Multi-linkage declaration parameter intelligent filling method

Abstract

The invention relates to the technical field of vehicle parameter filling and reporting, in particular to a multi-linkage declaration parameter intelligent filling and reporting method, which comprises the following steps of: matching all code codes associated with the content and the type of a test item in a parameter general library, finding out a declaration parameter corresponding to each code code based on all the matched code codes, and sending the declaration parameter to a server; determining a declaration parameter corresponding to each detection item from all the found declaration parameters to form a detection sub-library; according to a parameter set corresponding to each detection item and configuration data corresponding to each declaration parameter in the parameter set, determining a declaration parameter filling range corresponding to a detection sub-library formed by the corresponding detection item; and when the parameter filling values of the declaration parameters are filled in a certain parameter library, filling the filled parameter filling values of the declaration parameters into the corresponding positions, and synchronizing the parameter filling values of the declaration parameters filled in the rest parameter libraries.

Description

Technical Field

[0001] The present invention relates to the technical field of vehicle parameter filling, and specifically relates to an intelligent filling method for multi-linked declared parameters. Background Art

[0002] In the automotive testing industry, the business is booming, and the management level of testing institutions is also continuously improving, which makes the requirement for the informatization level of business management increase. As the core production output data of testing institutions, improving the parameter filling and report compilation efficiency of test reports is of great significance to testing institutions.

[0003] The existing parameter filling method mainly adopts the manual input method. Staff need to manually fill in the data obtained from tests, such as various performance indicators of vehicles, test time, test equipment numbers, etc., in paper forms or simple spreadsheets. This method is not only single, but also extremely inefficient, and it is difficult to meet the actual needs of quickly filling parameter information.

[0004] Based on this, there is an urgent need for an intelligent filling method for multi-linked declared parameters, which can achieve intelligent and efficient filling during parameter filling, greatly improving the efficiency and automation of parameter filling. Summary of the Invention

[0005] One of the purposes of the present invention is to provide an intelligent filling method for multi-linked declared parameters, which can achieve intelligent and efficient filling during parameter filling, greatly improving the efficiency and automation of parameter filling.

[0006] To achieve the above purpose, an intelligent filling method for multi-linked declared parameters is provided, including the following steps:

[0007] S1. Establish a unique code encoding for each declared parameter, endow the split relationship and operation relationship corresponding to the code encoding corresponding to each declared parameter, and define relevant configuration attributes for each declared parameter according to requirements to form a corresponding parameter library;

[0008] S2. According to the test project content and type corresponding to the user, match all the code encodings associated with the test project content and type in the parameter library. Based on all the matched code encodings, find the declared parameters corresponding to each code encoding. According to each test item corresponding to the test project content, determine the declared parameters corresponding to each test item from all the found declared parameters, and form a test sub-library corresponding to each test item. The test sub-library includes a declared vehicle model parameter library, a prototype vehicle parameter library, and a report parameter library;

[0009] S3. Determine the reporting range of the declared parameters corresponding to the declared vehicle model parameter library, sample vehicle parameter library, and report parameter library formed by the corresponding test items according to the parameter set corresponding to each test item and the configuration data corresponding to each declared parameter in the parameter set;

[0010] S4. When filling in the parameter filling value of the declared parameter for a certain parameter library, based on the splitting relationship and operation relationship corresponding to the code encoding corresponding to the declared parameter filled in, fill the parameter filling value of the declared parameter filled in to the corresponding position, and synchronize the parameter filling value of the declared parameter filled in the remaining parameter libraries based on the preset multi-linkage intelligent synchronization strategy;

[0011] S5. According to user needs, the required reporting parameters are extracted from the completed report parameter library, and filled in based on the preset report template to form the report data required by the user.

[0012] Technical principles and effects of this solution: In this solution, firstly, a unique code is assigned to each declared parameter, the splitting relationship and operation relationship corresponding to the code are clarified, and the configuration attributes are defined at the same time, so as to build a parameter library covering all declared parameters, and provide basic data support for subsequent parameter matching and calling.

[0013] After the establishment of the parameter master library is completed, the relevant code is accurately matched in the parameter central control according to the content and type of the user's test project, and then the declaration parameters corresponding to each test project are determined, forming the declared vehicle model parameter library, sample vehicle parameter library, report parameter library and other test sub-libraries, realizing the classified management and targeted application of parameters.

[0014] Based on the parameter set of each test item and the configuration data of the declared parameters, clarify the reporting range of the declared parameters of each test item in different parameter libraries to ensure the accuracy and standardization of the reporting work.

[0015] When filling in a certain parameter library, the splitting and operation relationship corresponding to the declared parameter code is used to accurately fill in the corresponding position. At the same time, according to the preset multi-linkage intelligent synchronization strategy, the reported value is automatically synchronized to the remaining parameter libraries to achieve efficient linkage filling of parameters. From the completed report parameter library, the required declaration parameters are extracted according to user needs, and filled in according to the preset report template to generate the report data required by the user.

[0016] 1. With the help of a unique code encoding, the system can clearly and accurately define the relationships between various declared parameters. Whether it is a complex splitting relationship or a delicate arithmetic relationship, it can be clearly understood at a glance. At the same time, based on the parameter sets of each test item and the configuration data of the declared parameters, the declared parameter filling ranges of each test item in different parameter libraries are clarified. This measure reduces errors caused by human negligence or misunderstanding from the source, provides a solid guarantee for the accuracy of parameter filling, ensures that every piece of data can be accurately entered, and lays a reliable foundation for subsequent test analysis and business processes.

[0017] 2. With the help of a unique code encoding, the system can clearly and accurately define the relationships between various declared parameters. Whether it is a complex splitting relationship or a delicate arithmetic relationship, it can be clearly understood at a glance. At the same time, based on the parameter sets of each test item and the configuration data of the declared parameters, the declared parameter filling ranges of each test item in different parameter libraries are clarified. This measure reduces errors caused by human negligence or misunderstanding from the source, provides a solid guarantee for the accuracy of parameter filling, ensures that every piece of data can be accurately entered, and lays a reliable foundation for subsequent test analysis and business processes.

[0018] 3. When all parameter libraries are filled, the system can accurately extract the declared parameters required by the user from the report parameter library according to the preset rules. These extracted data will be filled in an orderly manner according to the pre-designed report template, and the whole process does not require cumbersome manual operations by humans. That is, it can achieve intelligent and efficient filling during parameter filling, greatly improving the efficiency and automation of parameter filling.

[0019] Furthermore, the preset multi-linkage intelligent synchronization strategy is as follows:

[0020] When the parameter library being filled is the declared vehicle model parameter library, according to the user's selection and based on the synchronization rules corresponding to the declared vehicle model parameter library, the parameter filling values of the declared parameters in the vehicle model database are directly synchronized to the prototype vehicle parameter library and the report parameter library;

[0021] When the parameter library being filled is the prototype vehicle parameter library, according to the user's selection and based on the synchronization rules corresponding to the prototype vehicle parameter library, the parameter filling values of the declared parameters in the prototype vehicle parameter library are synchronized to the report parameter library.

[0022] Beneficial effects: In this solution, the multi-link intelligent synchronization strategy constructs a data highway among the declared vehicle model parameter library, prototype vehicle parameter library, and report parameter library. After the staff completes the filling in the declared vehicle model parameter library, they only need to make a simple selection, and the system can instantly push the data to the prototype vehicle parameter library and report parameter library according to the synchronization rules, achieving one-time input and multiple uses. Similarly, the data in the prototype vehicle parameter library can also flow to the report parameter library as needed. This multi-link synchronization mode completely breaks the situation where the data in each parameter library is isolated in traditional filling, greatly reducing the cumbersome work of repeated data entry and significantly improving the overall work efficiency.

[0023] Different automobile inspection items and processes have different requirements for data synchronization. This strategy gives users the ability to independently control synchronization. In the face of complex and changeable business situations, users can accurately select when and which data need to be synchronized between different parameter libraries according to actual needs. This flexible operation mode fully meets the needs of diverse business scenarios and improves the practicability and adaptability of the system.

[0024] Furthermore, it also includes S6. After completing the filling in the declared vehicle model parameter library, prototype vehicle parameter library, and report parameter library, establish a historical parameter library between the prototype vehicle and the report, and store the historical parameter library, declared vehicle model parameter library, prototype vehicle parameter library, and report parameter library in the historical database.

[0025] Beneficial effects: After completing the filling in the declared vehicle model parameter library, prototype vehicle parameter library, and report parameter library, establish a historical parameter library between the prototype vehicle and the report, and store various parameter libraries in the historical database, forming a complete data management closed loop. This enables different stages and types of data to be properly classified and stored, facilitating the unified management and invocation of data, and providing more comprehensive data support for subsequent data analysis and business process optimization.

[0026] The establishment of the historical parameter library provides detailed historical data records for the automobile inspection business. When it is necessary to review and analyze past inspection items, the staff can directly retrieve the corresponding declared vehicle model parameter library, prototype vehicle parameter library, report parameter library, and their associated data from the historical database. By studying these historical data, the entire process of the inspection business can be clearly understood, problems can be discovered, and experiences can be summarized, which helps to improve the quality and efficiency of subsequent inspection business.

[0027] Furthermore, it also includes S7. Receive the user's access requirement;

[0028] S8. According to the access requirement, retrieve the declared parameters corresponding to the parameter library that has been completed and filled in the historical database, and perform visual display. The visual display content includes the parameter filling value corresponding to the declared parameter, the filling time, and the filling personnel.

[0029] Beneficial effects: By receiving the user's access requirements and retrieving relevant declaration parameters from the historical database according to the requirements, the user does not need to search for them among a large amount of data by themselves. As long as they put forward clear requirements, the system can quickly respond, accurately locate the required information and perform visual display. The display content not only includes the parameter filling values, but also the filling time and the filling personnel, providing users with a comprehensive and clear information presentation method, greatly improving the convenience and experience of users in obtaining data.

[0030] The filling time and the filling personnel information displayed visually make the source and time node of the data clear at a glance. This not only facilitates the verification of data accuracy, but also helps to quickly trace back to the person responsible for data filling when problems occur, improving the transparency and standardization of data management. At the same time, it also provides strong support for the control of data quality.

[0031] Furthermore, the synchronization rule corresponding to the declaration vehicle model parameter library is as follows:

[0032] When synchronizing the parameter filling value corresponding to a certain declaration parameter, identify the code encoding corresponding to the declaration parameter. Based on this code encoding, determine whether the declaration parameter filling ranges corresponding to each same code encoding are the same. If so, merge the parameter filling values corresponding to each same code encoding to form a unique parameter filling value, and then synchronize it to the corresponding parameter library. If not, add labels according to the parameter filling values corresponding to each same code encoding, and synchronize the corresponding labels and parameter filling values to the corresponding parameter library.

[0033] Beneficial effects: When synchronizing declaration parameters, determine whether the declaration parameter filling ranges corresponding to the same encoding are consistent by identifying the code encoding. If they are consistent, merge the parameter filling values to form a unique value and then synchronize it, effectively avoiding errors caused by repeated or inconsistent data synchronization, and ensuring the accuracy and consistency of the data received by the parameter library. This is crucial for automotive inspection analysis, report generation, etc. based on accurate data, reducing misjudgments and subsequent correction costs caused by data errors.

[0034] When the parameter filling ranges corresponding to the same code encoding are different, adding tags and synchronizing the tags and parameter filling values endows the data with more diverse information. Different tags can help staff quickly distinguish and identify parameters of different sources or natures, facilitating targeted screening and management in subsequent data processing and usage, and improving the operability and management efficiency of the data. This synchronization rule realizes the rapid judgment and processing of parameter filling values by utilizing the code encoding. Whether it is merging or adding tag synchronization, there are clear execution bases. Compared with ruleless data synchronization, it greatly shortens the data processing time, speeds up the data interaction speed between the declared vehicle model parameter library and other parameter libraries, improves the operating efficiency of the entire system, and meets the requirements of the inspection business for efficient data flow. BRIEF DESCRIPTION OF THE DRAWINGS

[0035] Figure 1 is a flowchart of the intelligent filling method for multi-linkage declared parameters in Embodiment 1 of the present invention;

[0036] Figure 2 is a data synchronization diagram of the declared vehicle model parameter library, prototype vehicle parameter library, and report parameter library in Embodiment 1 of the present invention. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0037] The following is a further detailed description through specific embodiments:

[0038] Embodiment 1

[0039] A multi-linkage declared parameter intelligent filling method is basically as Figure 1 shown and includes the following steps:

[0040] S1. Establish a unique code encoding for each declared parameter, endow the splitting relationship and operation relationship corresponding to the code encoding corresponding to each declared parameter, and define relevant configuration attributes for each declared parameter according to requirements to form a corresponding parameter master library; in this embodiment, the splitting relationship is to split by splitting characters. For example, for the electric vehicle charging plug / socket model, when splitting, it can be split to the parameter name electric vehicle charging plug and the code encoding filling position corresponding to the electric vehicle charging model.

[0041] The operation relationship includes operation relationships such as addition, subtraction, multiplication, division, and rounding. For example, the ratio of the steering axle load to the curb weight = steering axle load / curb weight. After configuring the division relationship of the steering axle load / curb weight, filling in the values of the steering axle load and the curb weight, when performing the operation, the ratio of the steering axle load to the curb weight will be calculated according to the filled values of the steering axle load and the curb weight and the operation relationship;

[0042] In this embodiment, the declared parameters can be classified into four categories according to the power source: pure electric, hybrid, traditional, and methanol. At the same time, they can also be classified into four categories according to the prototype vehicle type: whole vehicle, parts, chassis, and whole vehicle and chassis. The two classification methods can be jointly applied to the same declared parameters. Different categories have their corresponding filling methods when filling in the declared parameters.

[0043] S2. According to the test project content and type corresponding to the user, match all the code encodings associated with the test project content and type in the parameter master library. Based on all the matched code encodings, find the declared parameters corresponding to each code encoding. According to each test item corresponding to the test project content, determine the declared parameters corresponding to each test item from all the found declared parameters, and form a test sub-library corresponding to each test item. The test sub-library includes a declared vehicle type parameter library, a prototype vehicle parameter library, and a report parameter library. In this embodiment, each declared parameter in the parameter master library needs to be associated with each test project content and type. It can be manually associated by the user or automatically associated. Subsequently, during code matching, it can also be automatically matched by the user or automatically matched.

[0044] S3. According to the parameter set corresponding to each test item and the configuration data corresponding to each declared parameter in the parameter set, determine the declared parameter filling range corresponding to the declared vehicle type parameter library, the prototype vehicle parameter library, and the report parameter library formed by the corresponding test item.

[0045] S4. When filling in the parameter filling value of the declared parameter for a certain parameter library, based on the splitting relationship and operation relationship corresponding to the code encoding of the declared parameter being filled, fill the parameter filling value of the declared parameter being filled into the corresponding position, and based on the preset multi-link intelligent synchronization strategy, synchronize the parameter filling values of the declared parameters filled in the remaining parameter libraries.

[0046] Such as Figure 2 shown, the preset multi-link intelligent synchronization strategy is:

[0047] When the parameter library being filled is the declared vehicle type parameter library, then according to the user's selection, based on the synchronization rules corresponding to each parameter library, directly synchronize the parameter filling values of the declared parameters in the vehicle type database to the prototype vehicle parameter library and the report parameter library.

[0048] The synchronization rules corresponding to the declared vehicle type parameter library are:

[0049] When synchronizing the parameter filling value corresponding to a certain declared parameter, identify the code encoding corresponding to the declared parameter. Based on this code encoding, determine whether the declared parameter filling ranges corresponding to each identical code encoding are the same. If so, merge the parameter filling values corresponding to each identical code encoding to form a unique parameter filling value, and then synchronize it to the corresponding parameter library. If not, add labels according to the parameter filling values corresponding to each identical code encoding, and synchronize the corresponding labels and parameter filling values to the corresponding parameter library. For example, when synchronizing the declared parameter values of the vehicle body / chassis, if the values filled for the same code encoding are the same, they will be automatically merged into one value according to the algorithm; if the values filled for the same code encoding are different, the vehicle body / chassis type will be added in front of the corresponding parameter value. For example, if the declared value of the curb weight of a certain vehicle model is 10300 and the declared value of the curb weight of the chassis is 7030, the final presentation effect of the curb weight will be "vehicle body: 10300, chassis: 7030".

[0050] When the parameter library for filling is the prototype vehicle parameter library, according to the user's selection, based on the synchronization rules corresponding to the prototype vehicle parameter library, synchronize the parameter filling values of the declared parameters in the prototype vehicle parameter library to the report parameter library. Of course, in this embodiment, the data in the report parameter library can also be synchronized to the declared vehicle model parameter library.

[0051] S5. According to the user's requirements, extract the required declared parameters from the already filled report parameter library, and fill them based on the preset report template to form the report data required by the user.

[0052] It also includes S6. After completing the filling of the declared vehicle model parameter library, the prototype vehicle parameter library, and the report parameter library, establish a historical parameter library between the prototype vehicle and the report, and store the historical parameter library, the declared vehicle model parameter library, the prototype vehicle parameter library, and the report parameter library in the historical database. In this embodiment, the user can bind the prototype vehicle parameters and the report parameters, directly fill the parameters corresponding to those in the prototype vehicle parameter library, and then directly synchronize the parameters filled in the prototype vehicle parameter library to the report parameters according to the corresponding code encoding. Of course, if two prototype vehicles are bound at the same time, when synchronizing, the parameter filling values that are the same are automatically merged, and those that are different are distinguished by special characters ( / ). For example, for the vehicle center of mass height (unloaded / loaded), if the user fills in 1 m / 0.9 m, the corresponding split parameters are that the value of the vehicle center of mass height (unloaded) is 1 m, and the vehicle center of mass height (loaded) is 0.9 m.

[0053] S7. Receive the user's viewing requirements;

[0054] S8. According to the inquiry requirements, retrieve the declared parameters corresponding to the completed parameter library in the historical database and perform visual display. The content of the visual display includes the parameter filling values corresponding to the declared parameters, the filling time, and the filling personnel.

[0055] The above are only embodiments of the present invention. Common knowledge such as the specific structures and characteristics known in the art is not described in detail here. Those of ordinary skill in the art know all the common technical knowledge in the technical field to which the invention belongs before the application date or the priority date, can know all the prior art in this field, and have the ability to apply the conventional experimental means before this date. Those of ordinary skill in the art can, under the inspiration given in this application, combine their own abilities to complete and implement this solution. Some typical well-known structures or well-known methods should not become obstacles for those of ordinary skill in the art to implement this application. It should be noted that for those skilled in the art, without departing from the structure of the present invention, several modifications and improvements can still be made, and these should also be regarded as the protection scope of the present invention, which will not affect the implementation effect of the present invention and the practicality of the patent. The protection scope required by this application should be based on the content of its claims, and the specific implementation manners and the like recorded in the specification can be used to explain the content of the claims.

Claims

1. A method for intelligently filling in multiple linkage declaration parameters, characterized in that: The following steps are involved: S1. Create a unique code for each declared parameter, assign the splitting relationship and operation relationship corresponding to the code of each declared parameter, and define the relevant configuration attributes for each declared parameter according to the needs to form the corresponding parameter library; S2. According to the test item content and type corresponding to the user, all code codes associated with the test item content and type in the parameter master library are matched, and based on all the matched code codes, the declaration parameters corresponding to each code code are found. According to each test item corresponding to the test item content, the declaration parameters corresponding to each test item are determined from all the found declaration parameters, and the detection sub-libraries corresponding to each test item are formed, and the detection sub-libraries include the declared vehicle model parameter library, the sample vehicle parameter library, and the report parameter library; S3. Determine the reporting range of the declared parameters corresponding to the declared vehicle model parameter library, sample vehicle parameter library, and report parameter library formed by the corresponding test items according to the parameter set corresponding to each test item and the configuration data corresponding to each declared parameter in the parameter set; S4. When filling in the parameter filling value of the declared parameter for a certain parameter library, based on the splitting relationship and operation relationship corresponding to the code encoding corresponding to the declared parameter filled in, fill the parameter filling value of the declared parameter filled in to the corresponding position, and synchronize the parameter filling value of the declared parameter filled in the remaining parameter libraries based on the preset multi-linkage intelligent synchronization strategy; S5. According to user needs, the required reporting parameters are extracted from the completed report parameter library, and filled in based on the preset report template to form the report data required by the user.

2. According to claim 1, a method for intelligently filling in multiple linkage declaration parameters is characterized in that: The preset multi-linkage intelligent synchronization strategy is: When the parameter library to be reported is the declared vehicle model parameter library, the parameter reported values ​​of the declared parameters in the vehicle model database are directly synchronized to the sample vehicle parameter library and the report parameter library according to the user's selection and the synchronization rules corresponding to each parameter library; When the parameter library to be reported is the sample vehicle parameter library, the parameter reported values ​​of the declared parameters in the sample vehicle parameter library are synchronized to the report parameter library according to the user's selection and based on the synchronization rules corresponding to the sample vehicle parameter library.

3. According to claim 2, a method for intelligently filling in multiple linkage declaration parameters is characterized in that: It also includes S6, after completing the filling of the declared vehicle model parameter library, the sample vehicle parameter library and the report parameter library, establishing a historical parameter library between the sample vehicle and the report, and storing the historical parameter library, the declared vehicle model parameter library, the sample vehicle parameter library and the report parameter library in the historical database.

4. According to claim 3, a method for intelligently filling in multiple linkage declaration parameters is characterized in that: It also includes S7, receiving the user's inquiry request; S8. According to the query requirements, the corresponding declared parameters in the parameter library that has been completed in the historical database are retrieved and visualized. The visualized display content includes the parameter reporting value corresponding to the declared parameter, the reporting time, and the reporting personnel.

5. According to claim 4, a method for intelligently filling in multiple linkage declaration parameters is characterized in that: The synchronization rules corresponding to the declared vehicle model parameter library are: When synchronizing the parameter reporting value corresponding to a certain declared parameter, identify the code corresponding to the declared parameter, and based on the code, determine whether the declared parameter reporting ranges corresponding to each identical code are the same. If so, merge the parameter reporting values ​​corresponding to each identical code to form a unique parameter reporting value, which is then synchronized to the corresponding parameter library. If not, add labels based on the parameter reporting values ​​corresponding to each identical code, and synchronize the corresponding labels and parameter reporting values ​​to the corresponding parameter library.

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