Pipeline dust removal method based on wind-induced vibration, pipeline dust removal device and intelligent air conditioner

Abstract

The application relates to the technical field of pipeline dust removal, and discloses a pipeline dust removal method based on wind-driven vibration. The pipeline dust removal method comprises the following steps: obtaining a first fan rotating speed and a first fan current at the beginning of a current control cycle, and a second fan rotating speed and a second fan current at the beginning of a previous control cycle; determining a historical dust removal amount in the previous control cycle according to the first fan rotating speed, the first fan current, the second fan rotating speed and the second fan current; determining a third fan rotating speed or a third fan current in the current control cycle according to the historical dust removal amount; and controlling the fan according to the third fan rotating speed or the third fan current to adjust the wind speed in the pipeline, so as to adjust the vibration effect of the wind-driven vibration device. The pipeline dust removal method can reduce the energy consumption required in the vibration dust removal process, and can make the vibration dust removal technology easy to be applied to a scene with a large number of pipelines. The application further discloses a pipeline dust removal device based on wind-driven vibration and an intelligent air conditioner.

Description

Technical Field

[0001] This application relates to the field of pipeline dust removal technology, such as a pipeline dust removal method, a pipeline dust removal device, and an intelligent air conditioner based on wind-driven vibration. Background Technology

[0002] Currently, North American countries such as the United States and Canada use ducted split air conditioners for indoor cooling or heating. A ducted split air conditioner consists of an outdoor unit, an indoor unit, and connecting pipes. The indoor unit generates cold / hot air in cooling / heating mode. This air first enters the main supply air duct and then is distributed to various branch supply air ducts. Finally, it enters each room through the air inlet at the end of each branch supply air duct. Simultaneously, each room is equipped with a return air vent, and a corresponding return air duct branch is installed at the return air vent. The air in the room flows from the return air duct branch back to the main return air duct and then enters the indoor unit.

[0003] After prolonged use, dust accumulates in the ducts of an air conditioner. In this case, a vibration device can be installed in the air conditioner ducts. The vibration device can drive the ducts and dust to vibrate, causing the dust to be peeled off the ducts and achieving automatic dust removal.

[0004] In the process of implementing the embodiments of this application, at least the following problems were found in the related technology:

[0005] Existing technology uses electric vibration devices to drive pipe vibration to achieve pipe dust removal. When there are many pipes or a long individual pipe, a large number of vibration devices need to be installed, which can easily generate large instantaneous power, which is not conducive to energy saving and electrical safety.

[0006] It should be noted that the information disclosed in the background section above is only used to enhance the understanding of the background of this application, and therefore may include information that does not constitute prior art known to those skilled in the art. Summary of the Invention

[0007] To provide a basic understanding of some aspects of the disclosed embodiments, a brief summary is given below. This summary is not intended as a general commentary, nor is it intended to identify key / important components or describe the scope of protection of these embodiments, but rather as a prelude to the detailed description that follows.

[0008] This application provides a method, device, and intelligent air conditioner for dust removal of pipelines based on wind-driven vibration, in order to reduce the energy consumption required for the vibration dust removal process and make the vibration dust removal technology easy to apply to scenarios with a large number of pipelines.

[0009] In some embodiments, a wind-driven vibration device is installed inside the duct to be dusted, the wind-driven vibration device is in working condition, and the duct is equipped with a corresponding fan that can drive the airflow inside the duct; the duct dust removal method based on wind-driven vibration includes:

[0010] The system obtains the first fan speed and the first fan current at the start of the current control cycle, and the second fan speed and the second fan current at the start of the previous control cycle; wherein, the first fan speed is the fan speed at the end of the previous control cycle, and the first fan current is the fan current at the end of the previous control cycle.

[0011] The historical dust removal volume in the previous control cycle is determined based on the first fan speed, the first fan current, the second fan speed, and the second fan current.

[0012] The speed or current of the third fan in the current control cycle is determined based on the historical dust removal volume; wherein, the speed of the third fan and the historical dust removal volume are positively correlated, or the current of the third fan and the historical dust removal volume are positively correlated.

[0013] The fan is controlled by the speed or current of the third fan to adjust the air velocity in the duct, thereby adjusting the vibration effect of the wind-driven vibration device.

[0014] The dust removal method for pipelines based on wind-driven vibration provided in this application can achieve the following technical effects:

[0015] The second fan speed and the second fan current are the fan states at the beginning of the previous control cycle, while the first fan speed and the first fan current are the fan states at the end of the previous control cycle.

[0016] The first fan speed and the first fan current can represent the amount of dust in the pipe at the beginning of the previous control cycle; the second fan speed and the second fan current can represent the amount of dust in the pipe at the end of the previous control cycle.

[0017] Thus, the historical dust removal volume determined based on the first fan speed, the first fan current, the second fan speed, and the second fan current can represent the dust removal result in the previous control cycle, that is, the result achieved by the following process: the wind speed generated in the pipeline by the second fan speed or the second fan current causes the wind-driven vibration device to achieve a vibration effect, which causes the pipeline to vibrate, and the dust on the inner wall of the pipeline is peeled off and blown away by the wind.

[0018] In other words, the second fan speed or the second fan current can also indicate the vibration effect of the wind-driven vibration device and the resulting dust removal effect. Generally speaking, the higher the second fan speed or the second fan current, the higher the air velocity in the pipeline, the greater the vibration amplitude of the wind-driven vibration device, and the better its dust removal effect.

[0019] In the current control loop, the determined third fan speed or third fan current has a positive correlation with the total amount of dust. If this third fan speed or third fan current is used to control the fan, the following situation will occur:

[0020] If the historical dust volume is high, and the current total dust volume is also high, and assuming that the dust removal process in the current control loop will not change the total dust volume from "high" to "low," then the current control loop will use a higher third fan speed or current. This higher third fan speed or current will result in a higher air velocity in the duct, leading to a stronger vibration effect from the wind-driven vibration device. The higher air velocity and stronger vibration effect result in better dust removal from the duct. Consequently, the historical dust volume determined in the next control loop (the control loop following the current one) will be even higher (using the historical dust volume determined in the current control loop as a comparison benchmark). The third fan speed or current determined in the next control loop will be even higher, further increasing the dust removal effect. This cycle repeats, which helps to reduce the total dust content relatively quickly.

[0021] If the historical dust volume is large, but the current total dust volume is small, the current control cycle will use a lower third fan speed or current. This lower speed or current will result in lower air velocity in the duct, leading to weaker vibration from the wind-driven vibration device. The lower air velocity and weaker vibration further reduce dust removal efficiency. Consequently, the historical dust volume determined in the next control cycle will be even smaller, resulting in a lower third fan speed or current and further weakened dust removal. This cycle repeats, helping to terminate the dust removal process more quickly and reducing instances of particularly poor or ineffective dust removal.

[0022] If the historical dust volume is relatively low, and the current total dust volume is also relatively low, then referring to the above analysis of "the historical dust volume is relatively high, and the current total dust volume is relatively low", the dust removal process will be terminated more quickly, in order to reduce dust removal processes that are particularly poor or even ineffective.

[0023] If the historical dust volume is relatively low, but the total dust volume is currently high, the historical dust volume in the previous control cycle, the current control cycle, and the next control cycle will be almost identical. The fan will operate in a relatively stable state until dust removal is complete. This situation will occur with dust highly adhered to the inner wall of the duct. In this case, the required vibration time will be longer. Because the historical dust volume is low, the third fan speed or current will also be lower, allowing the fan to operate in a more energy-efficient state.

[0024] In summary, using high wind speed and strong vibration to quickly remove dust, using low wind speed and weak vibration to quickly end the vibration dust removal process, and operating the fan in an energy-saving mode during the dust removal process are all beneficial to energy conservation and electrical safety.

[0025] Optionally, the historical dust removal amount in the previous control cycle is determined based on the first fan speed, the first fan current, the second fan speed, and the second fan current, including: determining the first dust amount corresponding to the first fan speed and the first fan current based on a preset correspondence model of fan speed and fan current; determining the second dust amount corresponding to the second fan speed and the second fan current based on the preset correspondence model of fan speed and fan current; and determining the historical dust removal amount based on the difference between the second dust amount and the first dust amount; wherein the preset correspondence model is set based on the fan model and the duct model.

[0026] The above technical solution can determine the overall dust removal effect of the previous control cycle when the fan speed is switched from the second fan speed to the first fan speed and the fan current gradually changes from the second fan current to the first fan current.

[0027] Alternatively, it can be determined that in the previous control cycle, the dust removal effect is as follows during the process of switching the fan current from the second fan current to the first fan current, and the fan speed gradually changing from the second fan speed to the first fan speed.

[0028] Optionally, the first dust quantity corresponding to the first fan speed and the first fan current is determined according to a preset correspondence model of fan speed and fan current, including: substituting the first fan speed into the preset correspondence model to obtain the first standard fan current output by the preset correspondence model, and determining the first dust quantity according to the first current difference between the first fan current and the first standard fan current.

[0029] Optionally, the first dust quantity corresponding to the first fan speed and the first fan current is determined according to a preset correspondence model of fan speed and fan current, including: substituting the first fan current into the preset correspondence model to obtain the first standard fan speed output by the preset correspondence model, and determining the first dust quantity according to the first speed difference between the first fan speed and the first standard fan speed.

[0030] Optionally, the second dust quantity corresponding to the second fan speed and the second fan current is determined according to a preset correspondence model of fan speed and fan current, including: substituting the second fan speed into the preset correspondence model to obtain the second standard fan current output by the preset correspondence model, and determining the second dust quantity according to the second current difference between the second fan current and the second standard fan current.

[0031] Optionally, the second dust quantity corresponding to the second fan speed and the second fan current is determined according to a preset correspondence model of fan speed and fan current, including: substituting the second fan current into the preset correspondence model to obtain the second standard fan speed output by the preset correspondence model, and determining the second dust quantity according to the second speed difference between the second fan speed and the second standard fan speed.

[0032] The above methods can obtain the first dust amount at the end of the previous control cycle and the second dust amount at the beginning of the previous control cycle.

[0033] Optionally, the third fan speed or third fan current in the current control cycle is determined based on the historical dust removal volume, including: determining the third fan speed that is positively correlated with the historical dust removal volume based on the correspondence between the historical dust removal volume and the third fan speed, or determining the third fan current that is positively correlated with the historical dust removal volume based on the correspondence between the historical dust removal volume and the third fan current.

[0034] Optionally, the third fan speed or third fan current in the current control cycle is determined based on the historical dust removal amount, including: determining the difference between the historical dust removal amount and the first dust removal amount threshold; determining the increase / decrease amount positively correlated with the difference dust removal amount; determining the increase / decrease value of the speed or the increase / decrease value of the current positively correlated with the increase / decrease value; determining the third fan speed based on the sum of the increase / decrease value of the speed and the first fan speed; or, determining the third fan current based on the sum of the increase / decrease value of the current and the first fan current.

[0035] The determined third fan speed or third fan current corresponds to the dust removal effect in the previous control cycle, which facilitates the rapid increase of fan speed or fan current in repeated control cycles to achieve rapid dust removal; or the rapid decrease of fan speed or fan current to achieve energy saving; or the maintenance of dust removal energy consumption at a level corresponding to the dust removal effect, and such continuous vibration to achieve energy saving.

[0036] Optionally, controlling the fan based on the third fan's speed or current includes: controlling the fan's operation for a preset duration based on the third fan's speed or current. This preset duration limits each control cycle, enabling the repeated execution of the control cycle.

[0037] Optionally, controlling the fan according to the speed of the third fan includes: determining a speed range based on the speed of the third fan, controlling the fan to increase from the lowest speed of the speed range to the highest speed of the speed range, or controlling the fan to decrease from the highest speed of the speed range to the lowest speed of the speed range, or controlling the fan to fluctuate within the speed range.

[0038] Optionally, the fan is controlled according to the third fan current, including: determining the current range based on the third fan current, controlling the fan to increase from the minimum speed of the current range to the maximum current of the current range, or controlling the fan to decrease from the maximum current of the current range to the minimum current of the current range, or controlling the fan to fluctuate within the current range.

[0039] Optionally, the dust removal method for pipelines based on wind-driven vibration further includes: terminating the pipeline dust removal process when the historical dust removal amount is less than or equal to the second dust removal amount threshold.

[0040] Optionally, the dust removal method for pipelines based on wind-driven vibration further includes: determining the cleanliness level based on the first fan speed and a fan speed threshold, or determining the cleanliness level based on the first fan current and a fan current threshold; and reminding the user of the content corresponding to the cleanliness level.

[0041] Optionally, the dust removal method for pipelines based on wind-driven vibration further includes: in the first control cycle, using a preset fan speed as the third fan speed, or using a preset fan current as the third fan current.

[0042] In some embodiments, a wind-driven vibration device is installed inside the duct to be dusted. The wind-driven vibration device is in working condition, and the duct is equipped with a corresponding fan that can drive the air flow inside the duct. The duct dust removal device based on wind-driven vibration includes an acquisition module, a first determination module, a second determination module, and a control module.

[0043] The acquisition module is used to obtain the first fan speed and the first fan current at the start of the current control cycle, and the second fan speed and the second fan current at the start of the previous control cycle; wherein, the first fan speed is the fan speed at the end of the previous control cycle, and the first fan current is the fan current at the end of the previous control cycle.

[0044] The first determining module is used to determine the historical dust removal amount in the previous control cycle based on the first fan speed, the first fan current, the second fan speed, and the second fan current.

[0045] The second determining module is used to determine the speed or current of the third fan in the current control cycle based on the historical dust removal volume; wherein, the speed of the third fan and the historical dust removal volume are positively correlated, or the current of the third fan and the historical dust removal volume are positively correlated.

[0046] The control module is used to control the fan according to the speed or current of the third fan, so as to adjust the wind speed in the duct and thus adjust the vibration effect of the wind-driven vibration device.

[0047] Similar to the dust removal method based on wind-driven vibration, this dust removal device based on wind-driven vibration can also achieve the following effects: rapid dust removal with high wind speed and strong vibration effect, quick end of the vibration dust removal process with low wind speed and weak vibration effect, and energy-saving operation of the fan during the dust removal process, all of which are beneficial to energy saving and electrical safety. The specific principles will not be elaborated here.

[0048] In some embodiments, the wind-driven vibration-based duct dust removal device includes a processor and a memory storing program instructions, the processor being configured to execute the wind-driven vibration-based duct dust removal method provided in the foregoing embodiments when executing the program instructions.

[0049] In some embodiments, the smart air conditioner includes:

[0050] Air conditioner unit;

[0051] The duct dust removal device provided in the aforementioned embodiment is installed on the air conditioner body.

[0052] The above general description and the description below are exemplary and illustrative only and are not intended to limit this application. Attached Figure Description

[0053] One or more embodiments are illustrated by way of example with reference to the accompanying drawings. These illustrative descriptions and drawings do not constitute a limitation on the embodiments. Elements having the same reference numerals in the drawings are considered similar elements, and wherein:

[0054] Figure 1 This is a schematic diagram of an implementation scenario of a ducted split air conditioner provided in an embodiment of this application;

[0055] Figures 2a to 2e This is a schematic diagram of the structure of the wind-driven vibration device provided in the embodiments of this application;

[0056] Figure 3 This is a schematic flowchart of a pipeline dust removal method based on wind-driven vibration provided in an embodiment of this application;

[0057] Figure 4 This is a schematic flowchart of a pipeline dust removal method based on wind-driven vibration provided in an embodiment of this application;

[0058] Figure 5 This is a schematic diagram of a pipe dust removal device based on wind-driven vibration provided in an embodiment of this application;

[0059] Figure 6 This is a schematic diagram of a pipe dust removal device based on wind-driven vibration provided in an embodiment of this application;

[0060] Figure 7 This is a schematic diagram of an intelligent air conditioner provided in an embodiment of this application. Detailed Implementation

[0061] To provide a more detailed understanding of the features and technical content of the embodiments of this application, the implementation of the embodiments of this application will be described in detail below with reference to the accompanying drawings. The accompanying drawings are for illustrative purposes only and are not intended to limit the embodiments of this application. In the following technical description, for ease of explanation, several details are used to provide a full understanding of the disclosed embodiments. However, one or more embodiments may still be implemented without these details. In other cases, well-known structures and devices may be simplified in their depiction to simplify the drawings.

[0062] The terms "first," "second," etc., in the specification, claims, and accompanying drawings of this application are used to distinguish similar objects and are not necessarily used to describe a specific order or sequence. It should be understood that such data can be interchanged where appropriate for the embodiments of this application described herein. Furthermore, the terms "comprising" and "having," and any variations thereof, are intended to cover non-exclusive inclusion.

[0063] Unless otherwise stated, the term "multiple" means two or more.

[0064] In this embodiment, the character " / " indicates that the objects before and after it are in an "or" relationship. For example, A / B means: A or B.

[0065] The term "and / or" describes an association between objects, indicating that three relationships can exist. For example, A and / or B means: A or B, or A and B.

[0066] Figure 1 This is a schematic diagram of an implementation scenario of a ducted split air conditioner provided in an embodiment of this application.

[0067] Combination Figure 1 As shown, the indoor unit 11 of the air conditioner is usually installed in an indoor space, and is usually concealed, for example, it can be installed in the indoor ceiling 14, which can save the machine room area.

[0068] The indoor unit 11 of the air conditioner is connected to other rooms 15 without an indoor unit 11 through the air supply duct 12. After the air undergoes heat exchange in the indoor unit 11, it enters each room 15 through the air supply duct 12. An air valve is installed at the end of the air supply duct 12 in each room 15. By adjusting the opening of the air valve, the air volume entering the room 15 can be adjusted, thereby adjusting the indoor temperature.

[0069] The indoor unit 11 of the air conditioner absorbs air from each room 15 through the return air duct 13, and the air in the return air duct 13 and the supply air duct 12 exchange heat inside the indoor unit 11.

[0070] The cooling / heating principle of the ducted split air conditioner is similar to that of the ordinary split air conditioner. It consists of an indoor unit 11 and an outdoor unit (not shown in the figure), which are connected by copper pipes during installation.

[0071] The static pressure at the air outlet of the indoor unit 11 of a ducted split air conditioner is higher than that at the air outlet of the indoor unit of a regular split air conditioner; the single unit capacity of a ducted split air conditioner is also relatively large, generally available in various specifications such as 5 horsepower, 8 horsepower, 10 horsepower, and 12.5 horsepower; the length of the copper pipe that can be connected between the indoor unit 11 and the outdoor unit of a ducted split air conditioner is also longer, generally up to 50m, and the height difference between the indoor and outdoor units can reach 20m.

[0072] The air-driven vibration device 16 can be installed in the air supply duct 12, or the air-driven vibration device 16 can be installed in the return air duct 13 (not shown in the figure), or the air-driven vibration device 16 can be installed in both the air supply duct 12 and the return air duct 13 (not shown in the figure).

[0073] The wind-driven vibration device 16 can be installed on the inside or outside of a pipeline and fixed relative to the pipeline. When the wind-driven vibration device 16 vibrates, it can drive the pipeline to vibrate simultaneously.

[0074] Combination Figure 2a and 2b As shown, the wind-driven vibration device consists of a vibrating plate 21, a power unit 22, and a support rod 23.

[0075] The power unit 22 can be installed on the inner wall of the pipe.

[0076] The vibrating plate 21 is thin at one end and thick at the other.

[0077] The thin end of the vibrating plate 21 may be provided with a curved edge (not shown in the figure) to facilitate operation such as... Figure 2a Under the wind direction A shown, the vibrating plate 21 is less likely to vibrate, while... Figure 2b The wind direction A shown makes the vibrating plate 21 more prone to vibration.

[0078] Of course, in another case, by adjusting the shape of the thin and thick ends of the vibrating plate 21, so that it can... Figure 2a As shown, when the wind is downward, vibrations are easily generated; while in... Figure 2b Under wind direction A as shown, vibrations are less likely to occur.

[0079] Those skilled in the art can set it up according to their own experience.

[0080] The power unit 22 can drive the vibrating plate 21 to rotate, thereby switching the wind-driven vibration device between a vibrating state and a non-vibrating state. When the wind-driven vibration device is in the vibrating state, it is in the working state; when the wind-driven vibration device is in the non-vibrating state, it is in the non-working state.

[0081] Combined Figures 2c to 2e As shown, the wind-driven vibration device consists of a power unit 22 and a rotating device 24 (such as...). Figure 2c It consists of a polarizing block 25 and a support rod 23, as shown in the figure.

[0082] The support rod 23, the rotating device 24, and the polarizing block 25 are relatively fixed. Driven by wind, the rotating device 24 can rotate, which in turn drives the polarizing block 25 to rotate and generate vibration.

[0083] The power unit 22 can be installed on the inner wall of the pipe, and the power unit 22 can drive the support rod 23 and the rotating device 24. Figure 2d and Figure 2e The two states are shown in the diagram.

[0084] In such Figure 2d Under wind direction C as shown, the wind-driven vibration device is in operation and can drive the pipeline to vibrate; in such a wind direction C... Figure 2e Under wind direction C, the wind-driven vibration device is in a non-operating state.

[0085] Of course, the two wind-driven vibration devices listed above are merely illustrative examples. Those skilled in the art can also select other wind-driven vibration devices based on their own experience. The dust removal method for pipelines based on wind-driven vibration in this application does not make specific requirements in this regard.

[0086] This application uses a ducted split air conditioner as an example for illustrative purposes. The duct dust removal method based on wind-driven vibration can also be applied to other scenarios with the necessary hardware, such as central air conditioning.

[0087] Figure 3 This is a schematic flowchart of a pipe dust removal method based on wind-driven vibration provided in an embodiment of this application. A wind-driven vibration device is installed inside the pipe to be dusted, and the wind-driven vibration device is in working condition. A corresponding fan is installed in the pipe to drive the airflow inside the pipe.

[0088] The dust removal method for pipes based on wind-driven vibration can be implemented through a fan controller. When the fan is a fan in a specific device, the multi-pipe vibration dust removal method can be implemented through the controller of the specific device. For example, when the fan is an indoor fan of an air conditioner, the multi-pipe vibration dust removal method can be implemented through the controller of the air conditioner. Even in a smart home system, the multi-pipe vibration dust removal method can be executed through the server of the smart home system.

[0089] Combination Figure 3 As shown, the dust removal method for pipelines based on wind-driven vibration includes:

[0090] S301. Obtain the first fan speed and the first fan current at the start of the current control cycle, and the second fan speed and the second fan current at the start of the previous control cycle.

[0091] The first fan speed is the fan speed at the end of the previous control cycle, and the first fan current is the fan current at the end of the previous control cycle. This indicates that the current control cycle is not the first control cycle.

[0092] The dust removal scheme for pipelines based on wind-driven vibration provided in this application is implemented by repeating multiple control processes in a loop. This application takes one loop (the current control loop) as an example to illustrate the dust removal process for pipelines consisting of multiple loops.

[0093] In the first control cycle, the third fan speed or the third fan current is determined directly in the following ways: the preset fan speed is used as the third fan speed, or the preset fan current is used as the third fan current.

[0094] Driven by a preset fan speed or preset fan current, the fan will generate a certain air velocity in the duct. Driven by this air velocity, the wind-driven vibration device will vibrate, thereby producing a certain dust removal effect. Those skilled in the art can set the preset fan speed or preset fan current accordingly, so as to start the first control cycle at the initial moment of entering the dust removal mode.

[0095] The number of cycles can be recorded. Before the number of cycles reaches the preset number, the control cycle continues to be executed repeatedly to continue the dust removal process in the pipeline. After the number of cycles reaches the preset number, the dust removal process in the pipeline ends.

[0096] Alternatively, after obtaining the historical dust removal amount in subsequent steps, if the historical dust removal amount is greater than the first dust removal amount threshold, the control loop is repeated to continue the pipeline dust removal process; if the historical dust removal amount is less than or equal to the second dust removal amount threshold, the pipeline dust removal process is terminated.

[0097] S302. Determine the historical dust removal volume in the previous control cycle based on the first fan speed, the first fan current, the second fan speed, and the second fan current.

[0098] Historical dust removal volume is used to quantify the dust removal effect in the previous control cycle. The historical dust removal volume is determined by the second dust volume at the beginning of the previous control cycle and the first dust volume at the end of the previous control cycle. For example, the historical dust removal volume can be obtained by subtracting the first dust volume from the second dust volume.

[0099] The first dust volume is negatively correlated with the first fan speed and positively correlated with the first fan current; the second dust volume is negatively correlated with the second fan speed and positively correlated with the second fan current.

[0100] Those skilled in the art can obtain, through experimentation, the specific correspondence between the first dust quantity and the first fan speed and the first fan current, as well as the specific correspondence between the second dust quantity and the second fan speed and the second fan current.

[0101] Alternatively, after obtaining multiple sets of data on fan current, fan speed, and dust volume through repeated experiments, the specific correspondence between the three can be obtained with the assistance of Artificial Neutral Network (ANN) and Large Language Model (LLM).

[0102] After obtaining the specific correspondence between the fan current, fan speed, and dust amount, the first fan speed and the first fan current are substituted into the correspondence to obtain the first dust amount; the second fan speed and the second fan current are substituted into the correspondence to obtain the second dust amount.

[0103] Alternatively, after obtaining multiple sets of data on fan current, fan speed, and dust volume through repeated experiments, the correspondence between the first fan speed, first fan current, second fan speed, and second fan current and the historical dust removal volume can be directly obtained with the assistance of artificial neural networks and large language models.

[0104] During application, the first fan speed, the first fan current, the second fan speed, and the second fan current can be directly substituted into the corresponding relationship to obtain the historical dust removal volume.

[0105] S303. Determine the speed or current of the third fan in the current control cycle based on the historical dust removal volume.

[0106] Among them, the rotational speed of the third fan and the historical dust removal volume are positively correlated, or the current of the third fan and the historical dust removal volume are positively correlated.

[0107] The historical dust removal volume can be proportionally calculated, and the result of the proportional calculation can be used as the speed of the third fan. Alternatively, the historical dust removal volume can be proportional-differentially calculated, that is, the historical dust removal volume can be processed by the proportional-differential (PD) algorithm, and the result can be used as the speed of the third fan.

[0108] The historical dust removal volume can be proportionally calculated, and the result of the proportional calculation can be used as the current of the third fan. Alternatively, the historical dust removal volume can be proportionally-differentially calculated, that is, the historical dust removal volume can be processed by the proportional-differential (PD) algorithm, and the result can be used as the current of the third fan.

[0109] Of course, the proportional term, or proportional term and differential term required in determining the speed of the third fan, will be different from the proportional term, or proportional term and differential term required in determining the current of the third fan. Those skilled in the art can set them based on experience.

[0110] Optionally, the third fan speed or third fan current in the current control cycle is determined based on the historical dust removal volume, including: determining the third fan speed that is positively correlated with the historical dust removal volume based on the correspondence between the historical dust removal volume and the third fan speed, or determining the third fan current that is positively correlated with the historical dust removal volume based on the correspondence between the historical dust removal volume and the third fan current.

[0111] Optionally, the third fan speed or third fan current in the current control cycle is determined based on the historical dust removal amount, including: determining the difference between the historical dust removal amount and the first dust removal amount threshold; determining the increase / decrease amount positively correlated with the difference dust removal amount; determining the increase / decrease value of the speed or the increase / decrease value of the current positively correlated with the increase / decrease value; determining the third fan speed based on the sum of the increase / decrease value of the speed and the first fan speed; or, determining the third fan current based on the sum of the increase / decrease value of the current and the first fan current.

[0112] In some specific application scenarios, the aforementioned increases in speed and current can be represented by positive numbers; the aforementioned decreases in speed and current can be represented by negative numbers.

[0113] The sum of the speed increase / decrease value and the speed of the first fan can be used as the speed of the third fan; or, the sum of the speed increase / decrease value and the speed of the first fan can be fine-tuned, and the fine-tuned value can be used as the speed of the third fan; wherein, fine-tuning the sum of the speed increase / decrease value and the speed of the first fan includes: increasing or decreasing the sum of the speed increase / decrease value and the speed of the first fan.

[0114] The sum of the current increase / decrease value and the first fan current can be used as the third fan current; or, the sum of the current increase / decrease value and the first fan current can be fine-tuned, and the fine-tuned value can be used as the third fan current; wherein, fine-tuning the sum of the current increase / decrease value and the first fan current includes: increasing or decreasing the sum of the current increase / decrease value and the first fan current.

[0115] The determined third fan speed or third fan current corresponds to the dust removal effect in the previous control cycle, which facilitates the rapid increase of fan speed or fan current in repeated control cycles to achieve rapid dust removal; or the rapid decrease of fan speed or fan current to achieve energy saving; or the maintenance of dust removal energy consumption at a level corresponding to the dust removal effect, and such continuous vibration to achieve energy saving.

[0116] S304. Control the fan according to the speed or current of the third fan to adjust the wind speed in the duct, thereby adjusting the vibration effect of the wind-driven vibration device.

[0117] For example, during the process of controlling the fan speed based on the third fan speed, the fan current can vary freely as long as it is sufficient to support the fan speed. Of course, the freely varying fan current constitutes one of the judgment factors used to evaluate the dust removal effect of the current control cycle in the next control cycle.

[0118] During the process of controlling the fan current based on the third fan current, the fan speed can be freely varied, based on what the fan current can support. Of course, the freely varied fan speed constitutes one of the judgment factors for evaluating the dust removal effect of the current control cycle in the next control cycle.

[0119] The dust removal method for pipelines based on wind-driven vibration provided in this application is executed cyclically. Each control cycle can be executed for a preset duration, or the power consumption of each control cycle can be set to a preset amount. Those skilled in the art can also set the termination condition for each control cycle based on experience, so that multiple control cycles can be executed repeatedly.

[0120] The dust removal method for pipelines based on wind-driven vibration provided in this application can achieve the following technical effects:

[0121] The second fan speed and the second fan current are the fan states at the beginning of the previous control cycle, while the first fan speed and the first fan current are the fan states at the end of the previous control cycle.

[0122] The first fan speed and the first fan current can represent the amount of dust in the pipe at the beginning of the previous control cycle; the second fan speed and the second fan current can represent the amount of dust in the pipe at the end of the previous control cycle.

[0123] Thus, the historical dust removal volume determined based on the first fan speed, the first fan current, the second fan speed, and the second fan current can represent the dust removal result in the previous control cycle, that is, the result achieved by the following process: the wind speed generated in the pipeline by the second fan speed or the second fan current causes the wind-driven vibration device to achieve a vibration effect, which causes the pipeline to vibrate, and the dust on the inner wall of the pipeline is peeled off and blown away by the wind.

[0124] In other words, the second fan speed or the second fan current can also indicate the vibration effect of the wind-driven vibration device and the resulting dust removal effect. Generally speaking, the higher the second fan speed or the second fan current, the higher the air velocity in the pipeline, the greater the vibration amplitude of the wind-driven vibration device, and the better its dust removal effect.

[0125] In the current control loop, the determined third fan speed or third fan current has a positive correlation with the total amount of dust. If this third fan speed or third fan current is used to control the fan, the following situation will occur:

[0126] If the historical dust volume is high, and the current total dust volume is also high, and assuming that the dust removal process in the current control loop will not change the total dust volume from "high" to "low," then the current control loop will use a higher third fan speed or current. This higher third fan speed or current will result in a higher air velocity in the duct, leading to a stronger vibration effect from the wind-driven vibration device. The higher air velocity and stronger vibration effect result in better dust removal from the duct. Consequently, the historical dust volume determined in the next control loop (the control loop following the current one) will be even higher (using the historical dust volume determined in the current control loop as a comparison benchmark). The third fan speed or current determined in the next control loop will be even higher, further increasing the dust removal effect. This cycle repeats, which helps to reduce the total dust content relatively quickly.

[0127] If the historical dust volume is large, but the current total dust volume is small, the current control cycle will use a lower third fan speed or current. This lower speed or current will result in lower air velocity in the duct, leading to weaker vibration from the wind-driven vibration device. The lower air velocity and weaker vibration further reduce dust removal efficiency. Consequently, the historical dust volume determined in the next control cycle will be even smaller, resulting in a lower third fan speed or current and further weakened dust removal. This cycle repeats, helping to terminate the dust removal process more quickly and reducing instances of particularly poor or ineffective dust removal.

[0128] If the historical dust volume is relatively low, and the current total dust volume is also relatively low, then referring to the above analysis of "the historical dust volume is relatively high, and the current total dust volume is relatively low", the dust removal process will be terminated more quickly, in order to reduce dust removal processes that are particularly poor or even ineffective.

[0129] If the historical dust volume is relatively low, but the total dust volume is currently high, the historical dust volume in the previous control cycle, the current control cycle, and the next control cycle will be almost identical. The fan will operate in a relatively stable state until dust removal is complete. This situation will occur with dust highly adhered to the inner wall of the duct. In this case, the required vibration time will be longer. Because the historical dust volume is low, the third fan speed or current will also be lower, allowing the fan to operate in a more energy-efficient state.

[0130] In summary, using high wind speed and strong vibration to quickly remove dust, using low wind speed and weak vibration to quickly end the vibration dust removal process, and operating the fan in an energy-saving mode during the dust removal process are all beneficial to energy conservation and electrical safety.

[0131] Figure 4 This is a schematic flowchart of a pipe dust removal method based on wind-driven vibration provided in an embodiment of this application. A wind-driven vibration device is installed inside the pipe to be dusted, and the wind-driven vibration device is in working condition. A corresponding fan is installed in the pipe to drive the airflow inside the pipe.

[0132] The dust removal method for pipes based on wind-driven vibration can be implemented through a fan controller. When the fan is a fan in a specific device, the multi-pipe vibration dust removal method can be implemented through the controller of the specific device. For example, when the fan is an indoor fan of an air conditioner, the multi-pipe vibration dust removal method can be implemented through the controller of the air conditioner. Even in a smart home system, the multi-pipe vibration dust removal method can be executed through the server of the smart home system.

[0133] Combination Figure 4 As shown, the dust removal method for pipelines based on wind-driven vibration includes:

[0134] S401. Obtain the first fan speed and the first fan current at the start of the current control cycle, and the second fan speed and the second fan current at the start of the previous control cycle.

[0135] Wherein, the first fan speed is the fan speed at the end of the previous control cycle, and the first fan current is the fan current at the end of the previous control cycle.

[0136] S402. Based on the preset correspondence model between fan speed and fan current, determine the first dust quantity corresponding to the first fan speed and the first fan current.

[0137] The preset corresponding model is set based on the fan model and the pipe model. The pipe model refers to the pipe model under dust-free conditions.

[0138] Of course, in this preset corresponding model, the first dust amount is still negatively correlated with the first fan speed and positively correlated with the first fan current. In this way, the first dust amount at the end of the previous cycle and the beginning of the current cycle can be obtained.

[0139] Optionally, the first dust quantity corresponding to the first fan speed and the first fan current is determined according to a preset correspondence model of fan speed and fan current, including: substituting the first fan speed into the preset correspondence model to obtain the first standard fan current output by the preset correspondence model, and determining the first dust quantity according to the first current difference between the first fan current and the first standard fan current.

[0140] Alternatively, based on a preset correspondence model of fan speed and fan current, determine the first dust quantity corresponding to the first fan speed and the first fan current, including: substituting the first fan current into the preset correspondence model to obtain the first standard fan speed output by the preset correspondence model, and determining the first dust quantity based on the first speed difference between the first fan speed and the first standard fan speed.

[0141] The first current difference is positively correlated with the first dust amount. In a specific scenario, the first standard fan current will be less than the first fan current. The greater the first dust amount, the smaller the first standard current calculated according to the preset corresponding model.

[0142] The positive correlation between the first current difference and the first dust amount can be obtained theoretically based on the fan model and the pipeline model, or it can be obtained through experiments, or it can be obtained through theoretical derivation and experimental correction.

[0143] The first speed difference is positively correlated with the first dust amount. In a specific scenario, the first standard fan speed will be greater than the first fan speed. The greater the first dust amount, the greater the first standard fan speed calculated according to the preset corresponding model.

[0144] The positive correlation between the first speed difference and the first dust amount can be obtained theoretically based on the fan model and the pipeline model, or it can be obtained through experiments, or it can be obtained through theoretical derivation and experimental correction.

[0145] S403. Based on the preset correspondence model between fan speed and fan current, determine the second dust quantity corresponding to the second fan speed and the second fan current.

[0146] Of course, in this preset corresponding model, the second dust amount is still negatively correlated with the second fan speed and positively correlated with the second fan current. In this way, the second dust amount at the beginning of the previous cycle can be obtained.

[0147] Optionally, the second dust quantity corresponding to the second fan speed and the second fan current is determined according to a preset correspondence model of fan speed and fan current, including: substituting the second fan speed into the preset correspondence model to obtain the second standard fan current output by the preset correspondence model, and determining the second dust quantity according to the second current difference between the second fan current and the second standard fan current.

[0148] Alternatively, based on a preset correspondence model of fan speed and fan current, determine the second dust quantity corresponding to the second fan speed and the second fan current, including: substituting the second fan current into the preset correspondence model to obtain the second standard fan speed output by the preset correspondence model, and determining the second dust quantity based on the second speed difference between the second fan speed and the second standard fan speed.

[0149] The second current difference is positively correlated with the second dust amount. In a specific scenario, the second standard fan current will be less than the second fan current; the greater the second dust amount, the smaller the second standard current calculated according to the preset corresponding model.

[0150] The positive correlation between the second current difference and the second dust amount can be obtained theoretically based on the fan model and the pipeline model, or it can be obtained through experiments, or it can be obtained through theoretical derivation and experimental correction.

[0151] The second speed difference is positively correlated with the second dust amount. In a specific scenario, the second standard fan speed will be greater than the second fan speed. The greater the second dust amount, the greater the second standard fan speed calculated according to the preset corresponding model.

[0152] The positive correlation between the second speed difference and the second dust amount can be obtained theoretically based on the fan model and the pipeline model, or it can be obtained through experiments, or it can be obtained through theoretical derivation and experimental correction.

[0153] S404. Determine the historical dust removal amount based on the difference between the second dust amount and the first dust amount.

[0154] The above technical solution can determine the overall dust removal effect of the previous control cycle when the fan speed is switched from the second fan speed to the first fan speed and the fan current gradually changes from the second fan current to the first fan current.

[0155] Alternatively, it can be determined that in the previous control cycle, the dust removal effect is as follows during the process of switching the fan current from the second fan current to the first fan current, and the fan speed gradually changing from the second fan speed to the first fan speed.

[0156] This dust removal effect refers to the actual dust removal effect.

[0157] S405. Determine the speed or current of the third fan in the current control cycle based on the historical dust removal volume.

[0158] Among them, the rotational speed of the third fan and the historical dust removal volume are positively correlated, or the current of the third fan and the historical dust removal volume are positively correlated.

[0159] S406. Control the fan according to the speed or current of the third fan to adjust the wind speed in the duct, thereby adjusting the vibration effect of the wind-driven vibration device.

[0160] The process of controlling the fan based on the third fan or the current of the third fan will be described below as an example.

[0161] Optionally, controlling the fan based on the third fan's speed or current includes: controlling the fan's operation for a preset duration based on the third fan's speed or current. This preset duration limits each control cycle, enabling the repeated execution of the control cycle.

[0162] This preset duration can be used to define different control cycles. Those skilled in the art can set it based on experience.

[0163] Furthermore, the preset duration can be determined based on the degree of dust adhesion to the pipe. The higher the degree of dust adhesion, the less likely the dust is to fall off, and thus the longer the preset duration; conversely, the lower the degree of dust adhesion, the easier the dust is to fall off, and thus the shorter the preset duration. Setting the preset duration in this way allows for faster control of the circulation speed while ensuring that the historical dust volume is relatively considerable and measurable. This facilitates a more rapid match between the vibration effect generated by the wind-driven vibration device and the amount of dust in the pipe, thereby promoting the following effects:

[0164] Using high wind speed and strong vibration to quickly remove dust, and using low wind speed and weak vibration to quickly end the vibration dust removal process, as well as operating the fan in an energy-saving mode during the dust removal process, are all beneficial to energy conservation and electrical safety.

[0165] Optionally, controlling the fan according to the speed of the third fan includes: determining a speed range based on the speed of the third fan, controlling the fan to increase from the lowest speed of the speed range to the highest speed of the speed range, or controlling the fan to decrease from the highest speed of the speed range to the lowest speed of the speed range, or controlling the fan to fluctuate within the speed range.

[0166] Optionally, the fan is controlled according to the third fan current, including: determining the current range based on the third fan current, controlling the fan to increase from the minimum speed of the current range to the maximum current of the current range, or controlling the fan to decrease from the maximum current of the current range to the minimum current of the current range, or controlling the fan to fluctuate within the current range.

[0167] By adopting such a fluctuating fan control method, the air speed in the pipeline can fluctuate, and the vibration effect of the wind-driven vibration device can fluctuate, which is conducive to dust removal.

[0168] Specifically, the aforementioned preset duration for limiting the fan control process, and the specific speed and current for limiting the fan control process, can be combined.

[0169] For example: determine the speed range based on the speed of the third fan, and control the fan to increase from the lowest speed of the speed range to the highest speed of the speed range within a preset time period, or control the fan to decrease from the highest speed of the speed range to the lowest speed of the speed range within a preset time period, or control the fan to fluctuate within the speed range within a preset time period.

[0170] Alternatively, the current range can be determined based on the current of the third fan, and the fan can be controlled to increase from the minimum speed of the current range to the maximum current of the current range within a preset time period; or, the fan can be controlled to decrease from the maximum current of the current range to the minimum current of the current range within a preset time period; or, the fan can be controlled to fluctuate within the current range within a preset time period.

[0171] Of course, in the process of controlling the fan, the wind speed in the duct needs to be kept below the maximum wind speed that the wind-driven vibration device can withstand, so as to ensure the safety of the wind-driven vibration device.

[0172] Optionally, the dust removal method for pipelines based on wind-driven vibration further includes: determining the cleanliness level based on the first fan speed and a fan speed threshold, or determining the cleanliness level based on the first fan current and a fan current threshold; and reminding the user of the content corresponding to the cleanliness level.

[0173] The fan speed threshold and the fan current threshold are used to represent the preset cleanliness level. The fan speed threshold and the fan current threshold can be used to represent the cleanliness level under ideal conditions; or, they can be used to represent the cleanliness level acceptable to the user; or, other cleanliness levels determined by those skilled in the art based on actual needs can also be represented by the fan speed threshold or the fan current threshold.

[0174] On the one hand, the dust removal effect of the wind-driven vibration device is limited; on the other hand, in the specific application scenarios of air conditioning, filters are usually installed, and the cleanliness of the filters themselves will also affect the overall cleanliness.

[0175] The aforementioned dust removal process is based on historical dust removal volumes, which are relative quantities and cannot accurately measure the degree of cleanliness. Therefore, fan speed thresholds or fan current thresholds are used to measure the overall cleanliness effect, allowing users to perform relevant operations according to their needs, such as using other methods for duct dust removal, filter dust removal, and filter replacement.

[0176] Finally, the dust removal method for pipelines based on wind-driven vibration provided in this application embodiment is applied to, for example... Figure 1 In the scenario shown, a single fan can provide airflow to multiple pipes. Each pipe can be equipped with a damper, which controls the vibration effect of the air-driven vibration device in each pipe.

[0177] Figure 5 This is a schematic diagram of a pipe dust removal device based on wind-driven vibration, provided in an embodiment of this application. This wind-driven vibration-based pipe dust removal device can be implemented through software, hardware, or a combination of both.

[0178] The dust removal duct is equipped with a wind-driven vibration device. When the wind-driven vibration device is in operation, the duct is equipped with a corresponding fan that can drive the air flow inside the duct.

[0179] Combination Figure 5 As shown, the dust removal device 50 based on wind-driven vibration includes an acquisition module 51, a first determination module 52, a second determination module 53, and a control module 54.

[0180] The module 51 is used to obtain the first fan speed and the first fan current at the start of the current control cycle, and the second fan speed and the second fan current at the start of the previous control cycle; wherein, the first fan speed is the fan speed at the end of the previous control cycle, and the first fan current is the fan current at the end of the previous control cycle.

[0181] The first determining module 52 is used to determine the historical dust removal amount in the previous control cycle based on the first fan speed, the first fan current, the second fan speed, and the second fan current.

[0182] The second determining module 53 is used to determine the speed of the third fan or the current of the third fan in the current control cycle based on the historical dust removal volume; wherein, the speed of the third fan and the historical dust removal volume are positively correlated, or the current of the third fan and the historical dust removal volume are positively correlated.

[0183] The control module 54 is used to control the fan according to the speed or current of the third fan, so as to adjust the wind speed in the duct and thus adjust the vibration effect of the wind-driven vibration device.

[0184] Similar to the dust removal method based on wind-driven vibration, this dust removal device based on wind-driven vibration can also achieve the following effects: rapid dust removal with high wind speed and strong vibration effect, quick end of the vibration dust removal process with low wind speed and weak vibration effect, and energy-saving operation of the fan during the dust removal process, all of which are beneficial to energy saving and electrical safety. The specific principles will not be elaborated here.

[0185] Optionally, the first determining module includes a first determining unit, a second determining unit, and a third determining unit.

[0186] The first determining unit is used to determine the first dust quantity corresponding to the first fan speed and the first fan current based on a preset correspondence model of fan speed and fan current.

[0187] The second determining unit is used to determine the second dust quantity corresponding to the second fan speed and the second fan current based on the preset correspondence model of fan speed and fan current.

[0188] The third determining unit is used to determine the historical dust removal amount based on the difference between the second dust amount and the first dust amount;

[0189] The preset corresponding model is set based on the fan model and the pipeline model.

[0190] Optionally, the first determining unit is specifically used to: substitute the first fan speed into a preset corresponding model to obtain the first standard fan current output by the preset corresponding model, and determine the first dust amount based on the first current difference between the first fan current and the first standard fan current; or, substitute the first fan current into a preset corresponding model to obtain the first standard fan speed output by the preset corresponding model, and determine the first dust amount based on the first speed difference between the first fan speed and the first standard fan speed.

[0191] Optionally, the second determining unit is specifically used to: substitute the second fan speed into a preset corresponding model to obtain the second standard fan current output by the preset corresponding model, and determine the second dust amount based on the second current difference between the second fan current and the second standard fan current; or, substitute the second fan current into a preset corresponding model to obtain the second standard fan speed output by the preset corresponding model, and determine the second dust amount based on the second speed difference between the second fan speed and the second standard fan speed.

[0192] Optionally, the second determining module 53 includes a fourth determining unit or a fifth determining unit.

[0193] The fourth determining unit is used to determine the third fan speed that is positively correlated with the historical dust removal amount based on the correspondence between the historical dust removal amount and the third fan speed, or to determine the third fan current that is positively correlated with the historical dust removal amount based on the correspondence between the historical dust removal amount and the third fan current.

[0194] The fifth determining unit is used to determine the difference in dust removal amount between the historical dust removal amount and the first dust removal amount threshold; determine the increase / decrease amount positively correlated with the difference in dust removal amount; determine the increase / decrease value of rotational speed or the increase / decrease value of current positively correlated with the increase / decrease value; determine the speed of the third fan based on the sum of the increase / decrease value of rotational speed and the speed of the first fan; or, determine the current of the third fan based on the sum of the increase / decrease value of current and the current of the first fan.

[0195] Optionally, the control module 54 includes a first control unit and / or a second control unit.

[0196] The first control unit is used to control the preset operating time of the fan according to the speed of the third fan or the current of the third fan.

[0197] The second control unit is used to determine the speed range based on the speed of the third fan, and control the fan to increase from the lowest speed of the speed range to the highest speed of the speed range, or control the fan to decrease from the highest speed of the speed range to the lowest speed of the speed range, or control the fan to fluctuate within the speed range; and to determine the current range based on the current of the third fan, and control the fan to increase from the lowest speed of the current range to the highest current of the current range, or control the fan to decrease from the highest current of the current range to the lowest current of the current range, or control the fan to fluctuate within the current range.

[0198] Optionally, the wind-driven vibration-based duct dust removal device 50 also includes an end module and / or an alert module.

[0199] The termination module is used to end the pipeline dust removal process if the historical dust removal amount is less than or equal to the second dust removal amount threshold.

[0200] The reminder module is used to determine the cleanliness level based on the first fan speed and the fan speed threshold, or based on the first fan current and the fan current threshold; and to remind the user of the content corresponding to the cleanliness level.

[0201] Optionally, the dust removal device 50 based on wind-driven vibration also includes an initialization module, which is used in the first control cycle to use a preset fan speed as the third fan speed, or to use a preset fan current as the third fan current.

[0202] In some embodiments, the wind-driven vibration-based duct dust removal device includes a processor and a memory storing program instructions, wherein the processor is configured to execute the wind-driven vibration-based duct dust removal method provided in the foregoing embodiments when executing the program instructions.

[0203] Figure 6 This is a schematic diagram of a pipe dust removal device based on wind-driven vibration, provided in an embodiment of this application. (Combined with...) Figure 6 As shown, the dust collection device 60 based on wind-driven vibration includes:

[0204] The processor 61 and memory 62 may also include a communication interface 63 and a bus 64. The processor 61, communication interface 63, and memory 62 can communicate with each other via the bus 64. The communication interface 63 can be used for information transmission. The processor 61 can call logical instructions in the memory 62 to execute the wind-driven vibration-based pipeline dust removal method provided in the foregoing embodiments.

[0205] Furthermore, the logical instructions in the aforementioned memory 62 can be implemented as software functional units and, when sold or used as independent products, can be stored in a computer-readable storage medium.

[0206] The memory 62, as a computer-readable storage medium, can be used to store software programs and computer-executable programs, such as program instructions / modules corresponding to the methods in the embodiments of this application. The processor 61 executes functional applications and data processing by running the software programs, instructions, and modules stored in the memory 62, thereby implementing the methods in the above-described method embodiments.

[0207] The memory 62 may include a program storage area and a data storage area. The program storage area may store the operating system and applications required for at least one function; the data storage area may store data created based on the use of the terminal device. Furthermore, the memory 62 may include high-speed random access memory and may also include non-volatile memory.

[0208] Figure 7This is a schematic diagram of an intelligent air conditioner provided in an embodiment of this application.

[0209] Combination Figure 7 As shown, the intelligent air conditioner 70 includes: an air conditioner body 71, and the aforementioned wind-driven vibration-based duct dust removal device 50 (60). The wind-driven vibration-based duct dust removal device 50 (60) is installed on the air conditioner body 71. The installation relationship described herein is not limited to placement inside the air conditioner body 71, but also includes installation connections with other components of the air conditioner 70, including but not limited to physical connections, electrical connections, or signal transmission connections. Those skilled in the art will understand that the wind-driven vibration-based duct dust removal device 50 (60) can be adapted to any feasible air conditioner body 71, thereby realizing other feasible embodiments.

[0210] This application provides a computer-readable storage medium storing computer-executable instructions, wherein the computer-executable instructions are configured as follows:

[0211] The system obtains the first fan speed and the first fan current at the start of the current control cycle, and the second fan speed and the second fan current at the start of the previous control cycle; wherein, the first fan speed is the fan speed at the end of the previous control cycle, and the first fan current is the fan current at the end of the previous control cycle.

[0212] The historical dust removal volume in the previous control cycle is determined based on the first fan speed, the first fan current, the second fan speed, and the second fan current.

[0213] The speed or current of the third fan in the current control cycle is determined based on the historical dust removal volume; wherein, the speed of the third fan and the historical dust removal volume are positively correlated, or the current of the third fan and the historical dust removal volume are positively correlated.

[0214] The fan is controlled according to the speed or current of the third fan to adjust the air speed in the duct, thereby adjusting the vibration effect of the wind-driven vibration device.

[0215] The dust removal duct is equipped with a wind-driven vibration device, which is in operation. The duct is also equipped with a corresponding fan that can drive the airflow inside the duct.

[0216] The aforementioned computer-readable storage medium may be a transient computer-readable storage medium.

[0217] The technical solutions of this application embodiment can be embodied in the form of a software product. This computer software product is stored in a storage medium and includes one or more instructions to cause a computer device (which may be a personal computer, server, or network device, etc.) to execute all or part of the steps of the methods in this application embodiment. The aforementioned storage medium can be a non-transitory storage medium, including: USB flash drive, portable hard drive, read-only memory (ROM), random access memory (RAM), magnetic disk, or optical disk, and other media capable of storing program code; it can also be a transient storage medium.

[0218] The foregoing description and accompanying drawings fully illustrate embodiments of this application to enable those skilled in the art to practice them. Other embodiments may include structural, logical, electrical, procedural, and other changes. The embodiments represent only possible variations. Individual components and functions are optional unless explicitly required, and the order of operations may vary. Parts and features of some embodiments may be included in or replace parts and features of other embodiments. Moreover, the terminology used in this application is for describing embodiments only and is not intended to limit the claims. As used in the description of embodiments and claims, the singular forms “a,” “an,” and “the” are intended to equally include the plural forms unless the context clearly indicates otherwise. Additionally, when used in this application, the terms “comprise” and its variations “comprises” and / or “comprising” refer to the presence of stated features, integrals, steps, operations, elements, and / or components, but do not exclude the presence or addition of one or more other features, integrals, steps, operations, elements, components, and / or groups thereof. Unless otherwise specified, an element defined by the phrase "comprising a..." does not exclude the presence of other identical elements in the process, method, or apparatus that includes that element. In this document, each embodiment may focus on describing the differences from other embodiments, and similar or identical parts between embodiments can be referred to mutually. For methods, products, etc., disclosed in the embodiments, if they correspond to the method section disclosed in the embodiments, then the relevant parts can be referred to the description of the method section.

[0219] Those skilled in the art will recognize that the units and algorithm steps of the various examples described in conjunction with the embodiments disclosed herein can be implemented in electronic hardware, or a combination of computer software and electronic hardware. Whether these functions are implemented in hardware or software depends on the specific application and design constraints of the technical solution. Those skilled in the art can use different methods to implement the described functions for each specific application, but such implementation should not be considered beyond the scope of the embodiments of this application. Those skilled in the art will clearly understand that, for the sake of convenience and brevity, the specific working processes of the systems, devices, and units described above can be referred to the corresponding processes in the foregoing method embodiments, and will not be repeated here.

[0220] The methods and products (including but not limited to devices and equipment) disclosed in the embodiments herein can be implemented in other ways. For example, the device embodiments described above are merely illustrative. For instance, the division of units may be merely a logical functional division, and in actual implementation, there may be other division methods. For example, multiple units or components may be combined or integrated into another system, or some features may be ignored or not executed. In addition, the mutual coupling or direct coupling or communication connection shown or discussed may be through some interfaces, and the indirect coupling or communication connection of devices or units may be electrical, mechanical, or other forms. Units described as separate components may or may not be physically separate, and components shown as units may or may not be physical units. They may be located in one place or distributed across multiple network units. Some or all of the units can be selected to implement this embodiment according to actual needs. Furthermore, the functional units in the embodiments of this application may be integrated into one processing unit, or each unit may exist physically separately, or two or more units may be integrated into one unit.

[0221] The flowcharts and block diagrams in the accompanying drawings illustrate the architecture, functionality, and operation of possible implementations of systems, methods, and computer program products according to embodiments of this application. In this regard, each block in a flowchart or block diagram may represent a module, segment, or portion of code, which contains one or more executable instructions for implementing a specified logical function. In some alternative implementations, the functions marked in the blocks may occur in a different order than those shown in the drawings. For example, two consecutive blocks may actually be executed substantially in parallel, and they may sometimes be executed in reverse order, depending on the functions involved. Each block in the block diagrams and / or flowcharts, and combinations of blocks in the block diagrams and / or flowcharts, may be implemented using a dedicated hardware-based system that performs the specified function or action, or using a combination of dedicated hardware and computer instructions.

Claims

1. A method for dust removal from pipelines based on wind-driven vibration, characterized in that, A wind-driven vibration device is installed inside the duct to be dusted, and the device is in operation. A corresponding fan is installed in the duct to drive airflow within it. The duct dust removal method includes: The system obtains the first fan speed and the first fan current at the start of the current control cycle, and the second fan speed and the second fan current at the start of the previous control cycle; wherein, the first fan speed is the fan speed at the end of the previous control cycle, and the first fan current is the fan current at the end of the previous control cycle. The historical dust removal volume in the previous control cycle is determined based on the first fan speed, the first fan current, the second fan speed, and the second fan current. The speed or current of the third fan in the current control cycle is determined based on the historical dust removal volume; wherein, the speed of the third fan and the historical dust removal volume are positively correlated, or the current of the third fan and the historical dust removal volume are positively correlated. The fan is controlled according to the speed or current of the third fan to adjust the air speed in the duct, thereby adjusting the vibration effect of the wind-driven vibration device. The historical dust removal amount in the previous control cycle is determined based on the first fan speed, the first fan current, the second fan speed, and the second fan current. This includes: determining the first dust amount corresponding to the first fan speed and the first fan current based on a preset correspondence model of fan speed and fan current; determining the second dust amount corresponding to the second fan speed and the second fan current based on the preset correspondence model of fan speed and fan current; and determining the historical dust removal amount based on the difference between the second dust amount and the first dust amount. The preset correspondence model is set based on the fan model and the pipeline model. The first fan speed and the first fan current can represent the dust amount in the pipeline at the beginning of the previous control cycle, and the second fan speed and the second fan current can represent the dust amount in the pipeline at the end of the previous control cycle.

2. The pipeline dust removal method according to claim 1, characterized in that, Based on a preset correspondence model between fan speed and fan current, the first dust quantity corresponding to the first fan speed and the first fan current is determined, including: Substitute the first fan speed into the preset corresponding model to obtain the first standard fan current output by the preset corresponding model, and determine the first dust amount based on the first current difference between the first fan current and the first standard fan current; or, substitute the first fan current into the preset corresponding model to obtain the first standard fan speed output by the preset corresponding model, and determine the first dust amount based on the first speed difference between the first fan speed and the first standard fan speed. Based on a preset correspondence model of fan speed and fan current, the second dust quantity corresponding to the second fan speed and the second fan current is determined, including: substituting the second fan speed into the preset correspondence model to obtain the second standard fan current output by the preset correspondence model, and determining the second dust quantity based on the second current difference between the second fan current and the second standard fan current; or, substituting the second fan current into the preset correspondence model to obtain the second standard fan speed output by the preset correspondence model, and determining the second dust quantity based on the second speed difference between the second fan speed and the second standard fan speed.

3. The pipeline dust removal method according to claim 1, characterized in that, The speed or current of the third fan in the current control cycle is determined based on historical dust removal volumes, including: Based on the correspondence between historical dust removal volume and third fan speed, determine the third fan speed that is positively correlated with historical dust removal volume; or, based on the correspondence between historical dust removal volume and third fan current, determine the third fan current that is positively correlated with historical dust removal volume. or, Determine the difference between the historical dust removal amount and the first dust removal threshold; determine the increase / decrease that is positively correlated with the difference in dust removal amount; determine the increase / decrease in rotational speed or the increase / decrease in current that is positively correlated with the increase / decrease in rotational speed; determine the speed of the third fan based on the sum of the increase / decrease in rotational speed and the speed of the first fan; or, determine the current of the third fan based on the sum of the increase / decrease in current and the current of the first fan.

4. The pipeline dust removal method according to any one of claims 1 to 3, characterized in that, Controlling the fan based on the speed or current of the third fan includes: The fan operation time is preset based on the speed or current of the third fan. And / or, The speed range is determined based on the speed of the third fan, and the fan is controlled to increase from the lowest speed of the speed range to the highest speed of the speed range, or to decrease from the highest speed of the speed range to the lowest speed of the speed range, or to fluctuate within the speed range; the current range is determined based on the current of the third fan, and the fan is controlled to increase from the lowest speed of the current range to the highest current of the current range, or to decrease from the highest current of the current range to the lowest current of the current range, or to fluctuate within the current range.

5. The pipeline dust removal method according to any one of claims 1 to 3, characterized in that, Also includes: If the historical dust removal volume is less than or equal to the second dust removal volume threshold, the pipeline dust removal process shall be terminated. And / or, The cleanliness level is determined based on the first fan speed and the fan speed threshold, or based on the first fan current and the fan current threshold; the user is then reminded of the content corresponding to the cleanliness level.

6. The pipeline dust removal method according to any one of claims 1 to 3, characterized in that, Also includes: In the first control cycle, the preset fan speed is used as the third fan speed, or the preset fan current is used as the third fan current.

7. A dust removal device for pipelines based on wind-driven vibration, characterized in that, A wind-driven vibration device is installed inside the duct to be dusted. The wind-driven vibration device is in operation, and the duct is equipped with a corresponding fan capable of driving airflow within the duct. The duct dust removal device includes: The acquisition module is used to acquire the first fan speed and the first fan current at the start of the current control cycle, and the second fan speed and the second fan current at the start of the previous control cycle; wherein, the first fan speed is the fan speed at the end of the previous control cycle, and the first fan current is the fan current at the end of the previous control cycle. The first determining module is used to determine the historical dust removal amount in the previous control cycle based on the first fan speed, the first fan current, the second fan speed, and the second fan current. The second determining module is used to determine the speed or current of the third fan in the current control cycle based on the historical dust removal volume; wherein the speed of the third fan and the historical dust removal volume are positively correlated, or the current of the third fan and the historical dust removal volume are positively correlated. The control module is used to control the fan according to the speed or current of the third fan, so as to adjust the wind speed in the duct and thus adjust the vibration effect of the wind-driven vibration device. The historical dust removal amount in the previous control cycle is determined based on the first fan speed, the first fan current, the second fan speed, and the second fan current. This includes: determining the first dust amount corresponding to the first fan speed and the first fan current based on a preset correspondence model of fan speed and fan current; determining the second dust amount corresponding to the second fan speed and the second fan current based on the preset correspondence model of fan speed and fan current; and determining the historical dust removal amount based on the difference between the second dust amount and the first dust amount. The preset correspondence model is set based on the fan model and the pipeline model. The first fan speed and the first fan current can represent the dust amount in the pipeline at the beginning of the previous control cycle, and the second fan speed and the second fan current can represent the dust amount in the pipeline at the end of the previous control cycle.

8. A dust removal device for pipelines based on wind-driven vibration, comprising a processor and a memory storing program instructions, characterized in that, The processor is configured to execute, when executing the program instructions, the pipe dust removal method based on wind-driven vibration as described in any one of claims 1 to 6.

9. A smart air conditioner, characterized in that, include: Air conditioner unit; The dust removal device based on wind-driven vibration as described in claim 7 or 8 is installed on the air conditioner body.

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