Real-time measurement system for rheological parameters of new concrete material

Abstract

The invention discloses a real-time measurement system for rheological parameters of a new concrete material, and relates to the technical field of measurement, the real-time measurement system comprises a preparation module, a rotary viscosity module, a pressure detection module, a data processing module, a viscosity change module and a stage calibration module, and further comprises an ideal analysis module, the device has the advantages that the pressure detection module can detect the pressure required by movement of the pressure sensor in concrete, the resistance is analyzed, the internal structure and the resistance characteristic of the concrete can be known, the rheological parameters of a concrete material can be analyzed more accurately, and the concrete quality is improved. The viscosity change module is used for ensuring the performance and quality of concrete in actual use, the stage calibration module is used for analyzing the total process of rheological parameter change of a concrete material and generating rheological change data for calibration, the accuracy and reliability of a rheogram are improved, and a direction is provided for optimizing a concrete proportion scheme and a production process.

Description

Technical Field

[0001] The invention relates to the field of measurement technology, in particular to a real-time measurement system for rheological parameters of a new concrete material. Background Art

[0002] Concrete is a general term for engineering composite materials that are cemented into a whole by cementitious materials. The term concrete usually refers to cement as a cementitious material, sand and stone as aggregates; mixed with water (which may contain admixtures and additives) in a certain proportion, and then mixed to obtain cement concrete, also known as ordinary concrete. It is widely used in civil engineering, and the rheological parameters of concrete are mainly used to describe the flow and deformation characteristics of concrete under different stress states. The rheological parameters of concrete play an important role in concrete mix design, construction process optimization and performance quality evaluation.

[0003] When used, common real-time measurement systems are not convenient for real-time monitoring of the changes in the rheological parameters of concrete materials at different stages, resulting in the rapid change of the state of the concrete material during the construction process, affecting the use effect. In addition, the real-time monitored rheological parameters of concrete materials have poor accuracy, making it inconvenient to further verify them. Therefore, we propose a new real-time measurement system for the rheological parameters of concrete materials. Summary of the invention

[0004] The purpose of the present invention is to provide a real-time measurement system for rheological parameters of new concrete materials.

[0005] To solve the problems raised in the above background technology, the present invention provides the following technical solutions: a real-time measurement system for rheological parameters of a new concrete material, comprising a preparation module, a rotational viscosity module, a pressure detection module, a data processing module, a viscosity change module and a stage calibration module;

[0006] A preparation module is used to prepare concrete materials, obtain information about concrete materials, generate different concrete material proportion schemes, and manufacture concrete material rheological samples according to different concrete material proportion schemes;

[0007] Rotational viscosity module, using a rotational viscometer to detect the viscosity information of concrete materials;

[0008] The pressure detection module can detect the pressure required by the pressure sensor when it moves in the concrete material and analyze the resistance encountered by the pressure sensor when moving;

[0009] The data processing module acquires the data changes of the rotational viscometer and the pressure sensor in real time, and generates viscosity change data and pressure change data;

[0010] The viscosity change module analyzes the flow parameters of concrete materials according to the viscosity change data and the pressure change data, and plots them into an actual rheological diagram. It also analyzes the flow parameter thresholds of concrete materials that do not affect daily use, and marks them into the actual rheological diagram.

[0011] The stage calibration module analyzes the overall process of rheological parameter changes of concrete materials, generates overall rheological process information, separates the overall rheological process information, generates sub-rheological process information, detects the change of water content of concrete materials in the sub-rheological process, thereby determining the change of rheological parameters of concrete materials, generates rheological change data, compares the actual rheological diagram based on the rheological change data, and calibrates it.

[0012] As a further solution of the present invention: it also includes an ideal analysis module, which can obtain information on different concrete material proportion schemes, then extract actual rheological diagram information, analyze the changes in rheological parameters of different concrete material proportion schemes under ideal conditions, thereby generating different ideal rheological diagrams, comparing the actual rheological diagram with the ideal rheological diagram, and analyzing the gap between the actual rheological diagram and the ideal rheological diagram.

[0013] As a further solution of the present invention: when the preparation module generates different concrete material proportion schemes, it will adjust the proportion of the concrete materials. When adjusting the proportion of the concrete materials, it will simultaneously establish an adjustment unit, and then synchronously adjust the proportion of the concrete materials according to the information in the adjustment unit. The adjustment unit includes a proportion adjustment method and a component adjustment method.

[0014] As a further solution of the present invention: the proportion adjustment method is to calculate the adjusted concrete material weight according to the set ratio, and then adjust the proportion of the concrete material. Suppose the current concrete material weight is , assuming the adjustment ratio is , assuming the total weight of the adjusted concrete material is ;

[0015]

[0016] According to the above formula, the adjusted concrete material weight can be calculated;

[0017] The component adjustment method is to adjust the proportion of concrete materials according to the set component. Suppose the adjusted component is ;

[0018]

[0019] The adjusted total amount of concrete materials can be calculated according to the above formula. When the concrete material proportion needs to be adjusted again after the proportion adjustment is completed, the adjusted total amount of concrete materials will cover the current amount of concrete materials, thereby generating different concrete material proportion schemes.

[0020] As a further solution of the present invention: the pressure detection module needs to use a flow detection method and a fixed detection method when detecting the pressure required by the pressure sensor when moving in the concrete material;

[0021] The flow detection method is to place the pressure sensor's pressure detection part into the concrete material rheological sample, then drive the pressure sensor to move in the concrete material rheological sample according to the set pressure, and obtain the resistance information of the pressure sensor during the movement in real time;

[0022] The fixed detection method refers to installing the detection part of the pressure sensor in an inclined pipe, and then pouring the rheological sample of the concrete material into the inclined pipe from the higher end, so that the rheological sample of the concrete material flows downward from a high place. When the rheological sample of the concrete material passes through the pressure sensor, the pressure sensor can detect the resistance information of the rheological sample of the concrete material during flow.

[0023] As a further solution of the present invention: after generating the viscosity change data and the pressure change data, the data processing module will remove the abnormal data in the viscosity change data and the pressure change data. Suppose the viscosity change data or the pressure change data detected at the Lth time is , let the viscosity change data or pressure change data detected at the L-1th time be , let the data change index be ;

[0024]

[0025] According to the above formula, the data change index can be calculated. Assume that the threshold of abnormal data times is , let the abnormal data judgment index be ;

[0026] When the data change index Continuously exceed The number of times higher than When , the data change index is judged to be an abnormal data change;

[0027] When the data change index exceeds The number of times is lower than , the data change index is judged to be a normal data change.

[0028] As a further solution of the present invention: the viscosity change module can receive information processed by the data processing module. When drawing the actual rheological diagram, it is necessary to summarize the viscosity change data and the pressure change data to generate the actual change data, and then draw the actual rheological diagram according to the actual change data, and formulate the difference index at the same time. Suppose the viscosity change data is , assuming the pressure change data is , assuming the viscosity-pressure difference is , let the abnormal difference index be ;

[0029]

[0030] According to the above formula, the viscosity-pressure difference can be calculated;

[0031] When the viscosity-pressure difference is greater than 1, it is judged to be an abnormal difference, and its position is marked;

[0032] When the viscosity-pressure difference is less than 1, the viscosity-pressure difference is judged to be a normal difference.

[0033] As a further solution of the present invention: after generating the sub-rheological process information, the stage calibration module will synchronously establish an interval extraction unit, and detect the concrete material in the sub-rheological process information and the water content in the concrete material according to the interval extraction unit, and analyze the rheological parameters of the concrete material according to the detected water content.

[0034] As a further solution of the present invention: after the ideal analysis module extracts the actual rheological diagram information, it will split the actual rheological diagram information to obtain the drawing method of the actual rheological diagram information, and then draw different ideal rheological diagrams according to the drawing method of the actual rheological diagram information;

[0035] The gap information between the actual rheological diagram and the ideal rheological diagram is extracted, and the reasons for the gap information are analyzed. A proposed compensation plan is generated based on the reasons for the gap information and the corresponding gap information, and the correction effect of the proposed compensation plan is analyzed. The staff confirms the use and deletion of the proposed compensation plan. When it is confirmed to be used, the proposed compensation plan information will be transmitted to the data processing module.

[0036] By adopting the above technical solution, compared with the prior art, the beneficial effects of the present invention are:

[0037] 1. The present invention can detect the pressure required for the pressure sensor to move in the concrete through the pressure detection module, analyze the resistance, and help understand the internal structure and resistance characteristics of the concrete, so that the rheological parameters of the concrete material can be analyzed more accurately. The viscosity change module helps to ensure the performance and quality of the concrete in actual use. The stage calibration module analyzes the overall process of the rheological parameter change of the concrete material, generates rheological change data for calibration, improves the accuracy and reliability of the rheological diagram, and helps to find the difference between the actual use and the ideal state, providing a direction for optimizing the concrete proportion scheme and production process;

[0038] 2. The present invention can comprehensively detect the pressure required by the pressure sensor when it moves in the concrete material through the pressure detection module, which helps to more accurately understand the resistance characteristics of concrete under different flow conditions, improve the accuracy and reliability of pressure detection, and improve the quality and reliability of data by eliminating abnormal data. It can effectively judge whether the data is abnormal, avoid the interference of abnormal data on subsequent analysis, and provide reliable data support for the rheological parameter analysis of concrete materials;

[0039] 3. The present invention can make the drawing of the actual rheological diagram more scientific and accurate through the viscosity change module, and can fully reflect the actual performance of the concrete material. The stage calibration module can improve the accuracy and comprehensiveness of the rheological parameter analysis of the concrete material, and better understand the performance changes of the concrete material at different stages, which provides an important basis for optimizing the concrete material formula and construction process. The ideal analysis module helps to discover problems in actual production, provides information for improving the proportion of concrete materials, and helps to continuously optimize the formula ratio of concrete materials. BRIEF DESCRIPTION OF THE DRAWINGS

[0040] Figure 1 Schematic diagram of the system flow in an embodiment of the present invention. DETAILED DESCRIPTION

[0041] The specific embodiments of the present invention will be further described below in conjunction with the accompanying drawings. It should be noted that the description of these embodiments is used to help understand the present invention, but does not constitute a limitation of the present invention.

[0042] In addition, the technical features involved in the various embodiments of the present invention described below can be combined with each other as long as they do not conflict with each other.

[0043] Embodiment 1:

[0044] Therefore, in order to effectively solve the above problems, the present application proposes a new real-time measurement system for rheological parameters of concrete materials, as shown in the accompanying drawings of the specification. Figure 1As shown, it includes a preparation module, a rotation viscosity module, a pressure detection module, a data processing module, a viscosity change module and a stage calibration module;

[0045] A preparation module is used to prepare concrete materials, obtain information about concrete materials, generate different concrete material proportion schemes, and manufacture concrete material rheological samples according to different concrete material proportion schemes;

[0046] According to different engineering demand scenarios, such as high-rise buildings, bridge construction, road paving, etc., the component weights in the material proportion scheme are adjusted in a targeted manner. For high-rise buildings, higher-strength concrete is required. The preparation module will increase the proportion of cement and adjust the type of admixture to meet the requirements of vertical pumping;

[0047] Rotational viscosity module, using a rotational viscometer to detect the viscosity information of concrete materials;

[0048] The pressure detection module can detect the pressure required by the pressure sensor when it moves in the concrete material and analyze the resistance encountered by the pressure sensor when moving;

[0049] The data processing module acquires the data changes of the rotational viscometer and the pressure sensor in real time, and generates viscosity change data and pressure change data;

[0050] The viscosity change module analyzes the flow parameters of concrete materials according to the viscosity change data and the pressure change data, and plots them into an actual rheological diagram. It also analyzes the flow parameter thresholds of concrete materials that do not affect daily use, and marks them into the actual rheological diagram.

[0051] The stage calibration module analyzes the overall process of the change of rheological parameters of concrete materials, generates the overall rheological process information, separates the overall rheological process information, generates sub-rheological process information, detects the change of water content of concrete materials in the sub-rheological process, thereby judging the change of rheological parameters of concrete materials, generates rheological change data, compares the actual rheological diagram according to the rheological change data, and calibrates it;

[0052] Insert an adaptive calibration algorithm to automatically adjust the calibration parameters according to the actual changes in the concrete material. The algorithm can monitor the difference between the rheological change data and the actual rheological diagram in real time and automatically adjust the calibration strategy according to the difference.

[0053] It also includes an ideal analysis module, which can obtain information on different concrete material ratio schemes, then extract actual rheological diagram information, analyze the changes in rheological parameters of different concrete material ratio schemes under ideal conditions, thereby generating different ideal rheological diagrams, comparing the actual rheological diagram with the ideal rheological diagram, and analyzing the gap between the actual rheological diagram and the ideal rheological diagram;

[0054] Specific workflow: generate different concrete material proportion schemes, manufacture concrete material rheological samples, use a rotational viscometer to detect the viscosity information of the concrete material, detect the pressure required for the pressure sensor to move in the concrete material, generate viscosity change data and pressure change data, analyze the flow parameters of the concrete material, draw the actual rheological diagram, mark the concrete material flow parameter threshold that does not affect daily use into the actual rheological diagram, generate total rheological process information and sub-rheological process information, detect the change in water content of the concrete material in the sub-rheological process, generate rheological change data, compare the actual rheological diagram according to the rheological change data, and calibrate it, generate different ideal rheological diagrams, compare the actual rheological diagram with the ideal rheological diagram, and analyze the gap between the actual rheological diagram and the ideal rheological diagram;

[0055] Furthermore, the pressure detection module can detect the pressure required for the pressure sensor to move in the concrete material and analyze the resistance, which helps to understand the internal structure and resistance characteristics of the concrete material, so that the rheological parameters of the concrete material can be analyzed more accurately. The viscosity change module helps to ensure the performance and quality of the concrete material in actual use. The stage calibration module analyzes the overall process of the change of the rheological parameters of the concrete material, generates rheological change data for calibration, improves the accuracy and reliability of the rheological diagram, and helps to discover the difference between actual use and the ideal state, providing a direction for optimizing the proportion scheme of concrete materials and the production process.

[0056] Embodiment 2:

[0057] Based on the first embodiment, as shown in the accompanying drawings of the specification Figure 1 As shown, when the preparation module generates different concrete material proportion schemes, it will adjust the proportion of concrete materials. When adjusting the proportion of concrete materials, it will simultaneously establish an adjustment unit, and then synchronously adjust the proportion of concrete materials according to the information in the adjustment unit. The adjustment unit includes a proportion adjustment method and a component adjustment method.

[0058] The proportion adjustment method is to calculate the adjusted concrete material weight according to the set ratio, and then adjust the proportion of the concrete material. Suppose the current concrete material weight is , assuming the adjustment ratio is , assuming the total weight of the adjusted concrete material is ;

[0059]

[0060] According to the above formula, the adjusted concrete material weight can be calculated;

[0061] The component adjustment method is to adjust the proportion of concrete materials according to the set component. Suppose the adjusted component is ;

[0062]

[0063] The adjusted total amount of concrete materials can be calculated according to the above formula. When the proportion of concrete materials needs to be adjusted again after the proportion adjustment is completed, the adjusted total amount of concrete materials will cover the current amount of concrete materials, thereby generating different concrete material proportion schemes.

[0064] Analyze the adjustment effects under different project types, environmental conditions and material properties, and train the model to predict which adjustment method is more likely to obtain the ideal concrete material ratio solution;

[0065] When adjusting the proportion of concrete materials, the strength, durability and cost of concrete materials are taken into consideration simultaneously. By establishing a multi-objective optimization model, the best balance between multiple performance indicators is found to improve the comprehensive performance of concrete materials.

[0066] The pressure detection module needs to use a flow detection method and a fixed detection method when detecting the pressure required by the pressure sensor when it moves in the concrete material;

[0067] The flow detection method is to place the pressure sensor's pressure detection part into the concrete material rheological sample, then drive the pressure sensor to move in the concrete material rheological sample according to the set pressure, and obtain the resistance information of the pressure sensor during the movement in real time;

[0068] The fixed detection method is to install the detection part of the pressure sensor in the inclined pipe, and then pour the concrete material rheological sample from the higher end into the inclined pipe, so that the concrete material rheological sample flows downward from a high place. When the concrete material rheological sample passes through the pressure sensor, the pressure sensor can detect the resistance information of the concrete material rheological sample during flow.

[0069] Use special coating materials to reduce the friction of the inner wall of the pipe and improve the accuracy of pressure sensor detection;

[0070] Establishing temperature and humidity compensation models can eliminate or reduce the interference of various factors on pressure monitoring results;

[0071] After generating the viscosity change data and the pressure change data, the data processing module will remove the abnormal data in the viscosity change data and the pressure change data. Suppose the viscosity change data or the pressure change data detected at the Lth time is , let the viscosity change data or pressure change data detected at the L-1th time be , let the data change index be ;

[0072]

[0073] According to the above formula, the data change index can be calculated. Assume that the threshold of abnormal data times is , let the abnormal data judgment index be ;

[0074] When the data change index Continuously exceed The number of times higher than When , the data change index is judged to be an abnormal data change;

[0075] When the data change index exceeds The number of times is lower than When , the data change index is judged to be a normal data change;

[0076] According to the resistance information provided by the pressure detection module, the measurement parameters of the rotation viscosity module are adjusted to improve the accuracy of viscosity detection; according to the concrete material proportion scheme provided by the preparation module, the data change law under different proportions is analyzed to provide a basis for optimizing the proportion scheme;

[0077] Specific workflow: Use the proportion adjustment method or the component adjustment method to synchronously adjust the proportion of concrete materials, so as to generate different concrete material proportion schemes, and then use the flow detection method and the fixed detection method to detect the resistance information of the pressure sensor when it moves in the concrete flow sample, calculate the data change index, and judge the relationship between the data change index and the abnormal data judgment index, so as to judge whether the viscosity change data or pressure change data corresponding to the data change index is abnormal, and eliminate the abnormal data in the viscosity change data and the pressure change data;

[0078] Furthermore, the pressure detection module can comprehensively detect the pressure required by the pressure sensor when moving in the concrete material, which helps to more accurately understand the resistance characteristics of the concrete material under different flow conditions, improve the accuracy and reliability of pressure detection, and improve the quality and reliability of the data by eliminating abnormal data. It can effectively judge whether the data is abnormal and avoid the interference of abnormal data on subsequent analysis, providing reliable data support for the rheological parameter analysis of concrete materials.

[0079] Embodiment three:

[0080] Based on the second embodiment, as shown in the accompanying drawings of the specification Figure 1 As shown, the viscosity change module can receive the information processed by the data processing module. When drawing the actual rheological diagram, it is necessary to summarize the viscosity change data and the pressure change data to generate the actual change data, and then draw the actual rheological diagram according to the actual change data, and formulate the difference index at the same time. Suppose the viscosity change data is , assuming the pressure change data is , assuming the viscosity-pressure difference is , let the abnormal difference index be ;

[0081]

[0082] According to the above formula, the viscosity-pressure difference can be calculated;

[0083] When the viscosity-pressure difference is greater than 1, it is judged to be an abnormal difference, and its position is marked;

[0084] When the viscosity-pressure difference is less than 1, the viscosity-pressure difference is judged to be a normal difference;

[0085] By analyzing the periodicity, trend and randomness of the data, the changes in the rheological parameters of concrete materials at different time points in the future are predicted;

[0086] Establishing an abnormal difference automatic detection model can automatically adjust the abnormal difference index according to different concrete material types, construction conditions and engineering requirements, thus improving the accuracy and adaptability of abnormal detection;

[0087] After generating the sub-rheological process information, the stage calibration module will simultaneously establish an interval extraction unit, detect the concrete material in the sub-rheological process information and the water content in the concrete material according to the interval extraction unit, and analyze the rheological parameters of the concrete material according to the detected water content;

[0088] Increase the spatial density of interval extraction at key locations to improve calibration accuracy;

[0089] For concrete materials with greater fluidity, the time interval between extractions can be shortened to monitor the changes in water content and rheological parameters more timely;

[0090] After the ideal analysis module extracts the actual rheological diagram information, it will split the actual rheological diagram information to obtain the drawing method of the actual rheological diagram information. At this time, different ideal rheological diagrams are drawn according to the drawing method of the actual rheological diagram information.

[0091] Extract the gap information between the actual rheological diagram and the ideal rheological diagram, analyze the reasons for the gap information, generate a proposed compensation plan based on the reasons for the gap information and the corresponding gap information, and analyze the correction effect of the proposed compensation plan. The staff will confirm the use and delete it. When it is confirmed to be used, the proposed compensation plan information will be transmitted to the data processing module;

[0092] Specific workflow: When drawing the actual rheological diagram, it is necessary to summarize the viscosity change data and pressure change data, generate the actual change data, and formulate the difference index at the same time. The change data with a viscosity-pressure difference greater than 1 is regarded as an abnormal difference, and its position is marked. According to the interval extraction unit, the concrete material in the sub-rheological process information is tested for the water content in the concrete material, the rheological parameters of the concrete material are analyzed, and the drawing method of the actual rheological diagram information is obtained. Different ideal rheological diagrams are drawn, and the gap information between the actual rheological diagram and the ideal rheological diagram is extracted. The reasons for the gap information are analyzed, and a proposed compensation plan is generated, and the correction effect of the proposed compensation plan is analyzed;

[0093] Furthermore, the viscosity change module can make the drawing of actual rheological diagrams more scientific and accurate, and can fully reflect the actual performance of concrete materials. The stage calibration module can improve the accuracy and comprehensiveness of the analysis of rheological parameters of concrete materials, and better understand the performance changes of concrete materials at different stages, which provides an important basis for optimizing the formula and construction process of concrete materials. The ideal analysis module helps to discover problems in actual production, provide information for improving the proportion of concrete materials, and help to continuously optimize the formula ratio of concrete materials.

[0094] The above shows and describes the basic principles, main features and advantages of the present invention. It should be understood by those skilled in the art that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. A real-time measurement system for rheological parameters of new concrete materials, characterized by: It includes a preparation module, a rotation viscosity module, a pressure detection module, a data processing module, a viscosity change module and a stage calibration module; A preparation module is used to prepare concrete materials, obtain information about concrete materials, generate different concrete material proportion schemes, and manufacture concrete material rheological samples according to different concrete material proportion schemes; Rotational viscosity module, using a rotational viscometer to detect the viscosity information of concrete materials; The pressure detection module can detect the pressure required by the pressure sensor when it moves in the concrete material and analyze the resistance encountered by the pressure sensor when moving; The data processing module acquires the data changes of the rotational viscometer and the pressure sensor in real time, and generates viscosity change data and pressure change data; The viscosity change module analyzes the flow parameters of concrete materials according to the viscosity change data and the pressure change data, and plots them into an actual rheological diagram. It also analyzes the flow parameter thresholds of concrete materials that do not affect daily use, and marks them into the actual rheological diagram. The stage calibration module analyzes the overall process of rheological parameter changes of concrete materials, generates overall rheological process information, separates the overall rheological process information, generates sub-rheological process information, detects the change of water content of concrete materials in the sub-rheological process, thereby determining the change of rheological parameters of concrete materials, generates rheological change data, compares the actual rheological diagram based on the rheological change data, and calibrates it.

2. A real-time measurement system for rheological parameters of new concrete materials according to claim 1, characterized in that: It also includes an ideal analysis module, which can obtain information on different concrete material proportion schemes, then extract actual rheological diagram information, analyze the changes in rheological parameters of different concrete material proportion schemes under ideal conditions, thereby generating different ideal rheological diagrams, comparing the actual rheological diagram with the ideal rheological diagram, and analyzing the gap between the actual rheological diagram and the ideal rheological diagram.

3. The real-time measurement system for rheological parameters of new concrete materials according to claim 1 is characterized in that: When generating different concrete material proportion schemes, the preparation module will adjust the proportion of concrete materials. When adjusting the proportion of concrete materials, an adjustment unit will be established synchronously, and then the proportion of concrete materials will be synchronously adjusted according to the information in the adjustment unit. The adjustment unit includes a proportion adjustment method and a component adjustment method.

4. The real-time measurement system for rheological parameters of new concrete materials according to claim 3 is characterized by: The proportion adjustment method is to calculate the adjusted concrete material weight according to the set ratio, and then adjust the proportion of the concrete material. Suppose the current concrete material weight is , assuming the adjustment ratio is , assuming the total weight of the adjusted concrete material is ; ； According to the above formula, the adjusted concrete material weight can be calculated; The component adjustment method is to adjust the proportion of concrete materials according to the set component. Suppose the adjusted component is ; ； The adjusted total amount of concrete materials can be calculated according to the above formula. When the concrete material proportion needs to be adjusted again after the proportion adjustment is completed, the adjusted total amount of concrete materials will cover the current amount of concrete materials, thereby generating different concrete material proportion schemes.

5. The real-time measurement system for rheological parameters of new concrete materials according to claim 1 is characterized in that: The pressure detection module needs to use a flow detection method and a fixed detection method when detecting the pressure required by the pressure sensor when it moves in the concrete material; The flow detection method is to place the pressure sensor's pressure detection part into the concrete material rheological sample, then drive the pressure sensor to move in the concrete material rheological sample according to the set pressure, and obtain the resistance information of the pressure sensor during the movement in real time; The fixed detection method refers to installing the detection part of the pressure sensor in an inclined pipe, and then pouring the rheological sample of the concrete material into the inclined pipe from the higher end, so that the rheological sample of the concrete material flows downward from a high place. When the rheological sample of the concrete material passes through the pressure sensor, the pressure sensor can detect the resistance information of the rheological sample of the concrete material during flow.

6. The real-time measurement system for rheological parameters of new concrete materials according to claim 1 is characterized by: After generating the viscosity change data and the pressure change data, the data processing module will remove the abnormal data in the viscosity change data and the pressure change data. Suppose the viscosity change data or the pressure change data detected at the Lth time is , let the viscosity change data or pressure change data detected at the L-1th time be , let the data change index be ; ； According to the above formula, the data change index can be calculated. Assume that the threshold of abnormal data times is , let the abnormal data judgment index be ; When the data change index Continuously exceed The number of times higher than When , the data change index is judged to be an abnormal data change; When the data change index exceeds The number of times is lower than , the data change index is judged to be a normal data change.

7. A real-time measurement system for rheological parameters of new concrete materials according to claim 6, characterized in that: The viscosity change module can receive information processed by the data processing module. When drawing the actual rheological diagram, it is necessary to summarize the viscosity change data and the pressure change data to generate the actual change data, and then draw the actual rheological diagram according to the actual change data, and formulate the difference index at the same time. Suppose the viscosity change data is , assuming the pressure change data is , assuming the viscosity-pressure difference is , let the abnormal difference index be ; ； According to the above formula, the viscosity-pressure difference can be calculated; When the viscosity-pressure difference is greater than 1, it is judged to be an abnormal difference, and its position is marked; When the viscosity-pressure difference is less than 1, the viscosity-pressure difference is judged to be a normal difference.

8. The real-time measurement system for rheological parameters of new concrete materials according to claim 1 is characterized by: After generating the sub-rheological process information, the stage calibration module will simultaneously establish an interval extraction unit, detect the concrete material in the sub-rheological process information and the water content in the concrete material according to the interval extraction unit, and analyze the rheological parameters of the concrete material according to the detected water content.

9. A real-time measurement system for rheological parameters of new concrete materials according to claim 2, characterized in that: After the ideal analysis module extracts the actual rheological diagram information, it will split the actual rheological diagram information to obtain the drawing method of the actual rheological diagram information, and then draw different ideal rheological diagrams according to the drawing method of the actual rheological diagram information; The gap information between the actual rheological diagram and the ideal rheological diagram is extracted, and the reasons for the gap information are analyzed. A proposed compensation plan is generated based on the reasons for the gap information and the corresponding gap information, and the correction effect of the proposed compensation plan is analyzed. The staff confirms the use and deletion of the proposed compensation plan. When it is confirmed to be used, the proposed compensation plan information will be transmitted to the data processing module.

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