CN114331507A - Pricing method and system suitable for railway engineering - Google Patents
Pricing method and system suitable for railway engineering Download PDFInfo
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Abstract
The invention provides a pricing method and a system suitable for railway engineering, wherein the pricing method comprises the following method steps: acquiring railway WBS basic data, railway EBS basic data and Qlist basic data, establishing a railway engineering pricing database, and establishing a mapping relation, wherein the mapping relation comprises the following steps: establishing a mapping relation between the WBS data and inspection batch data, establishing a mapping relation between the EBS data and the WBS data, and establishing a mapping relation between the EBS data and the QList data; and acquiring engineering data, and calculating the total valuation by using the established mapping relation. The invention can effectively improve the efficiency of the labor checking and pricing, and realizes one-key type labor checking and pricing calculation for using less field workload in the later period through the configuration of the corresponding relation in the earlier period.
Description
Technical Field
The invention relates to the technical field of railway engineering pricing, in particular to a pricing method and a pricing system suitable for railway engineering.
Background
Prior art foundation
The EBS (Engineering breaking down Structure) divides the Engineering entity according to the minimum construction, and comprises an IFD (Engineering face decomposition) code, an EBS (Engineering breaking down Structure) Structure code and an Engineering entity decomposition system for constructing and designing basic information (such as pile length, pile diameter, concrete masonry square and the number of reinforcing steel bars). The railway BIM alliance has issued 'railway engineering entity structure decomposition guidelines' to provide engineering entity decomposition basic data for engineering verification and pricing.
The WBS (Work Breakdown Down Structure) comprises a WBS Structure code, a subsection and an associated check batch and an engineering task Breakdown system of a construction record table in order to realize engineering functions or complete Work tasks which need to be completed in sequence by entity construction. 2018, the construction quality acceptance standard of each specialty, and provides basic data information for subsection and itemized inspection lots and construction record tables.
The Qlist (Bill of qualites List) is a document compiled by the tenderer under unified rules with the respective construction experience, skill and project management levels, and the relevant information of the investigation. And the engineering list system comprises Qlist structure codes, engineering characteristics, operation contents, engineering total amount and unit price. The national railway administration published the "railway engineering volume inventory Specification" in 2018.
Existing project pricing method
The checking and pricing refers to the general name of checking and accepting the qualified project quantity or work in the construction process, measuring, checking and accepting, and the metered project quantity or work carrying out pricing activities, and is the basis for handling the settlement of project price. The railway engineering project has the characteristics of large scale, long construction period, complex geological conditions, more engineering specialties, large investment, more factors influencing cost control and the like, and the labor checking and pricing are key links of contract management and engineering cost control and are highly valued by all units. The method has the advantages that the labor checking and pricing work is standardized, the labor checking and pricing management of engineering projects is enhanced, the engineering construction cost can be reasonably controlled, and the production progress and quality control can be effectively promoted.
At present, a project quantity list (Qlist) pricing mode is generally adopted in railway engineering, the main core of the method is that the project quantity is provided by bidders, and each bidder carries out independent quotation by combining respective construction experience, technology and project management level under unified rules and relevant information of research. The main work flow of the current work verification and pricing is as follows: firstly, technicians at each work point of a construction unit count the field finished real object project amount in the pricing period, and report the calculated amount to a project planning part after the calculation is finished. The planning part converts the field real object engineering quantity into the work content of an engineering quantity list, compiles a verification pricing list and an application form, and reports to the master after the project responsible person signs and confirms. After receiving the application of the check-up pricing, the master supervision office audits the work content of each work point in the check-up pricing list by a supervision engineer, mainly audits whether the content object is completed or not and whether the data such as the check batch are complete or not, and confirms the signature and reports to the master supervision office after the audit is completed. And the chief deputy checks and reports to the construction unit after checking without errors. At present, the price-calculating work of the checker mainly adopts manual statistics, compilation and calculation or adopts single software to compile the price-calculating list of the checker.
The existing project pricing defect
The phenomena of virtual work inspection and over work inspection are forbidden.
According to the file specification of a railway construction project inspection pricing method, the inspection pricing is subject to legal and honest principles, the prior labor and the later pricing are carried out according to a specified program, and the false inspection pricing is forbidden; the 'railway basic construction fund management method' stipulates that the fact that the price of the construction worker needs to be checked is that the construction unit and the supervision unit check and verify the price table of the construction worker compiled by the construction unit, and the overestimation of the common test, the preliminary test and the virtual test is forbidden. In order to complete the assessment target, some units exist in the actual work, and related workers of the construction unit and the supervision unit perform virtual inspection and over inspection through various means. The excessive inspection of the virtual inspection worker causes the inspection quantity to exceed the original design or contract qualification quantity, the project payment is paid in advance, the contract is not performed seriously by the contract organization, the residual project is difficult to advance, and the adverse effect of the sharp increase of the project cost is caused.
The efficiency of the work of checking and pricing is low.
The existing manual counting, compiling and calculating the work efficiency of the experimenter pricing list is low, firstly, the efficiency is not high when each work point technician counts the completion condition of material objects one by one, secondly, the plan department worker converts the construction material objects one by one into the work content of the engineering quantity list, and a pile of a bridge is used as a column, firstly, the bridge is required to be determined to check a grand bridge, a large bridge or a medium-small bridge, and the bridge is also required to be determined to be a complex grand bridge or a common grand bridge, and after the information is determined, the pile is required to be on the ground or on the water through turning over a drawing, and the pile diameter, the pile length and other information. And the supervision project check is to check the data of the inspection lot and the like one by one, so that the working efficiency is low and the time consumption is long.
The inspection pricing monitoring mechanism is deficient.
The scale of the project in the railway project is large, the contract amount of one construction standard section is generally twenty to thirty billion, and the construction length can also reach twenty kilometers to forty kilometers. Therefore, the supervision engineer and the construction unit are not enough to know the site by the experimenter and the charge person. Therefore, after the on-site supervision engineer checks, the chief engineer and the construction unit can directly sign the signature and do not check the signature; and secondly, even if the construction unit and the supervision unit check the project quantity on site, most of the time, the construction unit and the supervision unit walk on site to pass the site, and the auditing function cannot be really realized. And also causes the occurrence of virtual inspection and over inspection in the inspection pricing work. And because the paper edition of the pricing information of the verification can not form the work of information sharing, only a planning part and part of leaders for mastering pricing content in the pricing work of the verification are provided, and a transparent supervision mechanism and means are lacked to ensure that the pricing work of the verification is reasonably carried out in compliance.
The capacity of planning personnel of a construction unit needs to be improved integrally.
Along with the increase of railway construction projects year by year, along with the loss of talents of construction units, even technicians who are not in the past for one year are responsible for the work of checking and pricing, and due to the lack of construction common sense and experience, errors of parameters related to a project amount list, errors of data logic relations and the like occur during the filling of a work-piece checking and pricing table. The business personnel lack the construction general knowledge, the project quantity is not accurately checked, the report data is not real, the working procedure is not strict, and the like, so that the project cost management is disordered. Serious hidden danger is buried for project cost management.
Therefore, in order to solve the defects in the conventional checking pricing, a pricing method and a pricing system which can improve the pricing efficiency and realize automatic one-key completion and are suitable for railway engineering are needed.
Disclosure of Invention
One object of the present invention is to provide a pricing method suitable for railway engineering, the method comprising the method steps of:
railway WBS basic data, railway EBS basic data and Qlist basic data are obtained, a railway engineering pricing database is established, wherein,
the railway engineering pricing database comprises: WBS data, EBS data and Qlist data, wherein the WBS data is constructed by adding a first level code and a plurality of different first node levels on the railway WBS basic data;
adding a second hierarchical code and a plurality of different second node hierarchies on the railway EBS basic data to construct EBS data;
adding a third node level on the Qlist basic data to construct Qlist data;
establishing a mapping relation, comprising: establishing a mapping relation between the WBS data and inspection batch data, establishing a mapping relation between the EBS data and the WBS data, and establishing a mapping relation between the EBS data and the QList data;
and acquiring engineering data, and calculating the total valuation by using the established mapping relation.
In some preferred embodiments, the WBS data and the inspection lot data are mapped to satisfy the following relationship:
DW＝{SW1,SW2,SW3,...SWn}，
SW＝{IL1,IL2,IL3,...ILN}，
wherein DW is subsection engineering data in WBS data, SW is subsection engineering data in WBS data, and IL is inspection batch data; n is a natural number, and N is a layer number.
When the inspection batch data display is completely finished, the project data are completely finished;
and when the project data display is completely finished, the project data of the partial project are completely finished.
In some preferred embodiments, the mapping relationship between the EBS data and the WBS data satisfies the following relationship:
A＝{B1,B2,B3....BN}，
B∈{DW1,DW2,DW3..DWN}，
wherein A is the whole engineering data in EBS data, B is the component data in EBS data, DW is the subsection engineering data in WBS data; and when the display of the branch engineering data is finished, the display of the component data is finished, and the finished component data is counted and listed in the pricing range.
In some preferred embodiments, the mapping relationship between the EBS and the QList data satisfies the following relationship:
A∈{QA1、QA2、QA3....QAN}，
B∈{QN1、QN2、QN3...QNN}，
wherein A is the whole engineering data in the EBS data, B is the component data in the EBS data, QA1、QA2、QA3、…、QANIs the first level in the third node level in the QList data; qN1、QN2、QN3、…、QNNIs the nth level in the level of the third node in the QList data.
In some preferred embodiments, the total engineering price is calculated by using the mapping relationship between the EBS data and the QList data.
In some preferred embodiments, the total project price is calculated by:
T＝∑t1+t2+t3+....+tn，
tn＝qn×pn，
wherein q isnIs an engineering quantity, pnIs a unit price of tnIs the total price of the components, and n is a natural number.
Another object of the present invention is to provide a pricing system for railway engineering, the system comprising: a railway engineering pricing database, comprising:
WBS data, EBS data, and Qlist data, wherein,
adding a first level code and a plurality of different first node levels on the railway WBS basic data to construct WBS data;
adding a second hierarchical code and a plurality of different second node hierarchies on the railway EBS basic data to construct EBS data;
adding a third level code and a plurality of different third node levels on the Qlist basic data to construct Qlist data;
the WBS data, EBS data and Qlist data mapping module comprises: establishing a mapping relation between the WBS data and inspection batch data, establishing a mapping relation between the EBS data and the WBS data, and establishing a mapping relation between the EBS data and the QList data;
and the pricing module is used for acquiring engineering data and calculating the total pricing amount by utilizing the established mapping relation.
In some preferred embodiments, the WBS data and the inspection lot data are mapped to satisfy the following relationship:
DW＝{SW1,SW2,SW3,...SWn}，
SW＝{IL1,IL2,IL3,...ILN}，
wherein DW is subsection engineering data in WBS data, SW is subsection engineering data in WBS data, and IL is inspection batch data;
when the inspection batch data display is completely finished, the project data are completely finished;
and when the project data display is completely finished, the project data of the partial project are completely finished.
In some preferred embodiments, the mapping relationship between the EBS data and the WBS data satisfies the following relationship:
A＝{B1,B2,B3....BN}，
B∈{DW1,DW2,DW3..DWN}，
wherein A is the whole engineering data in EBS data, B is the component data in EBS data, DW is the partial engineering data in WBS data,
and when the display of the branch engineering data is finished, the display of the component data is finished, and the finished component data is counted and listed in the pricing range.
In some preferred embodiments, the mapping relationship between the EBS and the QList data satisfies the following relationship:
A∈{QA1、QA2、QA3....QAN}，
B∈{QN1、QN2、QN3...QNN}，
wherein A is the whole engineering data in the EBS data, B is the component data in the EBS data, QA1、QA2、QA3、…、QANIs the first level in the third node level in the QList data; qN1、QN2、QN3、…、QNNIs the Nth level in the third node level in the QList data;
calculating a total engineering price by using the mapping relation between the EBS data and the QList data, and calculating by the following method:
T＝∑t1+t2+t3+....+tn，
tn＝qn×pn，
wherein q isnIs an engineering quantity, pnIs a unit price of tnIs the total price of the component.
In another aspect of the present invention, there is provided a pricing system for railway engineering, the system comprising: comprising a processor and a memory, said memory having stored therein computer instructions for executing the computer instructions stored in said memory, the system implementing the steps of the method as described above when said computer instructions are executed by the processor.
Yet another aspect of the invention provides a computer readable storage medium having stored thereon a computer program which, when executed by a processor, performs the steps of the method as described above.
The invention provides a pricing method and a pricing system suitable for railway engineering, which are characterized in that a railway engineering pricing database is established on the basis of the existing EBS basic data, WBS basic data and Qlist data, a mapping method is established for the established EBS data, WBS data and Qlist data in the railway engineering pricing database, the EBS completion state is judged according to the WBS task completion state, the Qlist is subjected to labor checking pricing calculation according to the EBS completion state, and then the pricing list calculation is automatically completed.
The invention realizes the automatic checking, data checking and checking pricing calculation and statistics of the engineering entities by the pricing method based on the railway engineering entities EBS, WBS and Qlist, solves the phenomena of virtual checking and over-checking in the engineering checking pricing, improves the checking pricing efficiency, and realizes the one-key checking pricing calculation by using less field workload in the later period through the configuration of the corresponding relationship in the earlier period.
It is to be understood that both the foregoing general description and the following detailed description are exemplary and explanatory only and are not restrictive of the invention, as claimed.
Drawings
Further objects, features and advantages of the present invention will become apparent from the following description of embodiments of the invention, with reference to the accompanying drawings, in which:
fig. 1 schematically shows a flow chart of a pricing method suitable for railway engineering according to the invention.
Fig. 2 is a schematic diagram illustrating WBS decomposition data of professional bridge construction according to an embodiment of the present invention.
Fig. 3 is a schematic diagram illustrating key node data in sections and subsections obtained by WBS decomposition established by a bridge and culvert specialty in an embodiment of the present invention.
FIG. 4 is a diagram illustrating EBS decomposition data for professional bridge construction according to an embodiment of the present invention.
FIG. 5 is a diagram illustrating Qlist decomposition data for specialized bridge construction according to an embodiment of the present invention.
Fig. 6 is a schematic diagram illustrating a mapping relationship established by a bridge and culvert specialization in an embodiment of the present invention.
FIG. 7 illustrates a flow chart of a validation pricing in one embodiment of the invention.
Detailed Description
The objects and functions of the present invention and methods for accomplishing the same will be apparent by reference to the exemplary embodiments. However, the present invention is not limited to the exemplary embodiments disclosed below; it can be implemented in different forms. The nature of the description is merely to assist those skilled in the relevant art in a comprehensive understanding of the specific details of the invention.
Hereinafter, embodiments of the present invention will be described with reference to the accompanying drawings. In the drawings, the same reference numerals denote the same or similar parts, or the same or similar steps.
The railway engineering price checking and pricing method aims at solving the defects that in the prior art, the pricing efficiency is low and mistakes are easy to make due to the fact that a railway engineering price checking and pricing mode is manually carried out. According to one embodiment of the invention, a pricing method for railway engineering is provided, comprising the following method steps:
and S101, establishing a railway engineering pricing database.
And acquiring railway WBS basic data, railway EBS basic data and Qlist basic data, and establishing a railway engineering pricing database.
The invention establishes a railway engineering pricing database on the basis of the existing technologies of railway WBS basic data, railway EBS basic data and Qlist basic data. The established railway engineering pricing database comprises WBS data, EBS data and Qlist data.
WBS data
On the basis of the railway WBS basic data, a first level code is added, and a plurality of different first node levels are added to construct WBS data.
In some embodiments, the WBS data is added with branch, itemized key node data and hierarchical coding on the basis of 2018 professional construction quality acceptance mark templates. And the key node data information in the parts and the items shows that the related engineering entities are finished after the node is finished.
The WBS hierarchical code needs to be compiled according to different specialties and different node hierarchical codes. Encoded as the EBS, WBS, and Qlist mapping bases. In the embodiment, taking bridge specialization as an example, as shown in fig. 2, a schematic diagram of WBS decomposition data established by bridge specialization in an embodiment of the present invention is shown, and as shown in fig. 3, a schematic diagram of key node data in parts and subentries obtained by WBS decomposition established by bridge specialization in an embodiment of the present invention is shown.
EBS data
And adding a second hierarchical code and a plurality of different second node hierarchies on the basic data of the railway EBS to construct the EBS data.
In some embodiments, the EBS data is the content of adding a hierarchical code, whether a node can be copied, whether an entity node (overall project) maintains mileage, whether a node name can be modified, and the like on the basic data of the "railway engineering entity structure decomposition guideline" of the railway BIM alliance. The EBS hierarchy code needs to be compiled according to different specialties and different node hierarchy codes. Encoded as the EBS, WBS, and Qlist mapping bases. In the embodiment, taking bridge specialization as an example, as shown in fig. 4, a schematic diagram of EBS decomposition data established by bridge specialization in an embodiment of the present invention is shown.
Qlist data
And adding a third node level on the Qlist basic data to construct Qlist data.
In some embodiments, the Qlist data is added to the content of the railway engineering volume list specification, and the Qlist hierarchical codes need to be compiled according to different specialties and different node hierarchical codes. Encoded as the EBS, WBS, and Qlist mapping bases. Fig. 5 is a schematic diagram of Qlist decomposition data established by the bridge and culvert specialties in an embodiment of the present invention.
And step S102, establishing a mapping relation.
According to the invention, the WBS data and the inspection batch data are mapped, the EBS data and the WBS data are mapped, and the EBS data and the QList data are mapped. Specifically, the mapping relationship is as follows:
WBS data and test batch data mapping
The WBS data and the inspection batch data establish a mapping relation which satisfies the following relation:
DW＝{SW1,SW2,SW3,...SWn}，
SW＝{IL1,IL2,IL3,...ILN}，
wherein DW is subsection engineering data in WBS data, SW is subsection engineering data in WBS data, and IL is inspection batch data; n is a natural number, and N is a layer number.
When the inspection batch data display is completely finished, the project data are completely finished;
and when the project data display is completely finished, the project data of the partial project are completely finished.
The WBS data includes a Division (DW), a subdivision project (SW), and an Inspection Lot (IL). The inspection batch driving subsection completion state is realized through data mapping logics such as WBS and inspection batch.
EBS data to WBS data mapping
The mapping relation between the EBS data and the WBS data is established and meets the following relation:
A＝{B1,B2,B3....BN}，
B∈{DW1,DW2,DW3..DWN}，
wherein A is the whole engineering data in EBS data, B is the component data in EBS data, DW is the partial engineering data in WBS data,
and when the display of the branch engineering data is finished, the display of the component data is finished, and the finished component data is counted and listed in the pricing range.
For example, a certain engineering entity a (overall engineering) is composed of several types of components B, and the completion of the completion state of the engineering entity (overall engineering) in the EBS is driven by WBS task completion through EBS and WBS data mapping logic, that is, the component B corresponds to a WBS division engineering DW, and if the DW is completed, the component B is completed, and the component B can be priced.
EBS and the QList data mapping
The mapping relation between the EBS and the QList data satisfies the following relation:
A∈{QA1、QA2、QA3....QAN}，
B∈{QN1、QN2、QN3...QNN}，
wherein A is the whole engineering data in the EBS data, B is the component data in the EBS data, QA1、QA2、QA3、…、QANIs the first level in the third node level in the QList data; qN1、QN2、QN3、…、QNNIs the nth level in the level of the third node in the QList data.
And calculating the cost of the finished engineering entity through EBS and QList data mapping, thereby completing the work of checking the labor and pricing.
When the mapping relationship between the EBS template and the QList template is established, the engineering entity and the engineering quantity list are required to be associated to establish a corresponding relationship. Taking bridge and culvert specialties as an example, the bridge A needs to correspond to a grand bridge in a project quantity list, and simultaneously needs to correspond to a next-level complex grand bridge of the grand bridge, and the corresponding relation needs to be established between the two levels. And a certain pile B in the bridge corresponds to one of a dug pile, a drilled pile or a sunk pile in the engineering quantity list. An item of onshore concrete or offshore concrete in the next level of bored pile. And mapping is realized through the EBS and QList data mapping realization mode and the corresponding relation of the hierarchical codes.
Finally, the mapping tables of EBS data and QList data are established as shown in Table 1. The table lists only the whole engineering data and the component data in the partial EBS data and the corresponding engineering quantity list, and those skilled in the art can understand that the corresponding data table can be obtained only according to the mapping relationship of the present invention.
Table 1 mapping table of EBS data and QList data for bridge specialties as an example
Note: the table shows the entire engineering data and the component data in only a part of the EBS data.
According to the invention, according to the railway engineering pricing database: and establishing a mapping relation among the EBS data, the WBS data and the Qlist data. And when the branch in the WBS, the inspection lot associated with the project and the construction record table are finished, representing that the branch project is finished, and representing that the project entity associated with the project is finished after the node project in the project is finished according to the project construction sequence. And establishing a corresponding association relation between the EBS template and the Qlist template, wherein the associated Qlist data enters a checking pricing range after the engineering entity is finished, and otherwise, the associated Qlist data cannot enter the checking pricing calculation range. Fig. 6 is a schematic diagram of a mapping relationship established by a bridge and culverts in an embodiment of the present invention.
And step S103, checking the labor and calculating the price.
And acquiring engineering data, and calculating the total valuation by using the established mapping relation.
Calculating a total engineering price by using the mapping relation between the EBS data and the QList data, and calculating by the following method:
T＝∑t1+t2+t3+....+tn，
tn＝qn×pn，
wherein q isnIs an engineering quantity, pnIs a unit price of tnIs the total price of the component.
And after the construction unit enters the field, establishing corresponding data according to a design drawing and a project amount list, selecting a corresponding specialty, and establishing EBS data according to the construction drawing. And synchronously recording each construction design quantity when the EBS data is established, wherein the design quantity calculation rule is subject to the engineering quantity inventory calculation rule. And selecting specific partial items, inspection lots and construction record table data in the WBS according to the template corresponding relation provided by each decomposition construction system, and setting a key node process. And associating the content of the Qlsit engineering quantity list, and selecting specific sub-category characteristics, unit price and total price in the engineering quantity list. After the recording is finished, a railway engineering pricing database provided by the invention is established, a mapping relation is established between WBS data and inspection batch data, a mapping relation is established between EBS data and WBS data, and a mapping relation is established between EBS data and QList data.
After the corresponding relation among the EBS, the WBS and the Qlist is established, the mapping relation is used for one-key automatic checking and pricing. And completing the project of expressing the items through the examination and approval and the construction record form associated with the project of expressing the items. The pricing method suitable for railway engineering provided by the invention realizes automatic production of the price-checking and pricing targets, automatic statistics of the inspection batches and automatic production of the price-checking and pricing tables through the incidence relation among the three. FIG. 7 is a flow chart illustrating the process of validating pricing in one embodiment of the present invention.
The above description has been given in detail for a pricing method for railway engineering according to the present invention, and the following description is given in detail for a pricing system for railway engineering according to the present invention.
The pricing system suitable for railway engineering provided by the invention comprises: the system comprises a railway engineering pricing database, a WBS data, EBS data and Qlist data mapping module and a pricing module.
The invention establishes a railway engineering pricing database on the basis of the existing technologies of railway WBS basic data, railway EBS basic data and Qlist basic data. The established railway engineering pricing database comprises WBS data, EBS data and Qlist data.
A railway engineering pricing database.
WBS data
On the basis of the railway WBS basic data, a first level code is added, and a plurality of different first node levels are added to construct WBS data.
In some embodiments, the WBS data is added with branch, itemized key node data and hierarchical coding on the basis of 2018 professional construction quality acceptance mark templates. And the key node data information in the parts and the items shows that the related engineering entities are finished after the node is finished.
The WBS hierarchical code needs to be compiled according to different specialties and different node hierarchical codes. Encoded as the EBS, WBS, and Qlist mapping bases.
EBS data
And adding a second hierarchical code and a plurality of different second node hierarchies on the basic data of the railway EBS to construct the EBS data.
In some embodiments, the EBS data is the content of adding a hierarchical code, whether a node can be copied, whether an entity node (overall project) maintains mileage, whether a node name can be modified, and the like on the basic data of the "railway engineering entity structure decomposition guideline" of the railway BIM alliance. The EBS hierarchy code needs to be compiled according to different specialties and different node hierarchy codes. Encoded as the EBS, WBS, and Qlist mapping bases.
Qlist data
And adding a third node level on the Qlist basic data to construct Qlist data.
In some embodiments, the Qlist data is added to the content of the railway engineering volume list specification, and the Qlist hierarchical codes need to be compiled according to different specialties and different node hierarchical codes. Encoded as the EBS, WBS, and Qlist mapping bases.
WBS data, EBS data, and Qlist data mapping module.
According to the invention, the WBS data and the inspection batch data are mapped, the EBS data and the WBS data are mapped, and the EBS data and the QList data are mapped. Specifically, the mapping relationship is as follows:
WBS data and test batch data mapping
The WBS data and the inspection batch data establish a mapping relation which satisfies the following relation:
DW＝{SW1,SW2,SW3,...SWn}，
SW＝{IL1,IL2,IL3,...ILN}，
wherein DW is subsection engineering data in WBS data, SW is subsection engineering data in WBS data, and IL is inspection batch data;
when the inspection batch data display is completely finished, the project data are completely finished;
and when the project data display is completely finished, the project data of the partial project are completely finished.
The WBS data includes a Division (DW), a subdivision project (SW), and an Inspection Lot (IL). The inspection batch driving subsection completion state is realized through data mapping logics such as WBS and inspection batch.
EBS data to WBS data mapping
The mapping relation between the EBS data and the WBS data is established and meets the following relation:
A＝{B1,B2,B3....BN}，
B∈{DW1,DW2,DW3..DWN}，
wherein A is the whole engineering data in EBS data, B is the component data in EBS data, DW is the partial engineering data in WBS data,
and when the display of the branch engineering data is finished, the display of the component data is finished, and the finished component data is counted and listed in the pricing range.
For example, a certain engineering entity a (overall engineering) is composed of several types of components B, and the completion of the completion state of the engineering entity (overall engineering) in the EBS is driven by WBS task completion through EBS and WBS data mapping logic, that is, the component B corresponds to a WBS division engineering DW, and if the DW is completed, the component B is completed, and the component B can be priced.
EBS and the QList data mapping
The mapping relation between the EBS and the QList data satisfies the following relation:
A∈{QA1、QA2、QA3....QAN}，
B∈{QN1、QN2、QN3...QNN}，
wherein A is the whole engineering data in the EBS data, B is the component data in the EBS data, QA1、QA2、QA3、…、QANIs the first level in the third node level in the QList data; qN1、QN2、QN3、…、QNNIs the nth level in the level of the third node in the QList data.
And calculating the cost of the finished engineering entity through EBS and QList data mapping, thereby completing the work of checking the labor and pricing.
When the mapping relationship between the EBS template and the QList template is established, the engineering entity and the engineering quantity list are required to be associated to establish a corresponding relationship. Taking bridge and culvert specialties as an example, the bridge A needs to correspond to a grand bridge in a project quantity list, and simultaneously needs to correspond to a next-level complex grand bridge of the grand bridge, and the corresponding relation needs to be established between the two levels. And a certain pile B in the bridge corresponds to one of a dug pile, a drilled pile or a sunk pile in the engineering quantity list. An item of onshore concrete or offshore concrete in the next level of bored pile. And mapping is realized through the EBS and QList data mapping realization mode and the corresponding relation of the hierarchical codes.
And a pricing module.
And the system is used for acquiring engineering data and calculating the total valuation by utilizing the established mapping relation.
Calculating a total engineering price by using the mapping relation between the EBS data and the QList data, and calculating by the following method:
T＝∑t1+t2+t3+....+tn，
tn＝qn×pn，
wherein q isnIs an engineering quantity, pnIs a unit price of tnIs the total price of the component.
And after the construction unit enters the field, establishing corresponding data according to a design drawing and a project amount list, selecting a corresponding specialty, and establishing EBS data according to the construction drawing. And synchronously recording each construction design quantity when the EBS data is established, wherein the design quantity calculation rule is subject to the engineering quantity inventory calculation rule. And selecting specific partial items, inspection lots and construction record table data in the WBS according to the template corresponding relation provided by each decomposition construction system, and setting a key node process. And associating the content of the Qlsit engineering quantity list, and selecting specific sub-category characteristics, unit price and total price in the engineering quantity list. After the recording is finished, a railway engineering pricing database provided by the invention is established, a mapping relation is established between WBS data and inspection batch data, a mapping relation is established between EBS data and WBS data, and a mapping relation is established between EBS data and QList data.
After the corresponding relation among the EBS, the WBS and the Qlist is established, the mapping relation is used for one-key automatic checking and pricing. And completing the project of expressing the items through the examination and approval and the construction record form associated with the project of expressing the items. The pricing system suitable for railway engineering provided by the invention realizes automatic production of the price-checking pricing target, automatic statistics of the inspection lot and automatic production of the price-checking pricing table through the incidence relation among the three.
In accordance with the above method, the present invention also provides a pricing system for railway engineering, the system comprising a computer device comprising a processor and a memory, the memory having stored therein computer instructions, the processor being configured to execute the computer instructions stored in the memory, the system implementing the steps of the method as described above when the computer instructions are executed by the processor.
Embodiments of the present invention further provide a computer-readable storage medium, on which a computer program is stored, where the computer program is executed by a processor to implement the foregoing steps of the edge computing server deployment method. The computer readable storage medium may be a tangible storage medium such as Random Access Memory (RAM), memory, Read Only Memory (ROM), electrically programmable ROM, electrically erasable programmable ROM, registers, floppy disks, hard disks, removable storage disks, CD-ROMs, or any other form of storage medium known in the art.
The pricing method and the pricing system suitable for railway engineering provided by the invention are characterized in that a railway engineering pricing database is established on the basis of the existing EBS basic data, WBS basic data and Qlist data, a mapping method is established for the established EBS data, WBS data and Qlist data in the railway engineering pricing database, the EBS completion state is judged according to the WBS task completion state, the Qlist is subjected to labor checking pricing calculation according to the EBS completion state, and then the pricing list calculation is automatically completed.
The invention realizes the automatic checking, data checking and checking pricing calculation and statistics of the engineering entities by the pricing method based on the railway engineering entities EBS, WBS and Qlist, solves the phenomena of virtual checking and over-checking in the engineering checking pricing, improves the checking pricing efficiency, and realizes the one-key checking pricing calculation by using less field workload in the later period through the configuration of the corresponding relationship in the earlier period.
Those of ordinary skill in the art will appreciate that the various illustrative components, systems, and methods described in connection with the embodiments disclosed herein may be implemented as hardware, software, or combinations of both. Whether this is done in hardware or software depends upon the particular application and design constraints imposed on the solution. Skilled artisans may implement the described functionality in varying ways for each particular application, but such implementation decisions should not be interpreted as causing a departure from the scope of the present invention. When implemented in hardware, it may be, for example, an electronic circuit, an Application Specific Integrated Circuit (ASIC), suitable firmware, plug-in, function card, or the like. When implemented in software, the elements of the invention are the programs or code segments used to perform the required tasks. The program or code segments may be stored in a machine-readable medium or transmitted by a data signal carried in a carrier wave over a transmission medium or a communication link.
It is to be understood that the invention is not limited to the specific arrangements and instrumentality described above and shown in the drawings. A detailed description of known methods is omitted herein for the sake of brevity. In the above embodiments, several specific steps are described and shown as examples. However, the method processes of the present invention are not limited to the specific steps described and illustrated, and those skilled in the art can make various changes, modifications and additions or change the order between the steps after comprehending the spirit of the present invention.
Features that are described and/or illustrated with respect to one embodiment may be used in the same way or in a similar way in one or more other embodiments and/or in combination with or instead of the features of the other embodiments in the present invention.
Other embodiments of the invention will be apparent to those skilled in the art from consideration of the specification and practice of the invention disclosed herein. It is intended that the specification and examples be considered as exemplary only, with a true scope and spirit of the invention being indicated by the following claims.
Claims (10)
1. A pricing method for railway engineering, characterized in that the method comprises the following method steps:
railway WBS basic data, railway EBS basic data and Qlist basic data are obtained, a railway engineering pricing database is established, wherein,
the railway engineering pricing database comprises: WBS data, EBS data, and Qlist data, wherein,
adding a first level code and a plurality of different first node levels on the railway WBS basic data to construct WBS data;
adding a second hierarchical code and a plurality of different second node hierarchies on the railway EBS basic data to construct EBS data;
adding a third node level on the Qlist basic data to construct Qlist data;
establishing a mapping relation, comprising: establishing a mapping relation between the WBS data and inspection batch data, establishing a mapping relation between the EBS data and the WBS data, and establishing a mapping relation between the EBS data and the QList data;
and acquiring engineering data, and calculating the total valuation by using the established mapping relation.
2. The pricing method of claim 1, wherein the WBS data is mapped with inspection lot data to satisfy the following relationships:
DW＝{SW1,SW2,SW3,...SWn}，
SW＝{IL1,IL2,IL3,...ILN}，
DW is subsection engineering data in WBS data, SW is subsection engineering data in WBS data, IL is inspection batch data, N is a natural number, and N is a layer number;
when the inspection batch data display is completely finished, the project data are completely finished;
and when the project data display is completely finished, the project data of the partial project are completely finished.
3. The pricing method of claim 1, wherein the EBS data and WBS data are mapped to satisfy the following relationships:
A＝{B1,B2,B3....BN}，
B∈{DW1,DW2,DW3..DWN}，
wherein A is the whole engineering data in EBS data, B is the component data in EBS data, DW is the partial engineering data in WBS data,
and when the display of the branch engineering data is finished, the display of the component data is finished, and the finished component data is counted and listed in the pricing range.
4. The pricing method of claim 1, wherein the mapping relationship between the EBS and the QList data satisfies the following relationship:
A∈{QA1、QA2、QA3....QAN}，
B∈{QN1、QN2、QN3...QNN}，
wherein A is the whole engineering data in the EBS data, B is the component data in the EBS data, QA1、QA2、QA3、…、QANIs the first level in the third node level in the QList data; qN1、QN2、QN3、…、QNNIs the nth level in the level of the third node in the QList data.
5. The pricing method of claim 1, wherein a total engineering price is calculated by using a mapping relationship between the EBS data and the QList data.
6. The pricing method of claim 5, characterized in that the project total pricing is calculated by:
T＝∑t1+t2+t3+....+tn，
tn＝qn×pn，
wherein q isnIs an engineering quantity, pnIs a unit price of tnIs the total price of the components, and n is a natural number.
7. Pricing system for railway engineering, characterized in that it comprises: a railway engineering pricing database, comprising:
WBS data, EBS data, and Qlist data, wherein,
adding a first level code and a plurality of different first node levels on the railway WBS basic data to construct WBS data;
adding a second hierarchical code and a plurality of different second node hierarchies on the railway EBS basic data to construct EBS data;
adding a third level code and a plurality of different third node levels on the Qlist basic data to construct Qlist data;
the WBS data, EBS data and Qlist data mapping module comprises: establishing a mapping relation between the WBS data and inspection batch data, establishing a mapping relation between the EBS data and the WBS data, and establishing a mapping relation between the EBS data and the QList data;
and the pricing module is used for acquiring engineering data and calculating the total pricing amount by utilizing the established mapping relation.
8. The pricing system of claim 7, wherein the WBS data is mapped with the inspection lot data such that the following relationships are satisfied:
DW＝{SW1,SW2,SW3,...SWn}，
SW＝{IL1,IL2,IL3,...ILN}，
wherein the content of the first and second substances,
DW is subsection engineering data in WBS data, SW is subsection engineering data in WBS data, and IL is inspection batch data;
when the inspection batch data display is completely finished, the project data are completely finished;
and when the project data display is completely finished, the project data of the partial project are completely finished.
9. Pricing system for railway engineering, comprising a processor and a memory, characterized in that the memory has stored therein computer instructions for executing the computer instructions stored in the memory, which when executed by the processor, the system realizes the steps of the method according to any of the claims 1 to 8.
10. A computer-readable storage medium, on which a computer program is stored which, when being executed by a processor, carries out the steps of the method according to any one of claims 1 to 8.
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