Whole-process supervision and management method for engineering project

Abstract

The invention provides an engineering project whole-process supervision and management method. The engineering project whole-process supervision and management method comprises the steps of obtaining project starting data; determining a first display rule of a visual interface according to the project starting data; obtaining process auditing data of a visual interface and quality supervision data actively uploaded by a corresponding person in charge in real time; and determining a second display rule used for adjusting the first display rule according to the process auditing data and the quality supervision data, so that the completeness of whole-process data can be checked, the rationality of the cost can be evaluated, the risk of low governance can be accurately evaluated, hidden dangers of low governance can be timely checked, and the efficiency of whole-process visualization of the engineering project can be improved.

Description

Technical Field

[0001] The present application relates to the technical field of engineering management, and in particular to a method for supervising and managing the entire process of an engineering project. Background Art

[0002] In engineering project management, assessing corruption risks is an important part of ensuring project compliance and transparency. Regulatory authorities need to conduct corruption risk assessments on engineering projects in order to promptly identify and resolve potential corruption risk issues and ensure the legality and fairness of the projects.

[0003] The anti-corruption risk assessment includes the supervision of the procedural compliance, legality and integrity of the entire project process. First, the regulatory authorities need to ensure that the various procedures of the project comply with relevant laws, regulations and rules and regulations to avoid violations. Secondly, the completeness of the entire process information should be checked to ensure that the project data is true and reliable and to eliminate information opacity. Most importantly, the possible corruption risks in the project should be assessed to prevent and resolve anti-corruption risks.

[0004] The regulatory authorities can conduct a comprehensive assessment of the corruption risks of engineering projects by establishing effective regulatory mechanisms and review processes. At the same time, they can strengthen supervision and inspection of all aspects of the project to ensure that the decision-making and implementation processes of the project are fair and transparent. In addition, the regulatory authorities can also use information technology to achieve real-time supervision of engineering projects, and promptly discover and deal with corruption risk issues. Through the assessment and supervision of corruption risks in engineering projects, the regulatory authorities can effectively prevent the occurrence of corruption and ensure the legality and fairness of the projects. This will not only help improve the transparency and standardization of engineering project management, but also help maintain social fairness and justice and promote the sustainable development of engineering projects. However, there is currently no system that can manage the entire process of engineering projects, and relying on manpower to adjust files is inconvenient and inefficient. Summary of the invention

[0005] In order to solve the above-mentioned technical problems, the present application provides a method for supervising and managing the entire process of an engineering project, which can check the completeness of the entire process data, evaluate the rationality of the cost, accurately assess the corruption risk, timely detect corruption hazards, and improve the efficiency of visualization of the entire process of the engineering project.

[0006] The above-mentioned invention objective of the present application is achieved through the following technical solutions: A method for monitoring and managing the entire process of an engineering project, the method comprising: Acquire project start-up data, more preferably, the project start-up data includes survey and design data, bidding data, construction subcontract data and completion and acceptance data; Determining a first display rule of a visualization interface according to the project startup data; Obtain process audit data in a visual interface in real time, and quality control data uploaded actively by the corresponding person in charge; A second display rule for adjusting the first display rule is determined according to the process review data and the quality supervision data.

[0007] By adopting the above technical solution, project start-up data refers to relevant information collected when the project is started, such as project goals, schedules, budgets, etc.; visual interface refers to an interface that displays project data and information in a graphical way, allowing users to understand the project situation more intuitively; the first display rule is the interface display rule determined based on the project start-up data, such as displaying the project progress in chronological order; process review data refers to the audit information of each stage of the project obtained in real time, such as task completion status, problem feedback, etc.; quality supervision data is data such as quality inspection reports and acceptance records uploaded by the corresponding person in charge; the second display rule is a rule that adjusts the first display rule based on the process review data and quality supervision data, such as adjusting the display task priority based on the quality supervision data. Combining project start-up data, visual interface, first display rule, process review data, quality supervision data, and second display rule can realize comprehensive monitoring and management of the entire process of engineering projects, ensuring that the project proceeds smoothly and achieves the expected goals.

[0008] In a preferred example, the present application may be further configured as follows: determining the first display rule of the visualization interface according to the project startup data includes: Determine the construction unit according to the project start-up data, wherein the construction unit includes a construction node, and the construction node includes a node to be reviewed and a basic node, wherein the node to be reviewed is a node where the user needs to supervise whether the construction is honest; Determine, according to the project start-up data, first process information between various construction units and second process information between various construction nodes; A first display rule is determined according to the construction unit, the construction node, the first process information and the second process information.

[0009] By adopting the above technical solution, the construction unit refers to the independent construction part divided in the engineering project, including the construction nodes; the construction nodes include the nodes to be audited and the basic nodes, among which the nodes to be audited are the nodes that need to be supervised for integrity; the first process information refers to the process relationship between the construction units, and the second process information refers to the process relationship between the construction nodes. The construction unit, construction node, first process information and second process information are determined according to the project startup data, and the first display rule can be determined, such as displaying the project progress and quality status and the status of the nodes to be audited by construction units, so as to realize the whole process monitoring and management.

[0010] In a preferred example, the present application may be further configured as follows: determining the first display rule according to the construction unit, the construction node, the first process information and the second process information includes: According to the construction unit, determining unit display characteristics; Determining node display characteristics according to the construction node; Determine, according to the first process information, a first layout feature of each of the unit display features; Determine, according to the second process information, a second layout feature of the display feature of each of the nodes; Determining interaction features according to the node to be reviewed; A first display rule is determined according to the unit display feature, the node display feature, the first layout feature, and the second layout feature, where the first display rule is used to draw a first layer, a second layer, and a third layer of a visualization interface.

[0011] By adopting the above technical solution, the unit display feature refers to the display method of the construction unit on the visualization interface determined according to its attributes and status; the node display feature refers to the display method of the construction node on the visualization interface determined according to its attributes and status; the first layout feature is to determine the layout method of each unit display feature according to the first process information; the second layout feature is to determine the layout method of each node display feature according to the second process information; the interaction feature is to determine the interaction method between the user and the interface according to the node to be reviewed. The first display rule is determined according to the unit display feature, the node display feature, the first layout feature and the second layout feature, which is used to draw the first layer, the second layer and the third layer of the visualization interface. For example, the progress and quality of each construction unit are displayed on the first layer, the review status of each construction node is displayed on the second layer, and the user interaction function is provided on the third layer, so as to realize the whole process monitoring and management.

[0012] In a preferred example, the present application may be further configured as follows: determining a first display rule according to the unit display feature, the node display feature, the first layout feature, and the second layout feature, wherein the first display rule is used in the step of drawing the first layer, the second layer, and the third layer of the visualization interface, including: Drawing a first layer according to the unit display feature and the first layout feature; Draw a second layer according to the node display feature and the second layout feature, and fold the second layer into the corresponding first layer; According to the interactive feature, a third layer is drawn, and the third layer is folded into the corresponding second layer.

[0013] By adopting the above technical solution, the first layer is drawn according to the unit display feature and the first layout feature, the second layer is drawn according to the node display feature and the second layout feature and folded into the corresponding first layer, and the third layer is drawn according to the interactive feature and folded into the corresponding second layer. A clearer and more orderly visual interface can be achieved, allowing users to intuitively understand the status of construction units and nodes, and perform interactive operations, thereby improving management efficiency and monitoring quality.

[0014] In a preferred example, the present application can be further configured as follows: the process audit data of the real-time acquisition of the visual interface and the quality supervision data actively uploaded by the corresponding person in charge include: Acquire process review data during the actual construction process, where the process review data is approval result data generated by approval by each person in charge; Acquire the interactive coordinates of the visualization interface in real time; According to the interactive coordinates, determine the construction node quality supervision report actively uploaded by the corresponding person in charge, and match the corresponding preset construction review information according to the construction node quality supervision report; It is determined whether the preset construction review information is consistent with the construction node quality supervision report actively uploaded by the corresponding person in charge. If so, the construction node quality supervision report is determined to be the quality supervision data.

[0015] By adopting the above technical solution, interactive coordinates refer to the coordinate position information of user interactive operations on the visual interface obtained in real time; the quality supervision report is the quality supervision data of the construction nodes actively uploaded by the corresponding person in charge; the construction audit information is the preset information used to approve the quality of the construction nodes. By obtaining real-time process audit data and quality supervision data, and matching the quality supervision report and the preset audit information according to the interactive coordinates, the consistency of the quality supervision report can be judged, thereby determining it as quality supervision data. This method can effectively combine real-time data and user interaction information to improve the accuracy and timeliness of quality supervision; More preferably, the acquisition of the survey and design data includes establishing survey and design rules; determining the survey and design unit and the consulting / supervision unit and conducting survey and design; obtaining the basic data required for the engineering project; carrying out the design work of the engineering project according to the survey results and demand analysis, including structural design, layout design and material selection, to ensure that the design scheme meets the project needs and specification requirements; conducting professional review of the design scheme according to the survey and design rules, including evaluation of technical feasibility, economy, safety and other aspects, to ensure the rationality and feasibility of the design scheme; uploading the design scheme results to the visualization interface; The acquisition of the bidding data includes preparing bidding / prequalification documents; determining the bidding management agency and the bidding unit and approving the prepared prequalification documents; uploading to the visual interface, publicly publishing the bidding announcement / bidding prequalification announcement, receiving registration information and issuing prequalification documents, submitting prequalification application documents to the bidding unit, conducting prequalification review, and the owner unit accepting the registration or issuing an invitation letter and issuing bidding documents according to the registration situation, opening bids, evaluating bids, publicizing the winning candidates, determining the bid, issuing a winning notice and signing a contract, and uploading the contract plan and the results of each public information to the visual interface; The bidding data also includes a land acquisition and demolition module. According to the requirements of the land and resources department's reply and attached documents, a land acquisition entrustment agreement is signed with the district's land acquisition and demolition functional department. The land acquisition and demolition area and quantity are determined by mapping. The land acquisition and demolition costs are measured according to the relevant land acquisition and demolition compensation standards. A land acquisition and demolition compensation agreement is signed with the demolished households and the agreement is uploaded to the visual interface. The land acquisition and demolition compensation is allocated and tracked. After the implementation of land acquisition and demolition, the project owner unit will collect the land. The construction subcontracting data includes the establishment of a subcontracting unit filing and avoidance system, a ledger system, a complaint and reporting system, and the determination of the establishment unit, the general construction contractor, and the subcontracting unit; the general construction contractor submits a subcontracting application, the supervision unit conducts a subcontracting review, and uploads the review results to the visual interface. The owner unit reviews the subcontracting filing materials and regularly or irregularly checks the performance of the subcontracting unit, and uploads the performance to the visual interface; The handover acceptance data includes determining the participating objects, which include the owner unit, the supervision unit, the construction unit and the quality supervision agency. The construction unit uploads the self-evaluation to the visualization interface and submits an acceptance application. The supervision unit reviews and evaluates the application documents, and uses the review and evaluation results as node display features. The owner unit applies for handover inspection, and the quality supervision agency organizes quality inspection. After organizing the handover acceptance, an acceptance certificate is issued.

[0016] In a preferred example, the present application may be further configured as follows: according to the process review data and the quality control data, determining a second display rule for adjusting the first display rule, including Extracting adjustment fields and adjustment parameters of the process audit data; According to the adjustment field, a corresponding display feature is matched in the first display rule, wherein the display feature includes a unit display feature, a node display feature, a first layout feature, a second layout feature, and an interaction feature; An adjustment rule for the display feature is determined according to the adjustment parameter.

[0017] By adopting the above technical solution, the adjustment field refers to the field information extracted from the process audit data for adjusting the display rules; the adjustment parameter is the parameter value that determines the display feature adjustment rule; the display feature includes the unit display feature, the node display feature, the first layout feature, the second layout feature, and the interaction feature, and the corresponding display feature is matched according to the adjustment field; the adjustment rule is the rule for adjusting the display feature determined according to the adjustment parameter. By extracting process audit data and quality supervision data, and adjusting the display rules according to the adjustment fields and parameters, the display of the visual interface can be dynamically updated and optimized according to the actual situation, improving management efficiency and monitoring quality.

[0018] Compared with the prior art, the present invention has the following beneficial effects: The present application provides a method for supervising and managing the entire process of an engineering project, which can check the completeness of the entire process data, evaluate the rationality of the cost, accurately assess the corruption risk, timely detect corruption hazards, and improve the efficiency of visualization of the entire process of the engineering project. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] In order to more clearly illustrate the technical solutions in the embodiments of the present application, the drawings required for describing the embodiments are briefly introduced below.

[0020] Figure 1 It is a flow chart of a method for monitoring and managing the entire process of an engineering project in one embodiment of the present application. DETAILED DESCRIPTION

[0021] The present invention will be further described below in conjunction with the accompanying drawings: like Figure 1 As shown in the figure, a method for supervising and managing the whole process of an engineering project is provided. A method for monitoring and managing the entire process of an engineering project, the method comprising the following steps: S10, obtaining project start-up data, more preferably, the project start-up data includes survey and design data, bidding data, construction subcontract data and completion and acceptance data; S11, determining a first display rule of a visualization interface according to the project startup data; S12. Obtain process audit data on the visual interface in real time, and quality supervision data uploaded actively by the corresponding person in charge; S13. Determine a second display rule for adjusting the first display rule according to the process review data and the quality supervision data.

[0022] By adopting the above technical solution, project start-up data refers to relevant information collected when the project is started, such as project goals, schedules, budgets, etc.; visual interface refers to an interface that displays project data and information in a graphical way, allowing users to understand the project situation more intuitively; the first display rule is the interface display rule determined based on the project start-up data, such as displaying the project progress in chronological order; process review data refers to the audit information of each stage of the project obtained in real time, such as task completion status, problem feedback, etc.; quality supervision data is data such as quality inspection reports and acceptance records uploaded by the corresponding person in charge; the second display rule is a rule that adjusts the first display rule based on the process review data and quality supervision data, such as adjusting the display task priority based on the quality supervision data. Combining project start-up data, visual interface, first display rule, process review data, quality supervision data, and second display rule can realize comprehensive monitoring and management of the entire process of engineering projects, ensuring that the project proceeds smoothly and achieves the expected goals.

[0023] In a preferred example, the present application may be further configured as follows: determining the first display rule of the visualization interface according to the project startup data includes: Determine the construction unit according to the project start-up data, wherein the construction unit includes a construction node, and the construction node includes a node to be reviewed and a basic node, wherein the node to be reviewed is a node where the user needs to supervise whether the construction is honest; Determine, according to the project start-up data, first process information between various construction units and second process information between various construction nodes; A first display rule is determined according to the construction unit, the construction node, the first process information and the second process information.

[0024] By adopting the above technical solution, the construction unit refers to the independent construction part divided in the engineering project, including the construction nodes; the construction nodes include the nodes to be audited and the basic nodes, among which the nodes to be audited are the nodes that need to be supervised for integrity; the first process information refers to the process relationship between the construction units, and the second process information refers to the process relationship between the construction nodes. The construction unit, construction node, first process information and second process information are determined according to the project startup data, and the first display rule can be determined, such as displaying the project progress and quality status and the status of the nodes to be audited by construction units, so as to realize the whole process monitoring and management.

[0025] In a preferred example, the present application may be further configured as follows: determining the first display rule according to the construction unit, the construction node, the first process information and the second process information includes: According to the construction unit, determining unit display characteristics; Determining node display characteristics according to the construction node; Determine, according to the first process information, a first layout feature of each of the unit display features; Determine, according to the second process information, a second layout feature of the display feature of each of the nodes; Determining interaction features according to the node to be reviewed; A first display rule is determined according to the unit display feature, the node display feature, the first layout feature, and the second layout feature, where the first display rule is used to draw a first layer, a second layer, and a third layer of a visualization interface.

[0026] By adopting the above technical solution, the unit display feature refers to the display method of the construction unit on the visualization interface determined according to its attributes and status; the node display feature refers to the display method of the construction node on the visualization interface determined according to its attributes and status; the first layout feature is to determine the layout method of each unit display feature according to the first process information; the second layout feature is to determine the layout method of each node display feature according to the second process information; the interaction feature is to determine the interaction method between the user and the interface according to the node to be reviewed. The first display rule is determined according to the unit display feature, the node display feature, the first layout feature and the second layout feature, which is used to draw the first layer, the second layer and the third layer of the visualization interface. For example, the progress and quality of each construction unit are displayed on the first layer, the review status of each construction node is displayed on the second layer, and the user interaction function is provided on the third layer, so as to realize the whole process monitoring and management.

[0027] In a preferred example, the present application may be further configured as follows: determining a first display rule according to the unit display feature, the node display feature, the first layout feature, and the second layout feature, wherein the first display rule is used in the step of drawing the first layer, the second layer, and the third layer of the visualization interface, including: Drawing a first layer according to the unit display feature and the first layout feature; Draw a second layer according to the node display feature and the second layout feature, and fold the second layer into the corresponding first layer; According to the interactive feature, a third layer is drawn, and the third layer is folded into the corresponding second layer.

[0028] By adopting the above technical solution, the first layer is drawn according to the unit display feature and the first layout feature, the second layer is drawn according to the node display feature and the second layout feature and folded into the corresponding first layer, and the third layer is drawn according to the interactive feature and folded into the corresponding second layer. A clearer and more orderly visual interface can be achieved, allowing users to intuitively understand the status of construction units and nodes, and perform interactive operations, thereby improving management efficiency and monitoring quality.

[0029] In a preferred example, the present application can be further configured as follows: the process audit data of the real-time acquisition of the visual interface and the quality supervision data actively uploaded by the corresponding person in charge include: Acquire process review data during the actual construction process, where the process review data is approval result data generated by approval by each person in charge; Acquire the interactive coordinates of the visualization interface in real time; According to the interactive coordinates, determine the construction node quality supervision report actively uploaded by the corresponding person in charge, and match the corresponding preset construction review information according to the construction node quality supervision report; It is determined whether the preset construction review information is consistent with the construction node quality supervision report actively uploaded by the corresponding person in charge. If so, the construction node quality supervision report is determined to be the quality supervision data.

[0030] By adopting the above technical solution, interactive coordinates refer to the coordinate position information of user interactive operations on the visual interface obtained in real time; the quality supervision report is the quality supervision data of the construction nodes actively uploaded by the corresponding person in charge; the construction audit information is the preset information used to approve the quality of the construction nodes. By obtaining real-time process audit data and quality supervision data, and matching the quality supervision report and the preset audit information according to the interactive coordinates, the consistency of the quality supervision report can be judged, thereby determining it as quality supervision data. This method can effectively combine real-time data and user interaction information to improve the accuracy and timeliness of quality supervision; More preferably, the acquisition of the survey and design data includes establishing survey and design rules; determining the survey and design unit and the consulting / supervision unit and conducting survey and design; obtaining the basic data required for the engineering project; carrying out the design work of the engineering project according to the survey results and demand analysis, including structural design, layout design and material selection, to ensure that the design scheme meets the project needs and specification requirements; conducting professional review of the design scheme according to the survey and design rules, including evaluation of technical feasibility, economy, safety and other aspects, to ensure the rationality and feasibility of the design scheme; uploading the design scheme results to the visualization interface; The acquisition of the bidding data includes preparing bidding / prequalification documents; determining the bidding management agency and the bidding unit and approving the prepared prequalification documents; uploading to the visual interface, publicly publishing the bidding announcement / bidding prequalification announcement, receiving registration information and issuing prequalification documents, submitting prequalification application documents to the bidding unit, conducting prequalification review, and the owner unit accepting the registration or issuing an invitation letter and issuing bidding documents according to the registration situation, opening bids, evaluating bids, publicizing the winning candidates, determining the bid, issuing a winning notice and signing a contract, and uploading the contract plan and the results of each public information to the visual interface; The bidding data also includes a land acquisition and demolition module. According to the requirements of the land and resources department's reply and attached documents, a land acquisition entrustment agreement is signed with the district's land acquisition and demolition functional department. The land acquisition and demolition area and quantity are determined by mapping. The land acquisition and demolition costs are measured according to the relevant land acquisition and demolition compensation standards. A land acquisition and demolition compensation agreement is signed with the demolished households and the agreement is uploaded to the visual interface. The land acquisition and demolition compensation is allocated and tracked. After the implementation of land acquisition and demolition, the project owner unit will collect the land. The construction subcontracting data includes the establishment of a subcontracting unit filing and avoidance system, a ledger system, a complaint and reporting system, and the determination of the establishment unit, the general construction contractor, and the subcontracting unit; the general construction contractor submits a subcontracting application, the supervision unit conducts a subcontracting review, and uploads the review results to the visual interface. The owner unit reviews the subcontracting filing materials and regularly or irregularly checks the performance of the subcontracting unit, and uploads the performance to the visual interface; The handover acceptance data includes determining the participating objects, which include the owner unit, the supervision unit, the construction unit and the quality supervision agency. The construction unit uploads the self-evaluation to the visualization interface and submits an acceptance application. The supervision unit reviews and evaluates the application documents, and uses the review and evaluation results as node display features. The owner unit applies for handover inspection, and the quality supervision agency organizes quality inspection. After organizing the handover acceptance, an acceptance certificate is issued.

[0031] In a preferred example, the present application may be further configured as follows: according to the process review data and the quality control data, determining a second display rule for adjusting the first display rule, including Extracting adjustment fields and adjustment parameters of the process audit data; According to the adjustment field, a corresponding display feature is matched in the first display rule, wherein the display feature includes a unit display feature, a node display feature, a first layout feature, a second layout feature, and an interaction feature; An adjustment rule for the display feature is determined according to the adjustment parameter.

[0032] By adopting the above technical solution, the adjustment field refers to the field information extracted from the process audit data for adjusting the display rules; the adjustment parameter is the parameter value that determines the display feature adjustment rule; the display feature includes the unit display feature, the node display feature, the first layout feature, the second layout feature, and the interaction feature, and the corresponding display feature is matched according to the adjustment field; the adjustment rule is the rule for adjusting the display feature determined according to the adjustment parameter. By extracting process audit data and quality supervision data, and adjusting the display rules according to the adjustment fields and parameters, the display of the visual interface can be dynamically updated and optimized according to the actual situation, improving management efficiency and monitoring quality.

[0033] Those skilled in the art can clearly understand that for the convenience and simplicity of description, only the division of the above-mentioned functional units and modules is used as an example. In actual applications, the above-mentioned functions can be distributed and completed by different functional units and modules as needed, that is, the internal structure of the device can be divided into different functional units or modules to complete all or part of the functions described above.

[0034] The embodiments described above are only used to illustrate the technical solutions of the present application, rather than to limit them. Although the present application has been described in detail with reference to the aforementioned embodiments, a person skilled in the art should understand that the technical solutions described in the aforementioned embodiments may still be modified, or some of the technical features may be replaced by equivalents. Such modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the embodiments of the present application, and should all be included in the protection scope of the present application.

Claims

1. A method for supervising and managing the entire process of an engineering project, characterized in that: The whole process monitoring and management method of the engineering project includes: Get project launch data; Determining a first display rule of a visualization interface according to the project startup data; Obtain process audit data in a visual interface in real time, and quality control data uploaded actively by the corresponding person in charge; A second display rule for adjusting the first display rule is determined according to the process review data and the quality supervision data.

2. The whole process supervision and management method of an engineering project according to claim 1 is characterized by: The determining of the first display rule of the visualization interface according to the project startup data includes: Determine the construction unit according to the project start-up data, wherein the construction unit includes a construction node, and the construction node includes a node to be reviewed and a basic node, wherein the node to be reviewed is a node where the user needs to supervise whether the construction is honest; Determine, according to the project start-up data, first process information between various construction units and second process information between various construction nodes; A first display rule is determined according to the construction unit, the construction node, the first process information and the second process information.

3. The whole process supervision and management method of an engineering project according to claim 2 is characterized by: The determining of the first display rule according to the construction unit, the construction node, the first process information and the second process information includes: According to the construction unit, determining unit display characteristics; Determining node display characteristics according to the construction node; Determine, according to the first process information, a first layout feature of each of the unit display features; Determine, according to the second process information, a second layout feature of the display feature of each of the nodes; Determining interaction features according to the node to be reviewed; A first display rule is determined according to the unit display feature, the node display feature, the first layout feature, and the second layout feature, where the first display rule is used to draw a first layer, a second layer, and a third layer of a visualization interface.

4. The whole process supervision and management method of an engineering project according to claim 3 is characterized by: The step of determining a first display rule according to the unit display feature, the node display feature, the first layout feature, and the second layout feature, wherein the first display rule is used for drawing the first layer, the second layer, and the third layer of the visualization interface, comprises: Drawing a first layer according to the unit display feature and the first layout feature; Draw a second layer according to the node display feature and the second layout feature, and fold the second layer into the corresponding first layer; According to the interactive feature, a third layer is drawn, and the third layer is folded into the corresponding second layer.

5. The whole process supervision and management method of an engineering project according to claim 1 is characterized by: The process audit data obtained in real time through the visual interface and the quality control data actively uploaded by the corresponding person in charge include: Acquire process review data during the actual construction process, where the process review data is approval result data generated by approval by each person in charge; Acquire the interactive coordinates of the visualization interface in real time; According to the interactive coordinates, determine the construction node quality supervision report actively uploaded by the corresponding person in charge, and match the corresponding preset construction review information according to the construction node quality supervision report; It is determined whether the preset construction review information is consistent with the construction node quality supervision report actively uploaded by the corresponding person in charge. If so, the construction node quality supervision report is determined to be the quality supervision data.

6. The method for supervising and managing the whole process of an engineering project according to claim 4 or 5, characterized in that: According to the process review data and the quality control data, a second display rule for adjusting the first display rule is determined, including Extracting adjustment fields and adjustment parameters of the process audit data; According to the adjustment field, a corresponding display feature is matched in the first display rule, wherein the display feature includes a unit display feature, a node display feature, a first layout feature, a second layout feature, and an interaction feature; An adjustment rule for the display feature is determined according to the adjustment parameter.

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