Field test platform air quality optimization system and method

Abstract

The invention discloses an air quality optimization system and method for a field test platform, and relates to the technical field of field test platform detection. According to the main technical scheme, an exhaust module is arranged in a field test platform; when the exhaust module is at the initial output power, the collection module collects the first dust concentration in the field test platform; the first judgment module judges whether the first dust concentration is smaller than a concentration threshold value or not; when the first dust concentration is greater than or equal to a concentration threshold value, the processing module generates a first execution instruction; when the first dust concentration is smaller than the concentration threshold value, the processing module generates a second execution instruction; the execution module responds to the first execution instruction to increase the output power of the exhaust module; and the execution module responds to the second execution instruction to reduce the output power of the exhaust module. The purposes of improving the treatment efficiency of air exhaust, purification and the like, improving the dust concentration reduction efficiency, reducing the risk that workers are exposed in a high-concentration dust environment for a long time and reducing the occurrence probability of diseases such as pneumoconiosis are achieved.

Description

Technical Field

[0001] The present invention relates to the field of field test platform detection technology, and in particular to a field test platform air quality optimization system and method. Background Art

[0002] The field testing platform is a platform for analyzing and testing soil and water samples in the field.

[0003] The processing areas of existing field test platforms are often equipped with equipment such as disc crushers, ball mills, jaw crushers, and double-roll crushers. When workers use these equipment to crush and grind materials, they generate large amounts of dust. Long-term exposure to high dust concentrations can damage their respiratory systems and lead to pneumoconiosis. Therefore, effectively regulating dust concentrations within processing areas is a pressing issue. Summary of the Invention

[0004] The purpose of the present invention is to provide a field test platform air quality optimization system and method, which solves the problem of how to effectively regulate the dust concentration in the processing area.

[0005] In order to solve the above technical problems, the present invention adopts the following technical solutions:

[0006] In a first aspect, a field test platform air quality optimization system is provided, comprising an exhaust module, a collection module, a first judgment module, a processing module and an execution module, wherein the exhaust module is arranged in the field test platform, and the exhaust module is at an initial output power; the collection module is arranged in the field test platform, and when the exhaust module is at the initial output power, the collection module is used to collect a first dust concentration in the field test platform; the first judgment module is used to judge whether the first dust concentration is less than a concentration threshold; when the first dust concentration is greater than or equal to the concentration threshold, the processing module is used to generate a first execution instruction; when the first dust concentration is less than the concentration threshold, the processing module is used to generate a second execution instruction; the execution module is used to respond to the first execution instruction to increase the output power of the exhaust module; the execution module is also used to respond to the second execution instruction to reduce the output power of the exhaust module.

[0007] A further solution is: after increasing or decreasing the output power of the exhaust module, the collection module is used to collect the second dust concentration in the field test platform; the first judgment module is also used to judge whether the second dust concentration is less than the concentration threshold; when the second dust concentration is greater than or equal to the concentration threshold, the processing module is used to generate a first execution instruction; when the second dust concentration is less than the concentration threshold, the processing module is used to generate a second execution instruction.

[0008] A further solution is: the field test platform air quality optimization system also includes a second judgment module. When the second dust concentration is greater than or equal to the concentration threshold, the second judgment module is used to determine whether the second dust concentration is greater than or equal to the first dust concentration; when the second dust concentration is greater than or equal to the first dust concentration, the processing module is used to generate a first execution instruction; when the second dust concentration is less than the first dust concentration, the processing module is used to generate a third execution instruction; the execution module is also used to respond to the third execution instruction to maintain the output power of the exhaust module.

[0009] A further solution is: the field test platform air quality optimization system also includes a first acquisition module and a third judgment module; the first acquisition module is used to respond to the first execution instruction to obtain the current first output power of the exhaust module; the third judgment module is used to judge whether the first output power is less than the power upper limit value; when the first output power is less than the power upper limit value, the execution module responds to the first execution instruction; when the first output power is equal to the power upper limit value, the processing module generates a first alarm signal.

[0010] A further solution is: the field test platform air quality optimization system also includes a second acquisition module and a fourth judgment module; the second acquisition module is used to respond to the second execution instruction to obtain the current second output power of the exhaust module; the fourth judgment module is used to judge whether the second output power is greater than the power lower limit value; when the second output power is greater than the lower limit value, the execution module responds to the second execution instruction; when the second output power is equal to the power lower limit value, the processing module generates a second alarm signal.

[0011] In the second aspect, a field test platform air quality optimization method is provided, which is applicable to the field test platform air quality optimization system as described in the first aspect. The field test platform air quality optimization method includes the following operations: collecting a first dust concentration in the field test platform; determining whether the first dust concentration is less than a concentration threshold; when the first dust concentration is greater than or equal to the concentration threshold, generating a first execution instruction to increase the output power of the exhaust module; when the first dust concentration is less than the concentration threshold, generating a second execution instruction to reduce the output power of the exhaust module.

[0012] A further solution is: after increasing or decreasing the output power of the exhaust module, it also includes the following operations: collecting a second dust concentration in the field test platform; determining whether the second dust concentration is less than a concentration threshold; when the second dust concentration is greater than or equal to the concentration threshold, generating a first execution instruction to increase the output power of the exhaust module; when the second dust concentration is less than the concentration threshold, generating a second execution instruction to reduce the output power of the exhaust module.

[0013] A further solution is: when the second dust concentration is greater than or equal to the concentration threshold, it also includes the following operations: determining whether the second dust concentration is greater than or equal to the first dust concentration; when the second dust concentration is greater than or equal to the first dust concentration, generating a first execution instruction to increase the output power of the exhaust module; when the second dust concentration is less than the first dust concentration, generating a third execution instruction to maintain the output power of the exhaust module.

[0014] A further solution is: before increasing the output power of the exhaust module, it also includes the following operations: obtaining the current first output power of the exhaust module; determining whether the first output power is less than the power upper limit value; when the first output power is less than the power upper limit value, increasing the output power of the exhaust module; when the first output power is equal to the power upper limit value, generating a first alarm signal.

[0015] A further solution is: before reducing the output power of the exhaust module, it also includes the following operations: obtaining the current second output power of the exhaust module; judging whether the second output power is greater than the power lower limit value; when the second output power is greater than the lower limit value, reducing the output power of the exhaust module; when the second output power is equal to the power lower limit value, the processing module generates a second alarm signal.

[0016] Compared with the prior art, the present invention has the following beneficial effects:

[0017] The execution module responds to the first execution instruction to increase the output power of the exhaust module. This is intended to improve the efficiency of air exhaust and purification within the processing area, thereby increasing the efficiency of reducing dust concentration within the processing area, thereby reducing the risk of workers being exposed to high-concentration dust environments over a long period of time, and thereby reducing the incidence of occupational diseases such as pneumoconiosis. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 This is a schematic block diagram of an air quality optimization system for a field test platform in this embodiment;

[0019] Figure 2 Schematic diagram of a flow chart of a method for optimizing air quality on a field test platform in this embodiment. DETAILED DESCRIPTION

[0020] The present invention will be further described below with reference to the accompanying drawings.

[0021] Example 1: This example provides an air quality optimization system for a field test platform, such as Figure 1 As shown, it includes an exhaust module, a collection module, a first judgment module, a processing module and an execution module, the exhaust module is arranged in the field test platform, and the exhaust module is in the initial output power; the collection module is arranged in the field test platform, and when the exhaust module is in the initial output power, the collection module is used to collect the first dust concentration in the field test platform; the first judgment module is used to judge whether the first dust concentration is less than the concentration threshold; when the first dust concentration is greater than or equal to the concentration threshold, the processing module is used to generate a first execution instruction; when the first dust concentration is less than the concentration threshold, the processing module is used to generate a second execution instruction; the execution module is used to respond to the first execution instruction to increase the output power of the exhaust module; the execution module is also used to respond to the second execution instruction to reduce the output power of the exhaust module.

[0022] For example, during implementation, an exhaust module is installed within the processing area of ​​the field test platform. The exhaust module operates at a certain initial output power. The initial output power of the exhaust module can be 0. When the initial output power of the exhaust module is 0, it indicates that the exhaust module is not operating. When the exhaust module is in operation, it can exhaust and purify the air within the processing area to reduce the dust concentration within the processing area.

[0023] The collection module is disposed within the processing area of ​​the field test platform. The collection module is configured to collect dust concentration within the processing area of ​​the field test platform in real time. When the exhaust module is operating at an initial output power, the dust concentration within the processing area of ​​the field test platform collected by the collection module is recorded as a first dust concentration.

[0024] The first determination module is electrically connected to the collection module. The first determination module determines whether the first dust concentration is less than a concentration threshold. This concentration can be preset based on historical experience, relevant national or regional occupational health standards or regulations, and the like. For example, occupational health standards specify allowable concentration limits for various types of dust (e.g., total dust, respirable dust, etc.).

[0025] The processing module is electrically connected to the first judgment module. When the judgment result of the first judgment module is that the first dust concentration is greater than or equal to the concentration threshold, the processing module generates a first execution instruction; when the judgment result of the first judgment module is that the first dust concentration is less than the concentration threshold, the processing module generates a second execution instruction. Among them, when the first dust concentration is greater than or equal to the concentration threshold, it indicates that the dust concentration in the processing area of ​​the field test platform is too high, and the air in the processing area needs to be discharged, purified, etc. to reduce the dust concentration in the processing area, or it indicates that the current output power of the exhaust module cannot meet the needs of exhausting, purifying, etc. the air in the processing area, and the output power of the exhaust module needs to be increased. When the first dust concentration is less than the concentration threshold, it indicates that the dust concentration in the processing area meets the requirements and there is no need to discharge, purify, etc. the air in the processing area, or it indicates that the current output power of the exhaust module can meet the needs of exhausting, purifying, etc. the air in the processing area.

[0026] The execution module is connected to the processing module. When the first determination module determines that the first dust concentration is greater than or equal to a concentration threshold, the processing module generates a first execution instruction. In response to the first execution instruction, the execution module increases the output power of the exhaust module. This is intended to improve the efficiency of air exhaust and purification within the processing area, thereby increasing the efficiency of reducing dust concentration within the processing area, thereby reducing the risk of workers being exposed to high-concentration dust environments over a long period of time, and thereby reducing the incidence of occupational diseases such as pneumoconiosis. Increasing the output power of the exhaust module includes turning on the exhaust module when the initial output power of the exhaust module is 0. When the first determination module determines that the first dust concentration is less than the concentration threshold, the processing module generates a second execution instruction. In response to the second execution instruction, the execution module decreases the output power of the exhaust module. This is intended to reduce unnecessary energy consumption and achieve energy conservation and emission reduction. Decreasing the output power of the exhaust module includes turning off the exhaust module by reducing the output power of the exhaust module to 0.

[0027] In this embodiment, after increasing or decreasing the output power of the exhaust module, the collection module is used to collect the second dust concentration in the field test platform; the first judgment module is also used to determine whether the second dust concentration is less than the concentration threshold; when the second dust concentration is greater than or equal to the concentration threshold, the processing module is used to generate a first execution instruction; when the second dust concentration is less than the concentration threshold, the processing module is used to generate a second execution instruction.

[0028] Illustratively, during implementation, after increasing or decreasing the output power of the exhaust module, the dust concentration in the processing area of ​​the field test platform collected by the collection module is recorded as the second dust concentration.

[0029] The first judgment module judges whether the second dust concentration is less than a concentration threshold.

[0030] When the first judgment module determines that the second dust concentration is greater than or equal to the concentration threshold, it indicates that the current output efficiency of the exhaust module may still be insufficient to effectively reduce the dust concentration. At this time, the processing module will generate a first execution instruction, instructing the execution module to respond to the first execution instruction to further increase the output power of the exhaust module. When the first judgment module determines that the second dust concentration is less than the concentration threshold, it indicates that the current output power of the exhaust module is sufficient to maintain air quality. The processing module will generate a second execution instruction, instructing the execution module to respond to the second execution instruction to reduce the output power of the exhaust module, thereby reducing energy consumption. Through a cyclical process of continuous monitoring and timely adjustment, it is hoped that the indoor air quality is always within a controllable range, thereby reducing the risk of long-term exposure of workers to high-concentration dust environments and reducing the incidence of occupational diseases such as pneumoconiosis. At the same time, the output power of the exhaust module can be flexibly adjusted according to actual needs, thereby reducing energy consumption and achieving the goal of energy conservation and emission reduction.

[0031] In this embodiment, the field test platform air quality optimization system also includes a second judgment module. When the second dust concentration is greater than or equal to the concentration threshold, the second judgment module is used to determine whether the second dust concentration is greater than or equal to the first dust concentration; when the second dust concentration is greater than or equal to the first dust concentration, the processing module is used to generate a first execution instruction; when the second dust concentration is less than the first dust concentration, the processing module is used to generate a third execution instruction; the execution module is also used to respond to the third execution instruction to maintain the output power of the exhaust module.

[0032] Exemplarily, during implementation, the field test platform air quality optimization system further includes a second judgment module. When the second dust concentration is greater than or equal to the concentration threshold, it indicates that the current output efficiency of the exhaust module may still be insufficient to effectively reduce the dust concentration, or that the dust concentration can be reduced, but time is required to reduce the dust concentration to below the concentration threshold. Therefore, in order to achieve the purpose of ensuring that the dust concentration can be effectively reduced.

[0033] When the second dust concentration is greater than or equal to the concentration threshold, the second judgment module further determines whether the second dust concentration is greater than or equal to the first dust concentration. If the second dust concentration is greater than or equal to the first dust concentration, this indicates that the exhaust module's current output efficiency is still insufficient to effectively reduce the dust concentration. At this point, the processing module generates a first execution instruction, instructing the execution module to respond to the first execution instruction to further increase the exhaust module's output power. This is intended to ensure that the exhaust module can effectively reduce the dust concentration in the processing area, thereby reducing the risk of workers being exposed to high-concentration dust environments over a long period of time and lowering the incidence of occupational diseases such as pneumoconiosis. If the second dust concentration is less than the first dust concentration, this indicates that the exhaust module's current output efficiency is sufficient to reduce the dust concentration, but time is still needed to reduce the dust concentration below the concentration threshold. At this point, the processing module generates a third execution instruction, instructing the execution module to respond to the third execution instruction to maintain the current exhaust module's output power unchanged and continue observation. When the dust concentration does not fully meet the standard, if the trend is positive (i.e., the second dust concentration is less than the first dust concentration), the current output power of the exhaust module can be maintained in the hope of reducing energy consumption and ensuring continuous monitoring until the air quality meets the standard.

[0034] In an optional embodiment, the execution module is instructed to respond to a third execution instruction to increase the output power of the exhaust module. This is intended to further improve the efficiency of air exhaust and purification within the processing area, thereby increasing the efficiency of reducing dust concentration within the processing area, thereby reducing the risk of workers being exposed to high-concentration dust environments over a long period of time, and thereby reducing the incidence of occupational diseases such as pneumoconiosis.

[0035] In this embodiment, the field test platform air quality optimization system also includes a first acquisition module and a third judgment module; the first acquisition module is used to respond to a first execution instruction to obtain the current first output power of the exhaust module; the third judgment module is used to judge whether the first output power is less than the power upper limit value; when the first output power is less than the power upper limit value, the execution module responds to the first execution instruction; when the first output power is equal to the power upper limit value, the processing module generates a first alarm signal.

[0036] Exemplarily, during implementation, the above-mentioned field test platform air quality optimization system further includes a first acquisition module and a third judgment module.

[0037] The first acquisition module is electrically connected to the processing module. Before the execution module responds to the first execution instruction, the first acquisition module responds to the first execution instruction to obtain the current output power of the exhaust module, which is recorded as the first output power.

[0038] The third judgment module is connected to the first acquisition module. The third judgment module determines whether the first output power is equal to the power upper limit value. When the first output power is equal to the power upper limit value, it indicates that the current exhaust module has reached the maximum power but still cannot effectively reduce the dust concentration. At this time, the processing module will generate a first alarm signal, and the first alarm signal can trigger an alarm device (such as an audible and visual alarm) to remind the staff to take corresponding measures (such as temporarily suspending work, strengthening personal protection, etc.). In order to achieve the purpose of reducing the incidence of occupational diseases such as pneumoconiosis and improving safety. When the first output power is less than the power upper limit value, it indicates that the output power of the exhaust module can be further increased. At this time, the execution module responds to the first execution instruction and continues to increase the output power of the exhaust module.

[0039] The upper power limit refers to the maximum output power of the exhaust module itself.

[0040] In this embodiment, the field test platform air quality optimization system also includes a second acquisition module and a fourth judgment module; the second acquisition module is used to respond to a second execution instruction to obtain the current second output power of the exhaust module; the fourth judgment module is used to determine whether the second output power is greater than the power lower limit value; when the second output power is greater than the lower limit value, the execution module responds to the second execution instruction; when the second output power is equal to the power lower limit value, the processing module generates a second alarm signal.

[0041] Exemplarily, during implementation, the above-mentioned field test platform air quality optimization system further includes a second acquisition module and a fourth judgment module.

[0042] The second acquisition module is electrically connected to the processing module. Before the execution module responds to the second execution instruction, the second acquisition module responds to the second execution instruction to obtain the current output power of the exhaust module, which is recorded as the second output power.

[0043] The fourth judgment module is connected to the second acquisition module. The fourth judgment module determines whether the second output power is greater than the power lower limit. When the second output power is greater than the power lower limit, it indicates that the output power of the exhaust module can be further reduced. At this time, the execution module responds to the second execution instruction to reduce the output power of the exhaust module. In the hope of further reducing energy consumption. When the second output power is equal to the power lower limit, it indicates that the exhaust module has dropped to the minimum safe output power. At this time, the processing module will generate a second alarm signal, and the second alarm signal can trigger an alarm device (such as an audible and visual alarm) to remind on-site staff of the current state of the working environment. By setting the power lower limit and monitoring the working status of the exhaust module in real time, it is expected to reduce the risk of air quality failing to meet standards due to excessive output reduction, thereby ensuring the basic ventilation needs of the working environment.

[0044] The power lower limit can be determined based on historical experience to ensure the minimum output power of the exhaust module when basic ventilation is required within the processing area of ​​the field test platform. Under certain conditions, the power lower limit can be 0, in which case the exhaust module is in the off state.

[0045] Example 2: This example provides a method for optimizing air quality on a field test platform. The method is applicable to the field test platform air quality optimization system as described in the first aspect. Figure 2 As shown, the field test platform air quality optimization method includes the following operations:

[0046] S100. Collecting the first dust concentration within the field test platform;

[0047] S200. Determine whether the first dust concentration is less than a concentration threshold;

[0048] S300. When the first dust concentration is greater than or equal to a concentration threshold, generate a first execution instruction to increase the output power of the exhaust module; when the first dust concentration is less than the concentration threshold, generate a second execution instruction to reduce the output power of the exhaust module.

[0049] By dynamically adjusting the exhaust module's output power, the dust concentration within the field test platform can be effectively controlled, reducing the risk of respiratory diseases such as pneumoconiosis among workers. Furthermore, the exhaust module's output power can be appropriately reduced once air quality meets standards, achieving energy conservation and emission reduction.

[0050] In this embodiment, after increasing or decreasing the output power of the exhaust module, the following operations are further included:

[0051] Collect the second dust concentration in the field test platform;

[0052] Determining whether the second dust concentration is less than a concentration threshold;

[0053] When the second dust concentration is greater than or equal to the concentration threshold, a first execution instruction is generated to increase the output power of the exhaust module; when the second dust concentration is less than the concentration threshold, a second execution instruction is generated to reduce the output power of the exhaust module.

[0054] Through continuous monitoring and timely adjustments to the circulating treatment process, we aim to ensure that indoor air quality remains within a controllable range, thereby reducing the risk of long-term exposure to high-concentration dust for workers and lowering the incidence of occupational diseases such as pneumoconiosis. At the same time, the output power of the exhaust module can be flexibly adjusted according to actual needs, thereby reducing energy consumption and achieving the goal of energy conservation and emission reduction.

[0055] In this embodiment, when the second dust concentration is greater than or equal to the concentration threshold, the following operations are further included:

[0056] determining whether the second dust concentration is greater than or equal to the first dust concentration;

[0057] When the second dust concentration is greater than or equal to the first dust concentration, a first execution instruction is generated to increase the output power of the exhaust module; when the second dust concentration is less than the first dust concentration, a third execution instruction is generated to maintain the output power of the exhaust module.

[0058] The goal is to ensure that the exhaust module can effectively reduce dust concentration within the processing area, thereby reducing the risk of long-term worker exposure to high-concentration dust and ultimately lowering the incidence of occupational diseases such as pneumoconiosis. Furthermore, if dust concentration is not fully up to standard, but the trend is positive (i.e., the second dust concentration is lower than the first), the exhaust module's current output power can be maintained, thereby reducing energy consumption and ensuring continuous monitoring until air quality meets standards.

[0059] In this embodiment, before increasing the output power of the exhaust module, the following operations are also included:

[0060] Obtaining a current first output power of the exhaust module;

[0061] Determining whether the first output power is less than an upper power limit;

[0062] When the first output power is less than the upper power limit, the output power of the exhaust module is increased; when the first output power is equal to the upper power limit, a first alarm signal is generated.

[0063] When the first output power equals the upper power limit, it indicates that the exhaust module has reached its maximum power but is still unable to effectively reduce dust concentration. At this point, the processing module generates a first alarm signal, which can trigger an alarm device (such as an audible and visual alarm) to alert staff to take appropriate measures (such as temporarily suspending work or strengthening personal protection). This is intended to reduce the incidence of occupational diseases such as pneumoconiosis and improve safety. When the first output power is less than the upper power limit, it indicates that the exhaust module's output power can be further increased. At this point, the execution module responds to the first execution instruction and continues to increase the exhaust module's output power.

[0064] The upper power limit refers to the maximum output power of the exhaust module itself.

[0065] In this embodiment, before reducing the output power of the exhaust module, the following operations are also included:

[0066] Obtaining a current second output power of the exhaust module;

[0067] Determining whether the second output power is greater than a lower power limit;

[0068] When the second output power is greater than a lower limit value, the output power of the exhaust module is reduced; when the second output power is equal to the power lower limit value, the processing module generates a second alarm signal.

[0069] When the second output power is greater than the power lower limit, it indicates that the output power of the exhaust module can be further reduced. At this time, the execution module responds to the second execution instruction to reduce the output power of the exhaust module. In the hope of further reducing energy consumption. When the second output power is equal to the power lower limit, it indicates that the exhaust module has dropped to the minimum safe output power. At this time, the processing module will generate a second alarm signal, and the second alarm signal can trigger an alarm device (such as an audible and visual alarm) to remind on-site staff of the current state of the working environment. By setting the power lower limit and monitoring the working status of the exhaust module in real time, it is expected to reduce the risk of air quality failing to meet standards due to excessive output reduction, thereby ensuring the basic ventilation needs of the working environment.

[0070] The power lower limit can be determined based on historical experience to ensure the minimum output power of the exhaust module when basic ventilation is required within the processing area of ​​the field test platform. Under certain conditions, the power lower limit can be 0, in which case the exhaust module is in the off state.

[0071] Although the present invention has been described herein with reference to a number of illustrative embodiments thereof, it will be understood that numerous other modifications and implementations may be devised by those skilled in the art that fall within the scope and spirit of the principles disclosed herein. More specifically, within the scope of the present disclosure, the drawings, and the claims, numerous variations and modifications may be made to the components and / or layout of the subject combination arrangement. In addition to variations and modifications to the components and / or layout, other uses will also be apparent to those skilled in the art.

Claims

1. A field test platform air quality optimization system, characterized in that: include: An exhaust module, the exhaust module being disposed in the field test platform and being at an initial output power; A collection module is provided in the field test platform, and is used to collect a first dust concentration in the field test platform when the exhaust module is at an initial output power; a first judgment module, configured to judge whether the first dust concentration is less than a concentration threshold; a processing module, configured to generate a first execution instruction when the first dust concentration is greater than or equal to a concentration threshold; and to generate a second execution instruction when the first dust concentration is less than the concentration threshold; An execution module is used to respond to a first execution instruction to increase the output power of the exhaust module; the execution module is also used to respond to a second execution instruction to reduce the output power of the exhaust module.

2. The field test platform air quality optimization system according to claim 1, characterized in that: After increasing or decreasing the output power of the exhaust module, the collection module is used to collect a second dust concentration in the field test platform; The first judgment module is further configured to judge whether the second dust concentration is less than a concentration threshold; When the second dust concentration is greater than or equal to a concentration threshold, the processing module is used to generate a first execution instruction; when the second dust concentration is less than the concentration threshold, the processing module is used to generate a second execution instruction.

3. The field test platform air quality optimization system according to claim 2, characterized in that: Also includes a second judgment module, When the second dust concentration is greater than or equal to the concentration threshold, the second judgment module is used to judge whether the second dust concentration is greater than or equal to the first dust concentration; When the second dust concentration is greater than or equal to the first dust concentration, the processing module is used to generate a first execution instruction; when the second dust concentration is less than the first dust concentration, the processing module is used to generate a third execution instruction; The execution module is further configured to respond to a third execution instruction to maintain the output power of the exhaust module.

4. The field test platform air quality optimization system according to claim 1, characterized in that: It also includes a first acquisition module and a third judgment module; The first acquisition module is used to respond to the first execution instruction to obtain the current first output power of the exhaust module; The third judgment module is used to judge whether the first output power is less than the power upper limit value; When the first output power is less than the upper power limit, the execution module responds to a first execution instruction; When the first output power is equal to the upper power limit, the processing module generates a first alarm signal.

5. The field test platform air quality optimization system according to claim 1, characterized in that: Also includes a second acquisition module and a fourth judgment module; The second acquisition module is used to respond to the second execution instruction to obtain the current second output power of the exhaust module; The fourth judgment module is used to judge whether the second output power is greater than the power lower limit; When the second output power is greater than a lower limit, the execution module responds to a second execution instruction; When the second output power is equal to the power lower limit, the processing module generates a second alarm signal.

6. A method for optimizing air quality on a field test platform, characterized in that: The field test platform air quality optimization method is applicable to the field test platform air quality optimization system according to any one of claims 1 to 5. The field test platform air quality optimization method is The following operations are included: Collect the first dust concentration in the field test platform; determining whether the first dust concentration is less than a concentration threshold; When the first dust concentration is greater than or equal to a concentration threshold, a first execution instruction is generated to increase the output power of the exhaust module; when the first dust concentration is less than the concentration threshold, a second execution instruction is generated to reduce the output power of the exhaust module.

7. The method for optimizing air quality on a field test platform according to claim 6, characterized in that: After increasing or decreasing the output power of the exhaust module, the following operations are also included: Collect the second dust concentration in the field test platform; Determining whether the second dust concentration is less than a concentration threshold; When the second dust concentration is greater than or equal to the concentration threshold, a first execution instruction is generated to increase the output power of the exhaust module; when the second dust concentration is less than the concentration threshold, a second execution instruction is generated to reduce the output power of the exhaust module.

8. The method for optimizing air quality on a field test platform according to claim 7, characterized in that: When the second dust concentration is greater than or equal to the concentration threshold, the following operations are also included: determining whether the second dust concentration is greater than or equal to the first dust concentration; When the second dust concentration is greater than or equal to the first dust concentration, a first execution instruction is generated to increase the output power of the exhaust module; when the second dust concentration is less than the first dust concentration, a third execution instruction is generated to maintain the output power of the exhaust module.

9. The method for optimizing air quality on a field test platform according to claim 6, characterized in that: Before increasing the output power of the exhaust module, the following operations are also included: Obtaining a current first output power of the exhaust module; Determining whether the first output power is less than an upper power limit; When the first output power is less than the upper power limit, the output power of the exhaust module is increased; when the first output power is equal to the upper power limit, a first alarm signal is generated.

10. The method for optimizing air quality on a field test platform according to claim 6, characterized in that: Before reducing the output power of the exhaust module, the following operations are also included: Obtaining a current second output power of the exhaust module; Determining whether the second output power is greater than a lower power limit; When the second output power is greater than a lower limit value, the output power of the exhaust module is reduced; when the second output power is equal to the power lower limit value, the processing module generates a second alarm signal.

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