Remote control method of high-pressure water pump motor based on data acquisition

Abstract

The present invention discloses a remote control method for a high-pressure water pump motor based on data acquisition, which relates to the technical field of intelligent analysis and includes the following steps: calculating the historical water pump output power, constructing an interference efficiency model, calculating the predicted interference efficiency value, setting the standard water pump's own parameter interval and the standard water pump's related parameter interval according to the historical water pump mechanical efficiency distributed in the second water pump mechanical efficiency interval, and sending a first control signal and a second control signal. The present invention improves the efficiency of the overall system by comparing and analyzing the mechanical efficiency of the first water pump and the historical water pump, calculates the interference efficiency model in the historical data, improves the reliability and stability of the equipment, and improves the automation level of the system by comparing the water pump's own parameters with the standard parameter interval. According to the historical data and the interference efficiency model, a standard parameter interval suitable for a specific water pump can be set, thereby realizing a personalized and precise control strategy.

Description

Technical Field

[0001] The present invention relates to the technical field of intelligent analysis, and in particular to a high-pressure water pump motor remote control method based on data acquisition. Background Art

[0002] In recent years, remote control technology for high-pressure water pump motors has made significant progress. It integrates sensor technology, Internet of Things technology, and artificial intelligence technology to achieve real-time monitoring and data analysis. Through cloud computing and big data, users can remotely access equipment status, predict maintenance needs, and optimize operating efficiency, making remote control more intelligent and automated.

[0003] At present, a Chinese invention patent with publication number CN 117329112 B discloses a remote control system for a water pump. This method marks the time period with the lowest electricity consumption coefficient as the operating time period, operates the high-cost water tank according to the operating time period, and stops the water pump during peak electricity consumption and high electricity prices, so as to achieve the purpose of peak avoidance and valley filling and energy saving, thereby improving work efficiency and reducing actual costs. However, the relevant technology does not analyze the specific parameters of the water pump, lacks the applicability of the analysis, does not compensate for the analysis errors, and lacks the accuracy of the analysis. Summary of the invention

[0004] The technical problem solved by the present invention is that the related art does not analyze the specific parameters of the water pump, lacks the applicability of the analysis, does not compensate for the analysis errors, and lacks the accuracy of the analysis.

[0005] In order to solve the above technical problems, the present invention provides the following technical solutions: In the first aspect, a remote control method for a high-pressure water pump motor based on data acquisition comprises the following steps:

[0006] Step S1, obtaining the first water pump's own parameters and the first water pump's related parameters, and preprocessing the first water pump's own parameters and the first water pump's related parameters;

[0007] Step S2, obtaining historical water pump parameters and historical water pump related parameters, calculating historical water pump output power, calculating historical water pump mechanical efficiency according to the historical water pump output power, and constructing a first water pump mechanical efficiency interval according to the first value and the second value;

[0008] Step S3, calculating the difference between the historical water pump mechanical efficiency and the difference between the corresponding historical water pump related parameters, constructing an interference efficiency model, calculating the predicted interference efficiency value according to the interference efficiency model, obtaining the second water pump mechanical efficiency interval according to the interference efficiency value, selecting the historical water pump mechanical efficiency distributed in the second water pump mechanical efficiency interval, and setting the standard water pump own parameter interval and the standard water pump related parameter interval according to the historical water pump mechanical efficiency distributed in the second water pump mechanical efficiency interval;

[0009] Step S4, performing a first comparison on the preprocessed first water pump's own parameters and the standard water pump's own parameter range to obtain a first comparison result, sending a first control signal according to the first comparison result, performing a second comparison on the preprocessed first water pump related parameters and the standard water pump related parameter range to obtain a second comparison result, and sending a second control signal according to the second comparison result.

[0010] As a preferred solution of the high-pressure water pump motor remote control method based on data acquisition described in the present invention, wherein: step S1 includes the following sub-steps:

[0011] Step S11, obtaining the first water pump's own parameters and the first water pump's related parameters, wherein the first water pump's own parameters include a first flow rate and a first head, and the water pump's related parameters include a first motor power, a first motor current, a first motor speed, a first motor temperature, and a first ambient temperature;

[0012] Step S12, preprocessing the first water pump's own parameters and the first water pump's related parameters, wherein the preprocessing includes outlier removal processing and missing value filling processing.

[0013] As a preferred solution of the high-pressure water pump motor remote control method based on data acquisition described in the present invention, the processing logic of the abnormal value elimination includes:

[0014] Obtain the first water pump's own parameters and the first water pump's related parameters, calculate the average values ​​of the first water pump's own parameters and the average values ​​of the first water pump's related parameters respectively, calculate the difference between the first water pump's own parameters and the average values ​​of the first water pump's own parameters, calculate the standard deviation of the first water pump's own parameters and the standard deviation of the first water pump's related parameters respectively according to the standard deviation formula, construct a first confidence interval of the first water pump's own parameters according to the standard deviation of the first water pump's own parameters, construct a second confidence interval according to the standard deviation of the first water pump's related parameters, eliminate the first water pump's own parameters that are not distributed in the first confidence interval, and eliminate the first water pump's related parameters that are not distributed in the second confidence interval.

[0015] As a preferred solution of the high-pressure water pump motor remote control method based on data acquisition described in the present invention, wherein: step S2 includes the following sub-steps:

[0016] Step S21, obtaining historical flow, historical head, historical motor power, historical motor current, historical motor speed, historical motor temperature and historical ambient temperature;

[0017] Step S22, according to the water pump output power formula, the historical flow rate, the historical head and the water density are input to calculate the historical water pump output power, calculate the ratio of the historical water pump output power to the historical motor power, and set the ratio of the historical water pump output power to the historical motor power as the historical water pump mechanical efficiency, and the historical water pump mechanical efficiency is calculated by the water pump mechanical efficiency formula;

[0018] Step S23: setting the first value as the upper limit of the first water pump mechanical efficiency, setting the second value as the lower limit of the first water pump mechanical efficiency, and constructing a first water pump mechanical efficiency range.

[0019] As a preferred solution of the high-pressure water pump motor remote control method based on data acquisition described in the present invention, wherein: step S3 includes the following sub-steps:

[0020] Step S31, obtaining historical ambient temperature and historical water pump mechanical efficiency, sorting the historical ambient temperature and historical water pump mechanical efficiency in descending order, calculating the difference between adjacent historical water pump mechanical efficiencies and the difference between the historical ambient temperatures corresponding to the difference between adjacent historical water pump mechanical efficiencies, and constructing an interference efficiency model, wherein the interference efficiency model is obtained through multivariate regression analysis;

[0021] Step S32, calculating a predicted interference efficiency value according to the interference efficiency model, performing weighted calculation on the interference efficiency value and the upper and lower limits of the water pump mechanical efficiency range, respectively, to obtain a second water pump mechanical efficiency range;

[0022] Step S33, select the historical water pump mechanical efficiency distributed in the second water pump mechanical efficiency range, sort the corresponding historical water pump own parameters and historical water pump related parameters in descending order, obtain the historical water pump own parameter range and the historical water pump related parameter range, and set the historical water pump own parameter range and the historical water pump related parameter range as the standard water pump own parameter range and the standard water pump related parameter range.

[0023] As a preferred solution of the high-pressure water pump motor remote control method based on data acquisition described in the present invention, the calculation expression of the interference efficiency model is: ;in, is the predicted interference efficiency value, For the The coefficient corresponding to the difference of historical ambient temperatures, For the The difference in historical ambient temperature, is the number of historical ambient temperature differences.

[0024] As a preferred solution of the high-pressure water pump motor remote control method based on data acquisition described in the present invention, wherein: step S4 includes the following sub-steps:

[0025] Step S41, performing a first comparison between the preprocessed first water pump parameters and the standard water pump parameters interval to obtain a first comparison result, and sending a first control signal according to the first comparison result, wherein the first comparison result includes that the preprocessed first water pump parameters are distributed in the standard water pump parameters interval and that the preprocessed first water pump parameters are not distributed in the standard water pump parameters interval;

[0026] Step S42, performing a second comparison on the preprocessed first water pump related parameters and the standard water pump related parameter interval to obtain a second comparison result, and sending a second control signal according to the second comparison result, wherein the second comparison result includes that the preprocessed first water pump related parameters are distributed in the standard water pump related parameter interval and that the preprocessed first water pump related parameters are not distributed in the standard water pump related parameter interval.

[0027] ; As a preferred embodiment of the high-pressure water pump motor remote control method based on data acquisition described in the present invention, wherein: when the first comparison result is that the pre-processed first water pump related parameters are not distributed in the standard water pump related parameter interval, the second control signal is to adjust the pre-processed first water pump's own parameters until the pre-processed first water pump's own parameters are distributed in the standard water pump's own parameter interval, then stop adjusting;

[0028] When the second comparison result is that the preprocessed first water pump related parameters are not distributed in the standard water pump related parameter range, the second control signal is to adjust the preprocessed first water pump related parameters until the preprocessed first water pump related parameters are distributed in the standard water pump related parameter range, and then stop adjusting.

[0029] In a second aspect, the present invention provides an electronic device comprising a memory, a processor and storage in the memory, wherein the memory stores computer-readable instructions, and when the computer-readable instructions are executed by the processor, the steps in any one of the methods described above are executed.

[0030] In a third aspect, the present invention provides a storage medium having a computer program stored thereon, wherein when the computer program is executed by a processor, the steps in any one of the methods described above are executed.

[0031] The beneficial effects of the present invention are as follows: by comparing and analyzing the mechanical efficiency of the first water pump and the historical water pump, the working state of the water pump is optimized so that it operates within the optimal range, thereby improving the efficiency of the overall system, calculating the interference efficiency model in the historical data, improving the reliability and stability of the equipment, and automatically generating control signals for adjustment by comparing the water pump's own parameters with the standard parameter range, thereby reducing human intervention, improving the response speed, and enhancing the automation level of the system; according to the historical data and the interference efficiency model, a standard parameter range suitable for a specific water pump can be set, thereby realizing a personalized and precise control strategy. BRIEF DESCRIPTION OF THE DRAWINGS

[0032] Figure 1 A schematic diagram of the basic flow of a high-pressure water pump motor remote control method based on data acquisition provided by an embodiment of the present invention. DETAILED DESCRIPTION

[0033] In order to make the above-mentioned objects, features and advantages of the present invention more obvious and easy to understand, the specific implementation methods of the present invention are described in detail below in conjunction with the drawings. It is obvious that the described embodiments are only part of the embodiments of the present invention, but not all of the embodiments.

[0034] Example 1, reference Figure 1 , as an embodiment of the present invention, provides a high-pressure water pump motor remote control method based on data acquisition, comprising the following steps:

[0035] Step S1, obtaining the first water pump's own parameters and the first water pump's related parameters, and preprocessing the first water pump's own parameters and the first water pump's related parameters;

[0036] Step S2, obtaining historical water pump parameters and historical water pump related parameters, calculating historical water pump output power, calculating historical water pump mechanical efficiency according to the historical water pump output power, and constructing a first water pump mechanical efficiency interval according to the first value and the second value;

[0037] Step S3, calculating the difference between the historical water pump mechanical efficiency and the difference between the corresponding historical water pump related parameters, constructing an interference efficiency model, calculating the predicted interference efficiency value according to the interference efficiency model, obtaining the second water pump mechanical efficiency interval according to the interference efficiency value, selecting the historical water pump mechanical efficiency distributed in the second water pump mechanical efficiency interval, and setting the standard water pump own parameter interval and the standard water pump related parameter interval according to the historical water pump mechanical efficiency distributed in the second water pump mechanical efficiency interval;

[0038] Step S4, performing a first comparison on the preprocessed first water pump's own parameters and the standard water pump's own parameter range to obtain a first comparison result, sending a first control signal according to the first comparison result, performing a second comparison on the preprocessed first water pump related parameters and the standard water pump related parameter range to obtain a second comparison result, and sending a second control signal according to the second comparison result.

[0039] The present invention compares and analyzes the mechanical efficiency of the first water pump and the historical water pump, optimizes the working state of the water pump, makes it run within the optimal range, thereby improving the efficiency of the overall system, calculates the interference efficiency model in the historical data, improves the reliability and stability of the equipment, and automatically generates control signals for adjustment by comparing the water pump's own parameters with the standard parameter range, thereby reducing human intervention, improving the response speed, and enhancing the automation level of the system. According to the historical data and the interference efficiency model, the standard parameter range suitable for a specific water pump can be set, thereby realizing a personalized and precise control strategy.

[0040] The step S1 includes the following sub-steps:

[0041] Step S11, obtaining the first water pump's own parameters and the first water pump's related parameters, wherein the first water pump's own parameters include a first flow rate and a first head, and the water pump's related parameters include a first motor power, a first motor current, a first motor speed, a first motor temperature, and a first ambient temperature;

[0042] Step S12, preprocessing the first water pump's own parameters and the first water pump's related parameters, wherein the preprocessing includes outlier removal processing and missing value filling processing.

[0043] The processing logic of outlier removal includes:

[0044] Obtain the first water pump's own parameters and the first water pump's related parameters, calculate the average values ​​of the first water pump's own parameters and the average values ​​of the first water pump's related parameters respectively, calculate the difference between the first water pump's own parameters and the average values ​​of the first water pump's own parameters, calculate the standard deviation of the first water pump's own parameters and the standard deviation of the first water pump's related parameters respectively according to the standard deviation formula, construct a first confidence interval of the first water pump's own parameters according to the standard deviation of the first water pump's own parameters, construct a second confidence interval according to the standard deviation of the first water pump's related parameters, eliminate the first water pump's own parameters that are not distributed in the first confidence interval, and eliminate the first water pump's related parameters that are not distributed in the second confidence interval.

[0045] In the specific implementation, invalid data is removed through preprocessing, making the data more accurate, facilitating subsequent analysis, and improving the accuracy of the analysis.

[0046] The step S2 includes the following sub-steps:

[0047] Step S21, obtaining historical flow, historical head, historical motor power, historical motor current, historical motor speed, historical motor temperature and historical ambient temperature;

[0048] Step S22, according to the water pump output power formula, the historical flow rate, the historical head and the water density are input to calculate the historical water pump output power, calculate the ratio of the historical water pump output power to the historical motor power, and set the ratio of the historical water pump output power to the historical motor power as the historical water pump mechanical efficiency, and the historical water pump mechanical efficiency is calculated by the water pump mechanical efficiency formula;

[0049] Step S23: setting the first value as the upper limit of the first water pump mechanical efficiency, setting the second value as the lower limit of the first water pump mechanical efficiency, and constructing a first water pump mechanical efficiency range.

[0050] During the specific implementation, external factors and the water pump's own factors are tested, and multiple data are analyzed to improve the comprehensiveness of the analysis.

[0051] The step S3 includes the following sub-steps:

[0052] Step S31, obtaining historical ambient temperature and historical water pump mechanical efficiency, sorting the historical ambient temperature and historical water pump mechanical efficiency in descending order, calculating the difference between adjacent historical water pump mechanical efficiencies and the difference between the historical ambient temperatures corresponding to the difference between adjacent historical water pump mechanical efficiencies, and constructing an interference efficiency model, wherein the interference efficiency model is obtained through multivariate regression analysis;

[0053] Step S32, calculating a predicted interference efficiency value according to the interference efficiency model, performing weighted calculation on the interference efficiency value and the upper and lower limits of the water pump mechanical efficiency range, respectively, to obtain a second water pump mechanical efficiency range;

[0054] Step S33, select the historical water pump mechanical efficiency distributed in the second water pump mechanical efficiency range, sort the corresponding historical water pump own parameters and historical water pump related parameters in descending order, obtain the historical water pump own parameter range and the historical water pump related parameter range, and set the historical water pump own parameter range and the historical water pump related parameter range as the standard water pump own parameter range and the standard water pump related parameter range.

[0055] In a specific implementation, by comparing and analyzing the mechanical efficiencies of the first water pump and the historical water pump, the working state of the water pump is optimized so that it operates within the optimal range, thereby improving the efficiency of the overall system.

[0056] The calculation expression of the interference efficiency model is:

[0057] ;

[0058] in, is the predicted interference efficiency value, For the The coefficient corresponding to the difference of historical ambient temperatures, For the The difference in historical ambient temperature, is the number of historical ambient temperature differences.

[0059] In the specific implementation, the interference efficiency model in the historical data is calculated to improve the reliability and stability of the equipment.

[0060] The step S4 includes the following sub-steps:

[0061] Step S41, performing a first comparison between the preprocessed first water pump parameters and the standard water pump parameters interval to obtain a first comparison result, and sending a first control signal according to the first comparison result, wherein the first comparison result includes that the preprocessed first water pump parameters are distributed in the standard water pump parameters interval and that the preprocessed first water pump parameters are not distributed in the standard water pump parameters interval;

[0062] Step S42, performing a second comparison on the preprocessed first water pump related parameters and the standard water pump related parameter interval to obtain a second comparison result, and sending a second control signal according to the second comparison result, wherein the second comparison result includes that the preprocessed first water pump related parameters are distributed in the standard water pump related parameter interval and that the preprocessed first water pump related parameters are not distributed in the standard water pump related parameter interval.

[0063] When the first comparison result is that the pre-processed first water pump related parameters are not distributed in the standard water pump related parameter interval, the second control signal is to adjust the pre-processed first water pump own parameters until the pre-processed first water pump own parameters are distributed in the standard water pump own parameter interval, and then stop adjusting;

[0064] When the second comparison result is that the preprocessed first water pump related parameters are not distributed in the standard water pump related parameter range, the second control signal is to adjust the preprocessed first water pump related parameters until the preprocessed first water pump related parameters are distributed in the standard water pump related parameter range, and then stop adjusting.

[0065] In the specific implementation, by comparing the water pump's own parameters with the standard parameter range, the control signal is automatically generated for adjustment, which reduces human intervention, improves the response speed, and enhances the automation level of the system.

[0066] The present invention compares and analyzes the mechanical efficiency of the first water pump and the historical water pump, optimizes the working state of the water pump, makes it run within the optimal range, thereby improving the efficiency of the overall system, calculates the interference efficiency model in the historical data, improves the reliability and stability of the equipment, and automatically generates control signals for adjustment by comparing the water pump's own parameters with the standard parameter range, thereby reducing human intervention, improving the response speed, and enhancing the automation level of the system. According to the historical data and the interference efficiency model, the standard parameter range suitable for a specific water pump can be set, thereby realizing a personalized and precise control strategy.

Claims

1. A high-pressure water pump motor remote control method based on data acquisition, characterized in that: The following steps are involved: Step S1, obtaining the first water pump's own parameters and the first water pump's related parameters, and preprocessing the first water pump's own parameters and the first water pump's related parameters; Step S2, obtaining historical water pump parameters and historical water pump related parameters, calculating historical water pump output power, calculating historical water pump mechanical efficiency according to the historical water pump output power, and constructing a first water pump mechanical efficiency interval according to the first value and the second value; Step S3, calculating the difference between the historical water pump mechanical efficiency and the difference between the corresponding historical water pump related parameters, constructing an interference efficiency model, calculating the predicted interference efficiency value according to the interference efficiency model, obtaining the second water pump mechanical efficiency interval according to the interference efficiency value, selecting the historical water pump mechanical efficiency distributed in the second water pump mechanical efficiency interval, and setting the standard water pump own parameter interval and the standard water pump related parameter interval according to the historical water pump mechanical efficiency distributed in the second water pump mechanical efficiency interval; Step S4, performing a first comparison on the preprocessed first water pump's own parameters and the standard water pump's own parameter range to obtain a first comparison result, sending a first control signal according to the first comparison result, performing a second comparison on the preprocessed first water pump related parameters and the standard water pump related parameter range to obtain a second comparison result, and sending a second control signal according to the second comparison result.

2. The high-pressure water pump motor remote control method based on data acquisition according to claim 1, characterized in that: The step S1 includes the following sub-steps: Step S11, obtaining the first water pump's own parameters and the first water pump's related parameters, wherein the first water pump's own parameters include a first flow rate and a first head, and the water pump's related parameters include a first motor power, a first motor current, a first motor speed, a first motor temperature, and a first ambient temperature; Step S12, preprocessing the first water pump's own parameters and the first water pump's related parameters, wherein the preprocessing includes outlier removal processing and missing value filling processing.

3. The high-pressure water pump motor remote control method based on data acquisition according to claim 2, characterized in that: The processing logic of outlier removal includes: Obtain the first water pump's own parameters and the first water pump's related parameters, calculate the average values ​​of the first water pump's own parameters and the average values ​​of the first water pump's related parameters respectively, calculate the difference between the first water pump's own parameters and the average values ​​of the first water pump's own parameters, calculate the standard deviation of the first water pump's own parameters and the standard deviation of the first water pump's related parameters respectively according to the standard deviation formula, construct a first confidence interval of the first water pump's own parameters according to the standard deviation of the first water pump's own parameters, construct a second confidence interval according to the standard deviation of the first water pump's related parameters, eliminate the first water pump's own parameters that are not distributed in the first confidence interval, and eliminate the first water pump's related parameters that are not distributed in the second confidence interval.

4. The high-pressure water pump motor remote control method based on data acquisition according to claim 1, characterized in that: The step S2 includes the following sub-steps: Step S21, obtaining historical flow, historical head, historical motor power, historical motor current, historical motor speed, historical motor temperature and historical ambient temperature; Step S22, according to the water pump output power formula, substitute the historical flow rate, historical head and water density, calculate the historical water pump output power, calculate the ratio of the historical water pump output power to the historical motor power, set the ratio of the historical water pump output power to the historical motor power as the historical water pump mechanical efficiency, and the historical water pump mechanical efficiency is calculated by the water pump mechanical efficiency formula; Step S23: setting the first value as the upper limit of the first water pump mechanical efficiency, setting the second value as the lower limit of the first water pump mechanical efficiency, and constructing a first water pump mechanical efficiency range.

5. The high-pressure water pump motor remote control method based on data acquisition according to claim 1, characterized in that: The step S3 includes the following sub-steps: Step S31, obtaining historical ambient temperature and historical water pump mechanical efficiency, sorting the historical ambient temperature and historical water pump mechanical efficiency in descending order, calculating the difference between adjacent historical water pump mechanical efficiencies and the difference between the historical ambient temperatures corresponding to the difference between adjacent historical water pump mechanical efficiencies, and constructing an interference efficiency model, wherein the interference efficiency model is obtained through multivariate regression analysis; Step S32, calculating a predicted interference efficiency value according to the interference efficiency model, performing weighted calculation on the interference efficiency value and the upper and lower limits of the water pump mechanical efficiency range, respectively, to obtain a second water pump mechanical efficiency range; Step S33, select the historical water pump mechanical efficiency distributed in the second water pump mechanical efficiency range, sort the corresponding historical water pump own parameters and historical water pump related parameters in descending order, obtain the historical water pump own parameter range and the historical water pump related parameter range, and set the historical water pump own parameter range and the historical water pump related parameter range as the standard water pump own parameter range and the standard water pump related parameter range.

6. The high-pressure water pump motor remote control method based on data acquisition according to claim 5, characterized in that: The calculation expression of the interference efficiency model is: ； in, is the predicted interference efficiency value, For the The coefficient corresponding to the difference of historical ambient temperatures, For the The difference in historical ambient temperature, is the number of historical ambient temperature differences.

7. The high-pressure water pump motor remote control method based on data acquisition according to claim 1, characterized in that: The step S4 includes the following sub-steps: Step S41, performing a first comparison between the preprocessed first water pump parameters and the standard water pump parameters interval to obtain a first comparison result, and sending a first control signal according to the first comparison result, wherein the first comparison result includes that the preprocessed first water pump parameters are distributed in the standard water pump parameters interval and that the preprocessed first water pump parameters are not distributed in the standard water pump parameters interval; Step S42, performing a second comparison on the preprocessed first water pump related parameters and the standard water pump related parameter interval to obtain a second comparison result, and sending a second control signal according to the second comparison result, wherein the second comparison result includes that the preprocessed first water pump related parameters are distributed in the standard water pump related parameter interval and that the preprocessed first water pump related parameters are not distributed in the standard water pump related parameter interval.

8. The high-pressure water pump motor remote control method based on data acquisition according to claim 1, characterized in that: When the first comparison result is that the pre-processed first water pump related parameters are not distributed in the standard water pump related parameter interval, the second control signal is to adjust the pre-processed first water pump own parameters until the pre-processed first water pump own parameters are distributed in the standard water pump own parameter interval, and then stop adjusting; When the second comparison result is that the preprocessed first water pump related parameters are not distributed in the standard water pump related parameter range, the second control signal is to adjust the preprocessed first water pump related parameters until the preprocessed first water pump related parameters are distributed in the standard water pump related parameter range, and then stop adjusting.

9. An electronic device comprising a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein: When the processor executes the computer program, the high-pressure water pump motor remote control method based on data acquisition described in any one of claims 1 to 8 is implemented.

10. A computer-readable storage medium, characterized in that: The computer-readable storage medium stores a computer program, and when the computer program is executed by the processor, the high-pressure water pump motor remote control method based on data acquisition according to any one of claims 1 to 8 is implemented.

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