In the climate monitoring period, a plurality of indoor temperature monitoring time points are marked respectively and named as the first temperature monitoring time point to the i-th temperature monitoring time point;

[0228] It should be noted here that:

[0229] In this application, i is the quantity value corresponding to the temperature monitoring time point, and i is an integer greater than 0;

[0230] The temperature values ​​corresponding to the first temperature monitoring time point to the i-th temperature monitoring time point of the fluorine pump air conditioning control area are respectively obtained to obtain the first indoor temperature value to the i-th indoor temperature value;

[0231] Calculate the average of the first indoor temperature value to the i-th indoor temperature value to obtain the indoor average temperature value;

[0232] The indoor temperature stability coefficient is obtained by calculating the first indoor temperature value to the i-th indoor temperature value and the indoor average temperature value;

[0233] Calculate the indoor temperature stability coefficient, the specific formula is as follows:

[0234] ;

[0235] Wherein, Swx is the indoor temperature stability coefficient, Sn1 to Sni are the first indoor temperature value to the i-th indoor temperature value respectively, and Snp is the indoor average temperature value;

[0236] The indoor temperature coefficient is obtained by calculating the indoor temperature stability coefficient and the indoor average temperature value;

[0237] Calculate the indoor temperature coefficient, the specific formula is configured as follows:

[0238] ;

[0239] Among them, Qwx is the indoor temperature coefficient, Swx is the indoor temperature stability coefficient, and Snp is the indoor average temperature value;

[0240] During the climate monitoring period, humidity analysis is performed on the fluorine pump air conditioning control area to obtain the indoor humidity coefficient;

[0241] The details are as follows:

[0242] During the climate monitoring period, a plurality of indoor humidity monitoring time points are marked respectively and named as the first humidity monitoring time point to the jth humidity monitoring time point;

[0243] It should be noted here that:

[0244] In this application, j is the quantity value corresponding to the humidity monitoring time point, and j is an integer greater than 0;

[0245] The humidity values ​​corresponding to the first humidity monitoring time point to the jth humidity monitoring time point of the fluorine pump air conditioning control area are respectively obtained to obtain the first indoor humidity value to the jth indoor humidity value;

[0246] Calculate the average of the first indoor humidity value to the jth indoor humidity value to obtain the indoor average humidity value;

[0247] The indoor humidity stability coefficient is obtained by calculating the first indoor humidity value to the jth indoor humidity value and the indoor average humidity value;

[0248] To calculate the indoor humidity stability coefficient, the specific formula is as follows:

[0249] ;

[0250] Wherein, Wsx is the indoor humidity stability coefficient, Wn1 to Wnj are the first indoor humidity value to the jth indoor humidity value respectively, and Wnp is the indoor average humidity value;

[0251] The indoor humidity coefficient is obtained by calculating the indoor humidity stability coefficient and the indoor average humidity value;

[0252] To calculate the indoor humidity coefficient, the specific formula is as follows:

[0253] ;

[0254] Among them, Swx is the indoor humidity coefficient, Wsx is the indoor humidity stability coefficient, and Wnp is the indoor average humidity value;

[0255] The indoor temperature coefficient and indoor humidity coefficient are defined as climate monitoring data;

[0256] The climate data module acquires climate monitoring data and transmits it to the data analysis module;

[0257] The data analysis module obtains a mode switching coefficient by analyzing air quality data and climate monitoring data, and obtains a first mode switching coefficient threshold and a second mode switching coefficient threshold for the mode switching coefficient, and defines the mode switching coefficient, the first mode switching coefficient threshold and the second mode switching coefficient value as mode switching analysis data;

[0258] Obtain air quality data, and obtain indoor air quality coefficient and outdoor air quality coefficient according to the air quality value;

[0259] The indoor air quality coefficient and the outdoor air quality coefficient are calculated to obtain the air quality analysis coefficient;

[0260] To calculate the air quality analysis coefficient, the specific formula is as follows:

[0261] ;

[0262] Among them, Kxx is the air quality analysis coefficient, Sqn is the indoor air quality coefficient, and Sqw is the outdoor air quality coefficient;

[0263] Acquire climate monitoring data, and respectively acquire indoor temperature coefficient and indoor humidity coefficient according to the climate monitoring data;

[0264] The air quality analysis coefficient, the indoor temperature coefficient and the indoor humidity coefficient are calculated to obtain the mode switching coefficient;

[0265] The mode switching coefficient is calculated, and the specific formula is as follows:

[0266] ;

[0267] Among them, Msq is the mode switching coefficient, Kxx is the air quality analysis coefficient, Swx is the indoor humidity coefficient, and Qwx is the indoor temperature coefficient;

[0268] respectively obtaining a first air quality analysis coefficient threshold, a first indoor temperature coefficient threshold, and a first indoor humidity coefficient threshold;

[0269] The first mode switching coefficient threshold is obtained by calculating the first air quality analysis coefficient threshold, the first indoor temperature coefficient threshold and the first indoor humidity coefficient threshold;

[0270] The first mode switching coefficient threshold is calculated, and the specific formula is as follows:

[0271] ;

[0272] Among them, Msq1 is the first mode switching coefficient threshold, Kxx1 is the first air quality analysis coefficient threshold, Swx1 is the first indoor humidity coefficient threshold, and Qwx1 is the first indoor temperature coefficient threshold;

[0273] respectively obtaining a second air quality analysis coefficient threshold, a second indoor temperature coefficient threshold, and a second indoor humidity coefficient threshold;

[0274] The second mode switching coefficient threshold is obtained by calculating the second air quality analysis coefficient threshold, the second indoor temperature coefficient threshold and the second indoor humidity coefficient threshold;

[0275] The second mode switching coefficient threshold is calculated, and the specific formula is as follows:

[0276] ;

[0277] Wherein, Msq2 is the second mode switching coefficient threshold, Kxx2 is the second air quality analysis coefficient threshold, Swx2 is the second indoor humidity coefficient threshold, and Qwx2 is the second indoor temperature coefficient threshold;

[0278] It should be noted here that:

[0279] In the present application, the first air quality analysis coefficient threshold, the first indoor temperature coefficient threshold, the first indoor humidity coefficient threshold, the second air quality analysis coefficient threshold, the second indoor temperature coefficient threshold and the second indoor humidity coefficient threshold need to be specifically set according to the actual situation;

[0280] defining a mode switching coefficient, a first mode switching coefficient threshold, and a second mode switching coefficient threshold as mode switching analysis data;

[0281] The data analysis module acquires the mode switching analysis data and transmits it to the mode switching module;

[0282] The mode switching module switches the working mode of the fluorine pump air conditioner according to the mode switching analysis data;

[0283] Acquire mode switching analysis data, and acquire a mode switching coefficient, a first mode switching coefficient threshold, and a second mode switching coefficient threshold according to the mode switching analysis data;

[0284] When the mode switching coefficient is greater than or equal to the first mode switching coefficient threshold, the fluorine pump air conditioner is switched to the pure fluorine pump mode;

[0285] When the mode switching coefficient is less than the first mode switching coefficient threshold and greater than the second mode switching coefficient threshold, the fluorine pump air conditioner is switched to the hybrid power refrigeration mode;

[0286] When the mode switching coefficient is less than or equal to the second mode switching coefficient threshold, the fluorine pump air conditioner is switched to the compressor cooling mode;

[0287] It should be noted here that:

[0288] In the present application, the first mode switching coefficient threshold is greater than the second mode switching coefficient threshold, and both the first mode switching coefficient threshold and the second mode switching coefficient threshold are greater than 0;

[0289] The preferred embodiments of the present invention disclosed above are only used to help explain the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to only specific implementation methods. Obviously, many modifications and changes can be made according to the content of this specification. This specification selects and specifically describes these embodiments in order to better explain the principles and practical applications of the present invention, so that those skilled in the art can understand and use the present invention well. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. A fluorine pump air conditioning control method based on indoor and outdoor air quality, characterized in that: include: Step S1: Acquire the indoor air quality coefficient and the outdoor air quality coefficient respectively to obtain air quality data; Step S2: respectively obtaining the indoor temperature coefficient and the indoor humidity coefficient to obtain climate monitoring data; Step S3: acquiring a mode switching coefficient by analyzing air quality data and climate monitoring data, and acquiring a first mode switching coefficient threshold and a second mode switching coefficient threshold for the mode switching coefficient, and defining the mode switching coefficient, the first mode switching coefficient threshold and the second mode switching coefficient threshold as mode switching analysis data; Step S4: switching the working mode of the fluorine pump air conditioner according to the mode switching analysis data; The step S1 further includes the following specific steps: Step S11: in the process of controlling the fluorine pump air conditioner, respectively selecting m different types of pollutant gases as characteristic pollutant gases, and marking them as the first characteristic pollutant gas to the mth characteristic pollutant gas respectively; Step S12: Analyze the air quality of the fluorine pump air conditioning control area to obtain the indoor air quality coefficient; Step S13: Analyze the air quality of the outdoor unit area of ​​the fluorine pump air conditioner to obtain the outdoor air quality coefficient; Step S14: defining the indoor air quality coefficient and the outdoor air quality coefficient as air quality data; The step S13 further includes the following specific steps: Step S131: acquiring the same volume of air at different locations in the outdoor unit area of ​​the fluorine pump air conditioner as outdoor air samples to obtain multiple outdoor air samples; Step S132: repeating step S122, respectively performing air quality analysis on each outdoor air sample to obtain a plurality of outdoor air sample quality coefficients, and averaging the obtained plurality of outdoor air sample quality coefficients to obtain an outdoor air quality coefficient; The step S12 further includes the following specific steps: Step S121: acquiring the same volume of air at different locations in the fluorine pump air conditioning control area as indoor air samples, obtaining multiple indoor air samples, and randomly selecting one indoor air sample from the multiple indoor air samples as a characteristic indoor air sample; Step S122: performing air quality analysis on the characteristic indoor air sample to obtain the indoor air sample quality coefficient; Step S123: performing air quality analysis on each indoor air sample to obtain multiple indoor air sample quality coefficients, and averaging the obtained multiple indoor air sample quality coefficients to obtain the indoor air quality coefficient; The step S2 further includes the following specific steps: Step S21: in the process of controlling the fluorine pump air conditioner, a climate monitoring period is set, the time value corresponding to the current moment is used as the end point of the climate monitoring period, and the time point one climate monitoring period before the end point of the climate monitoring period is marked as the starting point of the climate monitoring period; Step S22: performing temperature analysis on the fluorine pump air conditioning control area during the climate monitoring period to obtain the indoor temperature coefficient; Step S23: performing humidity analysis on the fluorine pump air conditioning control area during the climate monitoring period to obtain the indoor humidity coefficient; Step S24: defining the indoor temperature coefficient and the indoor humidity coefficient as climate monitoring data; The step S22 further includes the following specific steps: Step S221: in the climate monitoring period, mark a plurality of indoor temperature monitoring time points respectively, and name them as the first temperature monitoring time point to the i-th temperature monitoring time point; Step S222: respectively acquiring the temperature values ​​corresponding to the fluorine pump air conditioning control area from the first temperature monitoring time point to the i-th temperature monitoring time point, to obtain the first indoor temperature value to the i-th indoor temperature value; Step S223: Calculate the average of the first indoor temperature value to the i-th indoor temperature value to obtain an indoor average temperature value; Step S224: Calculate the indoor temperature stability coefficient by combining the first indoor temperature value to the i-th indoor temperature value and the indoor average temperature value; Calculate the indoor temperature stability coefficient, the specific formula is as follows: ； Wherein, Swx is the indoor temperature stability coefficient, Sn1 to Sni are the first indoor temperature value to the i-th indoor temperature value respectively, and Snp is the indoor average temperature value; Step S225: Calculate the indoor temperature coefficient by using the indoor temperature stability coefficient and the indoor average temperature value; Calculate the indoor temperature coefficient, the specific formula is configured as follows: ； Among them, Qwx is the indoor temperature coefficient, Swx is the indoor temperature stability coefficient, and Snp is the indoor average temperature value; The step S23 further includes the following specific steps: Step S231: in the climate monitoring period, mark a plurality of indoor humidity monitoring time points respectively, and name them as the first humidity monitoring time point to the jth humidity monitoring time point; Step S232: respectively acquiring the humidity values ​​corresponding to the first humidity monitoring time point to the jth humidity monitoring time point of the fluorine pump air conditioning control area to obtain the first indoor humidity value to the jth indoor humidity value; Step S233: Calculate the average of the first indoor humidity value to the jth indoor humidity value to obtain an indoor average humidity value; Step S234: Calculate the indoor humidity stability coefficient by combining the first indoor humidity value to the jth indoor humidity value and the indoor average humidity value; To calculate the indoor humidity stability coefficient, the specific formula is as follows: ； Wherein, Wsx is the indoor humidity stability coefficient, Wn1 to Wnj are the first indoor humidity value to the jth indoor humidity value respectively, and Wnp is the indoor average humidity value; Step S235: Calculate the indoor humidity coefficient by using the indoor humidity stability coefficient and the indoor average humidity value; To calculate the indoor humidity coefficient, the specific formula is as follows: ； Among them, Swx is the indoor humidity coefficient, Wsx is the indoor humidity stability coefficient, and Wnp is the indoor average humidity value.

2. A fluorine pump air conditioning control method based on indoor and outdoor air quality according to claim 1, characterized in that: The step S122 further includes the following specific steps: Step S1221: Obtain gas concentration values ​​corresponding to the first characteristic pollutant gas to the mth characteristic pollutant gas in the characteristic indoor air sample, and obtain the first pollutant gas concentration value to the mth pollutant gas concentration value; Step S1222: Calculate the average of the first pollutant gas concentration value to the mth pollutant gas concentration value to obtain the average pollutant gas concentration value; Step S1223: respectively obtaining gas reference concentration values ​​corresponding to the first characteristic pollutant gas to the mth characteristic pollutant gas, and obtaining the first pollutant gas reference concentration value to the mth pollutant gas reference concentration value; Step S1224: Calculate the first pollutant gas concentration value and the first pollutant gas reference concentration value to obtain a pollution reference difference ratio corresponding to the first characteristic pollutant gas, and name it the first pollution reference difference ratio; The first pollution benchmark difference ratio is calculated, and the specific formula configuration is as follows: ； Wherein, Wcb1 is the first pollution reference difference ratio, Wrn1 is the first pollutant gas concentration value, and Wrj1 is the first pollutant gas reference concentration value; Step S1225: respectively acquiring the pollution reference difference ratios corresponding to the second characteristic pollution gas to the mth characteristic pollution gas, and obtaining the second pollution reference difference ratio to the mth pollution reference difference ratio; Step S1226: Compare the values ​​of the first pollution reference difference ratio to the mth pollution reference difference ratio, and define the pollution reference difference ratio with the largest value as the key pollution reference difference; Step S1227: Calculate the indoor air sample quality coefficient by using the average concentration value of polluted gas and the key pollution benchmark difference; Calculate the indoor air sample quality coefficient, the specific formula configuration is as follows: ； Among them, Ykz is the indoor air sample quality coefficient, Ndp is the average concentration value of polluted gas, and Gjc is the key pollution benchmark difference.

3. A fluorine pump air conditioning control method based on indoor and outdoor air quality according to claim 1, characterized in that: The step S3 further includes the following specific steps: Step S31: Acquire air quality data, and acquire indoor air quality coefficient and outdoor air quality coefficient according to the air quality value; Step S32: Calculate the indoor air quality coefficient and the outdoor air quality coefficient to obtain an air quality analysis coefficient; To calculate the air quality analysis coefficient, the specific formula is as follows: ； Among them, Kxx is the air quality analysis coefficient, Sqn is the indoor air quality coefficient, and Sqw is the outdoor air quality coefficient; Step S33: Acquire climate monitoring data, and acquire indoor temperature coefficient and indoor humidity coefficient respectively according to the climate monitoring data; Step S34: Calculate the air quality analysis coefficient, the indoor temperature coefficient and the indoor humidity coefficient to obtain a mode switching coefficient; The mode switching coefficient is calculated, and the specific formula is as follows: ； Among them, Msq is the mode switching coefficient, Kxx is the air quality analysis coefficient, Swx is the indoor humidity coefficient, and Qwx is the indoor temperature coefficient; Step S35: respectively obtaining a first mode switching coefficient threshold and a second mode switching coefficient threshold; Step S36: defining the mode switching coefficient, the first mode switching coefficient threshold and the second mode switching coefficient threshold as mode switching analysis data.

4. A fluorine pump air conditioning control method based on indoor and outdoor air quality according to claim 3, characterized in that: The step S35 further includes the following specific steps: Step S351: respectively obtaining a first air quality analysis coefficient threshold, a first indoor temperature coefficient threshold, and a first indoor humidity coefficient threshold; Step S352: obtaining a first mode switching coefficient threshold by calculating the first air quality analysis coefficient threshold, the first indoor temperature coefficient threshold, and the first indoor humidity coefficient threshold; The first mode switching coefficient threshold is calculated, and the specific formula is as follows: ； Among them, Msq1 is the first mode switching coefficient threshold, Kxx1 is the first air quality analysis coefficient threshold, Swx1 is the first indoor humidity coefficient threshold, and Qwx1 is the first indoor temperature coefficient threshold; Step S353: respectively obtaining a second air quality analysis coefficient threshold, a second indoor temperature coefficient threshold, and a second indoor humidity coefficient threshold; Step S354: obtaining a second mode switching coefficient threshold by calculating the second air quality analysis coefficient threshold, the second indoor temperature coefficient threshold, and the second indoor humidity coefficient threshold; The second mode switching coefficient threshold is calculated, and the specific formula is as follows: ； Among them, Msq2 is the second mode switching coefficient threshold, Kxx2 is the second air quality analysis coefficient threshold, Swx2 is the second indoor humidity coefficient threshold, and Qwx2 is the second indoor temperature coefficient threshold.

5. A fluorine pump air conditioning control method based on indoor and outdoor air quality according to claim 1, characterized in that: The step S4 further includes the following specific steps: Step S41: acquiring mode switching analysis data, and acquiring a mode switching coefficient, a first mode switching coefficient threshold, and a second mode switching coefficient threshold according to the mode switching analysis data; Step S42: when the mode switching coefficient is greater than or equal to the first mode switching coefficient threshold, the fluorine pump air conditioner is switched to the pure fluorine pump mode; Step S43: when the mode switching coefficient is less than the first mode switching coefficient threshold and greater than the second mode switching coefficient threshold, the fluorine pump air conditioner is switched to the hybrid power cooling mode; Step S44: when the mode switching coefficient is less than or equal to the second mode switching coefficient threshold, the fluorine pump air conditioner is switched to the compressor cooling mode.

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