Metering production scheduling platform integrated management method and system

Abstract

The invention discloses a metering production scheduling platform integrated management method and system, and relates to the technical field of product production scheduling management, and the method comprises the steps: obtaining order information of a metering production scheduling platform; performing data reading on a database of the measurement production scheduling platform to obtain historical data and material inventory information; screening the material inventory information based on the product raw material composition information, and determining the number of raw materials; and performing judgment processing based on the raw material quantity and the product quantity. The material inventory information is retrieved through the order information, it is ensured that raw materials in the inventory can be used in production, in addition, in the production process, the raw materials are analyzed, damaged raw materials are prevented from being machined into products, the rejection rate is reduced, meanwhile, the product number and the product machining completion time are corrected, and the production efficiency is improved. The data of the product in the production process is more accurate, the state of the machining equipment is monitored, overload of the machining equipment is avoided, and the service life of the machining equipment is prolonged.

Description

Technical Field

[0001] The present invention relates to the technical field of product production scheduling management, and in particular to a comprehensive management method and system for a metrological production scheduling platform. Background Art

[0002] The metrological production scheduling platform refers to a system that uses modern information technology and management methods to monitor, schedule and optimize the resources, tasks and processes in the production process in real time.

[0003] The existing management method of the metrological production scheduling platform does not monitor the status of the processing equipment in real time, resulting in the processing equipment continuing to process in an overloaded state, thereby reducing the service life of the processing equipment. In addition, there is no reasonable analysis of the processed products and allocation of resources based on the data stored in the metrological production scheduling platform, resulting in an increase in the production cycle. Summary of the invention

[0004] In order to solve the above-mentioned technical problems, a comprehensive management method and system for a metrological production scheduling platform are provided. This technical solution solves the problem that the existing metrological production scheduling platform management method proposed in the above-mentioned background technology does not monitor the status of the processing equipment in real time, resulting in the processing equipment continuing to process in an overloaded state, thereby reducing the service life of the processing equipment. In addition, there is no reasonable analysis of the processed products and allocation of resources based on the data stored in the metrological production scheduling platform, which leads to the problem of increased production cycle.

[0005] In order to achieve the above purpose, the technical solution adopted by the present invention is:

[0006] A comprehensive management method for a metrological production scheduling platform, comprising:

[0007] Obtaining order information from the metering production scheduling platform, the order information including product quantity, product specifications and product raw material composition information;

[0008] Read data from the database of the metering production scheduling platform to obtain historical data and material inventory information, wherein the historical data specifically refers to historical operation status information of the equipment;

[0009] Screen and process material inventory information based on product raw material composition information to determine the quantity of raw materials;

[0010] Determine the product processing quantity based on the raw material quantity and product quantity;

[0011] Carry out numbering according to the quantity of raw materials to obtain numbered raw materials;

[0012] Adjust the parameters of the processing equipment based on the product specifications and determine the equipment processing speed;

[0013] Estimated processing is performed based on the product processing quantity and equipment processing speed to obtain the estimated processing completion time;

[0014] Analyze the numbered raw materials to be processed and determine the revised quantity of raw materials;

[0015] Perform the first time correction processing on the estimated processing completion time based on the corrected quantity of raw materials and the processing speed of the equipment to obtain the first corrected processing completion time;

[0016] Monitor processing equipment in real time and obtain real-time operating status information of the equipment;

[0017] Based on the real-time operation status information and historical operation status information of the equipment, judgment and processing are performed to obtain the change in the equipment processing status;

[0018] Perform secondary parameter adjustment on the processing equipment according to the change in processing state to obtain the processing adjustment speed of the equipment;

[0019] The first correction time for completing the processing is corrected for a second time based on the processing adjustment speed of the equipment to obtain the second correction time for completing the processing.

[0020] Preferably, the screening and processing of material inventory information based on product raw material composition information to determine the quantity of raw materials specifically includes the following steps:

[0021] Traverse the material inventory information according to the product raw material composition information to determine the location information of the raw materials in different warehouses;

[0022] Take the raw materials based on their location information in different warehouses to obtain the raw materials;

[0023] Calculate and process the raw materials to determine their quantity.

[0024] Preferably, the determination of the product processing quantity based on the raw material quantity and the product quantity specifically includes the following steps:

[0025] Compare the quantities of raw materials and determine the minimum quantity of raw materials;

[0026] Judgement is based on the minimum amount of raw materials and product quantity;

[0027] If the minimum raw material quantity is greater than or equal to the product quantity, the product quantity is the product processing quantity;

[0028] If the minimum raw material quantity is less than the product quantity, the minimum raw material quantity is the product processing quantity;

[0029] The specific calculation formula for determining the minimum amount of raw materials is:

[0030]

[0031] In the formula, Ma is the minimum number of raw materials; n is the type of raw materials; Mi is the quantity corresponding to each type of raw materials.

[0032] Preferably, the estimating process based on the product processing quantity and the equipment processing speed to obtain the estimated processing completion time specifically includes the following steps:

[0033] Get the time when the first product is finished and the time when the second product starts processing;

[0034] Calculate and process based on the time when the first product is processed and the time when the second product starts processing, to obtain a first processing interval parameter;

[0035] Perform timing processing based on the equipment processing speed to obtain the processing time of each product;

[0036] Calculate and process the product processing quantity, the processing time of each product, and the first processing interval parameter to obtain the estimated processing completion time;

[0037] The specific calculation formula for obtaining the estimated processing completion time is:

[0038] Tb = α × T1 + Tc × (α-1);

[0039] Where Tb is the estimated time to complete processing; α is the number of products processed; T1 is the processing time for each product; and Tc is the first processing interval parameter.

[0040] Preferably, the step of analyzing the numbered raw materials to be processed and determining the revised quantity of the raw materials specifically comprises the following steps:

[0041] Capture images of the numbered raw materials being processed to obtain images of the numbered raw materials;

[0042] Performing feature analysis on the numbered raw material image by a spot detection algorithm to determine damaged raw material information, wherein the damaged raw material information includes damaged number information and damaged quantity;

[0043] Based on the damaged serial number information, the numbered raw materials are eliminated to obtain the corrected quantity of the raw materials.

[0044] Preferably, the first time correction processing is performed on the estimated processing completion time based on the corrected quantity of raw materials and the processing speed of the equipment to obtain the first corrected processing completion time, which specifically includes the following steps:

[0045] If the minimum raw material quantity is the product processing quantity or the difference between the minimum raw material quantity and the damaged quantity in the minimum raw material quantity is less than the product quantity;

[0046] Calculate and process the product processing quantity according to the revised quantity of raw materials to obtain the product processing revised quantity;

[0047] Performing a first time correction process on the estimated processing completion time by using the product processing correction quantity, the processing time of each product, and the first processing interval parameter to obtain the first processing completion correction time;

[0048] If the product quantity is the product processing quantity, and the difference between the minimum raw material quantity and the damaged quantity in the minimum raw material quantity is greater than or equal to the product quantity, the estimated time for processing completion does not need to be revised.

[0049] Preferably, the specific calculation formula for obtaining the first correction time of machining completion is:

[0050] Td=(α-β)×T1+Tc×(α-β-1);

[0051] Where, Td is the first correction time for processing completion; (α-β) is the product processing correction quantity; α is the product processing quantity; T1 is the processing time for each product; Tc is the first processing interval parameter; β is the damage quantity in the minimum raw material quantity.

[0052] Preferably, the determination and processing based on the real-time operation status information of the equipment and the historical operation status information of the equipment to obtain the change in the processing status of the equipment specifically includes the following steps:

[0053] Analyze and process the real-time operation status information and the historical operation status information of the equipment respectively to obtain the real-time processing temperature and the historical processing temperature;

[0054] Make judgments based on real-time processing temperature and historical processing temperature;

[0055] If the real-time processing temperature is greater than the historical processing temperature, the real-time processing temperature and the historical processing temperature are calculated to obtain the change in the equipment processing state;

[0056] If the real-time processing temperature is less than or equal to the historical processing temperature, there is no need to make secondary parameter adjustments to the processing equipment.

[0057] Preferably, performing a secondary correction on the first correction time for processing completion based on the equipment processing adjustment speed to obtain the second correction time for processing completion specifically comprises the following steps:

[0058] Obtain the number of products processed by the processing equipment;

[0059] Calculate and process the number of products that have been processed by the processing equipment and the number of product processing corrections to obtain the number of remaining products to be processed;

[0060] Obtain the time when the first product of the remaining products to be processed is completed and the time when the second product starts to be processed;

[0061] Calculate and process the time when the first product of the remaining products to be processed is completed and the time when the second product starts processing to obtain a second processing interval parameter;

[0062] Perform timing processing according to the equipment processing adjustment speed to obtain the processing adjustment time of each product;

[0063] Calculate and process the remaining number of products to be processed, the processing adjustment time of each product, and the second processing interval parameter to obtain the second correction time for processing completion;

[0064] The specific calculation formula for obtaining the second correction time of machining completion is:

[0065] Te=(α-β-γ)×T2+Tf×(α-β-γ-1);

[0066] Where Te is the second correction time for processing completion; (α-β-γ) is the number of remaining products to be processed; α is the number of products processed; β is the number of damaged products in the minimum number of raw materials; γ is the number of products processed by the processing equipment; T2 is the processing adjustment time for each product; Tf is the second processing interval parameter.

[0067] Furthermore, a comprehensive management system for a metrological production scheduling platform is proposed, which is used to implement a comprehensive management method for a metrological production scheduling platform as described above, including:

[0068] A control module, which is used to control data interaction and instruction transmission between modules;

[0069] A database, the database is used to store historical data and material inventory information;

[0070] Processing equipment, wherein the processing equipment processes the raw materials according to the order information to obtain products;

[0071] An analysis and judgment module, which analyzes and judges the numbered raw materials, the quantity of raw materials and the quantity of products, the real-time operation status information of the equipment and the historical operation status information of the equipment, and determines the revised quantity of raw materials, the processed quantity of products, and the change in the processing status of the equipment;

[0072] A correction module, wherein the correction module corrects the estimated processing completion time twice to obtain a first correction processing completion time and a second correction processing completion time;

[0073] A monitoring module, which is used to monitor the status of processing equipment and obtain real-time operating status information of the equipment;

[0074] A numbering module is used to number the raw material quantities to obtain numbered raw materials.

[0075] Compared with the prior art, the present invention provides a comprehensive management method and system for a metering production scheduling platform, which has the following beneficial effects:

[0076] The present invention retrieves material inventory information through order information to ensure that the raw materials in the inventory can be used in production. In addition, during the production process, the raw materials are analyzed to avoid processing damaged raw materials into products, thereby reducing the scrap rate. At the same time, the product quantity and product processing completion time are corrected to make the product data more accurate during the production process. Moreover, the status of the processing equipment is monitored to avoid overloading of the processing equipment and extend the service life of the processing equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0077] Figure 1 This is a flow chart of steps S100-S1300 in a comprehensive management method for a metering production scheduling platform proposed by the present invention;

[0078] Figure 2 It is a flow chart of steps S301-S303 in a comprehensive management method of a metering production scheduling platform proposed by the present invention;

[0079] Figure 3 A schematic flow chart of steps S401-S404 in a comprehensive management method for a metering production scheduling platform proposed by the present invention;

[0080] Figure 4 This is a flow chart of steps S701-S704 in a comprehensive management method for a metering production scheduling platform proposed by the present invention;

[0081] Figure 5 This is a flow chart of steps S801-S803 in a comprehensive management method for a metering production scheduling platform proposed by the present invention;

[0082] Figure 6 This is a flow chart of steps S901-S904 in a comprehensive management method for a metering production scheduling platform proposed by the present invention;

[0083] Figure 7 This is a flow chart of steps S1101-S1104 in a comprehensive management method for a metering production scheduling platform proposed by the present invention;

[0084] Figure 8 This is a flow chart of steps S1301-S1306 in a comprehensive management method for a metering production scheduling platform proposed by the present invention:

[0085] Fig. 9This is a structural block diagram of a comprehensive management system for a metering production scheduling platform proposed by the present invention. DETAILED DESCRIPTION

[0086] The following description is used to disclose the present invention so that those skilled in the art can implement the present invention. The preferred embodiments described below are only examples, and those skilled in the art may think of other obvious variations.

[0087] Reference Figure 1 As shown, a comprehensive management method for a metrological production scheduling platform includes:

[0088] S100, obtaining order information from the metering production scheduling platform, wherein the order information includes product quantity, product specifications, and product raw material composition information;

[0089] S200, reading data from a database of a metering production scheduling platform to obtain historical data and material inventory information, wherein the historical data is specifically historical operation status information of equipment;

[0090] S300, screening and processing material inventory information based on product raw material composition information to determine the quantity of raw materials;

[0091] S400, judging and processing based on the quantity of raw materials and the quantity of products, and determining the quantity of product processing;

[0092] S500, performing numbering processing according to the quantity of raw materials to obtain numbered raw materials;

[0093] S600, adjusting parameters of processing equipment based on product specifications to determine equipment processing speed;

[0094] S700, performing an estimation process based on the product processing quantity and the equipment processing speed to obtain an estimated processing completion time;

[0095] S800, analyzing the numbered raw materials to be processed and determining the revised quantity of the raw materials;

[0096] S900, performing a first time correction process on the estimated processing completion time based on the corrected quantity of raw materials and the processing speed of the equipment, and obtaining a first corrected processing completion time;

[0097] S1000, monitor the processing equipment in real time and obtain the real-time operation status information of the equipment;

[0098] S1100, performing judgment and processing based on the real-time operation status information of the equipment and the historical operation status information of the equipment to obtain the change amount of the processing status of the equipment;

[0099] S1200, performing secondary parameter adjustment on the processing equipment according to the processing state change amount, and obtaining the equipment processing adjustment speed;

[0100] S1300, performing a second correction on the first correction time of processing completion based on the processing adjustment speed of the equipment to obtain a second correction time of processing completion;

[0101] It will be understood by those skilled in the art that when producing the product quantity in the order information, the material inventory information in the warehouse may not necessarily meet the product quantity in the order information. Therefore, it is necessary to analyze in combination with the material inventory information to determine the quantity of raw materials. The product specifications may be different in different order information. Different product specifications require adjustment of the parameters of the processing equipment. When the parameters of the processing equipment are adjusted, the equipment processing speed is also determined. Therefore, the processing time can be estimated based on the equipment processing speed and the number of products. When the processing equipment is processed for a long time, it may be overloaded, and the parameters of the processing equipment need to be adjusted for the second time to reduce the load on the processing equipment and extend the service life of the processing equipment. Therefore, the above steps require repeated calls to the data of the metrology production scheduling platform to achieve comprehensive management of the metrology production scheduling platform.

[0102] Reference Figure 2 As shown, the material inventory information is screened and processed based on the product raw material composition information, and the specific steps of determining the raw material quantity include:

[0103] S301, traverse the material inventory information according to the product raw material composition information to determine the location information of the raw materials in different warehouses;

[0104] S302, taking the raw materials based on the location information of the raw materials in different warehouses to obtain the raw materials;

[0105] S303, calculating and processing the raw materials to determine the quantity of the raw materials;

[0106] In this embodiment, the manufacturer may have multiple processing equipment. Therefore, the manufacturer will build multiple warehouses to store raw materials. Since there are too many warehouses, the raw materials may be placed in different locations. Therefore, it is necessary to analyze the material inventory information in the database to determine the location information of the raw materials in different warehouses and take the raw materials at different locations for production.

[0107] Reference Figure 3 As shown, based on the quantity of raw materials and the quantity of products, the determination of the product processing quantity specifically includes the following steps:

[0108] S401, compare the quantities of raw materials to determine the minimum quantity of raw materials;

[0109] S402, making a judgment based on the minimum quantity of raw materials and the quantity of products;

[0110] S403. If the minimum raw material quantity is greater than or equal to the product quantity, the product quantity is the product processing quantity;

[0111] S404. If the minimum raw material quantity is less than the product quantity, the minimum raw material quantity is the product processing quantity;

[0112] The specific calculation formula for determining the minimum amount of raw materials is:

[0113]

[0114] In the formula, Ma is the minimum number of raw materials; n is the type of raw materials; Mi is the number of raw materials of each type;

[0115] It is understandable to those skilled in the art that, since manufacturers are constantly producing, the raw materials stored by the manufacturers may not be able to meet the production of products in the order information. Therefore, it is necessary to compare the quantity of raw materials and products to determine the number of products that can be produced.

[0116] Reference Figure 4 As shown, the estimated processing is performed based on the product processing quantity and the equipment processing speed, and the estimated processing completion time is obtained, which specifically includes the following steps:

[0117] S701, obtaining the time when the processing of the first product is completed and the time when the processing of the second product starts;

[0118] S702, performing calculation based on the time when the first product is processed and the time when the second product is processed, to obtain a first processing interval parameter;

[0119] S703, performing timing processing according to the processing speed of the equipment to obtain the processing time of each product;

[0120] S704, performing calculations based on the product processing quantity, the processing time of each product, and the first processing interval parameter to obtain an estimated processing completion time;

[0121] The specific calculation formula for obtaining the estimated processing completion time is:

[0122] Tb = α × T1 + Tc × (α-1);

[0123] Where, Tb is the estimated time to complete the processing; α is the number of products to be processed; T1 is the processing time for each product; Tc is the first processing interval parameter;

[0124] It can be understood by those skilled in the art that when a manufacturer receives too many orders, the processing equipment needs to be used multiple times, and therefore, the processing time needs to be estimated. Therefore, estimating the processing time based on the processing time of each product and the first processing interval parameter makes it more convenient to plan subsequent production plans and shortens the production cycle of the product.

[0125] Reference Figure 5 As shown in the figure, the steps of analyzing the numbered raw materials to be processed and determining the revised quantity of the raw materials are as follows:

[0126] S801, collecting images of the numbered raw materials to be processed, and obtaining images of the numbered raw materials;

[0127] S802, performing feature analysis on the numbered raw material image by using a spot detection algorithm to determine damaged raw material information, wherein the damaged raw material information includes damaged number information and damaged quantity;

[0128] S803, removing the numbered raw materials based on the damaged number information to obtain the corrected quantity of the raw materials;

[0129] In this embodiment, raw materials may be damaged during storage, and staff are unable to inspect every raw material. Therefore, when the product is produced, images of the raw materials that need to be used are taken, and defects are analyzed on the images of the raw materials to determine the raw materials that cannot be used. In order to avoid confusion of defective raw materials, all raw materials are numbered. When the raw materials are damaged, the numbers are marked to indicate that the raw materials are defective. When the raw materials are subsequently put into use, it is only necessary to scan the numbers to determine whether the raw materials are defective.

[0130] Reference Figure 6 As shown, the estimated processing completion time is corrected for the first time based on the corrected quantity of raw materials and the processing speed of the equipment, and obtaining the first corrected processing completion time specifically includes the following steps:

[0131] S901, if the minimum raw material quantity is the product processing quantity or the difference between the minimum raw material quantity and the damaged quantity in the minimum raw material quantity is less than the product quantity;

[0132] S902, calculating and processing the product processing quantity according to the revised quantity of raw materials to obtain the revised quantity of product processing;

[0133] S903, performing a first time correction process on the estimated processing completion time according to the product processing correction quantity, the processing time of each product, and the first processing interval parameter, to obtain the first processing completion correction time;

[0134] The specific calculation formula for obtaining the first correction time of machining completion is:

[0135] Td=(α-β)×T1+Tc×(α-β-1);

[0136] Where, Td is the first correction time for processing completion; (α-β) is the product processing correction quantity; α is the product processing quantity; T1 is the processing time of each product; Tc is the first processing interval parameter; β is the damage quantity in the minimum raw material quantity;

[0137] S904. If the product quantity is the product processing quantity, and the difference between the minimum raw material quantity and the damaged quantity in the minimum raw material quantity is greater than or equal to the product quantity, the estimated processing completion time does not need to be revised;

[0138] When the quantity of raw materials is too much, the damaged raw materials are filled with good raw materials, and there is a surplus, that is, the product quantity is the product processing quantity, and the estimated time for processing completion remains unchanged;

[0139] Reference Figure 7 As shown, based on the real-time operation status information of the equipment and the historical operation status information of the equipment, the judgment and processing to obtain the change amount of the equipment processing state specifically includes the following steps:

[0140] S1101, respectively analyzing and processing the real-time operation status information of the equipment and the historical operation status information of the equipment to obtain the real-time processing temperature and the historical processing temperature;

[0141] S1102, performing judgment processing based on the real-time processing temperature and the historical processing temperature;

[0142] S1103, if the real-time processing temperature is greater than the historical processing temperature, the real-time processing temperature and the historical processing temperature are calculated to obtain a change in the equipment processing state;

[0143] S1104, if the real-time processing temperature is less than or equal to the historical processing temperature, there is no need to perform secondary parameter adjustment on the processing equipment;

[0144] It will be understood by those skilled in the art that long-term use of processing equipment will cause the body temperature to rise, resulting in a reduction in the service life of the processing equipment. At the same time, excessively high body temperature will also cause a certain degree of deformation of the processed product. Therefore, when the real-time processing temperature is greater than the historical processing temperature, the equipment processing speed of the processing equipment is reduced to protect the processing equipment and improve the success rate of the product. When the equipment processing speed of the processing equipment is reduced, it is necessary to make a secondary correction to the first correction time for completing the processing.

[0145] Reference Figure 8As shown, performing a secondary correction on the first correction time of processing completion based on the equipment processing adjustment speed, and obtaining the second correction time of processing completion specifically includes the following steps:

[0146] S1301, obtaining the number of products processed by the processing equipment;

[0147] S1302, calculating and processing based on the number of products processed by the processing equipment and the number of products corrected, to obtain the number of remaining products to be processed;

[0148] S1303, obtaining the time when the first product of the remaining products to be processed is completed and the time when the second product starts processing;

[0149] S1304, performing calculation based on the time when the first product of the remaining products to be processed is completed and the time when the second product starts processing, to obtain a second processing interval parameter;

[0150] S1305, performing timing processing according to the processing adjustment speed of the equipment to obtain the processing adjustment time of each product;

[0151] S1306, performing calculations based on the number of remaining products to be processed, the processing adjustment time of each product, and the second processing interval parameter to obtain a second corrected processing completion time;

[0152] The specific calculation formula for obtaining the second correction time of machining completion is:

[0153] Te=(α-β-γ)×T2+Tf×(α-β-γ-1);

[0154] Where Te is the second correction time for processing completion; (α-β-γ) is the number of remaining products to be processed; α is the number of products processed; β is the number of damaged products in the minimum number of raw materials; γ is the number of products processed by the processing equipment; T2 is the processing adjustment time for each product; Tf is the second processing interval parameter.

[0155] Reference Fig. 9 As shown, a comprehensive management system for a metrological production scheduling platform is used to implement a comprehensive management method for a metrological production scheduling platform as described above, including:

[0156] A control module, which is used to control data interaction and instruction transmission between modules;

[0157] A database, the database is used to store historical data and material inventory information;

[0158] Processing equipment, wherein the processing equipment processes the raw materials according to the order information to obtain products;

[0159] An analysis and judgment module, which analyzes and judges the numbered raw materials, the quantity of raw materials and the quantity of products, the real-time operation status information of the equipment and the historical operation status information of the equipment, and determines the revised quantity of raw materials, the processed quantity of products, and the change in the processing status of the equipment;

[0160] A correction module, wherein the correction module corrects the estimated processing completion time twice to obtain a first correction processing completion time and a second correction processing completion time;

[0161] A monitoring module, which is used to monitor the status of processing equipment and obtain real-time operating status information of the equipment;

[0162] A numbering module is used to number the raw material quantities to obtain numbered raw materials.

[0163] The above shows and describes the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions only describe the principles of the present invention. The present invention may be subject to various changes and improvements without departing from the spirit and scope of the present invention. These changes and improvements fall within the scope of the present invention. The scope of protection claimed by the present invention is defined by the attached claims and their equivalents.

Claims

1. A comprehensive management method for a metrological production scheduling platform, characterized in that: include: Obtaining order information from the metering production scheduling platform, the order information including product quantity, product specifications and product raw material composition information; Read data from the database of the metering production scheduling platform to obtain historical data and material inventory information, wherein the historical data specifically refers to historical operation status information of the equipment; Screen and process material inventory information based on product raw material composition information to determine the quantity of raw materials; Determine the product processing quantity based on the raw material quantity and product quantity; Carry out numbering according to the quantity of raw materials to obtain numbered raw materials; Adjust the parameters of the processing equipment based on the product specifications and determine the equipment processing speed; Estimated processing is performed based on the product processing quantity and equipment processing speed to obtain the estimated processing completion time; Analyze the numbered raw materials to be processed and determine the revised quantity of raw materials; Perform the first time correction processing on the estimated processing completion time based on the corrected quantity of raw materials and the processing speed of the equipment to obtain the first corrected processing completion time; Monitor processing equipment in real time and obtain real-time operating status information of the equipment; Based on the real-time operation status information and historical operation status information of the equipment, judgment and processing are performed to obtain the change in the equipment processing status; Perform secondary parameter adjustment on the processing equipment according to the change in processing state to obtain the processing adjustment speed of the equipment; The first correction time for completing the processing is corrected for a second time based on the processing adjustment speed of the equipment to obtain the second correction time for completing the processing.

2. A comprehensive management method for a metrological production scheduling platform according to claim 1, characterized in that: The screening and processing of material inventory information based on product raw material composition information to determine the quantity of raw materials specifically includes the following steps: Traverse the material inventory information according to the product raw material composition information to determine the location information of the raw materials in different warehouses; Take the raw materials based on their location information in different warehouses to obtain the raw materials; Calculate and process the raw materials to determine their quantity.

3. A comprehensive management method for a metrological production scheduling platform according to claim 1, characterized in that: The determination of the product processing quantity based on the raw material quantity and the product quantity specifically includes the following steps: Compare the quantities of raw materials and determine the minimum quantity of raw materials; Judgement is based on the minimum amount of raw materials and product quantity; If the minimum raw material quantity is greater than or equal to the product quantity, the product quantity is the product processing quantity; If the minimum raw material quantity is less than the product quantity, the minimum raw material quantity is the product processing quantity; The specific calculation formula for determining the minimum amount of raw materials is: In the formula, Ma is the minimum number of raw materials; n is the type of raw materials; Mi is the quantity corresponding to each type of raw materials.

4. A comprehensive management method for a metrological production scheduling platform according to claim 1, characterized in that: The estimated processing based on the product processing quantity and the equipment processing speed to obtain the estimated processing completion time specifically includes the following steps: Get the time when the first product is finished and the time when the second product starts processing; Calculate and process based on the time when the first product is processed and the time when the second product starts processing, to obtain a first processing interval parameter; Perform timing processing based on the equipment processing speed to obtain the processing time of each product; Calculate and process the product processing quantity, the processing time of each product, and the first processing interval parameter to obtain the estimated processing completion time; The specific calculation formula for obtaining the estimated processing completion time is: Tb = α × T1 + Tc × (α-1); Where Tb is the estimated time to complete processing; α is the number of products processed; T1 is the processing time for each product; and Tc is the first processing interval parameter.

5. The integrated management method of a metrological production scheduling platform according to claim 1, characterized in that: The analysis of the numbered raw materials to be processed and determination of the revised quantity of the raw materials specifically include the following steps: Capture images of the numbered raw materials being processed to obtain images of the numbered raw materials; Performing feature analysis on the numbered raw material image by a spot detection algorithm to determine damaged raw material information, wherein the damaged raw material information includes damaged number information and damaged quantity; Based on the damaged serial number information, the numbered raw materials are eliminated to obtain the corrected quantity of the raw materials.

6. A comprehensive management method for a metrological production scheduling platform according to claim 1, characterized in that: The first time correction processing of the estimated processing completion time based on the corrected quantity of raw materials and the processing speed of the equipment to obtain the first corrected processing completion time specifically includes the following steps: If the minimum raw material quantity is the product processing quantity or the difference between the minimum raw material quantity and the damaged quantity in the minimum raw material quantity is less than the product quantity; Calculate and process the product processing quantity according to the revised quantity of raw materials to obtain the product processing revised quantity; Performing a first time correction process on the estimated processing completion time by using the product processing correction quantity, the processing time of each product, and the first processing interval parameter to obtain the first processing completion correction time; If the product quantity is the product processing quantity, and the difference between the minimum raw material quantity and the damaged quantity in the minimum raw material quantity is greater than or equal to the product quantity, the estimated time for processing completion does not need to be revised.

7. A comprehensive management method for a metrological production scheduling platform according to claim 6, characterized in that: The specific calculation formula for obtaining the first correction time of machining completion is: Td=(α-β)×T1+Tc×(α-β-1); Where, Td is the first correction time for processing completion; (α-β) is the product processing correction quantity; α is the product processing quantity; T1 is the processing time for each product; Tc is the first processing interval parameter; β is the damage quantity in the minimum raw material quantity.

8. The integrated management method of a metrological production scheduling platform according to claim 1, characterized in that: The determination and processing based on the real-time operation status information of the equipment and the historical operation status information of the equipment to obtain the change in the processing status of the equipment specifically includes the following steps: Analyze and process the real-time operation status information and the historical operation status information of the equipment respectively to obtain the real-time processing temperature and the historical processing temperature; Make judgments based on real-time processing temperature and historical processing temperature; If the real-time processing temperature is greater than the historical processing temperature, the real-time processing temperature and the historical processing temperature are calculated to obtain the change in the equipment processing state; If the real-time processing temperature is less than or equal to the historical processing temperature, there is no need to make secondary parameter adjustments to the processing equipment.

9. A comprehensive management method for a metrological production scheduling platform according to claim 1, characterized in that: The second correction of the first correction time of processing completion based on the equipment processing adjustment speed to obtain the second correction time of processing completion specifically includes the following steps: Obtain the number of products processed by the processing equipment; Calculate and process the number of products that have been processed by the processing equipment and the number of product processing corrections to obtain the number of remaining products to be processed; Obtain the time when the first product of the remaining products to be processed is completed and the time when the second product starts to be processed; Calculate and process the time when the first product of the remaining products to be processed is completed and the time when the second product starts processing to obtain a second processing interval parameter; Perform timing processing according to the equipment processing adjustment speed to obtain the processing adjustment time of each product; Calculate and process the remaining number of products to be processed, the processing adjustment time of each product, and the second processing interval parameter to obtain the second correction time for processing completion; The specific calculation formula for obtaining the second correction time of machining completion is: Te=(α-β-γ)×T2+Tf×(α-β-γ-1); Where Te is the second correction time for processing completion; (α-β-γ) is the number of remaining products to be processed; α is the number of products processed; β is the number of damaged products in the minimum number of raw materials; γ is the number of products processed by the processing equipment; T2 is the processing adjustment time for each product; Tf is the second processing interval parameter.

10. A comprehensive management system for a metrological production scheduling platform, used to implement a comprehensive management method for a metrological production scheduling platform as claimed in any one of claims 1 to 9, characterized in that: include: A control module, which is used to control data interaction and instruction transmission between modules; A database, the database is used to store historical data and material inventory information; Processing equipment, wherein the processing equipment processes the raw materials according to the order information to obtain products; An analysis and judgment module, which analyzes and judges the numbered raw materials, the quantity of raw materials and the quantity of products, the real-time operation status information of the equipment and the historical operation status information of the equipment, and determines the revised quantity of raw materials, the processed quantity of products, and the change in the processing status of the equipment; A correction module, wherein the correction module corrects the estimated processing completion time twice to obtain a first correction processing completion time and a second correction processing completion time; A monitoring module, which is used to monitor the status of processing equipment and obtain real-time operating status information of the equipment; A numbering module is used to number the raw material quantities to obtain numbered raw materials.

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