Regulation and control system and method of field test platform for geological detection

Abstract

The invention discloses a regulation and control system and method of a field test platform for geological detection, and relates to the technical field of geological monitoring. According to the main technical scheme, a first obtaining module obtains a first environment parameter of a sample collection point; the second acquisition module acquires a second environment parameter in the field test platform in real time; the first judgment module judges whether the second environment parameter is matched with the first environment parameter or not; when the second environment parameter is matched with the first environment parameter, the processing module generates a non-action instruction; when the second environment parameter is not matched with the first environment parameter, the processing module generates an adjusting instruction; the environment module is arranged in the field test platform; when the environment adjusting module responds to the non-action instruction, the current output power is maintained; and when the environment adjusting module responds to the adjusting instruction, the current output power is adjusted. The purposes of effectively reducing measurement errors caused by environmental differences and improving the water content measurement accuracy of soil or rock samples are expected to be achieved.

Description

Technical Field

[0001] The present invention relates to the technical field of geological detection, and particularly relates to a regulation system and method for a field test platform for geological detection. Background Art

[0002] Geological detection is a long-term observation work on geological phenomena, stress and strain of rock and soil masses, groundwater, etc. over time. The purpose is to master their dynamic change laws, predict development trends, and judge the possible degree of harm, so as to take corresponding protective measures to ensure the safety of people's lives and property and buildings.

[0003] The water content in soil or rock samples is one of the key factors for evaluating the change of groundwater level and landslide risk. In traditional methods, when the samples are taken back to the laboratory for analysis, due to the change of environmental conditions during transportation, the water content in the soil or rock samples may change, affecting the accuracy of the final detection results.

[0004] In the prior art, most set up temporary detection stations (such as field test platforms) near the sample collection sites and directly measure the water content of soil or rock samples on site to improve the accuracy of the final detection results. However, the environmental conditions inside the temporary detection stations often differ from those at the sample collection sites, which may still affect the accuracy of the measurement results. Therefore, how to reduce the difference in environmental conditions between the inside of the temporary detection station and the sample collection site to improve the accuracy of the water content detection results of soil or rock samples is a technical problem to be solved urgently. Summary of the Invention

[0005] The purpose of the present invention is to provide a regulation system and method for a field test platform for geological detection, which solves the problem of how to reduce the difference in environmental conditions between the inside of the temporary detection station and the sample collection site to improve the accuracy of the water content detection results of soil or rock samples.

[0006] To solve the above technical problems, the present invention adopts the following technical solutions:

[0007] In a first aspect, a control system for a field test platform for geological detection is provided, including a first acquisition module, a second acquisition module, a first judgment module, a processing module, and an environment adjustment module. The first acquisition module is used to acquire the environmental parameters of the sample collection point, denoted as the first environmental parameters; the second acquisition module is used to acquire the environmental parameters inside the field test platform in real time, denoted as the second environmental parameters; the first judgment module is used to judge whether the second environmental parameters match the first environmental parameters; when the second environmental parameters match the first environmental parameters, the processing module generates a no-action instruction; when the second environmental parameters do not match the first environmental parameters, the processing module generates an adjustment instruction; the environment module is used to be arranged inside the field test platform; when the environment adjustment module responds to the no-action instruction, the environment adjustment module maintains the current output power; when the environment adjustment module responds to the adjustment instruction, the adjustment module adjusts the current output power until the second environmental parameters match the first environmental parameters.

[0008] A further solution is that the judgment process of whether the second environmental parameters match the first environmental parameters includes: calculating the parameter difference value between the second environmental parameters and the first environmental parameters; judging whether the parameter difference value meets the difference threshold; if the parameter difference value meets the difference threshold, then the second environmental parameters match the first environmental parameters; if the parameter difference value does not meet the difference threshold, then the second environmental parameters do not match the first environmental parameters.

[0009] A further solution is that the control system further includes a second judgment module; when the second environmental parameters do not match the first environmental parameters, the second judgment module judges whether the parameter difference value is less than the difference threshold; when the parameter difference value is less than the difference threshold, the processing module generates a first adjustment instruction, and the environment adjustment module responds to the first adjustment instruction to reduce the output power; when the parameter difference value is greater than the difference threshold, the processing module generates a second adjustment instruction, and the environment adjustment module responds to the second adjustment instruction to increase the output power.

[0010] A further solution is that the environmental parameters include temperature, humidity, and air pressure.

[0011] Second aspect: A method for regulating a field test platform for geological detection is provided. The regulation method is applicable to the regulation system described in the first aspect, and the regulation method includes the following operations: obtaining the environmental parameters of the sample collection point, denoted as the first environmental parameters; obtaining in real time the environmental parameters inside the field test platform, denoted as the second environmental parameters; determining whether the second environmental parameters match the first environmental parameters; when the second environmental parameters match the first environmental parameters, generating a no-action instruction to maintain the current output power of the environmental regulation module; when the second environmental parameters do not match the first environmental parameters, generating an adjustment instruction to adjust the current output power of the environmental regulation module until the second environmental parameters match the first environmental parameters.

[0012] A further solution is that the process of determining whether the second environmental parameters match the first environmental parameters includes: calculating the parameter difference value between the second environmental parameters and the first environmental parameters; determining whether the parameter difference value meets the difference threshold; if the parameter difference value meets the difference threshold, then the second environmental parameters match the first environmental parameters; if the parameter difference value does not meet the difference threshold, then the second environmental parameters do not match the first environmental parameters.

[0013] A further solution is that when the second environmental parameters do not match the first environmental parameters, it further includes: determining whether the parameter difference value is less than the difference threshold; when the parameter difference value is less than the difference threshold, generating a first adjustment instruction to reduce the output power of the environmental regulation module; when the parameter difference value is greater than the difference threshold, generating a second adjustment instruction to increase the output power of the environmental regulation module.

[0014] A further solution is that the environmental parameters include temperature, humidity, and air pressure.

[0015] Compared with the prior art, the beneficial effects of the present invention are:

[0016] By ensuring that the internal environmental conditions of the field test platform are as close as possible to the actual environmental conditions of the sample collection point. It is expected to effectively reduce the measurement error caused by environmental differences, thereby achieving the purpose of improving the measurement accuracy of the water content of soil or rock samples. Description of the Drawings

[0017] Figure 1 It is a block diagram schematic of a regulation system for a field test platform for geological detection in this embodiment;

[0018] Figure 2 It is a flowchart schematic of a regulation method for a field test platform for geological detection in this embodiment. Detailed Embodiments

[0019] The present invention will be further described below with reference to the drawings.

[0020] Embodiment 1: This embodiment provides a control system for a field test platform for geological detection, as Figure 1 shown, including a first acquisition module, a second acquisition module, a first judgment module, a processing module, and an environment adjustment module. The first acquisition module is used to acquire the environmental parameters of the sample collection point, denoted as the first environmental parameters; the second acquisition module is used to acquire the environmental parameters inside the field test platform in real time, denoted as the second environmental parameters; the first judgment module is used to judge whether the second environmental parameters match the first environmental parameters; when the second environmental parameters match the first environmental parameters, the processing module generates a non-action instruction; when the second environmental parameters do not match the first environmental parameters, the processing module generates an adjustment instruction; the environmental module is used to be arranged inside the field test platform; when the environmental adjustment module responds to the non-action instruction, the environmental adjustment module maintains the current output power; when the environmental adjustment module responds to the adjustment instruction, the adjustment module adjusts the current output power until the second environmental parameters match the first environmental parameters.

[0021] Exemplarily, during the implementation process, the first acquisition module is arranged at the sample collection point. The first acquisition module is used to acquire the environmental parameters of the sample collection point, and the environmental parameters of the sample collection point acquired by the first acquisition module are denoted as the first environmental parameters.

[0022] The second acquisition module is arranged in the processing area of the field test platform. The second acquisition module is used to acquire the environmental parameters inside the field test platform in real time, and the environmental parameters inside the field test platform acquired by the second acquisition module are denoted as the second environmental parameters.

[0023] The first judgment module is electrically connected to both the first acquisition module and the second acquisition module. The first judgment module is used to judge whether the first environmental parameters match the second environmental parameters.

[0024] The processing module is electrically connected to the first judgment module. The processing module is used to acquire the judgment result of the first judgment module in real time. When the judgment result of the first judgment module is that the second environmental parameters match the first environmental parameters, the processing module generates a non-action instruction; when the judgment result of the first judgment module is that the second environmental parameters do not match the first environmental parameters, the processing module generates an adjustment instruction.

[0025] The environmental adjustment module is arranged inside the field test platform, and the environmental adjustment module is connected to the processing module. When the processing module generates a non-action instruction, the environmental adjustment module responds to the non-action instruction generated by the processing module to maintain the current output power; when the processing module generates an adjustment instruction, the environmental adjustment module responds to the adjustment instruction generated by the processing module to adjust the current output power until the second environmental parameters match the first environmental parameters.

[0026] During use, the first acquisition module acquires the environmental parameters of the sample collection point, denoted as the first environmental parameters, and the second acquisition module acquires the environmental parameters inside the field test platform in real time, denoted as the second environmental parameters. The first judgment module judges whether the first environmental parameters match the second environmental parameters. When the judgment result of the first judgment module is that the second environmental parameters match the first environmental parameters, the processing module generates a non-action instruction. At this time, the environmental adjustment module responds to the non-action instruction to maintain the current output power. When the judgment result of the first judgment module is that the second environmental parameters do not match the first environmental parameters, the processing module generates an adjustment instruction. At this time, the environmental adjustment module responds to the adjustment instruction generated by the processing module to adjust the current output power until the second environmental parameters match the first environmental parameters. On the one hand, by ensuring that the internal environmental conditions of the field test platform are as close as possible to the actual environmental conditions of the sample collection point. It is expected to effectively reduce the measurement error caused by environmental differences, thereby improving the measurement accuracy of the water content of soil or rock samples. On the other hand, the control system of the field test platform for geological detection can flexibly adjust the environmental settings inside the field test platform according to the specific environmental conditions of different sample collection points. It is expected to improve the adaptability of the control system of the field test platform for geological detection.

[0027] In this embodiment, the process of judging whether the second environmental parameters match the first environmental parameters includes: calculating the parameter difference value between the second environmental parameters and the first environmental parameters; judging whether the parameter difference value meets the difference threshold; if the parameter difference value meets the difference threshold, then the second environmental parameters match the first environmental parameters; if the parameter difference value does not meet the difference threshold, then the second environmental parameters do not match the first environmental parameters.

[0028] Exemplarily, during implementation, first calculate the parameter difference value between the first environmental parameters (the environmental parameters of the sample collection point acquired by the first acquisition module) and the second environmental parameters (the environmental parameters inside the field test platform monitored by the second acquisition module in real time).

[0029] The calculation formula of the parameter difference value is as follows:

[0030] ΔQ = Q1 - Q2, where ΔQ is the parameter difference value; Q1 is the first environmental parameter; Q2 is the second environmental parameter.

[0031] The difference threshold is denoted as Q, and Q = [Q min , Q max . The difference threshold Q can be set based on industry standards, technical specifications or literature in related fields. Among them, Q min is a negative value, and Q max is a positive value. Preferably, Q min and Q max are opposite numbers to each other.

[0032] When the parameter difference value ΔQ is within the difference threshold Q, it is considered that the second environmental parameter matches the first environmental parameter; when the parameter difference value ΔQ is less than the lower limit value Q of the difference threshold Q min or greater than the upper limit value Q of the difference threshold Q max , it is considered that the second environmental parameter does not match the first environmental parameter. On the one hand, the difference threshold is used to judge the parameter difference value, aiming to effectively distinguish minor fluctuations and significant deviations, thereby reducing the risk of misjudgment caused by slight changes in environmental parameters to ensure the accuracy of regulation. On the other hand, environmental differences that have no impact or a minor impact (can be ignored) on the water content detection result can be effectively ignored, aiming to reduce the amount of data processing.

[0033] Among them, the environmental parameters include multiple parameters such as temperature, humidity, and air pressure. During the implementation process, the parameter difference values of parameters such as temperature, humidity, and air pressure are calculated respectively. And when the temperature parameter difference value, humidity parameter difference value, and air pressure parameter difference value all meet the corresponding temperature difference threshold, humidity difference threshold, and air pressure difference threshold, it is considered that the second environmental parameter matches the first environmental parameter. When at least one of the temperature parameter difference value, humidity parameter difference value, and air pressure parameter difference value does not meet the corresponding temperature difference threshold, humidity difference threshold, and air pressure difference threshold, it is considered that the second environmental parameter does not match the first environmental parameter.

[0034] In this embodiment, the control system further includes a second judgment module; when the second environmental parameter does not match the first environmental parameter, the second judgment module judges whether the parameter difference value is less than the difference threshold; when the parameter difference value is less than the difference threshold, the processing module generates a first adjustment instruction, and the environmental adjustment module responds to the first adjustment instruction to reduce the output power; when the parameter difference value is greater than the difference threshold, the processing module generates a second adjustment instruction, and the environmental adjustment module responds to the second adjustment instruction to increase the output power.

[0035] Exemplarily, during the implementation process, the above control system further includes a second judgment module, and the second judgment module is electrically connected to both the first judgment module and the processing module. When the judgment result of the first judgment module is that the second environmental parameter does not match the first environmental parameter, the second judgment module judges whether the parameter difference value ΔQ is less than the lower limit value Q of the difference threshold Q min . When the parameter difference value ΔQ is negative and the parameter difference value ΔQ is less than the lower limit value Q of the difference threshold Q minWhen it is determined that the environmental parameters (the first environmental parameters) at the sample collection point are less than the environmental parameters (the second environmental parameters) inside the field test platform, the processing module generates a first adjustment instruction at this time. The environmental adjustment module responds to the first adjustment instruction to reduce the output power, thereby reducing the temperature, humidity, air pressure, etc. inside the field test platform. When the parameter difference value ΔQ is positive and the parameter difference value ΔQ is greater than the lower limit value Q of the difference threshold Q min When it is determined that the environmental parameters (the first environmental parameters) at the sample collection point are greater than the environmental parameters (the second environmental parameters) inside the field test platform, the processing module generates a second adjustment instruction at this time. The environmental adjustment module responds to the second adjustment instruction to increase the output power, thereby increasing the temperature, humidity, air pressure, etc. inside the field test platform. By analyzing the relationship between the parameter difference value and the difference threshold, the environmental conditions inside the field test platform can be adjusted more accurately, with the expectation of ensuring that the environment inside the field test platform is as close as possible to the actual environment at the sample collection point, so as to improve the accuracy of the measured results of the sample's moisture content.

[0036] In this embodiment, the environmental parameters include temperature, humidity, and air pressure.

[0037] Exemplarily, during the implementation process, environmental parameters such as temperature, humidity, and air pressure that have a greater impact on moisture content are mainly considered, with the aim of effectively ensuring the accuracy of the moisture content detection results.

[0038] Embodiment 2: This embodiment provides a control method for a field test platform for geological detection. The control method is applicable to the control system described in the first aspect, as Figure 2 shown. The control method includes the following operations:

[0039] S100. Obtain the environmental parameters at the sample collection point, denoted as the first environmental parameters;

[0040] S200. Continuously obtain the environmental parameters inside the field test platform in real time, denoted as the second environmental parameters;

[0041] S300. Determine whether the second environmental parameters match the first environmental parameters;

[0042] S400. When the second environmental parameters match the first environmental parameters, generate a no-action instruction to maintain the current output power of the environmental adjustment module; when the second environmental parameters do not match the first environmental parameters, generate an adjustment instruction to adjust the current output power of the environmental adjustment module until the second environmental parameters match the first environmental parameters.

[0043] On the one hand, by ensuring that the internal environmental conditions of the field test platform are as close as possible to the actual environmental conditions of the sample collection point, it is expected to effectively reduce the measurement errors caused by environmental differences, thereby improving the measurement accuracy of the water content of soil or rock samples. On the other hand, the control method of the field test platform for geological detection can flexibly adjust the environmental settings inside the field test platform according to the specific environmental conditions of different sample collection points, aiming to improve the adaptability of the control system of the field test platform for geological detection.

[0044] In this embodiment, the process of judging whether the second environmental parameter matches the first environmental parameter includes: calculating the parameter difference value between the second environmental parameter and the first environmental parameter; judging whether the parameter difference value meets the difference threshold; if the parameter difference value meets the difference threshold, the second environmental parameter matches the first environmental parameter; if the parameter difference value does not meet the difference threshold, the second environmental parameter does not match the first environmental parameter. On the one hand, the difference threshold is used to judge the parameter difference value, aiming to effectively distinguish minor fluctuations and significant deviations, thereby reducing the risk of misjudgment caused by slight changes in environmental parameters and ensuring the adjustment accuracy. On the other hand, environmental differences that have no impact or a small impact (can be ignored) on the water content detection result can be effectively ignored, aiming to reduce the data processing volume.

[0045] In this embodiment, when the second environmental parameter does not match the first environmental parameter, it further includes: judging whether the parameter difference value is less than the difference threshold; when the parameter difference value is less than the difference threshold, generating a first adjustment instruction to reduce the output power of the environmental adjustment module; when the parameter difference value is greater than the difference threshold, generating a second adjustment instruction to increase the output power of the environmental adjustment module. By analyzing the relationship between the parameter difference value and the difference threshold, the environmental conditions inside the field test platform can be adjusted more precisely, aiming to ensure that the environment inside the field test platform is as close as possible to the actual environment of the sample collection point, thereby improving the accuracy of the measurement result of the water content of the sample.

[0046] In this embodiment, the environmental parameters include temperature, humidity, and air pressure.

[0047] Exemplarily, during the implementation process, environmental parameters such as temperature, humidity, and air pressure that have a greater impact on the water content are mainly considered, aiming to effectively ensure the accuracy of the water content detection result.

[0048] Although the present invention has been described herein with reference to a number of illustrative embodiments, it should be understood that those skilled in the art can devise many other modifications and embodiments that will fall within the scope and spirit of the principles disclosed in this application. More specifically, within the scope of the present disclosure, the drawings, and the claims, various variations and improvements can be made to the components and / or arrangements of the subject combination layout. In addition to the variations and improvements to the components and / or arrangements, other uses will also be apparent to those skilled in the art.

Claims

1. A control system for a field test platform for geological detection, characterized in that, Including: A first acquisition module, which is used to acquire the environmental parameters of the sample collection point, denoted as the first environmental parameters; A second acquisition module, which is used to acquire the environmental parameters inside the field test platform in real time, denoted as the second environmental parameters; A first judgment module, which is used to judge whether the second environmental parameters match the first environmental parameters; A processing module. When the second environmental parameters match the first environmental parameters, the processing module generates a no-action instruction; when the second environmental parameters do not match the first environmental parameters, the processing module generates an adjustment instruction; An environmental adjustment module, which is used to be set inside the field test platform; when the environmental adjustment module responds to the no-action instruction, the environmental adjustment module maintains the current output power; when the environmental adjustment module responds to the adjustment instruction, the adjustment module adjusts the current output power until the second environmental parameters match the first environmental parameters.

2. The regulation system according to claim 1, wherein The judgment process of whether the second environmental parameters match the first environmental parameters includes: Calculating the parameter difference value between the second environmental parameters and the first environmental parameters; Judging whether the parameter difference value meets the difference threshold; If the parameter difference value meets the difference threshold, the second environmental parameters match the first environmental parameters; if the parameter difference value does not meet the difference threshold, the second environmental parameters do not match the first environmental parameters.

3. The regulation system according to claim 2, characterized in that: It further includes a second judgment module; When the second environmental parameters do not match the first environmental parameters, the second judgment module judges whether the parameter difference value is less than the difference threshold; When the parameter difference value is less than the difference threshold, the processing module generates a first adjustment instruction, and the environmental adjustment module responds to the first adjustment instruction to reduce the output power; When the parameter difference value is greater than the difference threshold, the processing module generates a second adjustment instruction, and the environmental adjustment module responds to the second adjustment instruction to increase the output power.

4. The regulation system according to any one of claims 1-3, characterized in that The environmental parameters include temperature, humidity and air pressure.

5. A control method for a field test platform for geological detection, characterized in that, The regulation method is applicable to the regulation system according to any one of claims 1-4, and the regulation method includes the following operations: The module is used to acquire the environmental parameters of the sample collection point, denoted as the first environmental parameters; Acquire the environmental parameters inside the field test platform in real time, denoted as the second environmental parameters; Judge whether the second environmental parameters match the first environmental parameters; When the second environmental parameters match the first environmental parameters, generate a no-action instruction to maintain the current output power of the environmental adjustment module; When the second environmental parameters do not match the first environmental parameters, generate an adjustment instruction to adjust the current output power of the environmental adjustment module until the second environmental parameters match the first environmental parameters.

6. The regulation method according to claim 5, characterized in that The judgment process of whether the second environmental parameters match the first environmental parameters includes: Calculating the parameter difference value between the second environmental parameters and the first environmental parameters; Judging whether the parameter difference value meets the difference threshold; If the parameter difference value meets the difference threshold, the second environmental parameter matches the first environmental parameter; if the parameter difference value does not meet the difference threshold, the second environmental parameter does not match the first environmental parameter.

7. The regulation method according to claim 6, wherein When the second environmental parameter does not match the first environmental parameter, it further includes: Determine whether the parameter difference value is less than the difference threshold; When the parameter difference value is less than the difference threshold, generate a first adjustment instruction to reduce the output power of the environmental adjustment module; When the parameter difference value is greater than the difference threshold, generate a second adjustment instruction to increase the output power of the environmental adjustment module.

8. The regulation method according to any one of claims 5 to 7, characterized in that, The environmental parameters include temperature, humidity, and air pressure.

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