Method and system for testing standby performance of intelligent pedestal pan

Abstract

The invention relates to the technical field of intelligent sensor testing, and particularly discloses an intelligent pedestal pan standby performance testing method and system.The method comprises the steps of intelligent pedestal pan initial state inspection, intelligent pedestal pan simulation operation state detection and standby performance testing, and the intelligent pedestal pan standby performance is obtained by obtaining initial state data of an intelligent pedestal pan; the initial working state of the intelligent pedestal pan can be comprehensively known, the initial performance index of the intelligent pedestal pan is obtained through analysis, the performance level of the intelligent pedestal pan is quantitatively reflected, and the simulated operation performance index of the intelligent pedestal pan is obtained by analyzing the operation data of the intelligent pedestal pan in the simulated operation state. According to the method, the overall performance of the intelligent pedestal pan in the simulation operation state is visually known, the efficiency and effect of optimization work are improved, the performance data of the intelligent pedestal pan in the standby state can be comprehensively and accurately analyzed and quantified by obtaining the performance data of the intelligent pedestal pan in the standby state, it is ensured that energy consumption of equipment is reasonable in the standby state, and the energy consumption of the equipment is reduced. The energy utilization efficiency is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of intelligent sensor testing, and particularly to a method and system for testing the standby performance of an intelligent toilet. Background Art

[0002] An intelligent toilet is a product integrating a variety of modern technologies. In addition to the traditional toilet function, it also has a series of intelligent functions such as heating, cleaning, drying, air purification, automatic deodorization, and sterilization. These functions consume a certain amount of electricity or energy during actual use. In the standby state, although the device does not directly participate in function operations, it still needs to maintain certain basic functions. In the design and use of intelligent toilets, the performance of the standby state has become an important aspect for evaluating its energy conservation, environmental protection, and overall performance.

[0003] For example, the invention patent with the publication number CN113984371B discloses an automatic durability testing system for the solenoid valve of an intelligent toilet, which includes four independent testing stations. The testing stations are all arranged on the experimental bench. The upper part of the experimental bench is a control panel, and the top of the control panel is the touch screen of the upper computer. The touch screen sets data parameters and controls the process for the entire durability testing process; below the touch screen is the working area of the four testing stations. The working area of each testing station has a station power switch, a digital tube display screen, a wire passing hole, and a ball valve from top to bottom.

[0004] For example, the invention patent with the publication number CN107340127B discloses a device and method for measuring the telescopic time of the nozzle of an intelligent toilet, which includes a sensor fixing frame for fixing on the toilet body. A first sensor for sensing the initial position of the toilet nozzle and a second sensor for sensing the end position after the toilet nozzle extends are installed on the sensor fixing frame. It also includes a testing device. The first sensor and the second sensor are respectively connected to the testing device. The testing device includes a time counting module, a storage module, and a data processing module. The time counting module and the storage module are respectively connected to the data processing module, and the telescopic time of the nozzle can automatically measure the extending and retracting time of the nozzle.

[0005] However, in the process of implementing the technical solutions of the present invention in the embodiments of the present application, it is found that the above technologies have at least the following technical problems: In the existing intelligent toilet testing methods, usually only a single state of the intelligent toilet is tested. The analysis of a single intelligent toilet state will lead to insufficient test results for the standby performance of the intelligent toilet, directly affecting the performance test results of the intelligent toilet. Summary of the Invention

[0006] In view of the deficiencies of the prior art, the present invention provides a method and system for testing the standby performance of an intelligent toilet, which can effectively solve the problems involved in the above-mentioned background technology.

[0007] To achieve the above object, the present invention is realized through the following technical solutions: In the first aspect of the present invention, a method for testing the standby performance of an intelligent toilet is provided, including: S1. Initial state inspection of the intelligent toilet: Obtain the initial state data of the intelligent toilet, analyze to obtain the initial performance index of the intelligent toilet, compare it with the defined value of the initial performance index of the intelligent toilet preset in the test database, obtain the initial state comparison result, and determine whether to give a warning prompt for the initial state of the intelligent toilet according to the initial state comparison result.

[0008] S2. Detection of the simulated operation state of the intelligent toilet: When the initial performance index of the intelligent toilet is greater than or equal to the defined value of the initial performance index of the intelligent toilet preset in the test database, the toilet control program automatically sets the intelligent toilet to the simulated operation state, obtains the operation data of the intelligent toilet in the simulated operation state, analyzes to obtain the simulated operation performance index of the intelligent toilet, compares it with the defined value of the simulated operation performance index of the intelligent toilet preset in the test database, obtains the operation comparison result, and determines whether to control and optimize the operation state of the intelligent toilet according to the operation comparison result.

[0009] S3. Standby performance test: The toilet control program automatically sets the intelligent toilet to the standby state, obtains the performance data of the intelligent toilet in the standby state, analyzes to obtain the standby performance index, compares it with the threshold value of the standby performance index preset in the test database, obtains the standby performance comparison result, and finally determines whether to optimize and adjust the standby state of the intelligent toilet according to the standby performance comparison result.

[0010] As a further method, the specific analysis process of the initial performance index of the intelligent toilet is as follows: Perform a difference process on the real-time water pressure of the intelligent toilet within the initial state detection period and the water pressure standard value preset in the test database to obtain the real-time water pressure deviation value of the intelligent toilet within the initial state detection period.

[0011] Comprehensively analyze the average temperature ratio of the processor operation, the infrared detection distance deviation value, the real-time water pressure deviation value, the real-time communication signal strength, and the total energy consumption of the intelligent toilet within the initial state detection period to obtain the initial performance index of the intelligent toilet, and the initial performance index of the intelligent toilet is used to comprehensively quantify the initial performance state of the intelligent toilet.

[0012] As a further method, the specific determination process of determining whether to give a warning prompt for the initial state of the intelligent toilet according to the initial state comparison result is as follows: If the initial performance index of the intelligent toilet is greater than or equal to the defined value of the initial performance index of the intelligent toilet preset in the test database, the initial state comparison result is recorded as the first initial state comparison result.

[0013] If the initial performance index of the intelligent toilet is less than the defined value of the initial performance index of the intelligent toilet preset in the test database, the initial state comparison result is recorded as the second initial state comparison result.

[0014] If the initial state comparison result is recorded as the second initial state comparison result, an early warning signal for the initial state of the intelligent toilet needs to be sent to the intelligent toilet control platform.

[0015] When the intelligent toilet control platform receives the early warning signal, it synchronously starts the diagnostic program and repair program of the intelligent toilet to complete the early warning prompt for the initial state of the intelligent toilet.

[0016] As a further method, the simulated operation performance index of the intelligent toilet, the specific analysis process is as follows: Perform a difference operation on the real-time heating power of the seat ring of the intelligent toilet during the simulated operation cycle and the reference heating power of the seat ring preset in the test database to obtain the real-time heating deviation power of the seat ring of the intelligent toilet during the simulated operation cycle; Comprehensively analyze the average operating temperature of the processor, the real-time temperature of the seat ring, the operating energy consumption ratio, the deviation of the flushing water volume, and the real-time heating deviation power of the seat ring of the intelligent toilet during the simulated operation cycle to obtain the simulated operation performance index of the intelligent toilet. The simulated operation performance index of the intelligent toilet is used to comprehensively and quantitatively evaluate the operation performance of the intelligent toilet during the simulated operation cycle. The specific analysis method is as follows: ; In the formula, is the simulated operation performance index of the intelligent toilet, e is the natural constant, cq is the average operating temperature of the processor, is the reference operating temperature of the processor preset in the test database, is the operation influence factor corresponding to the unit value of the average operating temperature of the processor preset in the test database, is the start time point of the simulated operation cycle, is the end time point of the simulated operation cycle, v is any time point within the simulated operation cycle, is the real-time temperature of the seat ring of the intelligent toilet at time point v during the simulated operation cycle, is the reference temperature of the seat ring preset in the test database, is the real-time heating deviation power of the seat ring of the intelligent toilet at time point v during the simulated operation cycle, is the allowable deviation power of the seat ring heating preset in the test database, cs is the deviation of the flushing water volume, is the allowable deviation of the flushing water consumption preset for the test database, and yn is the operating energy consumption ratio. is the operating influence factor corresponding to the unit value of the real-time temperature of the toilet seat preset for the test database. is the operating influence factor corresponding to the unit value of the deviation power of the real-time heating of the toilet seat preset for the test database. is the operating influence factor corresponding to the unit value of the deviation of the flushing water consumption preset for the test database. is the operating influence factor corresponding to the unit value of the operating energy consumption ratio preset for the test database.

[0017] As a further method, it is determined whether it is necessary to optimize the operating state of the intelligent toilet according to the operating comparison result. The specific determination process is as follows: If the simulated operating performance index of the intelligent toilet is greater than or equal to the defined value of the simulated operating performance index of the intelligent toilet preset in the test database, the operating comparison result is recorded as the first operating comparison result. If the simulated operating performance index of the intelligent toilet is less than the defined value of the simulated operating performance index of the intelligent toilet preset in the test database, the operating comparison result is recorded as the second operating comparison result. If the operating comparison result is the second operating comparison result, it is necessary to optimize the operating state of the intelligent toilet.

[0018] As a further method, the standby performance index is analyzed as follows: Match the initial performance index of the intelligent toilet with the reference standby temperature of the processor of the intelligent toilet in the standby state corresponding to each initial performance index interval of the intelligent toilet preset in the test database to obtain the reference standby temperature of the processor corresponding to the intelligent toilet in the standby state.

[0019] Match the simulated operating performance index of the intelligent toilet with the standby reference power of the intelligent toilet in the standby state corresponding to each simulated operating performance index interval of the intelligent toilet preset in the test database to obtain the standby reference power corresponding to the intelligent toilet in the standby state.

[0020] Obtain the average ambient temperature of the area where the intelligent toilet is located during the standby detection period, and match it with the reference seat temperature of the intelligent toilet in the standby detection period corresponding to each average ambient temperature interval preset in the test database to obtain the reference seat temperature of the intelligent toilet in the standby detection period. The performance data of the intelligent toilet in the standby state specifically includes the standby average power, the average standby temperature of the processor, the average seat temperature, and the standby communication frequency of the intelligent toilet during the standby detection period.

[0021] Comprehensively analyze the standby average power, the average temperature of the processor in standby, the average temperature of the seat ring, the standby communication frequency, the standby reference power, the reference standby temperature of the processor, and the reference temperature of the seat ring of the intelligent toilet within the standby detection period to obtain a standby performance index, which is used to comprehensively and quantitatively evaluate the performance of the intelligent toilet in the standby state.

[0022] As a further method, finally determine whether it is necessary to optimize and adjust the standby state of the intelligent toilet according to the standby performance comparison result. The specific determination process is as follows: If the standby performance index is less than the standby performance index threshold preset in the test database, record the standby performance comparison result as the first standby performance result.

[0023] If the standby performance index is greater than or equal to the standby performance index threshold preset in the test database, record the standby performance comparison result as the second standby performance result.

[0024] If the standby performance comparison result is the first standby performance result, it is necessary to optimize and adjust the standby state of the intelligent toilet.

[0025] The second aspect of the present invention provides an intelligent toilet standby performance test system, including: an intelligent toilet initial state inspection module, used to obtain the initial state data of the intelligent toilet, analyze and obtain the initial performance index of the intelligent toilet, compare it with the defined value of the initial performance index of the intelligent toilet preset in the test database, obtain the initial state comparison result, and determine whether it is necessary to give an early warning prompt for the initial state of the intelligent toilet according to the initial state comparison result.

[0026] An intelligent toilet simulated operation state detection module, used to automatically set the intelligent toilet to the simulated operation state when the initial performance index of the intelligent toilet is greater than or equal to the defined value of the initial performance index of the intelligent toilet preset in the test database, obtain the operation data of the intelligent toilet in the simulated operation state, analyze and obtain the simulated operation performance index of the intelligent toilet, compare it with the defined value of the simulated operation performance index of the intelligent toilet preset in the test database, obtain the operation comparison result, and determine whether it is necessary to control and optimize the operation state of the intelligent toilet according to the operation comparison result.

[0027] A standby performance test module, used to automatically set the intelligent toilet to the standby state by the toilet control program, obtain the performance data of the intelligent toilet in the standby state, analyze and obtain the standby performance index, compare it with the standby performance index threshold preset in the test database, obtain the standby performance comparison result, and finally determine whether it is necessary to optimize and adjust the standby state of the intelligent toilet according to the standby performance comparison result.

[0028] Compared with the prior art, the embodiments of the present invention have at least the following advantages or beneficial effects: (1) By obtaining the initial state data of the intelligent toilet, the present invention can comprehensively understand the initial working state of the intelligent toilet, analyze the initial performance index of the intelligent toilet from these data, which can quantitatively reflect the performance level of the intelligent toilet, provide data support for the preventive maintenance of the intelligent toilet, help to detect and solve potential performance problems in a timely manner, and compare with the defined value of the initial performance index of the intelligent toilet preset in the test database to determine whether an early warning prompt for the initial state of the intelligent toilet is required, and can quickly judge whether the initial state of the intelligent toilet is within the normal range. If it is lower than the defined value, an early warning prompt is triggered, improving the timeliness and accuracy of the fault detection of the intelligent toilet.

[0029] (2) By analyzing the operation data of the intelligent toilet in the simulated operation state, the present invention can directly reflect its actual performance in the intelligent toilet. These data provide a solid foundation for the subsequent standby performance analysis and optimization, ensuring the accuracy and reliability of the evaluation results. At the same time, collecting data during the simulated operation stage helps to detect potential problems or deficiencies of the intelligent toilet in advance, avoiding performance degradation or failures during actual use, improving the reliability and stability of the product. The simulated operation performance index of the intelligent toilet is obtained through analysis, which can intuitively understand the overall performance of the intelligent toilet in the simulated operation state, and compare with the defined value of the simulated operation performance index of the intelligent toilet preset in the test database to determine whether it is necessary to optimize and control the operation state of the intelligent toilet, timely detect the trend or risk of performance degradation of the intelligent toilet, and according to the comparison result of the performance index, handle the problems affecting the overall performance, improving the efficiency and effect of the optimization work, and ensuring the maximization of resource utilization.

[0030] (3) By conducting performance tests on the standby state of the intelligent toilet, the present invention can comprehensively and accurately obtain the performance data of the intelligent toilet in the standby state, obtain the performance data of the intelligent toilet in the standby state, analyze the standby performance index, which can quantitatively reflect the performance of the intelligent toilet in the standby state, and compare with the threshold of the standby performance index preset in the test database to determine whether it is necessary to optimize and adjust the standby state of the intelligent toilet, ensuring reasonable energy consumption of the device during standby and improving energy utilization efficiency. Description of the Drawings

[0031] The present invention is further described with reference to the accompanying drawings, but the embodiments in the drawings do not constitute any limitation to the present invention. For those of ordinary skill in the art, other drawings can be obtained according to the following drawings without creative efforts.

[0032] Figure 1Schematic diagram of the method steps of the present invention; Figure 2 Schematic diagram of the connection of system modules of the present invention. Detailed implementation manners

[0033] The following will clearly and completely describe the technical solutions in the embodiments of the present invention with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0034] Referring to Figure 1 As shown, the first aspect of the present invention provides a method for testing the standby performance of an intelligent toilet, including: S1. Initial state inspection of the intelligent toilet: Obtain the initial state data of the intelligent toilet, analyze to obtain the initial performance index of the intelligent toilet, compare it with the defined value of the initial performance index of the intelligent toilet preset in the test database, obtain the initial state comparison result, and determine whether to give an early warning prompt for the initial state of the intelligent toilet according to the initial state comparison result.

[0035] S2. Detection of the simulated operation state of the intelligent toilet: When the initial performance index of the intelligent toilet is greater than or equal to the defined value of the initial performance index of the intelligent toilet preset in the test database, the toilet control program automatically sets the intelligent toilet to the simulated operation state, obtains the operation data of the intelligent toilet in the simulated operation state, analyzes to obtain the simulated operation performance index of the intelligent toilet, compares it with the defined value of the simulated operation performance index of the intelligent toilet preset in the test database, obtains the operation comparison result, and determines whether to control and optimize the operation state of the intelligent toilet according to the operation comparison result.

[0036] S3. Standby performance test: The toilet control program automatically sets the intelligent toilet to the standby state, obtains the performance data of the intelligent toilet in the standby state, analyzes to obtain the standby performance index, compares it with the threshold of the standby performance index preset in the test database, obtains the standby performance comparison result, and finally determines whether to optimize and adjust the standby state of the intelligent toilet according to the standby performance comparison result.

[0037] In this embodiment, the application scenario of the method for testing the standby performance of an intelligent toilet is the inspection of the standby performance of the toilets produced by intelligent toilet factory manufacturers. By using the method for testing the standby performance of an intelligent toilet, the product quality and production efficiency can be improved, manual intervention can be significantly reduced, the test speed and consistency can be increased, and the standby performance optimization and adjustment plan is based on the test results, providing a targeted improvement direction for manufacturers and helping to reduce the risks of intelligent toilet recall and repair.

[0038] Specifically, the initial state data of the intelligent toilet specifically includes the average operating temperature of the processor, the real-time water pressure, the maximum infrared detection distance, the real-time communication signal strength, and the total energy consumption within the initial state detection period of the intelligent toilet.

[0039] It should be explained that the above-mentioned average operating temperature of the processor is obtained by monitoring the temperature of the processor through the temperature sensor inside the intelligent toilet. The real-time water pressure is obtained by measuring the water pressure value in real time through the water pressure sensor equipped with the intelligent toilet. The maximum infrared detection distance can be obtained by measuring the intensity of the infrared rays emitted by the sensor reflected back, so as to obtain the maximum infrared detection distance. The real-time communication signal strength is monitored by the wireless communication module for the communication signal strength, and thus the real-time communication signal strength is obtained. The total energy consumption is monitored by the electric energy metering module. The electric energy metering module can measure the electric energy consumption of the toilet in real time and calculate the total energy consumption within the initial state detection period. In this embodiment, the initial state detection period refers to the time period when the intelligent toilet is first started and a series of initial state detections are performed. This period usually includes the time from the start of the toilet to the completion of all initial state detections. The initial state of the intelligent toilet refers to the state when the toilet is first started. In this state, the toilet will perform a series of initialization operations, such as checking the communication module and monitoring the initial performance, etc.

[0040] In this embodiment, there is a certain mutual influence relationship among the average operating temperature of the processor, the real-time water pressure, the maximum infrared detection distance, the real-time communication signal strength, and the total energy consumption within the initial state detection period of the intelligent toilet. If the processor temperature is too high, it will cause the performance of the communication module to decline, resulting in a decrease in the communication signal strength, and further leading to a decrease in the detection accuracy of the maximum infrared detection distance. A relatively high processor operating temperature, unstable water pressure control, and low communication signal strength will all lead to an increase in the total energy consumption.

[0041] Compare the average operating temperature of the processor within the initial state detection period of the intelligent toilet with the preset average operating temperature threshold of the test database to obtain the average operating temperature ratio of the processor within the initial state detection period of the intelligent toilet.

[0042] Perform a difference processing on the maximum infrared detection distance and the preset infrared detection distance boundary value of the test database to obtain the infrared detection distance deviation value within the initial state detection period of the intelligent toilet.

[0043] Specifically, the specific analysis process of the initial performance index of the intelligent toilet is as follows: The real-time water pressure of the intelligent toilet during the initial state detection period is processed by taking the difference from the water pressure standard value preset in the test database to obtain the real-time water pressure deviation value of the intelligent toilet during the initial state detection period.

[0044] The average processor operating temperature ratio, infrared detection distance deviation value, real-time water pressure deviation value, real-time communication signal strength, and total energy consumption of the intelligent toilet during the initial state detection period are comprehensively analyzed to obtain the initial performance index of the intelligent toilet. The initial performance index of the intelligent toilet is used to comprehensively quantify the initial performance state of the intelligent toilet. The specific analysis method is as follows: ; In the formula, is the initial performance index of the intelligent toilet, e is the natural constant, is the average processor operating temperature ratio, is the initial performance impact factor corresponding to the unit value of the average processor operating temperature ratio preset in the test database, is the infrared detection distance deviation value, is the allowable deviation value of the infrared detection distance preset in the test database, is the starting time point of the initial state detection period, is the ending time point of the initial state detection period, t is any time point within the initial state detection period, is the real-time water pressure deviation value of the intelligent toilet at time point t during the initial state detection period, is the allowable water pressure deviation value preset in the test database, is the total energy consumption, is the reference energy consumption preset in the test database, is the real-time communication signal strength of the intelligent toilet at time point t during the initial state detection period, is the initial performance impact factor corresponding to the unit value of the communication signal strength preset in the test database, is the initial performance impact factor corresponding to the unit value of the infrared detection distance deviation value preset in the test database, is the initial performance impact factor corresponding to the unit value of the real-time water pressure deviation value preset in the test database, is the initial performance impact factor corresponding to the unit value of the total energy consumption preset in the test database.

[0045] It should be noted that the above-mentioned average operating temperature ratio of the processor refers to the ratio between the average operating temperature of the processor of the intelligent toilet during the initial state detection period and the threshold value of the average operating temperature of the processor preset in the test database; the infrared detection distance deviation value refers to the difference between the maximum infrared detection distance and the infrared detection distance defined value preset in the test database; the preset infrared detection distance allowable deviation value in the test database refers to the maximum deviation value between a preset allowable infrared detection distance and the actual detection distance in the infrared detection function test of the intelligent toilet; any time point in the initial state detection period refers to any time point from the start to the end of the detection during the initial state detection period of the intelligent toilet; the real-time water pressure deviation value refers to the difference between the real-time water pressure of the intelligent toilet during the initial state detection period and the water pressure standard value preset in the test database; the preset water pressure allowable deviation value in the test database refers to the maximum value of the preset water pressure fluctuation during the water pressure detection of the intelligent toilet; the total energy consumption refers to the total energy consumed by the intelligent toilet during the initial state detection period; the reference energy consumption preset in the test database refers to a standard energy consumption value preset in the test database; the real-time communication signal strength refers to the strength of the communication signal when the intelligent toilet communicates with the network.

[0046] In this embodiment, the initial performance impact factor corresponding to the unit value of the average operating temperature ratio of the processor preset in the test database represents the degree of influence of the unit value of the average operating temperature ratio of the processor on the initial performance index of the intelligent toilet. The test database stores the corresponding relationship between the unit value of the average operating temperature ratio of the processor and its corresponding initial performance impact factor. For example, when the unit value of the average operating temperature ratio of the processor is input into the test database, the test database can match the initial performance impact factor corresponding to the unit value of the average operating temperature ratio of the processor; the initial performance impact factor corresponding to the unit value of the communication signal strength preset in the test database represents the degree of influence of the unit value of the communication signal strength on the initial performance index of the intelligent toilet. The test database stores the corresponding relationship between the unit value of the communication signal strength and its corresponding initial performance impact factor. For example, when the unit value of the communication signal strength is input into the test database, the test database can match the initial performance impact factor corresponding to the unit value of the communication signal strength; the initial performance impact factor corresponding to the unit value of the infrared detection distance deviation preset in the test database represents the degree of influence of the unit value of the infrared detection distance deviation on the initial performance index of the intelligent toilet. The test database stores the corresponding relationship between the unit value of the infrared detection distance deviation and its corresponding initial performance impact factor. For example, when the unit value of the infrared detection distance deviation is input into the test database, the test database can match the initial performance impact factor corresponding to the unit value of the infrared detection distance deviation; the initial performance impact factor corresponding to the unit value of the real-time water pressure deviation preset in the test database represents the degree of influence of the unit value of the real-time water pressure deviation on the initial performance index of the intelligent toilet. The test database stores the corresponding relationship between the unit value of the real-time water pressure deviation and its corresponding initial performance impact factor. For example, when the unit value of the real-time water pressure deviation is input into the test database, the test database can match the initial performance impact factor corresponding to the unit value of the real-time water pressure deviation; the initial performance impact factor corresponding to the unit value of the total energy consumption preset in the test database represents the degree of influence of the unit value of the total energy consumption on the initial performance index of the intelligent toilet. The test database stores the corresponding relationship between the unit value of the total energy consumption and its corresponding initial performance impact factor. For example, when the unit value of the total energy consumption is input into the test database, the test database can match the initial performance impact factor corresponding to the unit value of the total energy consumption.

[0047] In this embodiment, when the average running temperature ratio of the processor is relatively large, it means that the average running temperature of the processor is higher than the preset average running temperature threshold of the processor, resulting in a decrease in the performance of the processor, problems such as a slowdown in the operation speed and a weakening of the task processing ability, thereby reducing the initial performance index of the intelligent toilet; a relatively large infrared detection distance deviation value, even greater than the preset allowable deviation value of the infrared detection distance, causes the infrared detection function of the intelligent toilet to be inaccurate. Infrared detection is usually used to identify the actions and positions of users, such as automatic flushing and automatic rinsing. If the detection distance deviation is too large, these functions may not work properly; when the real-time water pressure deviation value is relatively large, even greater than the preset allowable water pressure deviation value, the intelligent toilet usually needs to adjust the flushing intensity and mode according to different water pressure conditions to ensure the flushing effect. If the water pressure deviation is too large, it may result in insufficient or excessive flushing force, causing uneven flushing or wasting water resources; a relatively large or small total energy consumption, that is, when the deviation from the preset reference energy consumption is relatively large, it indicates that there are problems with the intelligent toilet in terms of energy efficiency, such as excessive motor power consumption, directly leading to a decrease in the initial performance index of the intelligent toilet; when the real-time communication signal strength is relatively low, it will affect the communication quality between the intelligent toilet and other devices (such as mobile phones, test equipment, etc.), resulting in data transmission delays, losses, or errors, thereby affecting the functions and performance of the intelligent toilet; therefore, through a detailed analysis of each parameter in the initial performance index of the intelligent toilet, the initial performance and potential problems of the intelligent toilet can be comprehensively understood, which helps to improve and optimize the intelligent toilet and enhance the quality and performance of the intelligent toilet.

[0048] Further, it is determined whether a warning prompt for the initial state of the intelligent toilet needs to be given according to the comparison result of the initial state. The specific determination process is as follows: If the initial performance index of the intelligent toilet is greater than or equal to the defined value of the initial performance index of the intelligent toilet preset in the test database, the comparison result of the initial state is recorded as the first comparison result of the initial state.

[0049] It should be noted that when the initial performance index of the intelligent toilet is greater than or equal to the defined value of the initial performance index of the intelligent toilet preset in the test database, it means that the performance of the intelligent toilet in the initial state has reached or exceeded the preset standard. In this case, the initial state of the intelligent toilet is considered to be in a normal or good working state, and no additional warning prompt or maintenance is required. Therefore, the comparison result of the initial state is recorded as the "first comparison result of the initial state", indicating that the performance of the intelligent toilet in the initial state meets the requirements.

[0050] If the initial performance index of the intelligent toilet is less than the defined value of the initial performance index of the intelligent toilet preset in the test database, the comparison result of the initial state is recorded as the second comparison result of the initial state.

[0051] It should be noted that when the initial performance index of the intelligent toilet is less than the defined value of the initial performance index of the intelligent toilet preset in the test database, it means that the performance of the intelligent toilet in the initial state is lower than the preset standard. This may be caused by malfunctions of some components. In this case, there may be potential problems or risks with the intelligent toilet, and further diagnosis and repair are required. Therefore, the comparison result in the initial state is recorded as the "second comparison result in the initial state", indicating that the performance of the intelligent toilet does not meet the requirements and attention should be paid.

[0052] If the comparison result in the initial state is recorded as the second comparison result in the initial state, an early warning signal for the initial state of the intelligent toilet needs to be sent to the intelligent toilet control platform.

[0053] In this embodiment, the intelligent toilet control platform is a custom integrated management platform designed to achieve comprehensive remote monitoring and management of the intelligent toilet by integrating functions such as control, monitoring, diagnosis, and repair. The platform is connected to the intelligent toilet through Internet of Things (IoT) technology and transmits the collected intelligent toilet data (such as water temperature, seat temperature, usage frequency, etc.) to the control platform in real time through built-in sensors and communication modules (such as Wi-Fi, Bluetooth, Zigbee, etc.). Remote monitoring and management of the intelligent toilet are achieved through remote control technology. Specifically, the functions of the intelligent toilet control platform include but are not limited to: real-time monitoring of the operating state of the intelligent toilet. Through this platform, users can remotely control various functions of the intelligent toilet, such as adjusting the water temperature, seat temperature, flushing mode, etc. At the same time, the platform is built with a fault diagnosis program. The fault diagnosis program uses historical fault data of the intelligent toilet to train multiple decision trees by using random forests to establish a fault diagnosis model. When new data is input, the model can automatically identify and diagnose the type of fault. For some simple software faults or configuration errors, the platform can automatically send repair instructions or download update packages to the intelligent toilet for repair based on the prediction results of the fault diagnosis model.

[0054] When the intelligent toilet control platform receives the early warning signal, it synchronously starts the diagnosis program and repair program of the intelligent toilet to complete the early warning prompt for the initial state of the intelligent toilet.

[0055] In this embodiment, when the intelligent toilet control platform receives the early warning signal, the control platform can start the built-in fault diagnosis program to locate and analyze the fault. Then, according to the type and severity of the fault, corresponding repair measures are taken, such as automatically adjusting parameters, restarting the device, etc.

[0056] Specifically, the operation data of the intelligent toilet under the simulated operation state specifically includes the total energy consumption, the average operating temperature of the processor, the average flushing water consumption, the real-time heating power of the seat ring, and the real-time temperature of the seat ring of the intelligent toilet within the simulated operation cycle.

[0057] It should be noted that the above total energy consumption is measured using a power meter. During the simulated operation cycle, the power consumption of the intelligent toilet is continuously monitored. After the test, the energy consumption value displayed on the power meter is read to obtain the total energy consumption within the simulated operation cycle; the average operating temperature of the processor is measured using a temperature sensor. During the simulated operation cycle, the temperature of the processor is continuously monitored. By calculating the average temperature value throughout the cycle, the average operating temperature of the processor can be obtained; the average flushing water consumption is measured using a flow meter. During the simulated operation cycle, the water consumption of the flushing function is monitored. Through multiple tests and calculating the average value, the average flushing water consumption can be obtained; the real-time heating power of the seat ring is measured using an electrical parameter measuring instrument. During the simulated operation cycle, the heating power of the seat ring is monitored; the real-time temperature of the seat ring is measured using a temperature sensor. During the simulated operation cycle, the temperature of the seat ring is continuously monitored. In this embodiment, the simulated operation cycle generally refers to the process of simulating a user using the toilet, which includes steps such as the user sitting down, using the flushing function, leaving the seat, and the toilet returning to the initial state.

[0058] In this embodiment, there is a certain data influence relationship among the total energy consumption, the average operating temperature of the processor, the average flushing water consumption, the real-time heating power of the seat ring, and the real-time temperature of the seat ring of the intelligent toilet within the simulated operation cycle. As the core component of the intelligent toilet, the operation of the processor will consume a certain amount of electrical energy. The higher the average operating temperature of the processor, the relatively higher its energy consumption, because high temperature is often accompanied by higher power consumption and heat dissipation requirements. The flushing function of the intelligent toilet usually consumes a certain amount of water resources and also has a certain amount of electrical energy consumption (such as the energy consumption of components such as water pumps and solenoid valves). Therefore, the size of the average flushing water consumption may affect the total energy consumption to a certain extent. The greater the real-time heating power of the seat ring, the higher the real-time temperature of the seat ring, and the more electrical energy consumed, thus having a direct impact on the total energy consumption.

[0059] The total energy consumption of the intelligent toilet within the simulated operation cycle is processed by taking the ratio with the preset reference energy consumption for operation in the test database to obtain the operation energy consumption ratio of the intelligent toilet within the simulated operation cycle.

[0060] The average flushing water consumption of the intelligent toilet within the simulated operation cycle is processed by taking the difference with the preset allowable flushing water consumption in the test database to obtain the flushing water consumption deviation of the intelligent toilet within the simulated operation cycle.

[0061] Specifically, the specific analysis process of the simulated operation performance index of the intelligent toilet is as follows: The real-time heating power of the intelligent toilet seat within the simulated operation cycle is processed by taking the difference from the reference seat heating power preset in the test database, resulting in the real-time heating deviation power of the intelligent toilet seat within the simulated operation cycle.

[0062] The average operating temperature of the processor, the real-time temperature of the toilet seat, the operating energy consumption ratio, the deviation of the flushing water volume, and the real-time heating deviation power of the toilet seat within the simulated operation cycle of the intelligent toilet are comprehensively analyzed to obtain the simulated operation performance index of the intelligent toilet. The simulated operation performance index of the intelligent toilet is used to comprehensively and quantitatively evaluate the operating performance of the intelligent toilet within the simulated operation cycle. The specific analysis method is as follows: ; In the formula, is the simulated operation performance index of the intelligent toilet, e is the natural constant, cq is the average operating temperature of the processor, is the reference operating temperature of the processor preset in the test database, is the operating influence factor corresponding to the unit value of the average operating temperature of the processor preset in the test database, is the starting time point of the simulated operation cycle, is the ending time point of the simulated operation cycle, v is any time point within the simulated operation cycle, is the real-time temperature of the toilet seat at time point v within the simulated operation cycle of the intelligent toilet, is the reference temperature of the toilet seat preset in the test database, is the real-time heating deviation power of the toilet seat at time point v within the simulated operation cycle of the intelligent toilet, is the allowable deviation power of the toilet seat heating preset in the test database, cs is the deviation of the flushing water volume, is the allowable deviation of the flushing water volume preset in the test database, yn is the operating energy consumption ratio, is the operating influence factor corresponding to the unit value of the real-time temperature of the toilet seat preset in the test database, is the operating influence factor corresponding to the unit value of the real-time heating deviation power of the toilet seat preset in the test database, is the operating influence factor corresponding to the unit value of the deviation of the flushing water volume preset in the test database, is the operating influence factor corresponding to the unit value of the operating energy consumption ratio preset in the test database.

[0063] It should be noted that the average operating temperature of the above-mentioned processor refers to the average temperature of the built-in processor of the intelligent toilet during the simulated operating cycle; the reference operating temperature of the processor refers to the expected temperature value of the processor preset in the test database under normal working conditions; any time point within the simulated operating cycle refers to a moment randomly or specifically selected during the entire simulated operating cycle; the real-time temperature of the seat ring refers to the actual temperature of the seat ring of the intelligent toilet at the current moment; the preset reference temperature of the seat ring refers to the expected temperature value of the seat ring preset in the test database under normal working conditions; the real-time heating deviation power of the seat ring refers to the difference between the real-time heating power of the seat ring and the preset reference heating power of the seat ring in the test database; the preset allowable deviation power of the seat ring heating refers to the maximum power deviation value allowed for the intelligent toilet preset in the test database under normal working conditions; the deviation amount of the flushing water consumption refers to the difference between the actual water consumption and the preset water consumption during the flushing process of the intelligent toilet; the preset allowable deviation amount of the flushing water consumption refers to the maximum water consumption deviation value allowed for the flushing system stipulated in the test database under normal working conditions; the operating energy consumption ratio refers to the ratio of the actual energy consumption to the theoretical energy consumption of the intelligent toilet during the simulated operating cycle.

[0064] In this embodiment, the operation influence factor corresponding to the unit value of the average operating temperature of the processor represents the degree of influence of the unit value of the average operating temperature of the processor on the simulated operating performance index of the intelligent toilet. The corresponding relationship between the unit value of the average operating temperature of the processor and its corresponding precision influence factor is stored in the test database. For example, when the unit value of the average operating temperature of the processor is input into the test database, the test database can match the operation influence factor corresponding to the unit value of the average operating temperature of the processor; the operation influence factor corresponding to the unit value of the real-time temperature of the seat ring preset in the test database represents the degree of influence of the unit value of the real-time temperature of the seat ring on the simulated operating performance index of the intelligent toilet. The corresponding relationship between the unit value of the real-time temperature of the seat ring and its corresponding precision influence factor is stored in the test database. For example, when the unit value of the real-time temperature of the seat ring is input into the test database, the test database can match the operation influence factor corresponding to the unit value of the real-time temperature of the seat ring; the operation influence factor corresponding to the unit value of the deviation amount of the flushing water consumption preset in the test database represents the degree of influence of the unit value of the deviation amount of the flushing water consumption on the simulated operating performance index of the intelligent toilet. The corresponding relationship between the unit value of the deviation amount of the flushing water consumption and its corresponding precision influence factor is stored in the test database. For example, when the unit value of the deviation amount of the flushing water consumption is input into the test database, the test database can match the operation influence factor corresponding to the unit value of the deviation amount of the flushing water consumption; the operation influence factor corresponding to the unit value of the operation energy consumption ratio preset in the test database represents the degree of influence of the unit value of the operation energy consumption ratio on the simulated operating performance index of the intelligent toilet. The corresponding relationship between the unit value of the operation energy consumption ratio and its corresponding precision influence factor is stored in the test database. For example, when the unit value of the operation energy consumption ratio is input into the test database, the test database can match the operation influence factor corresponding to the unit value of the operation energy consumption ratio; the operation influence factor corresponding to the unit value of the real-time heating deviation power of the seat ring preset in the test database represents the degree of influence of the unit value of the real-time heating deviation power of the seat ring on the simulated operating performance index of the intelligent toilet. The corresponding relationship between the unit value of the real-time heating deviation power of the seat ring and its corresponding precision influence factor is stored in the test database. For example, when the unit value of the real-time heating deviation power of the seat ring is input into the test database, the test database can match the operation influence factor corresponding to the unit value of the real-time heating deviation power of the seat ring.

[0065] In this embodiment, when the average operating temperature of the processor is too high or too low, that is, when it deviates from the preset reference operating temperature of the processor, problems such as a decrease in processor performance, an increase in power consumption, and a deterioration in stability will occur, leading to an exponential decrease; when the real-time temperature of the seat ring is too high or too low, that is, when the deviation from the preset reference temperature of the seat ring is large, the abnormality of the seat ring temperature will cause an increase in the power consumption of the heating system, further affecting the energy efficiency performance of the intelligent toilet and resulting in an exponential decrease; when the real-time heating deviation power of the seat ring is large, even greater than the preset allowable deviation power of the seat ring heating, a large heating deviation power also means an increase in energy consumption, further reducing the energy efficiency performance of the intelligent toilet; when the deviation amount of the flushing water consumption is large, even greater than the preset allowable deviation amount of the flushing water consumption, too much water consumption will increase the operating cost of the intelligent toilet, while too little water consumption may affect the flushing effect; when the operating energy consumption ratio is large, it indicates that the intelligent toilet consumes more energy during operation and has poor energy efficiency performance; therefore, through a detailed analysis of each parameter in the simulated operation performance index of the intelligent toilet, the performance of the intelligent toilet can be deeply understood, which helps to discover problems in the product design, production, or control process and take targeted improvement measures.

[0066] Further, it is determined whether it is necessary to optimize the operation state of the intelligent toilet according to the operation comparison result. The specific determination process is as follows: If the simulated operation performance index of the intelligent toilet is greater than or equal to the defined value of the simulated operation performance index of the intelligent toilet preset in the test database, the operation comparison result is recorded as the first operation comparison result.

[0067] It should be noted that when the simulated operation performance index of the intelligent toilet is greater than or equal to the defined value of the simulated operation performance index of the intelligent toilet preset in the test database, this means that the performance of the intelligent toilet in the simulated operation has reached or exceeded the expected standard. The preset defined value in the test database is usually set according to factors such as industry standards, manufacturer specifications, or user requirements, and is used to evaluate whether the performance of the intelligent toilet is qualified or excellent. When the simulated operation performance index is less than or equal to this defined value, it can be considered that the intelligent toilet performs quite well in terms of energy consumption, flushing effect, heating speed, temperature control, etc., and no additional control optimization is required.

[0068] If the simulated operation performance index of the intelligent toilet is less than the defined value of the simulated operation performance index of the intelligent toilet preset in the test database, the operation comparison result is recorded as the second operation comparison result.

[0069] It should be noted that when the simulated operation performance index of the intelligent toilet is less than the defined value of the simulated operation performance index of the intelligent toilet preset in the test database, it indicates that the performance of the intelligent toilet in the simulated operation does not meet the expected standard. This usually means that there are some problems or deficiencies in the current operating state or configuration of the intelligent toilet, and further optimization and improvement are required.

[0070] If the operation comparison result is the second operation comparison result, it is necessary to optimize the control of the operating state of the intelligent toilet.

[0071] In this embodiment, to pre-control and optimize the operating state of the intelligent toilet, it is necessary to notify the intelligent toilet personnel through the intelligent toilet control platform to optimize the control of the operating state of the intelligent toilet. The specific control optimization can be achieved by observing the change trend of energy consumption over time, comparing the energy consumption differences in different time periods, determining whether there are high-energy consumption periods or persistent high-energy consumption problems, decomposing the total energy consumption into the main components that consume energy, such as the heating system, flushing system, and sensors, etc. By comparing the energy consumption of each component in different time periods, the components with abnormal energy consumption are found. For the components detected with abnormal energy consumption, further analyze the possible reasons. For example, the high energy consumption of the heating system may be caused by improper heating power setting, inaccurate temperature control, or excessive heat loss; the abnormal energy consumption of the flushing system may be due to unreasonable flushing procedures, low pump efficiency, or pipeline leakage; the abnormal energy consumption of the sensor may be caused by improper sensor sensitivity setting or frequent false triggering. Formulate corresponding optimization measures for different problems, such as adjusting the power output of the heating system, optimizing the temperature control algorithm, replacing a more efficient pump or repairing the pipeline leakage point, adjusting the sensor sensitivity setting, etc. Continue to monitor the energy consumption of the intelligent toilet and compare it with the previous data to evaluate the optimization effect. If the energy consumption is still high, it may be necessary to further adjust the optimization strategy or even consider replacing some hardware devices.

[0072] Specifically, the analysis process of the standby performance index is as follows: Match the initial performance index of the intelligent toilet with the reference standby temperature of the processor of the intelligent toilet in the standby state corresponding to each initial performance index interval of the intelligent toilet preset in the test database to obtain the reference standby temperature of the processor corresponding to the intelligent toilet in the standby state.

[0073] Match the simulated operation performance index of the intelligent toilet with the standby reference power of the intelligent toilet in the standby state corresponding to each simulated operation performance index interval of the intelligent toilet preset in the test database to obtain the standby reference power corresponding to the intelligent toilet in the standby state.

[0074] In this embodiment, the initial performance index of the intelligent toilet is matched with the reference standby temperature of the processor of the intelligent toilet corresponding to each initial performance index range preset in the test database in the standby state, so as to obtain the reference standby temperature of the processor corresponding to the intelligent toilet in the standby state. The specific matching process is as follows: The initial performance index of the intelligent toilet is input into the test database. The test database compares the input initial performance index of the intelligent toilet with each initial performance index range preset in the test database, and finds out the range that matches the initial performance index of the intelligent toilet, thereby obtaining the reference standby temperature of the processor corresponding to the intelligent toilet in the standby state.

[0075] The simulated operation performance index of the intelligent toilet is matched with the reference standby power of the intelligent toilet corresponding to each simulated operation performance index range preset in the test database in the standby state, so as to obtain the reference standby power corresponding to the intelligent toilet in the standby state. The specific matching process is as follows: The simulated operation performance index of the intelligent toilet is input into the test database. The test database compares the input simulated operation performance index of the intelligent toilet with each simulated operation performance index range preset in the test database, and finds out the range that matches the simulated operation performance index of the intelligent toilet, thereby obtaining the reference standby power corresponding to the intelligent toilet in the standby state.

[0076] In a specific embodiment, the initial performance index of the intelligent toilet is 0.12, and the initial performance index range of the intelligent toilet stored in the test database is (0, 0.3]. Then the reference standby temperature of the processor corresponding to the initial performance index range of the intelligent toilet (0, 0.3] is 30 degrees Celsius; the simulated operation performance index of the intelligent toilet is 0.2, and the simulated operation performance index range of the intelligent toilet stored in the test database is (0, 0.2]. Then the reference standby power corresponding to the simulated operation performance index range of the intelligent toilet (0, 0.2] is 30 watts.

[0077] Obtain the average environmental temperature of the area where the intelligent toilet is located during the standby detection period, and match it with the reference seat temperature of the intelligent toilet corresponding to each average environmental temperature range preset in the test database during the standby detection period, so as to obtain the reference seat temperature of the intelligent toilet during the standby detection period.

[0078] It should be noted that the average ambient temperature in the area where the above intelligent toilet seat is located during the standby detection period is obtained by the temperature sensor installed on the intelligent toilet seat. The temperature sensor can accurately reflect the ambient temperature in this area. During the standby detection period, the temperature sensor periodically or continuously collects the data of the temperature sensor, and calculates the average value of the collected temperature data to obtain the average ambient temperature during the standby detection period. The standby detection period refers to the time period during which the intelligent toilet seat is detected in the standby state. During this time period, the intelligent toilet seat should remain non-operational, but the power supply should remain connected for performance detection. The length of the standby detection period should be determined according to the detection requirements to ensure the sufficiency and accuracy of the detection. In this embodiment, the average ambient temperature in the area where the intelligent toilet seat is located during the standby detection period is matched with the reference seat temperature of the intelligent toilet seat during the standby detection period corresponding to each average ambient temperature range to obtain the reference seat temperature of the intelligent toilet seat during the standby detection period. The specific matching process is as follows: The average ambient temperature in the area where the intelligent toilet seat is located during the standby detection period is input into the test database. The test database compares the input ambient temperature value with each average ambient temperature range, and finds the range that matches the ambient temperature value, thereby obtaining the reference seat temperature of the intelligent toilet seat during the standby detection period.

[0079] In a specific embodiment, the average ambient temperature in the area where the intelligent toilet seat is located during the standby detection period is 20 degrees Celsius, and the average ambient temperature range stored in the test database is [20, 30]. Then, the reference seat temperature corresponding to the average ambient temperature range [20, 30] is 32 degrees Celsius.

[0080] The performance data of the intelligent toilet seat in the standby state specifically includes the standby average power, the average temperature of the processor in standby, the average temperature of the seat ring, and the standby communication frequency of the intelligent toilet seat during the standby detection period.

[0081] It should be noted that the standby average power of the above intelligent toilet seat during the standby detection period is obtained by measuring the power consumption of the intelligent toilet seat in the standby state with a power meter and calculating its average value. The average temperature of the processor in standby can be obtained by measuring the temperature of the processor in the standby state with a temperature sensor and then calculating the average value. The average temperature of the seat ring is obtained by arranging a temperature sensor inside the seat ring, measuring its temperature in the standby state, and then calculating the average value. The standby communication frequency is obtained by using a spectrum analyzer to monitor and analyze the communication activities of the intelligent toilet seat.

[0082] Comprehensively analyze the standby average power, the average standby temperature of the processor, the average temperature of the seat ring, the standby communication frequency, the standby reference power, the reference standby temperature of the processor, and the reference temperature of the seat ring of the intelligent toilet during the standby detection period to obtain a standby performance index, which is used to comprehensively and quantitatively evaluate the performance of the intelligent toilet in the standby state.

[0083] In this embodiment, there is an interactive relationship among the standby average power, the average standby temperature of the processor, the average temperature of the seat ring, and the standby communication frequency of the intelligent toilet during the standby detection period. If the standby temperature of the processor is higher, the standby power may also be greater. If the seat ring maintains a relatively high temperature in the standby state, more electrical energy is required to maintain this temperature, thereby increasing the standby power. The standby communication frequency reflects the communication frequency between the intelligent toilet and external devices or networks in the standby state. The higher the standby communication frequency, the more electrical energy the intelligent toilet needs to consume to maintain the communication connection, thus increasing the standby average power.

[0084] The specific analysis method of the standby performance index is as follows: ; In the formula, is the standby performance index, e is the natural constant, is the standby average power, is the standby reference power, dw is the average standby temperature of the processor, is the reference standby temperature of the processor, zw is the average temperature of the seat ring, is the reference temperature of the seat ring, tp is the standby communication frequency, is the standby performance impact index corresponding to the unit value of the standby communication frequency preset in the test database, is the standby performance impact index corresponding to the unit value of the average standby temperature of the processor preset in the test database, is the standby performance impact index corresponding to the unit value of the average standby temperature of the processor preset in the test database, is the standby performance impact index corresponding to the unit value of the average temperature of the seat ring preset in the test database.

[0085] It should be noted that the average standby power refers to the average electrical power consumed by the intelligent toilet in the standby state during the standby detection period; the reference standby power refers to the expected power value set for the intelligent toilet in the standby state; the average temperature of the processor in standby refers to the average temperature of the internal processor of the intelligent toilet in the standby state; the reference standby temperature of the processor refers to the reference value of the processor temperature set for the intelligent toilet in the standby state; the average temperature of the seat ring refers to the average temperature of the seat ring of the intelligent toilet in the standby state; the reference temperature of the seat ring refers to an expected temperature value set for the seat ring in the standby state; any time point within the standby detection period refers to any time point that can be randomly selected or specified during the entire standby detection period, and this time point is used to record or measure the relevant parameters of the intelligent toilet in the standby state; the standby communication frequency refers to the frequency at which the intelligent toilet communicates with external devices or networks in the standby state; the detection accuracy index of the precise test tool refers to the accuracy level of the test tool used to measure the relevant parameters of the intelligent toilet.

[0086] In this embodiment, the standby performance impact index corresponding to the unit value of the standby communication frequency preset in the test database represents the degree of influence of the unit value of the standby communication frequency on the standby performance indicators. The corresponding relationship between the unit value of the standby communication frequency and its corresponding standby performance impact index is stored in the test database. For example, when the unit value of the standby communication frequency is input into the test database, the test database can match the standby performance impact index corresponding to the unit value of the standby communication frequency; the standby performance impact index corresponding to the unit value of the reference standby power preset in the test database represents the degree of influence of the unit value of the reference standby power on the standby performance indicators. The corresponding relationship between the unit value of the reference standby power and its corresponding standby performance impact index is stored in the test database. For example, when the unit value of the reference standby power is input into the test database, the test database can match the standby performance impact index corresponding to the reference standby power; the standby performance impact index corresponding to the unit value of the average temperature of the processor in standby preset in the test database represents the degree of influence of the unit value of the average temperature of the processor in standby on the standby performance indicators. The corresponding relationship between the unit value of the average temperature of the processor in standby and its corresponding standby performance impact index is stored in the test database. For example, when the unit value of the average temperature of the processor in standby is input into the test database, the test database can match the standby performance impact index corresponding to the average temperature of the processor in standby; the standby performance impact index corresponding to the unit value of the average temperature of the seat ring preset in the test database represents the degree of influence of the unit value of the average temperature of the seat ring on the standby performance indicators. The corresponding relationship between the unit value of the average temperature of the seat ring and its corresponding standby performance impact index is stored in the test database. For example, when the unit value of the average temperature of the seat ring is input into the test database, the test database can match the standby performance impact index corresponding to the average temperature of the seat ring.

[0087] In this embodiment, when the average standby power is much greater than the standby reference power, it means that the intelligent toilet consumes too much electrical energy in the standby state, indicating that there is unnecessary energy waste or unreasonable circuit design in the intelligent toilet. On the contrary, if the average standby power is much less than the standby reference power, although it seems energy-saving, it also means that some key components (such as sensors, controllers, etc.) do not receive sufficient power support during standby, thereby affecting their normal functions. When the average standby temperature of the processor is relatively high, even higher than the reference standby temperature of the processor, it indicates that the processor still maintains a relatively high operating temperature in the standby state, which will lead to a decrease in processor performance, a shortening of its lifespan, and may even trigger the overheat protection mechanism, resulting in the inability of the intelligent toilet to work properly. An excessively high standby temperature of the processor will directly lead to a decrease in the standby performance index. When the average temperature of the seat ring is too high or too low, that is, when the deviation from the reference temperature of the seat ring is relatively large, the seat ring heating function is an important source of energy consumption for the intelligent toilet. The temperature deviation from the reference value may cause unstable energy consumption, thereby affecting the standby performance index. When the standby communication frequency is relatively low, the intelligent toilet may not be able to respond in a timely manner to the control instructions from the intelligent toilet control platform, resulting in function delay or failure, thus reducing the standby performance index. A relatively high influence index detected by the test tool means that the test tool may have a relatively large influence when measuring the standby performance index of the intelligent toilet, resulting in errors or deviations in the measurement results, directly affecting the accuracy and reliability of the standby performance index, and making it impossible to accurately evaluate the standby performance of the intelligent toilet. Therefore, through a detailed analysis of each parameter in the standby performance index, the energy consumption and temperature control of the intelligent toilet in the standby state can be identified and optimized, thereby improving energy efficiency and reliability.

[0088] Specifically, it is finally determined whether it is necessary to optimize and adjust the standby state of the intelligent toilet according to the standby performance comparison result. The specific determination process is as follows: If the standby performance index is less than the standby performance index threshold preset in the test database, the standby performance comparison result is recorded as the first standby performance result.

[0089] It should be explained that when the standby performance index is less than the standby performance index threshold preset in the test database, this indicates that the performance of the intelligent toilet in the standby state fails to meet the expectations or standards, resulting in low energy efficiency. In this case, the standby performance comparison result is recorded as the first standby performance result.

[0090] If the standby performance index is greater than or equal to the standby performance index threshold preset in the test database, the standby performance comparison result is recorded as the second standby performance result.

[0091] It should be noted that when the standby performance index is greater than or equal to the standby performance index threshold preset in the test database, it means that the performance of the intelligent toilet in the standby state is better than expected or the standard. In other words, the intelligent toilet consumes less electric energy during standby, and the overall energy efficiency is higher. In this case, the standby performance comparison result is recorded as the second standby performance result. Even if the standby performance is good, it is necessary to regularly monitor and maintain the intelligent toilet to ensure its continuous and stable standby performance.

[0092] If the standby performance comparison result is the first standby performance result, it is necessary to optimize and adjust the standby state of the intelligent toilet.

[0093] In this embodiment, when the standby performance comparison result is the first standby performance result, it is necessary to notify and remind the standby performance management personnel of the intelligent toilet through the intelligent toilet control platform to optimize and adjust the standby state of the intelligent toilet. The specific optimization scheme can be to increase intelligent power management strategies, such as automatic sleep, timed wake-up, etc., and at the same time use lower-power electronic components and motors to further reduce the overall energy consumption of the intelligent toilet in the standby state.

[0094] Refer to Figure 2 As shown, the second aspect of the present invention provides an intelligent toilet standby performance test system, including: an intelligent toilet initial state inspection module, an intelligent toilet simulated operation state detection module, a standby performance test module, and a test database.

[0095] The intelligent toilet initial state inspection module is connected to the intelligent toilet simulated operation state detection module, the intelligent toilet simulated operation state detection module is connected to the standby performance test module, and the intelligent toilet initial state inspection module, the intelligent toilet simulated operation state detection module, and the standby performance test module are all connected to the test database.

[0096] The intelligent toilet initial state inspection module is used to obtain the initial state data of the intelligent toilet, analyze and obtain the initial performance index of the intelligent toilet, compare it with the defined value of the initial performance index of the intelligent toilet preset in the test database, obtain the initial state comparison result, and determine whether to give an early warning prompt for the initial state of the intelligent toilet according to the initial state comparison result.

[0097] The intelligent toilet simulation operation state detection module is used to automatically set the intelligent toilet to the simulation operation state when the initial performance index of the intelligent toilet is greater than or equal to the defined value of the initial performance index of the intelligent toilet preset in the test database, obtain the operation data of the intelligent toilet in the simulation operation state, analyze and obtain the simulation operation performance index of the intelligent toilet, compare it with the defined value of the simulation operation performance index of the intelligent toilet preset in the test database to obtain the operation comparison result, and determine whether it is necessary to control and optimize the operation state of the intelligent toilet according to the operation comparison result.

[0098] The standby performance test module is used to automatically set the intelligent toilet to the standby state by the toilet control program, obtain the performance data of the intelligent toilet in the standby state, analyze and obtain the standby performance index, compare it with the threshold of the standby performance index preset in the test database to obtain the standby performance comparison result, and finally determine whether it is necessary to optimize and adjust the standby state of the intelligent toilet according to the standby performance comparison result.

[0099] The test database is used to store the defined value of the initial performance index of the preset intelligent toilet, the defined value of the simulation operation performance index of the preset intelligent toilet, the threshold of the preset standby performance index, the threshold of the average operating temperature of the preset processor, the defined value of the infrared detection distance, the standard value of the water pressure, the initial performance impact factor corresponding to the unit value of the average operating temperature ratio of the preset processor, the allowable deviation value of the infrared detection distance, the allowable deviation value of the water pressure, the preset reference energy consumption, the reference operating temperature of the preset processor, the reference data of the intelligent toilet in the standby state corresponding to each initial performance index interval of the preset intelligent toilet, and the reference seat ring temperature of the intelligent toilet during the standby detection period corresponding to each average environmental temperature interval, etc.

[0100] The above content is only an example and explanation of the structure of the present invention. Those skilled in the art of this technology can make various modifications or supplements to the described specific embodiments or use similar methods to replace them. As long as they do not deviate from the structure of the invention or exceed the scope defined in this specification, they should fall within the protection scope of the present invention.

Claims

1. An intelligent toilet standby performance test method, characterized in that Including: S1. Initial state check of the intelligent toilet: Obtain the initial state data of the intelligent toilet, analyze to obtain the initial performance index of the intelligent toilet, compare it with the defined value of the initial performance index of the intelligent toilet preset in the test database, obtain the initial state comparison result, and determine whether to give a warning prompt for the initial state of the intelligent toilet according to the initial state comparison result; S2. Detection of the simulated operation state of the intelligent toilet: When the initial performance index of the intelligent toilet is greater than or equal to the defined value of the initial performance index of the intelligent toilet preset in the test database, the toilet control program automatically sets the intelligent toilet to the simulated operation state, obtains the operation data of the intelligent toilet in the simulated operation state, analyzes to obtain the simulated operation performance index of the intelligent toilet, compares it with the defined value of the simulated operation performance index of the intelligent toilet preset in the test database, obtains the operation comparison result, and determines whether to control and optimize the operation state of the intelligent toilet according to the operation comparison result; S3. Standby performance test: The toilet control program automatically sets the intelligent toilet to the standby state, obtains the performance data of the intelligent toilet in the standby state, analyzes to obtain the standby performance index, compares it with the threshold value of the standby performance index preset in the test database, obtains the standby performance comparison result, and finally determines whether to optimize and adjust the standby state of the intelligent toilet according to the standby performance comparison result.

2. The intelligent toilet standby performance test method according to claim 1, wherein: The initial state data of the intelligent toilet specifically includes the average operating temperature of the processor, the real-time water pressure, the maximum infrared detection distance, the real-time communication signal strength, and the total energy consumption of the intelligent toilet during the initial state detection period; Compare the average operating temperature of the processor of the intelligent toilet during the initial state detection period with the threshold value of the average operating temperature of the processor preset in the test database to obtain the ratio of the average operating temperature of the processor of the intelligent toilet during the initial state detection period; Perform a difference process on the maximum infrared detection distance and the defined value of the infrared detection distance preset in the test database to obtain the infrared detection distance deviation value of the intelligent toilet during the initial state detection period.

3. The intelligent toilet standby performance test method according to claim 2, characterized in that: The specific analysis process of the initial performance index of the intelligent toilet is as follows: Perform a difference process on the real-time water pressure of the intelligent toilet during the initial state detection period and the standard water pressure value preset in the test database to obtain the real-time water pressure deviation value of the intelligent toilet during the initial state detection period; Comprehensively analyze the ratio of the average operating temperature of the processor, the infrared detection distance deviation value, the real-time water pressure deviation value, the real-time communication signal strength, and the total energy consumption of the intelligent toilet during the initial state detection period to obtain the initial performance index of the intelligent toilet. The initial performance index of the intelligent toilet is used to comprehensively quantify the initial performance state of the intelligent toilet.

4. The intelligent toilet standby performance test method according to claim 3, wherein: The specific determination process of whether to give a warning prompt for the initial state of the intelligent toilet according to the initial state comparison result is as follows: If the initial performance index of the intelligent toilet is greater than or equal to the defined value of the initial performance index of the intelligent toilet preset in the test database, record the initial state comparison result as the first initial state comparison result; If the initial performance index of the intelligent toilet is less than the defined value of the initial performance index of the intelligent toilet preset in the test database, the initial state comparison result is recorded as the second initial state comparison result; If the initial state comparison result is recorded as the second initial state comparison result, it is necessary to send an early warning signal for the initial state of the intelligent toilet to the intelligent toilet control platform; When the intelligent toilet control platform receives the early warning signal, it synchronously starts the diagnostic program and repair program of the intelligent toilet to complete the early warning prompt for the initial state of the intelligent toilet.

5. The intelligent toilet standby performance test method according to claim 1, wherein: The operation data of the intelligent toilet in the simulated operation state specifically includes the total energy consumption, average operating temperature of the processor, average flushing water consumption, real-time heating power of the seat ring, and real-time temperature of the seat ring within the simulated operation cycle of the intelligent toilet; The total energy consumption of the intelligent toilet within the simulated operation cycle is processed by taking the ratio with the reference operating energy consumption preset in the test database to obtain the operating energy consumption ratio of the intelligent toilet within the simulated operation cycle; The difference between the average flushing water consumption of the intelligent toilet within the simulated operation cycle and the allowed flushing water consumption preset in the test database is processed to obtain the flushing water consumption deviation of the intelligent toilet within the simulated operation cycle.

6. The intelligent toilet standby performance test method according to claim 5, wherein: The specific analysis process of the simulated operation performance index of the intelligent toilet is as follows: The difference between the real-time heating power of the seat ring of the intelligent toilet within the simulated operation cycle and the reference heating power of the seat ring preset in the test database is processed to obtain the real-time heating deviation power of the seat ring of the intelligent toilet within the simulated operation cycle; The average operating temperature of the processor, real-time temperature of the seat ring, operating energy consumption ratio, flushing water consumption deviation, and real-time heating deviation power of the seat ring of the intelligent toilet within the simulated operation cycle are comprehensively analyzed to obtain the simulated operation performance index of the intelligent toilet. The simulated operation performance index of the intelligent toilet is used to comprehensively and quantitatively evaluate the operation performance of the intelligent toilet within the simulated operation cycle. The specific analysis method is as follows: ； In the formula, is the simulation operation performance index of the intelligent toilet, e is the natural constant, cq is the average operating temperature of the processor, is the reference operating temperature of the processor preset in the test database, is the operating influence factor corresponding to the unit value of the average operating temperature of the processor preset in the test database, is the starting time point of the simulation operation cycle, is the ending time point of the simulation operation cycle, v is any time point within the simulation operation cycle, is the real-time seat ring temperature of the intelligent toilet at time point v within the simulation operation cycle, is the reference seat ring temperature preset in the test database, is the real-time seat ring heating deviation power of the intelligent toilet at time point v within the simulation operation cycle, is the allowable seat ring heating deviation power preset in the test database, cs is the deviation amount of the flushing water consumption, is the allowable deviation amount of the flushing water consumption preset in the test database, yn is the operation energy consumption ratio, is the operating influence factor corresponding to the unit value of the real-time seat ring temperature preset in the test database, is the operating influence factor corresponding to the unit value of the real-time seat ring heating deviation power preset in the test database, is the operating influence factor corresponding to the unit value of the deviation amount of the flushing water consumption preset in the test database, is the operating influence factor corresponding to the unit value of the operation energy consumption ratio preset in the test database.

7. The intelligent toilet standby performance test method according to claim 1, characterized in that: The specific determination process of whether it is necessary to control and optimize the operation state of the intelligent toilet according to the operation comparison result is as follows: If the simulated operation performance index of the intelligent toilet is greater than or equal to the defined value of the simulated operation performance index of the intelligent toilet preset in the test database, the operation comparison result is recorded as the first operation comparison result; If the simulated operation performance index of the intelligent toilet is less than the defined value of the simulated operation performance index of the intelligent toilet preset in the test database, the operation comparison result is recorded as the second operation comparison result; If the operation comparison result is the second operation comparison result, it is necessary to control and optimize the operation state of the intelligent toilet.

8. The intelligent toilet standby performance test method according to claim 1, wherein: The specific analysis process of the standby performance index is as follows: The initial performance index of the intelligent toilet is matched with the reference standby temperature of the processor of the intelligent toilet corresponding to each interval of the initial performance index of the intelligent toilet preset in the test database to obtain the reference standby temperature of the processor of the intelligent toilet in the standby state; Match the simulated operation performance index of the intelligent toilet with the standby reference power of the intelligent toilet in the standby state corresponding to each interval of the simulated operation performance index of the intelligent toilet preset in the test database to obtain the standby reference power corresponding to the intelligent toilet in the standby state; Obtain the average ambient temperature of the area where the intelligent toilet is located during the standby detection period, and match it with the seat ring reference temperature of the intelligent toilet during the standby detection period corresponding to each average ambient temperature interval preset in the test database to obtain the seat ring reference temperature of the intelligent toilet during the standby detection period; The performance data of the intelligent toilet in the standby state specifically includes the standby average power, the average standby temperature of the processor, the average seat ring temperature, and the standby communication frequency of the intelligent toilet during the standby detection period; Comprehensively analyze the standby average power, the average standby temperature of the processor, the average seat ring temperature, the standby communication frequency, the standby reference power, the reference standby temperature of the processor, and the seat ring reference temperature of the intelligent toilet during the standby detection period to obtain a standby performance index, and the standby performance index is used to comprehensively and quantitatively evaluate the performance of the intelligent toilet in the standby state.

9. The intelligent toilet standby performance test method according to claim 1, characterized in that: Finally, determine whether it is necessary to optimize and adjust the standby state of the intelligent toilet according to the standby performance comparison result. The specific determination process is as follows: If the standby performance index is less than the standby performance index threshold preset in the test database, record the standby performance comparison result as the first standby performance result; If the standby performance index is greater than or equal to the standby performance index threshold preset in the test database, record the standby performance comparison result as the second standby performance result; If the standby performance comparison result is the first standby performance result, it is necessary to optimize and adjust the standby state of the intelligent toilet.

10. A system applying the intelligent toilet standby performance test method according to any one of claims 1-9, characterized in that: Including: An initial state inspection module for the intelligent toilet, which is used to obtain the initial state data of the intelligent toilet, analyze and obtain the initial performance index of the intelligent toilet, compare it with the defined value of the initial performance index of the intelligent toilet preset in the test database, obtain the initial state comparison result, and determine whether it is necessary to give an early warning prompt for the initial state of the intelligent toilet according to the initial state comparison result; A simulated operation state detection module for the intelligent toilet, which is used to automatically set the intelligent toilet to the simulated operation state by the toilet control program when the initial performance index of the intelligent toilet is greater than or equal to the defined value of the initial performance index of the intelligent toilet preset in the test database, obtain the operation data of the intelligent toilet in the simulated operation state, analyze and obtain the simulated operation performance index of the intelligent toilet, compare it with the defined value of the simulated operation performance index of the intelligent toilet preset in the test database, obtain the operation comparison result, and determine whether it is necessary to control and optimize the operation state of the intelligent toilet according to the operation comparison result; The standby performance test module is used for the toilet control program to automatically set the intelligent toilet to the standby state, obtain the performance data of the intelligent toilet in the standby state, analyze and obtain the standby performance index, compare it with the threshold of the standby performance index preset in the test database to obtain the standby performance comparison result, and finally determine whether it is necessary to optimize and adjust the standby state of the intelligent toilet according to the standby performance comparison result.

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