A control method for correcting atomization amount, atomization device and medium

Abstract

The present invention relates to the field of atomization applications and provides a control method, atomization device, and medium for correcting the atomization amount. The control method for correcting the atomization amount includes obtaining the liquid level value of the bacterial liquid in the bottle through a liquid level detection point, and then calculating the atomization time of the remaining bacterial liquid. According to the ratio value of the remaining liquid volume, the single atomization time of the remaining liquid volume is calculated. If the calculated single atomization time value is within the range of 9 to 40 seconds, atomization is continued with the calculated single atomization time value; if it is not within the range of 9 to 40 seconds, atomization is performed with a pre-set single atomization time value, thereby achieving the purpose of correcting the single atomization time value, ensuring that the total atomization days value meets the set value and ensuring the atomization effect. Subsequently, the problem of different water absorption rates caused by the sponge core is eliminated, and the precision value of the atomization value is improved.

Description

Technical Field

[0001] The present invention relates to the field of atomization applications, and in particular to a control method, an atomization device and a medium for correcting atomization amount. Background Art

[0002] Nebulizers are widely used in humidifiers, aromatherapy diffusers, medical devices, sterilizers, and other products requiring atomization. During the atomization process, the atomizer consumes the bacterial solution within the reservoir through a sponge core located within the reservoir, causing the bacterial solution within the reservoir to change. Typically, once the bacterial solution within the reservoir is depleted, the entire reservoir must be replaced. However, due to the varying water absorption efficiency of the sponge core within each reservoir, the atomization volume can vary significantly between even the same atomizer (which differs only in the sponge core).

[0003] Application number CN201611033581.4, entitled "Humidification Method, Humidification Device, and Aromatherapy Diffuser," describes a method for calculating the actual atomization volume of an atomizing mechanism by measuring the liquid level in a liquid storage container and calculating the change in the liquid level. The atomization power of the atomizing mechanism is then adjusted based on the actual atomization volume and the preset atomization volume of the atomizing mechanism. This application describes atomization adjustment based on the detection of the atomization volume, which in turn adjusts the atomization power. This is a continuous atomization process, and the solution does not address the differences in water absorption efficiency between different sponge cores. Furthermore, the humidification method, humidification device, and aromatherapy diffuser require the detection of the actual humidity of the indoor environment and the adjustment of the atomization volume based on the preset humidity. Therefore, the conditions for adjusting or limiting the atomization volume include a preset atomization time, a preset atomization volume, and the indoor humidity, each of which is adjusted based on its own preset values. This approach fails to address the differences in atomization volume caused by different sponge cores. Summary of the Invention

[0004] The purpose of the present invention is to provide a control method, an atomizing device and a medium for correcting the atomization amount, aiming to improve the problem of different changes in atomization amount caused by the replacement and use of sponge cores in the atomizer and the different water absorption rates of different sponge cores.

[0005] To achieve the above object, the present invention adopts the following technical solution: a control method for correcting atomization amount, comprising the following steps:

[0006] Obtain the capacity of the bacterial solution bottle (Q ml), set the total number of atomization days (W days), the interval between each atomization (M hours), the duration of a single atomization (H seconds), and the adjustment coefficient (K) for the water absorption rate of the sponge core in the bacterial solution bottle;

[0007] During the atomization process, the number of atomization times N1 is accumulated and recorded; and at least one liquid level detection point is set during the atomization process to obtain the liquid level height value Q1 when the bacterial liquid bottle is consumed to the liquid level detection point;

[0008] Calculate the cumulative atomization time value S1 and the ratio T1 of the remaining bacteria liquid in the bottle to the bacteria liquid bottle when the bacteria liquid is consumed to the liquid level height value Q1, then,

[0009] S1=N1×H,

[0010]

[0011] Calculate the total number of seconds S0 and the total number of atomization times N0 for atomizing the entire bottle of bacterial solution, then we have:

[0012]

[0013]

[0014] Calculate the single atomization time H1 of the bacterial solution in the remaining bottle, and obtain:

[0015]

[0016] When 40 seconds ≥ H1 ≥ 9 seconds, the single atomization time of the bacterial solution in the remaining bottle is H1 seconds;

[0017] When 9 seconds>H1 or H1>40 seconds, the single atomization time of the bacterial solution in the remaining bottle is atomized for H seconds.

[0018] Preferably, the total atomization days W is greater than 50 days, and the total atomization days W is provided with an error number of days, and the error number of days is a plus or minus value of 10 days.

[0019] Preferably, the default value of the adjustment coefficient K is 1.05; obtain two cumulative atomization time values ​​S during the atomization period x and S x+1 , with the calculated value K of the adjustment coefficient x for:

[0020]

[0021] T x+1 is the cumulative atomization time value S x+1 When T is the ratio of the remaining bacterial solution in the bottle to the bacterial solution bottle; x is the cumulative atomization time value S x When , the ratio of the remaining bacterial solution in the bottle to the bacterial solution bottle;

[0022] If K x >1.1 or K x≤1, the adjustment coefficient is calculated based on the K value; if 1<K x ≤1.1, the adjustment coefficient is K x The value is calculated.

[0023] Preferably, when the first bottle of bacterial solution is atomized, the adjustment coefficient is K value; when the second bottle or more of bacterial solution is atomized, the adjustment coefficient is K value. x The value is calculated.

[0024] Preferably, the liquid level detection point includes a first detection liquid level and a second detection liquid level, the first detection liquid level is the liquid level when the bacterial liquid content in the bottle is 75%, and the second detection liquid level is the liquid level when the bacterial liquid content in the bottle is 10%.

[0025] Also provided is an atomizing device, the atomizing device being adjusted using the above-mentioned control method for correcting the atomization amount;

[0026] The atomization device includes a liquid storage bottle, a liquid level detection module for detecting the liquid level height of the liquid storage bottle, and a single-chip microcomputer. The liquid storage bottle and the liquid level detection module are electrically connected in parallel and arranged on the single-chip microcomputer. The single-chip microcomputer is also used to accumulate the number of times the liquid storage bottle is atomized.

[0027] Preferably, the liquid storage bottle includes a bottle body, an atomizer arranged on the bottle mouth of the bottle body, and a sponge core with one end arranged on the inlet of the atomizer.

[0028] Also provided is an atomizing device, comprising:

[0029] a parameter setting module, which is used to obtain the capacity value (Q ml) of the bacterial solution bottle, set the total number of atomization days (W days), the interval time between each atomization (M hours), the duration of a single atomization (H seconds), and the adjustment coefficient value (K) of the water absorption rate of the sponge core in the bacterial solution bottle;

[0030] The recording module is used to accumulate and record the number of atomizations N1 during the atomization process; and obtain the liquid level height value Q1 when the bacterial liquid bottle is consumed to the liquid level detection point during the atomization process;

[0031] The calculation module is used to call the parameter setting module and the parameter value of the recording module to calculate the expected single atomization time H1 of the bacterial liquid in the remaining bottle. Then, Where, S1 is the cumulative atomization time value, S1 = N1 × H;

[0032] S0 is the total number of seconds for atomizing the entire bottle of bacterial solution. in, T1 is the ratio of the remaining bacterial liquid in the bottle to the total bacterial liquid in the bottle when the bacterial liquid is consumed to the liquid level value Q1;

[0033] N0 is the total number of atomization times,

[0034] An adjustment module is used to adjust the actual single atomization time according to the expected single atomization time H1. When 40 seconds ≥ H1 ≥ 9 seconds, the single atomization time of the bacterial solution in the remaining bottle is atomized for H1 seconds;

[0035] When 9 seconds>H1 or H1>40 seconds, the single atomization time of the bacterial solution in the remaining bottle is atomized for H seconds.

[0036] A computer-readable storage medium is also provided. When instructions in the storage medium are executed by a processor of an electronic device, the electronic device can execute the control method as described above.

[0037] After adopting the above technical solution, the present invention has the following advantages compared with the background technology:

[0038] 1. The liquid level of the bacterial liquid in the bottle is obtained through the liquid level detection point, and then the atomization time of the remaining bacterial liquid is calculated. According to the ratio of the remaining liquid volume, the single atomization time of the remaining liquid is calculated. If the calculated single atomization time value is between 9 and 40 seconds, atomization is continued with the calculated single atomization time value; if it is not within the range of 9 to 40 seconds, atomization is performed with the pre-set single atomization time value. The purpose of correcting the single atomization time value is achieved to ensure that the total atomization time value meets the set value, ensure the atomization effect, and then eliminate the problem of different water absorption rates caused by the sponge core, thereby improving the atomization accuracy value.

[0039] 2. The atomization of the bacterial liquid bottle requires water absorption and transportation through the sponge core, and different sponge cores have different water absorption rates. Therefore, an adjustment coefficient is needed to ensure that the calculated single atomization time value is more accurate to meet the purpose of the total atomization days. BRIEF DESCRIPTION OF THE DRAWINGS

[0040] Figure 1 This is a flow chart of the control method for correcting the atomization amount according to the present invention.

[0041] Figure 2 Schematic diagram of the structure of the atomization device of the present invention;

[0042] Figure 3 This is a module block diagram of the atomization device described in the present invention.

[0043] Description of reference numerals:

[0044] 10. Liquid storage bottle; 20. Liquid level detection module; 30. Single chip microcomputer;

[0045] 101. Bottle; 102. Atomizer; 103. Sponge core;

[0046] 40. Parameter setting module; 50. Recording module; 60. Calculation module; 70. Adjustment module. DETAILED DESCRIPTION

[0047] In order to make the purpose, technical solutions and advantages of the present invention more clearly understood, the present invention is further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not intended to limit the present invention. In addition, it should be noted that:

[0048] The terms "upper", "lower", "left", "right", "vertical", "horizontal", "inside", "outside", etc. are based on the orientation or position relationship shown in the accompanying drawings. They are only for the convenience of describing the present invention and simplifying the description. They do not indicate or imply that the device or element of the present invention must have a specific orientation. Therefore, they should not be understood as limiting the present invention.

[0049] When an element is referred to as being “fixed to,” “disposed on,” or “provided on” another element, it can be directly on the other element or indirectly on the other element. When an element is referred to as being “connected to” another element, it can be directly connected to the other element or indirectly connected to the other element.

[0050] Unless otherwise expressly specified or limited, the terms "mounted," "connected," and "connected" should be interpreted broadly. For example, they may refer to fixed, detachable, or integral connections; mechanical or electrical connections; direct or indirect connections through an intermediary; and internal communication between two components or interaction between two components. Those skilled in the art will understand the specific meanings of these terms in the present invention based on specific circumstances.

[0051] Example 1

[0052] Please refer to Figure 1As shown, this embodiment provides a control method for correcting the atomization amount, comprising the following steps: Step S101, obtaining a bacterial solution bottle with a capacity of Q ml of bacterial solution, setting the total number of atomization days to W days, the interval between two adjacent atomizations to M hours, the single atomization duration to H seconds, the adjustment coefficient value of the water absorption rate of the sponge core in the bacterial solution bottle to K, and W>M>H>0, the interval time M includes the single atomization duration H, that is, the number of atomizations only needs to be calculated based on the interval time, and the single atomization duration is not included. Not included, K value is greater than 1; step S102, start atomization, step S103, during the atomization process, cumulatively record the number of atomization times N1; and set at least one liquid level detection point during the atomization process; step S104, obtain the liquid level height value Q1 when the bacterial liquid is consumed to the liquid level detection point, and Q>Q1>0; step S105, calculate the cumulative atomization time value S1; and when the bacterial liquid is consumed to the liquid level height value Q1, the proportion of the remaining bacterial liquid in the bottle to the entire bottle is T1, then,

[0053]

[0054] Step S106: Calculate the total number of seconds for atomizing the entire bottle of bacterial solution as S0, and the total number of atomization times as N0, then,

[0055]

[0056] Step S107: Calculate the single atomization time of the bacterial solution in the remaining bottle as H1 seconds, and obtain:

[0057]

[0058] Step S108: Determine whether the calculated single nebulization duration is between 9 and 40 seconds, inclusive. Step S109a: When 40 seconds ≥ H1 ≥ 9 seconds, the single nebulization duration of the remaining bacterial liquid in the bottle is nebulized for H1 seconds, that is, the calculated single nebulization duration is used for nebulization. Step S109b: When 9 seconds > H1 or H1 > 40 seconds, the single nebulization duration of the remaining bacterial liquid in the bottle is nebulized for H seconds, that is, the nebulization is performed for the set single nebulization duration.

[0059] To facilitate understanding and calculation, the above contents are assigned values ​​in this example. Specifically, the bacterial solution in the bacterial solution bottle is Q = 300 ml (the amount of bacterial solution in the bacterial solution bottle can be accurately weighed and calculated), the total number of atomization days is W = 95 days (which can be set manually as needed), the interval between two adjacent atomizations is M = 1 hour, the duration of a single atomization is H = 25 seconds, and the adjustment coefficient for the water absorption rate of the sponge core in the bacterial solution bottle is K = 1.05.

[0060] Furthermore, the liquid level detection point includes a first detection liquid level and a second detection liquid level. The first detection liquid level is the liquid level when the bacterial liquid content in the bottle is 75%, and the second detection liquid level is the liquid level when the bacterial liquid content in the bottle is 10%.

[0061] Therefore, at the first liquid level detection, T1 = 75%, the total number of atomization times N0 = 2280 times, and according to the ratio, the total number of seconds for atomizing the entire bottle of bacterial liquid S0 = 4.20 × S1; thus, we obtain:

[0062]

[0063] Therefore, as long as the cumulative number of atomization times N1 is obtained, the value of the single atomization duration H1 of the remaining bacteria liquid in the bottle when the liquid level is at any position can be known; that is, the H1 value at the first detection liquid level and the second detection liquid level can be calculated, and the subsequent actual single atomization duration value can be adjusted, thereby achieving adjustment of the bacteria liquid bottle at the liquid level of 75% and 10% to ensure that the final total number of atomization days is 95 days.

[0064] In this embodiment, to improve error tolerance, the total number of days for atomization, W, is set to greater than 50 days. This number is also subject to an error of plus or minus 10 days. For example, if W = 95 days, the total number of days for atomization of a bottle of bacterial liquid is within the range of 85-105 days, which meets the atomization requirements and improves practicality and error tolerance.

[0065] In this embodiment, the default value of the adjustment coefficient K is 1.05; obtain two cumulative atomization time values ​​S during the atomization period. x and S x+1 , the verification value of the adjustment coefficient K x for:

[0066]

[0067] T x+1 is the cumulative atomization time value S x+1 When T is the ratio of the remaining bacterial solution in the bottle to the bacterial solution bottle; x is the cumulative atomization time value S x When K x >1.1 or K x ≤1, the adjustment coefficient is calculated based on the K value; if 1<K x When ≤1.1, the adjustment coefficient is K x The value is calculated.

[0068] Because the adjustment coefficient value is used to adjust the water absorption rate of different sponge cores, it needs to be supported by a large amount of data to support the accuracy of the adjustment coefficient value. At the same time, it is necessary to correct the problem of large differences in water absorption rate of individual sponge cores and the material problem of the sponge core. Therefore, the adjustment coefficient value is a coefficient value greater than 1.

[0069] Furthermore, in this embodiment, when the first bottle of bacterial solution is atomized, the adjustment coefficient is K value; when the second bottle or more of bacterial solution is atomized, the adjustment coefficient is K value. x In actual use, the sponge core will be replaced by replacing the bacterial solution bottle. For calculation purposes and data recording within the system, the adjustment coefficient value will be retained.

[0070] Specifically, through the above K x The formula calculates the corresponding value to meet the required K x The K value is recorded in the system, and the adjustment coefficient is corrected after each 3%-8% of the bacterial solution in the atomizer bottle is atomized. The qualified number is recorded and stored. After completing the atomization of a bottle of bacterial solution, the last recorded adjustment coefficient value will be used to start the atomization of the next bottle of bacterial solution, ensuring operational convenience. At the same time, recalibration can improve atomization accuracy when liquid consumption is low.

[0071] Example 2

[0072] like Figure 2 As shown, this embodiment provides an atomizing device that is adjusted using the control method for correcting the atomization amount described in Example 1. The atomizing device includes a liquid storage bottle 10, a liquid level detection module 20 for detecting the liquid level of the liquid storage bottle 10, and a single-chip microcomputer 30. The liquid storage bottle 10 and the liquid level detection module 20 are electrically connected in parallel and arranged on the single-chip microcomputer 30. The single-chip microcomputer 30 is also used to accumulate the number of times the liquid storage bottle 10 is atomized. The single-chip microcomputer 30 can be a 51 single-chip microcomputer 30, or an STC single-chip microcomputer 30, such as the 89, 90, 10, 11, 12, or 15 series of STC single-chip microcomputers 30.

[0073] Specifically, the liquid storage bottle 10 can be used as needed, such as a 300 ml liquid storage bottle 10, a 500 ml liquid storage bottle 10, or an 800 ml liquid storage bottle 10. The liquid storage bottle 10 is equipped with an atomizing device to achieve the purpose of timed atomization and spraying. The liquid level in the bacterial liquid bottle can be detected by a detection circuit (capacitive circuit). The detection circuit eliminates the use of a traditional boost oscillator circuit, eliminating the problem of large errors in the oscillator itself, which makes it difficult to control the atomization volume per unit time.

[0074] In this embodiment, the liquid storage bottle 10 includes a bottle body 101, an atomizer 102 disposed at the mouth of the bottle body 101, and a sponge core 103 disposed at one end at the inlet of the atomizer 102. Thus, the bacterial solution in the liquid storage bottle 10 is atomized by the atomizer 102, while the sponge core 103 transports the bacterial solution to the atomizer 102. Furthermore, the number of atomizations is accumulated and stored in the microcontroller 30 during the atomization process.

[0075] Example 3

[0076] like Figure 3 As shown, this embodiment provides an atomization device, including a parameter setting module 40, a recording module 50, a calculation module 60 and an adjustment module 70. The parameter setting module 40 is used to obtain the capacity value Q ml of the bacteria liquid bottle, set the total number of atomization days W days, the interval time value of each atomization M hours, the single atomization duration value H seconds and the adjustment coefficient value K of the water absorption rate of the sponge core 103 in the bacteria liquid bottle; the recording module 50 is used to accumulate and record the number of atomizations N1 during the atomization process; and obtain the liquid level height value Q1 when the bacteria liquid bottle is consumed to the liquid level detection point during the atomization process; the calculation module 60 is used to call the parameter values ​​of the parameter setting module 40 and the recording module 50 to calculate the expected single atomization duration H1 of the bacteria liquid in the remaining bottle, then, Where, S1 is the cumulative atomization time, S1 = N1 × H; S0 is the total number of seconds to atomize the entire bottle of bacterial solution, in, T1 is the ratio of the remaining bacterial liquid in the bottle to the bacterial liquid bottle when the bacterial liquid is consumed to the liquid level value Q1; N0 is the total number of atomization times, The adjustment module 70 is configured to adjust the actual single atomization duration according to the estimated single atomization duration H1. When 40 seconds ≥ H1 ≥ 9 seconds, the single atomization duration of the remaining bacterial liquid in the bottle is atomized for H1 seconds. When 9 seconds > H1 or H1 > 40 seconds, the single atomization duration of the remaining bacterial liquid in the bottle is atomized for H seconds.

[0077] To facilitate understanding and calculation, the above contents are assigned values ​​in this example. Specifically, the bacterial solution in the bacterial solution bottle is Q = 300 ml (the amount of bacterial solution in the bacterial solution bottle can be accurately weighed and calculated), the total number of atomization days is W = 95 days (which can be set manually as needed), the interval between two adjacent atomizations is M = 1 hour, the duration of a single atomization is H = 25 seconds, and the adjustment coefficient for the water absorption rate of the sponge core in the bacterial solution bottle is K = 1.05.

[0078] Furthermore, the parameter setting module 40 obtains the liquid level values ​​of the first detection liquid level and the second detection liquid level. For example, the first detection liquid level is the liquid level when the bacterial liquid content in the bottle is 75%, and the second detection liquid level is the liquid level when the bacterial liquid content in the bottle is 10%.

[0079] Therefore, at the first liquid level detection, T1 = 75%, the total number of atomization times N0 = 2280 times, and according to the ratio, the total number of seconds for atomizing the entire bottle of bacterial liquid S0 = 4.20 × S1; thus, we obtain:

[0080]

[0081] Therefore, once the number of atomization times N1 is accumulated and acquired by the recording module 50, the value of the single atomization duration H1 of the bacterial liquid in the remaining bottle when the liquid level is at any position can be known; that is, after the H1 value at the first detection liquid level and the second detection liquid level is calculated by the calculation module 60, the subsequent actual single atomization duration value can be adjusted using the adjustment module 70, thereby achieving adjustment of the bacterial liquid bottle at the liquid levels of 75% and 10% to ensure that the final total atomization days are between 85 and 105 days, achieving the purpose of precise atomization adjustment and solving the problem of large differences in the total atomization days caused by different water absorption rates of different sponge cores.

[0082] Example 4

[0083] A computer-readable storage medium, when instructions in the storage medium are executed by a processor of an electronic device, enables the electronic device to execute the control method for correcting atomization amount described in embodiment 1.

[0084] The above description is merely a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any changes or substitutions that can be easily conceived by a person skilled in the art within the technical scope disclosed in the present invention should be included in the scope of protection of the present invention. Therefore, the scope of protection of the present invention should be based on the scope of protection of the claims.

Claims

1. A control method for correcting atomization amount, characterized in that: The steps include: Obtain the capacity of the bacterial solution bottle (Q ml), set the total number of atomization days (W days), the interval between each atomization (M hours), the duration of a single atomization (H seconds), and the adjustment coefficient (K) for the water absorption rate of the sponge core in the bacterial solution bottle; During the atomization process, the number of atomization times N1 is accumulated and recorded; and at least one liquid level detection point is set during the atomization process to obtain the liquid level height value Q1 when the bacterial liquid bottle is consumed to the liquid level detection point; Calculate the cumulative atomization time value S1 and the ratio T1 of the remaining bacteria liquid in the bottle to the bacteria liquid bottle when the bacteria liquid is consumed to the liquid level height value Q1, then, S1=N1×H, Calculate the total number of seconds S0 and the total number of atomization times N0 for atomizing the entire bottle of bacterial solution, then we have: Calculate the single atomization time H1 of the bacterial solution in the remaining bottle, and obtain: When 40 seconds ≥ H1 ≥ 9 seconds, the single atomization time of the bacterial solution in the remaining bottle is H1 seconds; When 9 seconds>H1 or H1>40 seconds, the single atomization time of the bacterial solution in the remaining bottle is atomized for H seconds.

2. A control method for correcting atomization amount according to claim 1, characterized in that: The total atomization days W is greater than 50 days, and the total atomization days W is provided with an error number of days, and the error number of days is plus or minus 10 days.

3. The control method for correcting atomization amount according to claim 1, characterized in that: The default value of the adjustment coefficient K is 1.05; obtain two cumulative atomization time values ​​S during the atomization period x and S x+1 , the verification value of the adjustment coefficient K x for: T x+1 is the cumulative atomization time value S x+1 When T is the ratio of the remaining bacterial solution in the bottle to the bacterial solution bottle; x is the cumulative atomization time value S x When , the ratio of the remaining bacterial solution in the bottle to the bacterial solution bottle; If K x >1.1 or K x ≤1, the adjustment coefficient is calculated based on the K value; if 1<K x ≤1.1, the adjustment coefficient is K x The value is calculated.

4. The control method for correcting the atomization amount according to claim 3, characterized in that: When the first bottle of bacterial solution is atomized, the adjustment coefficient is K value; when the second bottle of bacterial solution is atomized, the adjustment coefficient is K value. x The value is calculated.

5. The control method for correcting atomization amount according to claim 1, characterized in that: The liquid level detection point includes a first detection liquid level and a second detection liquid level, the first detection liquid level is the liquid level when the bacterial liquid content in the bottle is 75%, and the second detection liquid level is the liquid level when the bacterial liquid content in the bottle is 10%.

6. An atomizing device, characterized in that: The atomizing device is adjusted using the control method for correcting the atomization amount according to any one of claims 1 to 5; The atomization device includes a liquid storage bottle, a liquid level detection module for detecting the liquid level height of the liquid storage bottle, and a single-chip microcomputer. The liquid storage bottle and the liquid level detection module are electrically connected in parallel and arranged on the single-chip microcomputer. The single-chip microcomputer is also used to accumulate the number of times the liquid storage bottle is atomized.

7. The atomizing device according to claim 6, characterized in that: The liquid storage bottle comprises a bottle body, an atomizer arranged on the bottle mouth of the bottle body, and a sponge core with one end arranged on the inlet of the atomizer.

8. An atomizing device, characterized in that: include: a parameter setting module, which is used to obtain the capacity value (Q ml) of the bacterial solution bottle, set the total number of atomization days (W days), the interval time between each atomization (M hours), the duration of a single atomization (H seconds), and the adjustment coefficient value (K) of the water absorption rate of the sponge core in the bacterial solution bottle; The recording module is used to accumulate and record the number of atomizations N1 during the atomization process; and obtain the liquid level height value Q1 when the bacterial liquid bottle is consumed to the liquid level detection point during the atomization process; The calculation module is used to call the parameter setting module and the parameter value of the recording module to calculate the expected single atomization time H1 of the bacterial liquid in the remaining bottle. Then, Where, S1 is the cumulative atomization time value, S1 = N1 × H; S0 is the total number of seconds for atomizing the entire bottle of bacterial solution. in, T1 is the ratio of the remaining bacterial liquid in the bottle to the total bacterial liquid in the bottle when the bacterial liquid is consumed to the liquid level value Q1; N0 is the total number of atomization times, An adjustment module is used to adjust the actual single atomization time according to the expected single atomization time H1. When 40 seconds ≥ H1 ≥ 9 seconds, the single atomization time of the bacterial solution in the remaining bottle is atomized for H1 seconds; When 9 seconds>H1 or H1>40 seconds, the single atomization time of the bacterial solution in the remaining bottle is atomized for H seconds.

9. A computer-readable storage medium, characterized in that When the instructions in the storage medium are executed by a processor of an electronic device, the electronic device is enabled to execute the control method according to any one of claims 1 to 5.

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