Efficient production control method for niobium-aluminum alloy

Abstract

The invention discloses an efficient production control method for a niobium-aluminum alloy. The method comprises the steps that raw materials of the niobium-aluminum alloy are obtained; based on a preset proportion, the niobium-aluminum alloy raw material is prepared according to the preset proportion, and a niobium-aluminum alloy mixed raw material is obtained; the niobium-aluminum alloy mixed raw material is conveyed to preset smelting equipment to be smelted, and mixed liquid is obtained; and the mixed liquid is discharged to a preset casting mold through a discharging opening and is annealed and cooled, and the niobium-aluminum alloy of the preset specification is obtained. A modern process monitoring technology is used, data of the niobium-aluminum alloy in the production process are collected in real time, and the stability of the production process is ensured; and a production feedback mechanism is constructed, and process parameters are adjusted in time so as to cope with unpredictable changes in the production process.

Description

Technical Field

[0001] The present invention relates to the technical field of production control, and more specifically, to a high-efficiency production control method for niobium aluminum alloy. Background Art

[0002] Niobium aluminum alloy has excellent physical and chemical properties and is an important material in the modern high-tech field. The production process of niobium aluminum alloy involves major steps such as raw material selection, alloy ratio, smelting process, casting technology, annealing and cooling. Any errors in the coordination between each step will affect the performance of niobium aluminum alloy. Therefore, modern process monitoring technology, real-time data collection and analysis are needed to improve the efficient production of niobium aluminum alloy. Summary of the invention

[0003] In view of the above problems, an object of the present invention is to provide a highly efficient production control method of niobium aluminum alloy, which can more effectively improve the production efficiency and quality of niobium aluminum alloy.

[0004] The present invention provides a highly efficient production control method for niobium aluminum alloy, comprising:

[0005] Obtaining raw materials for niobium aluminum alloy;

[0006] Based on the preset ratio, the raw materials of the niobium aluminum alloy are configured according to the preset ratio to obtain a mixed raw material of the niobium aluminum alloy;

[0007] The mixed raw materials of niobium aluminum alloy are transported to a preset smelting device for smelting to obtain a mixed liquid;

[0008] The mixed liquid is discharged to a preset casting mold through a discharge port and annealed and cooled to obtain a niobium-aluminum alloy of preset specifications.

[0009] In this solution, after obtaining the raw materials of niobium aluminum alloy, the process further includes:

[0010] The particle size of the raw materials from which the niobium aluminum alloy is extracted;

[0011] When the particle size of the raw material of the niobium aluminum alloy is greater than or equal to the preset grid size, the corresponding raw material of the niobium aluminum alloy is screened out and temporarily stored;

[0012] When the particle size of the raw material of the niobium aluminum alloy is smaller than the preset grid size, the raw material of the corresponding niobium aluminum alloy is allowed to be configured.

[0013] This plan also includes:

[0014] Extract the weight of the raw materials in temporary storage and the total weight value of the corresponding raw material input;

[0015] Divide the weight of the raw materials in temporary storage by the total weight of the input of the corresponding raw materials to obtain the qualified rate of the corresponding raw materials;

[0016] If the qualified rate of the corresponding raw material is less than the preset first qualified rate threshold, a warning message is triggered;

[0017] When the qualified rate of the corresponding raw material is greater than or equal to the preset first qualified rate threshold, and the weight of the raw material in temporary storage is greater than the preset first weight threshold, the raw material in temporary storage is sent to the preset crushing equipment for crushing.

[0018] In this solution, the step of conveying the mixed raw materials of niobium aluminum alloy to a preset smelting equipment for smelting includes:

[0019] Obtain the weight value of mixed raw materials in the preset smelting equipment;

[0020] Determine whether the weight value of the mixed raw materials in the preset smelting equipment is within a preset first weight range, and if so, stir the mixed raw materials based on a preset first speed; if not, trigger a weight prompt message;

[0021] Obtaining the temperature value of the mixed raw materials in the preset smelting equipment;

[0022] According to the preset temperature value of the mixed raw materials in the smelting equipment, determining the preset temperature value range within which the temperature value of the corresponding mixed raw materials falls;

[0023] According to the preset temperature value range that the temperature value of the mixed raw material falls into, the preset stirring speed adjustment table is searched to obtain the speed adjustment value corresponding to the mixed raw material;

[0024] The speed adjustment value of the mixed raw material and the preset first speed are accumulated to obtain the actual stirring speed of the mixed raw material by the preset smelting equipment.

[0025] In this solution, after the weight prompt information is triggered, the following is also included:

[0026] When the weight value of the mixed raw materials in the preset smelting equipment is greater than the maximum value in the preset first weight range, the preset calibration weight value is subtracted from the weight value of the mixed raw materials in the preset smelting equipment to obtain the excess weight value;

[0027] Based on the excess weight value, the mixed raw materials in the preset smelting equipment are discharged through the preset raw material discharge port;

[0028] When the weight value of the mixed raw materials in the preset smelting equipment is less than the minimum value in the preset first weight range, the preset calibration weight value is subtracted from the weight value of the mixed raw materials in the preset smelting equipment to obtain the missing weight value;

[0029] Based on the lack of weight value, raw material input is done through the preset raw material input port.

[0030] In this solution, after obtaining the temperature value of the mixed raw materials in the preset smelting equipment, it also includes:

[0031] Based on the preset time sensor, each temperature value is marked with a time to obtain the time node of each temperature value;

[0032] The temperature values ​​of the mixed raw materials in the preset smelting equipment are sorted in chronological order, and the difference between the temperature values ​​at adjacent time nodes is calculated to obtain a first temperature difference;

[0033] Performing difference calculation on adjacent time nodes corresponding to the first temperature difference to obtain a first time difference;

[0034] Dividing the first temperature difference by the first time difference to obtain a first heating rate;

[0035] Determine whether the first heating rate is within a preset heating rate range, if so, the corresponding preset smelting equipment is heating normally; if not, generate heating adjustment information;

[0036] The mixed raw materials in the currently preset smelting equipment are heated according to the temperature increase adjustment information.

[0037] In this solution, the step of generating the temperature increase adjustment information specifically includes:

[0038] When the first heating rate is less than the minimum value in the preset heating rate range, extracting the minimum value in the preset heating rate range;

[0039] Subtract the first heating rate from the minimum value in the preset heating rate range to obtain a first heating rate difference;

[0040] Obtaining a first temperature rise adjustment level according to a preset temperature rise rate difference range within which the first temperature rise rate difference falls;

[0041] increasing the heating level of the corresponding preset smelting equipment based on the first temperature increase adjustment level;

[0042] When the first heating rate is greater than the maximum value in the preset heating rate range, extracting the maximum value in the preset heating rate range;

[0043] Subtract the maximum value in the preset heating rate range from the first heating rate to obtain a second heating rate difference;

[0044] Obtaining a second temperature rise adjustment level according to a preset temperature rise rate difference range within which the second temperature rise rate difference falls;

[0045] The heating level of the corresponding preset smelting equipment is reduced based on the second temperature increase adjustment level.

[0046] In this solution, the annealing and cooling step specifically includes:

[0047] Obtaining the annealing steps of the niobium aluminum alloy and the duration of each annealing step;

[0048] Extracting the temperature difference of the niobium aluminum alloy during annealing based on a preset time interval;

[0049] According to the annealing steps of the niobium aluminum alloy, a preset standard temperature difference range table is searched to obtain a standard temperature difference range corresponding to the annealing steps of the niobium aluminum alloy;

[0050] When the temperature difference of the niobium aluminum alloy during annealing is within the standard temperature difference range of the annealing step of the corresponding niobium aluminum alloy, the temperature of the corresponding niobium aluminum alloy is normal;

[0051] When the temperature difference of the niobium aluminum alloy during annealing is within the standard temperature difference range of the annealing step of the corresponding niobium aluminum alloy, the temperature of the corresponding niobium aluminum alloy is abnormal, and an abnormal annealing temperature warning message is triggered;

[0052] The abnormal annealing temperature warning information is sent to a preset management terminal for prompting.

[0053] In this solution, after obtaining the niobium aluminum alloy of preset specifications, the method further includes:

[0054] Based on the preset testing equipment, the niobium aluminum alloy of the preset specifications is tested to obtain the test results;

[0055] Extract features and corresponding feature values ​​from the detection results;

[0056] If the characteristic value in the test result is within the preset standard characteristic range of the corresponding characteristic, the characteristic in the corresponding test result meets the requirements;

[0057] If the feature value in the test result is not within the preset standard feature range of the corresponding feature, the feature in the corresponding test result does not meet the requirements;

[0058] Features that do not meet the requirements are sent to the preset management end for prompting.

[0059] The invention discloses an efficient production control method for niobium aluminum alloy, which uses modern process monitoring technology to collect data of niobium aluminum alloy in the production process in real time to ensure the stability of the production process; and constructs a production feedback mechanism to adjust process parameters in time to cope with unpredictable changes in the production process. BRIEF DESCRIPTION OF THE DRAWINGS

[0060] Figure 1A flow chart of a highly efficient production control method of niobium aluminum alloy according to the present invention is shown. DETAILED DESCRIPTION

[0061] In order to more clearly understand the above-mentioned purpose, features and advantages of the present invention, the present invention is further described in detail below in conjunction with the accompanying drawings and specific embodiments. It should be noted that the embodiments of the present application and the features in the embodiments can be combined with each other without conflict.

[0062] In the following description, many specific details are set forth to facilitate a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the protection scope of the present invention is not limited to the specific embodiments disclosed below.

[0063] Figure 1 A flow chart of a highly efficient production control method of niobium aluminum alloy according to the present invention is shown.

[0064] like Figure 1 As shown, the present invention discloses a highly efficient production control method of niobium aluminum alloy, comprising:

[0065] S101, obtaining raw materials of niobium aluminum alloy;

[0066] S102, based on a preset ratio, the raw materials of the niobium aluminum alloy are configured according to a preset ratio to obtain a mixed raw material of the niobium aluminum alloy;

[0067] S103, transporting the mixed raw materials of niobium aluminum alloy to a preset smelting device for smelting to obtain a mixed liquid;

[0068] S104, discharging the mixed liquid through the discharge port to a preset casting mold and annealing and cooling to obtain a niobium aluminum alloy of preset specifications.

[0069] According to an embodiment of the present invention, the niobium aluminum alloy is composed of two raw materials, niobium and aluminum, in a certain configuration ratio. According to different configuration ratios, the performance of the corresponding niobium aluminum alloy is also different. The preset smelting equipment is a closed smelting equipment. When the mixed raw materials are smelted, the empty positions in the corresponding preset smelting equipment are filled with inert gas to prevent the niobium aluminum alloy from being oxidized or contaminated by other gases.

[0070] According to an embodiment of the present invention, after obtaining the raw material of the niobium aluminum alloy, the method further includes:

[0071] The particle size of the raw materials from which the niobium aluminum alloy is extracted;

[0072] When the particle size of the raw material of the niobium aluminum alloy is greater than or equal to the preset grid size, the corresponding raw material of the niobium aluminum alloy is screened out and temporarily stored;

[0073] When the particle size of the raw material of the niobium aluminum alloy is smaller than the preset grid size, the raw material of the corresponding niobium aluminum alloy is allowed to be configured.

[0074] It should be noted that screening the raw materials of the niobium aluminum alloy by presetting the grid size and removing the raw materials with excessively large particle sizes can help to increase the smelting speed of the raw materials of the niobium aluminum alloy.

[0075] According to an embodiment of the present invention, it also includes:

[0076] Extract the weight of the raw materials in temporary storage and the total weight value of the corresponding raw material input;

[0077] Divide the weight of the raw materials in temporary storage by the total weight of the input of the corresponding raw materials to obtain the qualified rate of the corresponding raw materials;

[0078] If the qualified rate of the corresponding raw material is less than the preset first qualified rate threshold, a warning message is triggered;

[0079] When the qualified rate of the corresponding raw material is greater than or equal to the preset first qualified rate threshold, and the weight of the raw material in temporary storage is greater than the preset first weight threshold, the raw material in temporary storage is sent to the preset crushing equipment for crushing.

[0080] It should be noted that the raw materials are aluminum and niobium with a purity greater than a preset purity. The qualified rate of the raw materials is used to determine whether the particle size of the corresponding raw materials meets the requirements, thereby reducing the time for crushing processing.

[0081] According to an embodiment of the present invention, the step of conveying the mixed raw materials of niobium aluminum alloy to a preset smelting device for smelting includes:

[0082] Obtain the weight value of mixed raw materials in the preset smelting equipment;

[0083] Determine whether the weight value of the mixed raw materials in the preset smelting equipment is within a preset first weight range, and if so, stir the mixed raw materials based on a preset first speed; if not, trigger a weight prompt message;

[0084] Obtaining the temperature value of the mixed raw materials in the preset smelting equipment;

[0085] According to the preset temperature value of the mixed raw materials in the smelting equipment, determining the preset temperature value range within which the temperature value of the corresponding mixed raw materials falls;

[0086] According to the preset temperature value range that the temperature value of the mixed raw material falls into, the preset stirring speed adjustment table is searched to obtain the speed adjustment value corresponding to the mixed raw material;

[0087] The speed adjustment value of the mixed raw material and the preset first speed are accumulated to obtain the actual stirring speed of the mixed raw material by the preset smelting equipment.

[0088] It should be noted that the mixed raw materials of niobium aluminum alloy are heated and melted in a preset smelting equipment. During the heating and melting period, the mixed raw materials of niobium aluminum alloy are continuously stirred by a preset stirring equipment so that the mixed raw materials are heated and mixed evenly, wherein the stirring speed varies with the change of the temperature value of the mixed raw materials.

[0089] According to an embodiment of the present invention, after triggering the weight prompt information, the method further includes:

[0090] When the weight value of the mixed raw materials in the preset smelting equipment is greater than the maximum value in the preset first weight range, the preset calibration weight value is subtracted from the weight value of the mixed raw materials in the preset smelting equipment to obtain the excess weight value;

[0091] Based on the excess weight value, the mixed raw materials in the preset smelting equipment are discharged through the preset raw material discharge port;

[0092] When the weight value of the mixed raw materials in the preset smelting equipment is less than the minimum value in the preset first weight range, the preset calibration weight value is subtracted from the weight value of the mixed raw materials in the preset smelting equipment to obtain the missing weight value;

[0093] Based on the lack of weight value, raw material input is done through the preset raw material input port.

[0094] It should be noted that when the weight value of the mixed raw materials in the preset smelting equipment is too large, the niobium aluminum alloy may be unqualified due to uneven stirring; when the weight value of the mixed raw materials in the preset smelting equipment is too small, the output of the corresponding smelted niobium aluminum alloy will be reduced, reducing the production efficiency of the niobium aluminum alloy.

[0095] According to an embodiment of the present invention, after obtaining the temperature value of the mixed raw materials in the preset smelting equipment, the method further includes:

[0096] Based on the preset time sensor, each temperature value is marked with a time to obtain the time node of each temperature value;

[0097] The temperature values ​​of the mixed raw materials in the preset smelting equipment are sorted in chronological order, and the difference between the temperature values ​​at adjacent time nodes is calculated to obtain a first temperature difference;

[0098] Performing difference calculation on adjacent time nodes corresponding to the first temperature difference to obtain a first time difference;

[0099] Dividing the first temperature difference by the first time difference to obtain a first heating rate;

[0100] Determine whether the first heating rate is within a preset heating rate range, if so, the corresponding preset smelting equipment is heating normally; if not, generate heating adjustment information;

[0101] The mixed raw materials in the currently preset smelting equipment are heated according to the temperature increase adjustment information.

[0102] It should be noted that, through the preset electromagnetic induction, the temperature value in the preset smelting equipment is monitored in real time, and the temperature value of the mixed raw materials in the smelting equipment is controlled in real time to prevent excessive oxidation and burning, etc.

[0103] According to an embodiment of the present invention, the step of generating temperature increase adjustment information specifically includes:

[0104] When the first heating rate is less than the minimum value in the preset heating rate range, extracting the minimum value in the preset heating rate range;

[0105] Subtract the first heating rate from the minimum value in the preset heating rate range to obtain a first heating rate difference;

[0106] Obtaining a first temperature rise adjustment level according to a preset temperature rise rate difference range within which the first temperature rise rate difference falls;

[0107] increasing the heating level of the corresponding preset smelting equipment based on the first temperature increase adjustment level;

[0108] When the first heating rate is greater than the maximum value in the preset heating rate range, extracting the maximum value in the preset heating rate range;

[0109] Subtract the maximum value in the preset heating rate range from the first heating rate to obtain a second heating rate difference;

[0110] Obtaining a second temperature rise adjustment level according to a preset temperature rise rate difference range within which the second temperature rise rate difference falls;

[0111] The heating level of the corresponding preset smelting equipment is reduced based on the second temperature increase adjustment level.

[0112] It should be noted that the higher the preset heating level of the smelting equipment, the better the heating effect of the corresponding smelting equipment. When the first heating rate is less than the minimum value in the preset heating rate range, the first heating adjustment level is added to the current heating level of the smelting equipment to obtain the adjusted heating level of the corresponding smelting equipment; when the first heating rate is greater than the maximum value in the preset heating rate range, the current heating level of the smelting equipment is subtracted from the second heating adjustment level to obtain the adjusted heating level of the corresponding smelting equipment.

[0113] According to an embodiment of the present invention, the annealing and cooling step specifically includes:

[0114] Obtaining the annealing steps of the niobium aluminum alloy and the duration of each annealing step;

[0115] Extracting the temperature difference of the niobium aluminum alloy during annealing based on a preset time interval;

[0116] According to the annealing steps of the niobium aluminum alloy, a preset standard temperature difference range table is searched to obtain a standard temperature difference range corresponding to the annealing steps of the niobium aluminum alloy;

[0117] When the temperature difference of the niobium aluminum alloy during annealing is within the standard temperature difference range of the annealing step of the corresponding niobium aluminum alloy, the temperature of the corresponding niobium aluminum alloy is normal;

[0118] When the temperature difference of the niobium aluminum alloy during annealing is within the standard temperature difference range of the annealing step of the corresponding niobium aluminum alloy, the temperature of the corresponding niobium aluminum alloy is abnormal, and an abnormal annealing temperature warning message is triggered;

[0119] The abnormal annealing temperature warning information is sent to a preset management terminal for prompting.

[0120] It should be noted that the annealing step includes a constant temperature holding stage, a slow cooling stage, etc. For example, in the constant temperature holding stage, the niobium aluminum alloy needs to be kept at the annealing temperature for a period of time so that the grains inside the metal can fully grow and rearrange, thereby improving the performance of the niobium aluminum alloy.

[0121] According to an embodiment of the present invention, after obtaining the niobium aluminum alloy of preset specifications, the method further includes:

[0122] Based on the preset testing equipment, the niobium aluminum alloy of the preset specifications is tested to obtain the test results;

[0123] Extract features and corresponding feature values ​​from the detection results;

[0124] If the characteristic value in the test result is within the preset standard characteristic range of the corresponding characteristic, the characteristic in the corresponding test result meets the requirements;

[0125] If the feature value in the test result is not within the preset standard feature range of the corresponding feature, the feature in the corresponding test result does not meet the requirements;

[0126] Features that do not meet the requirements are sent to the preset management end for prompting.

[0127] It should be noted that after the niobium aluminum alloy is demolded, it is necessary to randomly select a certain number of niobium aluminum alloys as test samples and extract the test results of the test samples. The characteristics in the test results include hardness, tensile strength and impact toughness, etc., and determine whether the performance of the corresponding niobium aluminum alloy meets the requirements through various characteristic values; when there are characteristics that do not meet the requirements, the process parameters affecting the corresponding characteristics are adjusted in time.

[0128] The invention discloses an efficient production control method of niobium aluminum alloy, comprising: obtaining raw materials of niobium aluminum alloy; configuring the raw materials of niobium aluminum alloy according to a preset ratio based on a preset ratio to obtain mixed raw materials of niobium aluminum alloy; conveying the mixed raw materials of niobium aluminum alloy to a preset smelting device for smelting to obtain a mixed liquid; discharging the mixed liquid to a preset casting mold through a discharge port and annealing and cooling to obtain a niobium aluminum alloy of preset specifications. The invention uses modern process monitoring technology to collect data of niobium aluminum alloy in the production process in real time to ensure the stability of the production process; and constructs a production feedback mechanism to adjust process parameters in a timely manner to cope with unpredictable changes in the production process.

[0129] In the several embodiments provided in the present application, it should be understood that the disclosed devices and methods can be implemented in other ways. The device embodiments described above are only schematic. For example, the division of the units is only a logical function division. There may be other division methods in actual implementation, such as: multiple units or components can be combined, or can be integrated into another system, or some features can be ignored or not executed. In addition, the coupling, direct coupling, or communication connection between the components shown or discussed can be through some interfaces, and the indirect coupling or communication connection of the devices or units can be electrical, mechanical or other forms.

[0130] The units described above as separate components may or may not be physically separated, and the components displayed as units may or may not be physical units; they may be located in one place or distributed on multiple network units; some or all of the units may be selected according to actual needs to achieve the purpose of the present embodiment.

[0131] In addition, all functional units in the embodiments of the present invention may be integrated into one processing unit, or each unit may be separately used as a unit, or two or more units may be integrated into one unit; the above-mentioned integrated units may be implemented in the form of hardware or in the form of hardware plus software functional units.

[0132] A person of ordinary skill in the art can understand that: all or part of the steps of implementing the above method embodiments can be completed by hardware related to program instructions, and the aforementioned program can be stored in a computer-readable storage medium. When the program is executed, it executes the steps of the above method embodiments; and the aforementioned storage medium includes: mobile storage devices, read-only memories (ROM, Read-Only Memory), random access memories (RAM, Random Access Memory), magnetic disks or optical disks, and other media that can store program codes.

[0133] Alternatively, if the above-mentioned integrated unit of the present invention is implemented in the form of a software function module and sold or used as an independent product, it can also be stored in a computer-readable storage medium. Based on this understanding, the technical solution of the embodiment of the present invention can be essentially or partly reflected in the form of a software product that contributes to the prior art. The computer software product is stored in a storage medium and includes several instructions for a computer device (which can be a personal computer, a server, or a network device, etc.) to execute all or part of the methods described in each embodiment of the present invention. The aforementioned storage medium includes: various media that can store program codes, such as mobile storage devices, ROM, RAM, magnetic disks or optical disks.

Claims

1. A highly efficient production control method for niobium aluminum alloy, characterized in that: include: Obtaining raw materials for niobium aluminum alloy; Based on the preset ratio, the raw materials of the niobium aluminum alloy are configured according to the preset ratio to obtain a mixed raw material of the niobium aluminum alloy; The mixed raw materials of niobium aluminum alloy are transported to a preset smelting device for smelting to obtain a mixed liquid; The mixed liquid is discharged to a preset casting mold through a discharge port and annealed and cooled to obtain a niobium-aluminum alloy of preset specifications.

2. The efficient production control method of niobium aluminum alloy according to claim 1, characterized in that: After obtaining the raw materials of niobium aluminum alloy, the process further includes: The particle size of the raw materials from which the niobium aluminum alloy is extracted; When the particle size of the raw material of the niobium aluminum alloy is greater than or equal to the preset grid size, the corresponding raw material of the niobium aluminum alloy is screened out and temporarily stored; When the particle size of the raw material of the niobium aluminum alloy is smaller than the preset grid size, the raw material of the corresponding niobium aluminum alloy is allowed to be configured.

3. The efficient production control method of niobium aluminum alloy according to claim 2, characterized in that: Also includes: Extract the weight of the raw materials in temporary storage and the total weight value of the corresponding raw material input; Divide the weight of the raw materials in temporary storage by the total weight of the input of the corresponding raw materials to obtain the qualified rate of the corresponding raw materials; If the qualified rate of the corresponding raw material is less than the preset first qualified rate threshold, a warning message is triggered; When the qualified rate of the corresponding raw material is greater than or equal to the preset first qualified rate threshold, and the weight of the raw material in temporary storage is greater than the preset first weight threshold, the raw material in temporary storage is sent to the preset crushing equipment for crushing.

4. The efficient production control method of niobium aluminum alloy according to claim 1, characterized in that: The step of conveying the mixed raw materials of niobium aluminum alloy to a preset smelting device for smelting comprises: Obtain the weight value of mixed raw materials in the preset smelting equipment; Determine whether the weight value of the mixed raw materials in the preset smelting equipment is within a preset first weight range, and if so, stir the mixed raw materials based on a preset first speed; if not, trigger a weight prompt message; Obtaining the temperature value of the mixed raw materials in the preset smelting equipment; According to the preset temperature value of the mixed raw materials in the smelting equipment, determining the preset temperature value range within which the temperature value of the corresponding mixed raw materials falls; According to the preset temperature value range that the temperature value of the mixed raw material falls into, the preset stirring speed adjustment table is searched to obtain the speed adjustment value corresponding to the mixed raw material; The speed adjustment value of the mixed raw material and the preset first speed are accumulated to obtain the actual stirring speed of the mixed raw material by the preset smelting equipment.

5. The efficient production control method of niobium aluminum alloy according to claim 4, characterized in that: After the weight prompt information is triggered, the method further includes: When the weight value of the mixed raw materials in the preset smelting equipment is greater than the maximum value in the preset first weight range, the preset calibration weight value is subtracted from the weight value of the mixed raw materials in the preset smelting equipment to obtain the excess weight value; Based on the excess weight value, the mixed raw materials in the preset smelting equipment are discharged through the preset raw material discharge port; When the weight value of the mixed raw materials in the preset smelting equipment is less than the minimum value in the preset first weight range, the preset calibration weight value is subtracted from the weight value of the mixed raw materials in the preset smelting equipment to obtain the missing weight value; Based on the lack of weight value, raw material input is done through the preset raw material input port.

6. The efficient production control method of niobium aluminum alloy according to claim 4, characterized in that: After obtaining the preset temperature value of the mixed raw materials in the smelting equipment, the method further includes: Based on the preset time sensor, each temperature value is marked with a time to obtain the time node of each temperature value; The temperature values ​​of the mixed raw materials in the preset smelting equipment are sorted in chronological order, and the difference between the temperature values ​​at adjacent time nodes is calculated to obtain a first temperature difference; Performing difference calculation on adjacent time nodes corresponding to the first temperature difference to obtain a first time difference; Dividing the first temperature difference by the first time difference to obtain a first heating rate; Determine whether the first heating rate is within a preset heating rate range, if so, the corresponding preset smelting equipment is heating normally; if not, generate heating adjustment information; The mixed raw materials in the currently preset smelting equipment are heated according to the temperature increase adjustment information.

7. The efficient production control method of niobium aluminum alloy according to claim 6, characterized in that: The step of generating the temperature increase adjustment information specifically includes: When the first heating rate is less than the minimum value in the preset heating rate range, extracting the minimum value in the preset heating rate range; Subtract the first heating rate from the minimum value in the preset heating rate range to obtain a first heating rate difference; Obtaining a first temperature rise adjustment level according to a preset temperature rise rate difference range within which the first temperature rise rate difference falls; increasing the heating level of the corresponding preset smelting equipment based on the first temperature increase adjustment level; When the first heating rate is greater than the maximum value in the preset heating rate range, extracting the maximum value in the preset heating rate range; Subtract the maximum value in the preset heating rate range from the first heating rate to obtain a second heating rate difference; Obtaining a second temperature rise adjustment level according to a preset temperature rise rate difference range within which the second temperature rise rate difference falls; The heating level of the corresponding preset smelting equipment is reduced based on the second temperature increase adjustment level.

8. The efficient production control method of niobium aluminum alloy according to claim 1, characterized in that: The annealing and cooling step specifically includes: Obtaining the annealing steps of the niobium aluminum alloy and the duration of each annealing step; Extracting the temperature difference of the niobium aluminum alloy during annealing based on a preset time interval; According to the annealing steps of the niobium aluminum alloy, a preset standard temperature difference range table is searched to obtain a standard temperature difference range corresponding to the annealing steps of the niobium aluminum alloy; When the temperature difference of the niobium aluminum alloy during annealing is within the standard temperature difference range of the annealing step of the corresponding niobium aluminum alloy, the temperature of the corresponding niobium aluminum alloy is normal; When the temperature difference of the niobium aluminum alloy during annealing is within the standard temperature difference range of the annealing step of the corresponding niobium aluminum alloy, the temperature of the corresponding niobium aluminum alloy is abnormal, and an abnormal annealing temperature warning message is triggered; The abnormal annealing temperature warning information is sent to a preset management terminal for prompting.

9. The efficient production control method of niobium aluminum alloy according to claim 1, characterized in that: After obtaining the niobium aluminum alloy of preset specifications, the method further includes: Based on the preset testing equipment, the niobium aluminum alloy of the preset specifications is tested to obtain the test results; Extract features and corresponding feature values ​​from the detection results; If the characteristic value in the test result is within the preset standard characteristic range of the corresponding characteristic, the characteristic in the corresponding test result meets the requirements; If the feature value in the test result is not within the preset standard feature range of the corresponding feature, the feature in the corresponding test result does not meet the requirements; Features that do not meet the requirements are sent to the preset management end for prompting.

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