Terminal, server and method for monitoring project progress

Abstract

The invention relates to a terminal, a server and a method for monitoring project progress, at least one management module and an information change monitoring module are arranged in the terminal, the terminal is connected with the server in a wired or wireless mode, and the terminal is connected with the server in a wired or wireless mode in response to the operation that an operator directly clicks a project object needing to be selected on the terminal. The server sends and displays each attribute category of the engineering object to the terminal; the management module pre-specifies a change limit value of an attribute parameter of the engineering object; when the time that the change quantity of the attribute parameters of the engineering object reaches the change limit value has a shortening trend, the management module improves the frequency of information reminding by reducing the change limit value; and the information change monitoring module sends out reminding information based on the attribute parameters pre-specified by the management module and the change of the attribute parameters. The change of the project progress is actively formed based on the change limit value of the project object, and the defect that key progress construction of the project object is missed is avoided.

Description

[0001] The original basis of this divisional application is a Chinese patent application with application number (202111683767.5), application date 2021.12.29, and invention name “A method and system for engineering construction management of engineering objects”. Technical Field

[0002] The present invention relates to the technical field of engineering management, and in particular to a terminal, a server and a method for monitoring engineering progress. Background Art

[0003] With the advancement of industry, the number of engineering construction projects has gradually increased in recent years. Engineering construction projects are facing multiple pressures such as urgent progress, increasing costs and quality and safety issues. The traditional project management system only realizes the movement of offline paper work online for execution. There are few participants, and it is impossible to use original data to drive the entire project chain. This leads to the fragmentation of engineering construction data, repeated data entry, and difficulty in information query. In addition, due to the diversity of projects, the project management system is repeatedly built, which brings huge pressure to the server. It is necessary to frequently improve server performance and expand capacity, which wastes social resources.

[0004] For example, patent document CN105354652 A discloses an intelligent management system for engineering construction projects, including a server and several clients; an engineering model is stored on the server, and a cost management module and a progress management module are provided on the client; the engineering model includes an engineering module and a covering layer; the engineering module is a display module of a sub-project displayed in the engineering construction project; the engineering module includes several sub-modules, each of which is a module diagram formed individually or in combination by graphics or tables made according to the structural parts and force characteristics of the construction drawings designed in the engineering construction project, combined with construction methods and construction capabilities; the covering layer is covered on the engineering module or sub-module, and its shape, graphics and size are consistent with the engineering module or sub-module, and is used to display and manage the work content of the structural parts of the sub-project corresponding to the engineering module or sub-module; the cost management module is used to call the engineering model on the server, display the cost information of the structural parts of the corresponding sub-project on the engineering model, and perform cost management on the engineering model; the progress management module is used to call the engineering model on the server, display the progress information of the structural parts of the corresponding sub-project on the engineering model, and perform progress management on the engineering model. However, the main line of information search in this invention is confusing, and it is also unable to coordinate the management of data in the entire engineering construction life cycle, including design, procurement, construction, commissioning, and completion handover based on the engineering object. It cannot be used for project management activities such as progress, cost, and quality, and can not guarantee a single data source.

[0005] In addition, on the one hand, there are differences in understanding among those skilled in the art; on the other hand, the applicant studied a large number of documents and patents when making the present invention, but due to space limitations, not all details and contents are listed in detail. However, this does not mean that the present invention does not have the characteristics of these prior arts. On the contrary, the present invention already has all the characteristics of the prior art, and the applicant reserves the right to add relevant prior art to the background technology. Summary of the invention

[0006] In the prior art engineering construction management system, the attribute data stored in each management module is static data, that is, data that does not change. This requires that the data of each management module needs to be manually updated or the same attribute parameters in the list of each management module are stored repeatedly, and cannot be updated synchronously in time. This leads to the fact that the progress of each engineering object in the engineering construction management is not unified, and the information of each management module cannot be updated in time without manual progress monitoring, resulting in different information progress of each management module.

[0007] Based on the defects of the prior art, the present invention hopes to provide a management system that can automatically update the data list of each management module, and can automatically update the progress status, and actively remind the project management progress through the terminal, so as to realize the automated management of the management system.

[0008] In view of the deficiencies in the prior art, the present invention provides an engineering construction management system for engineering objects, in which various attribute parameters of the same engineering object are associated with various management modules; the management modules may include a design management module, a procurement management module and a construction management module that are connected to a server in a wired or wireless manner respectively; in response to parameter change information of a pre-specified attribute of at least one engineering object issued by the design management module, the procurement management module and / or the construction management module associated with the pre-specified attribute adjust the relevant procurement parameter information and / or construction parameter information based on the parameter change information and issue at least one reminder message.

[0009] In response to parameter change information of a pre-specified attribute of at least one engineering object issued by the procurement management module, the construction management module associated with the pre-specified attribute compares the parameter change information of the engineering object with necessary engineering objects involved within a preset time range. If the engineering object is a necessary engineering object, the construction management module issues at least one reminder message.

[0010] The present invention enables each management module related to the attribute parameter to change synchronously by monitoring the change information of the pre-specified attribute parameter between each management module, thereby automatically realizing mutual adjustment.

[0011] Preferably, a debugging management module is also included. The construction management module determines the progress of the engineering object based on the image information collected by several sensors. In response to the signal of the installation completion status sent by the construction management module, the debugging management module selects the debugging content based on the attribute information of the engineering object and performs automatic debugging. The debugging management module feeds back the debugging results to the progress management module. By monitoring the engineering object through image information and automatically debugging it, the delay time due to the judgment and management of the staff is reduced, so that the engineering management can be carried out automatically.

[0012] Preferably, a progress management module is also included, and the progress management module adjusts the attribute information associated with the construction management module and / or the debugging management module based on the attribute parameter information of the engineering object fed back by the design management module, the procurement management module, the construction management module and / or the debugging management module, so that the time interval between the procurement progress, the construction progress and the debugging progress of the engineering object is within a preset time range. With such a configuration, when the time interval between the procurement progress, the construction progress and the debugging progress is not within the preset time range, the present invention can quickly coordinate based on the reminder information, thereby avoiding the defect of incoordination of various progress of the project due to the change of the attribute parameters by a single management module. The present invention can quickly discover the problem of incoordination and can promote the staff to coordinate and manage.

[0013] Preferably, it also includes a cost management module, which updates the estimated information of the project cost based on the changes in the purchase information and / or project progress of several project objects, wherein when the changes and / or cumulative changes in the purchase information and / or project progress reach a limit value, the cost management module updates the estimated information of the project cost, and when the changes and / or cumulative changes in the purchase information and / or project progress do not reach the limit value, the cost management module maintains the current estimated information of the project cost. The project cost assessment is complex, and the purchase costs of several project objects are in a dynamic state at the same time, and it is difficult to accurately assess and obtain the latest cost estimation information. Therefore, the present invention is evaluated based on dynamic attribute parameters, and is effectively reminded based on the limit value, which not only reduces the phenomenon of staff frequently checking the cost management module, but also can not miss the influence of the attribute parameters that affect the cost assessment and the key changes in the total cost, which is conducive to the staff to take management measures in time to coordinate the assessment of the total cost.

[0014] Preferably, it also includes a quality management module and a handover management module. The quality management module sends a tracking instruction to the progress management module based on the unqualified status information of the engineering object. When the latest debugging result of the engineering object is sent to the progress management module by the debugging management module, the progress management module responds to the tracking instruction and issues a quality acceptance reminder message; or the quality management module sends a handover instruction to the handover management module based on the qualified status information of the engineering object, and the handover management module responds to the handover instruction and extracts the attribute parameters of the engineering object to generate a handover list. With such a configuration, the present invention can automatically perform quality management based on the tracking instruction, thereby reducing the delay in the coordination time of each department, so that engineering management can be carried out effectively.

[0015] Preferably, a human resource management module is also included. In response to the engineering preparation progress information issued by the progress management module based on the preset engineering progress node, the human resource management module sends the attribute information of the engineering object to the dispatchable personnel terminal based on the historical human resource information corresponding to the engineering preparation progress. With such a configuration, the human resource management of the present invention can automatically assign work details and work progress to construction personnel, and timely grasp the deployment of staff, reducing the manual scheduling of staff, making the assessment of whether human resources are sufficient more accurate, and making the staff more clear about their own work.

[0016] Preferably, the human resource management module updates the construction personnel corresponding to the handover information as personnel to be dispatched based on the handover information sent by the handover management module. This arrangement avoids idleness of dispatchable personnel, that is, saves labor costs.

[0017] Preferably, the attribute parameters of the engineering object are dynamic attribute parameters that can be updated by at least one management module, the attribute parameters are associated with the engineering object, the attribute parameter category is associated with at least one management module, and the management module extracts the dynamic attribute parameters associated with the engineering object based on a preset attribute list and forms dynamic management data of the engineering object. The setting of the dynamic attribute parameters of the present invention enables the various management modules of the present invention to change synchronously based on the change of the attribute parameters, so that the problem of incoordination between the various management modules can be quickly discovered, which saves the time of discovering the problem and enables the rapid promotion of engineering management.

[0018] The present invention also provides a method for engineering construction management of engineering objects, which may include: establishing an association relationship between various attribute parameters of the same engineering object and various management modules; in response to parameter change information of a pre-specified attribute of at least one engineering object issued by a design management module, a procurement management module and / or a construction management module associated with the pre-specified attribute adjusts related procurement parameter information and / or construction parameter information based on the parameter change information and issues at least one reminder message; in response to parameter change information of a pre-specified attribute of at least one engineering object issued by a procurement management module, a construction management module associated with the pre-specified attribute compares the parameter change information of the engineering object with necessary engineering objects involved within a preset time range, and when the engineering object is a necessary engineering object, the construction management module issues at least one reminder message.

[0019] Preferably, the method also includes: a construction management module determines the progress of the engineering object based on image information collected by a number of sensors, in response to a signal of installation completion status sent by the construction management module, a debugging management module selects debugging content based on attribute information of the engineering object and performs automated debugging, and the debugging management module feeds back the debugging results to the progress management module. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a schematic diagram of a preferred information structure combination of the engineering construction management system of the engineering object provided by the present invention;

[0021] Figure 2 It is a simplified module connection relationship diagram of a preferred information interaction of the engineering construction management system of the engineering object provided by the present invention.

[0022] Reference numerals list

[0023] 1: Factory structure; 2: Transmission information; 3: Database; 10: Factory model; 20: Device model; 30: System model; 40: Partition model; 50: Engineering object; 60: Document information; 70: Factory object class; 80: Professional document class; 101: Design management module; 102: Procurement management module; 103: Construction management module; 104: Debugging management module; 105: Progress management module; 106: Cost management module; 107: Quality management module; 108: Handover management module; 109: Human resource management module; 110: Document management module; 200: GIS management module; 500: Attribute parameters; 501: Numbering; 502: Specification information; 503: Spatial coordinates; 504: Procurement information; 505: Unit price information; 506: Data information; 507: Construction progress information; 508: Acceptance information; 509: Debugging information; 510: Handover information. DETAILED DESCRIPTION

[0024] The following is a detailed description with reference to the accompanying drawings.

[0025] The present invention provides an engineering construction management system and system for an engineering object, and can also provide an attribute parameter scheduling system and method for an engineering object, and can also provide an engineering progress monitoring system and method.

[0026] Different from the prior art, each attribute parameter 500 of the engineering object 50 of the present invention is a dynamic attribute parameter 500 that can be updated by at least one management module. The attribute parameter 500 is associated with the engineering object 50, and the attribute parameter category is associated with at least one management module. Figure 1 As shown, the attribute parameters 500 of the engineering object 50 are stored in association with the engineering object 50 as the association core. The attribute parameters 500 are associated with the corresponding management module. Preferably, the attribute parameters 500 belonging to the same engineering object 50 have a time attribute, and change information is stored according to time.

[0027] like Figure 1 As shown, the dynamic attribute parameters 500 of the engineering object 50 may include number 501, specification information 502, spatial coordinates 503, procurement information 504, unit price information 505, material information 506, construction progress information 507, acceptance information 508, debugging information 509 and handover information 510.

[0028] When any management module needs to view or retrieve the attribute parameter 500 of a certain engineering object 50, the latest parameter of a certain attribute of the engineering object 50 can be directly obtained. That is, the attribute parameter 500 in the list of the management module is not a traditional list of numbers that will not change. The attribute parameter 500 of the engineering object 50 displayed by the management module of the present invention changes dynamically based on the change of the attribute parameter 500 in the database 3. Preferably, the change information of the attribute parameter 500 has a time attribute and is stored with time as the associated information. When the attribute information in the list is selected, the attribute parameters 500 of different times can be displayed based on the selection instruction. For example, the unit price of the engineering object 50 has changed twice, and it is managed with the latest unit price when it is not selected. When the user selects the historical unit price with the mouse, the attribute bar of the unit price displays two unit prices with time information.

[0029] When a certain attribute parameter 500 changes, the management module associated with the attribute parameter 500 detects the attribute parameter change and issues an attribute change reminder message. In the present invention, the management module can determine whether to issue a reminder message based on the pre-specified attribute parameter change range. For example, when the pre-specified attribute parameter changes beyond the change limit, the management module issues a reminder message, otherwise no reminder message is issued. Each management module can be set in a terminal device. Terminal devices are, for example, computers, mobile phones, tablet computers, portable smart devices, and the like. Portable smart devices are, for example, smart watches, smart bracelets, smart glasses, virtual devices, VR devices, and the like.

[0030] Preferably, the properties of the engineering object 50 of the present invention have class definitions and class hierarchies. Class definitions include various classes with inheritance relationships. The first-level class includes equipment, pipelines, rooms, electrical, instruments, etc. For specific first-level classes, second-level, third-level, etc. are expanded until the clustering and differences of objects required for the project can be fully described. The present invention provides visual class definitions and inheritance relationships, which can be completed by business personnel without the intervention of developers, and realizes the visual definition of the system engineering object 50 class.

[0031] The attribute definition of the engineering object 50 includes the type of configuration data elements, the attributes of the visualization field, and the overall management of the fields of the entire system to save system resources. The attribute parameters 500 include the following fields: value type parameters text / number / currency, etc., selection type parameters manual edit / single selection / multiple selection / drop-down menu, etc., display type parameters decimal places / percentage, etc., other special parameters data association / unique identification / sequence identification, etc., and attribute identification such as temperature, pressure, length, etc.

[0032] The property configuration of the engineering object 50 is as follows: for different types of engineering objects 50, the property information of the object is configured, the property of the object is derived from the property definition, and different properties are grouped and managed by property groups to solve the problem of too many properties and ineffective management.

[0033] Compared with the prior art, the property information of the engineering object 50 of the present invention is stored in at least one library, and an information change monitoring module is provided. The information change monitoring module is used to monitor the changes of the property parameters 500, and send and display the latest property parameters 500 to the display interface of the management module. Since there are too many property parameters 500, the changes of some property parameters 500 are not the content of concern. If each property change sends a reminder message to the management module, the management module will continuously receive the reminder messages, and the excessive reminder messages will cause interference, thereby losing the function of effective reminder. Based on this defect, the information change monitoring module of the present invention can also send reminder messages based on the property parameters 500 and their changes pre-specified by the management module.

[0034] For example, for a certain attribute parameter 500 of the engineering object 50, the management module pre-specifies a change limit of the attribute parameter 500. When the change increment of the attribute parameter 500 reaches the change limit, the information change monitoring module sends a reminder message to the management module. The management module then determines whether to send a reminder message again after information evaluation.

[0035] The change limit can be a user-defined unit amount or an incremental amplitude. For example, if the user-defined unit amount is 1, it means that every time the attribute parameter 500 increases by 1 or decreases by 1, the information change monitoring module sends a reminder message to the management module that has set the unit amount. If the incremental amplitude is 2%, it means that every time the attribute parameter 500 increases by 2% of the current amount or decreases by 2% of the current amount, the information change monitoring module sends a reminder message to the management module that has set the unit amount. With such a setting, the information change monitoring module will send a reminder message to the corresponding management module only when the change of the pre-specified attribute parameter 500 reaches the preset unit amount.

[0036] Preferably, when the time for the change amount of the attribute parameter 500 to reach the change limit has a shortening trend, the management module increases the frequency of information reminders by reducing the change limit, so as not to miss the impact of the change of the attribute parameters of a necessary engineering object and avoid the disadvantage of delaying the project. For example, the change of the total budget of the project assessment is the main monitoring content of the cost management module 106. When the total budget of the cost assessment changes greatly, it will obviously lead to insufficient funds for the project, and even make the project unable to be completed in the end. For example, an engineering project consists of several sub-projects in the engineering stage. Assume that the change limit of the cost estimate of a sub-project is preset to 100,000. When the time for the cost assessment growth of the sub-project to reach 100,000 for the first time is seven days, the cost management module 106 sends a reminder message and records the first time corresponding to the change limit. When the time for the cost assessment growth of the sub-project to reach 100,000 for the second time is five days, the time to reach the change limit is significantly shortened. The cost management module 106 automatically reduces the change limit of the cost assessment of the sub-project to 50,000, which is conducive to further monitoring the change of the cost estimate of the sub-project, avoiding missing the cost change of the sub-project without causing a high frequency of reminder information, thereby improving the efficiency of the reminder information. Compared with the prior art that monitors cost changes through a preset time period, resulting in the defect of missing a certain cost assessment value and causing insufficient project funds, the cost management module 106 of the present invention automatically updates the change limit by monitoring the numerical changes of the cost estimate, and also shortens the monitoring period, so that the key values ​​of the cost estimate will not be missed, which significantly reduces the probability of insufficient funds.

[0037] When the staff of the cost management module 106 determines that the current cost needs to be reduced, the cost management module 106 is operated to send cost reduction information to the procurement management module 102, the design management module 101 and the human resource management module 109 related to the cost.

[0038] Similarly, when the time for the change in attribute parameter 500 to reach the change limit tends to be shortened, other management modules also pay attention to the changes in important attribute parameter 500 by reducing the change limit, thereby improving the effectiveness of information reminders, so that the frequency of reminder information increases and the effectiveness increases, rather than increasing the frequency of reminder information and reducing its effectiveness.

[0039] Preferably, the management module updates the relevant calculated values ​​based on the property changes of the engineering object 50. For example, when the specifications of the engineering object 50 change, the information change monitoring module sends a reminder message to the procurement management module 102. When the procurement management module 102 determines the corresponding purchase unit price, the cost management module 106 automatically updates the current cost assessment value according to the unit price change of the engineering object 50. The changes in the property parameters of these engineering objects 50 enable each management module to automatically update and manage, thereby reducing the links of manual management and reducing the storage space occupied by duplicate data. This arrangement enables each management module to promptly discover the change information of important properties, so that the management module can send reminder information to relevant personnel so that the staff can adjust the strategy in time according to the reminder information.

[0040] The management module may include a management module that establishes a connection with the server in a wired or wireless manner. The management module is, for example, a design management module 101, a procurement management module 102, a construction management module 103, a commissioning management module 104, a progress management module 105, a cost management module 106, a quality management module 107, a handover management module 108, a human resource management module 109, a document management module 110, and a GIS management module 200.

[0041] The management module also includes a registration module. The registration module is used to register the engineering objects 50. For example, during the project design process, objects are registered in a progressive and detailed manner according to the actual needs of the project. During the feasibility study phase, key equipment is designed and registered. During the detailed design phase, all engineering objects 50 that need to be constructed are registered.

[0042] The design management module 101 is used for engineering design and can quickly query the changes of object design parameters during the design process. For example, the engineering design can clarify the position logic number, design temperature, pressure, space coordinates and other information of the engineering object 50.

[0043] The procurement management module 102 is used to respond to changes in engineering design in a timely manner through the status reminder of the engineering object 50, change the procurement strategy in a timely manner, and save procurement costs. In the procurement process, the updated engineering design is classified and subcontracted based on the engineering construction object. Through the engineering object 50, various links involved in the procurement process such as demand planning, procurement planning, bidding planning, orders and contracts, equipment supervision, and material warehousing and other activities are connected in series, solving the problem of repeated record accounting in the procurement process and realizing procurement data alignment.

[0044] The construction management module 103 is used to timely record the actual data of the construction site, reduce the problem of multiple entry of construction data and incomplete data, and ensure the timeliness and effectiveness of the data.

[0045] The debugging management module 104 is used to automatically perform debugging work. First, the debugging content is composed into a debugging package, and then the construction state is controlled based on the engineering object 50. After the state is reached, the debugging task is automatically started. The debugging task can be automatically initiated through object state transmission, saving the time of personnel statistics, comparison, and analysis, assisting in the preparation of plans, and releasing manpower to focus on the quality and safety issues of the engineering construction itself.

[0046] The progress of the progress management module 105 includes design progress management, procurement progress management, construction progress management, commissioning progress management and completion progress management. The dimensions of concern in each stage are different. The design stage mainly focuses on the review and publication of the design model and design documents. The procurement stage mainly focuses on the procurement progress of each procurement package. The construction stage focuses on the construction process of different devices, different specialties and different processes. The commissioning stage mainly focuses on the situation of the system, subsystem and commissioning package. The handover stage mainly focuses on the handover list of the factory entity object. Therefore, the progress of each stage cannot be completed completely through the relationship of close front and close back. However, in the whole process, the business is very concerned about the stage of design, procurement, etc. of a certain object, and arranges the construction plan according to the expected arrival of the procurement, and can adjust the plan in time according to the change. Therefore, it is necessary to use the engineering object 50 structure to associate with different progress plans one by one, so as to realize the indirect connection between the progress plans and realize the collaborative office between the plans.

[0047] The cost management module 106 is used to estimate the cost of the project. The cost management of engineering construction is mainly divided into two parts: the management of engineering quantity and the management of object procurement. In the early stage of engineering construction, cost estimation is required. Estimation work is the source of cost management, and the basis of estimation comes from the historical experience data for the specific engineering object 50. By associating the cost in the project with the engineering object 50, the estimation can be quickly and scientifically prepared. Based on the cost of the engineering object 50, the contract, payment, change and settlement information can be counted, and the cost breakdown structure can be associated with the engineering construction object structure, and the association with the schedule activity can be indirectly realized, so as to solve the problem of the inconsistency between the cost breakdown structure and the schedule breakdown structure, and the earned value analysis can be conveniently performed.

[0048] The quality management module 107 is used to obtain the quality inspection content by retrieving the acceptance rules and specifications of the class of the engineering object 50, and to conduct timely inspection and input into the system after the work is completed. If the inspection fails, it will be tracked based on the object until it meets the requirements or is invalidated. The quality inspection is based on the object, and statistics are performed based on the attributes of the object, such as the category, profession, date, etc. of the object.

[0049] The handover management module 108 is used to form a handover list based on the engineering object 50 during the handover phase of the completed engineering object 50, which can effectively guide the handover work. The contents of the handover object include factory entity acceptance, factory object acceptance, factory object attribute and data acceptance. In the early stage, the collected data and information based on the engineering object 50 can reduce the difficulty of handover, improve the efficiency of handover, and improve the quality of handover data, providing a solid data foundation for operation and maintenance.

[0050] The human resource management module 109 is used to record execution data according to the execution of the work or quality acceptance process by personnel, count the personnel executing each stage on a certain project object 50, and count the work quality, so as to provide a data basis for human resource performance evaluation.

[0051] The document management module 110 is used to store in the form of data, organize and present in the dimension of objects, and can automatically convert into relevant design documents, construction process record documents, quality documents, commissioning result documents, completion acceptance documents and other information. The document management module 110 can be a server or a storage component. The storage component includes a dedicated integrated chip with information storage function, a server, a disk, a hard disk, etc.

[0052] The GIS management module 200 is used to visualize the three-dimensional GIS space of the project. The three-dimensional GIS space is a visual display form of the project object 50. Through the three-dimensional GIS model, the project construction object and the information of each management dimension are connected in series, and the design drawing information, design parameter table, purchase order information, construction status, etc. can be viewed in the three-dimensional GIS model. The present invention is conducive to reducing communication barriers among professionals through visualization, and also provides a convenient tool for higher quality process construction and delivery.

[0053] The operating principle of the engineering construction management system of the present invention is as follows.

[0054] In response to parameter change information of a pre-specified attribute of at least one engineering object 50 issued by the design management module 101, the procurement management module 102 and / or the construction management module 103 associated with the pre-specified attribute adjusts the relevant procurement parameter information and / or construction parameter information based on the parameter change information and issues at least one reminder message.

[0055] In response to parameter change information of a pre-specified attribute of at least one engineering object 50 issued by the procurement management module 102, the construction management module 103 associated with the pre-specified attribute compares the parameter change information of the engineering object 50 with the necessary engineering objects involved within a preset time range. In the case where the engineering object 50 is a necessary engineering object, the construction management module 103 issues at least one reminder message. The necessary engineering object in the present invention refers to an engineering object 50 related to the current construction stage, whose attribute changes can affect the current construction stage. That is, the list of necessary engineering objects changes based on the progress of the construction stage. The list of necessary engineering objects is a preset list associated with the construction stage.

[0056] Preferably, the construction management module 103 determines the progress of the engineering object 50 based on the image information collected by several sensors. In response to the signal of the installation completion status sent by the construction management module 103, the debugging management module 104 selects the debugging content based on the attribute information of the engineering object 50 and performs automatic debugging. The debugging management module 104 feeds back the debugging result to the progress management module 105. For example, the construction management module 103 determines the image change of the construction of the engineering object 50 based on the image information collected by several sensors, and sends a reminder message to the progress management module 105 when the change amount of a certain engineering object 50 reaches a preset change limit. For example, when the construction management module 103 determines through the image that the installation length of the pipeline reaches a preset position and a preset length, the construction management module 103 automatically determines that the installation of the pipeline is completed. For example, when the construction management module 103 determines through the image that the installation completion amount of the pipeline increases by 5%, the construction management module 103 sends a progress reminder message to the progress management module 105. Among them. The construction management module 103 can identify several engineering objects 50 such as pipelines, engineering bodies, and part structures based on the collected point cloud images. Compared to collecting the construction status and progress of the engineering object 50 in a periodic manner, the present invention presets the change limit of the engineering object 50 to actively remind when the engineering object 50 reaches the preset change, and can intuitively view the speed change of the construction progress based on the time period change corresponding to the same change limit. Not only that, the present invention actively forms the change of the engineering progress based on the change limit of the engineering object 50, avoiding the disadvantage of missing the key progress of the construction of the engineering object 50. Preferably, the change limit of the construction of the engineering object 50 can also be adjusted. When the change limit is reduced, the time required for a change limit of the engineering object 50 will also be reduced accordingly, which is conducive to the accurate monitoring of the engineering object 50 in the critical period.

[0057] Preferably, for the human resource management module 109, after the staff is deployed, the correlation between the increase of the staff and the progress change of the engineering object 50 is difficult to judge, so the human resource management module 109 is difficult to scientifically deploy the staff, or it is difficult to scientifically increase or reduce the construction staff. In the case where the present invention monitors the engineering object 50 with the change limit of the engineering object 50, the working time corresponding to the same change limit can intuitively show the correlation between the change of the construction staff and the progress change of the engineering object 50, and the correlation includes positive correlation, negative correlation, and unclear correlation. The human resource management module 109 can obtain the correlation between the human resource adjustment and the construction of the engineering object 50 based on the construction information collected by the construction management module 103 and the human resource information corresponding to the engineering object 50. For example, after a certain staff member is added to the construction of the engineering object 50, the change time corresponding to the change limit is shortened, and the transfer of the staff is effective. After a certain staff member is added to the construction of the engineering object 50, the change time corresponding to the change limit does not change or is extended, and the transfer of the staff is invalid. The correlation between the manpower change and the change limit of the engineering object 50 can be stored as historical information. The human resource module 109 can construct a more scientific human resource capacity assessment based on the correlation between human resource changes and the change limits of the engineering object 50 as historical data, so as to scientifically and effectively deploy staff so that the construction progress of the engineering object 50 can proceed according to the preset process progress.

[0058] Preferably, the progress management module 105 adjusts the attribute information associated with the construction management module 103 and / or the debugging management module 104 based on the attribute parameters 500 of the engineering object 50 fed back by the design management module 101, the procurement management module 102, the construction management module 103 and / or the debugging management module 104, so that the time intervals between the procurement progress, construction progress and debugging progress of the engineering object 50 are within a preset time range.

[0059] Preferably, the cost management module 106 updates the estimated information of the project cost based on the purchase information of the project objects 50 and / or the changes in the project progress, wherein:

[0060] When the change and / or cumulative change of the procurement information and / or the project progress reaches a limit value, the cost management module 106 updates the estimated information of the project cost.

[0061] When the change and / or cumulative change of the procurement information and / or the project progress does not reach the limit value, the cost management module 106 maintains the current estimated information of the project cost.

[0062] Preferably, the quality management module 107 sends a tracking instruction to the progress management module 105 based on the unqualified status information of the engineering object 50. When the latest debugging result of the engineering object 50 is sent to the progress management module 105 by the debugging management module 104, the progress management module 105 issues a quality acceptance reminder message in response to the tracking instruction. Alternatively, the quality management module 107 sends a handover instruction to the handover management module 108 based on the qualified status information of the engineering object 50, and the handover management module 108 responds to the handover instruction and extracts the attribute parameters 500 of the engineering object 50 to generate a handover list.

[0063] Preferably, in response to the engineering preparation progress information issued by the progress management module 105 based on the preset engineering progress node, the human resource management module 109 sends the attribute information of the engineering object 50 to the dispatchable personnel terminal based on the historical human resource information corresponding to the engineering preparation progress.

[0064] Preferably, the human resource management module 109 updates the construction personnel corresponding to the handover information as personnel to be dispatched based on the handover information sent by the handover management module 108 .

[0065] The present invention also provides a method for managing the construction of an engineering object 50 corresponding to the engineering construction management system of the engineering object 50. The steps of the method may include:

[0066] Establishing associations between various attribute parameters 500 of the same engineering object 50 and various management modules;

[0067] In response to parameter change information of at least one pre-specified attribute of the engineering object 50 issued by the design management module 101, the procurement management module 102 and / or the construction management module 103 associated with the pre-specified attribute adjusts the related procurement parameter information and / or construction parameter information based on the parameter change information and issues at least one reminder message

[0068] In response to parameter change information of a pre-specified attribute of at least one engineering object 50 issued by the procurement management module 102, the construction management module 103 associated with the pre-specified attribute compares the parameter change information of the engineering object 50 with the necessary engineering objects involved within a preset time range. If the engineering object 50 is a necessary engineering object, the construction management module 103 issues at least one reminder message.

[0069] In the prior art, when an operator views the properties of an engineering object 50, the properties are classified according to the property category. The operator needs to find the property data of the target engineering object 50 from the same type of property data, which significantly increases the amount of data transmission and the time consumption of the search.

[0070] The present invention sets the association relationship of attribute data with the engineering object 50 as the core. When the operator selects to view the attribute data of the engineering object 50 at any terminal, he directly clicks the engineering object 50 to be selected, and the server can send and display the various attribute categories of the engineering object 50 to the terminal, reducing the amount of data transmission between the terminal and the server. The operator only needs to select the required attribute data from the current attribute category to view, which reduces the time spent by the operator to find information.

[0071] like Figure 2 As shown, information 2 is transmitted between a plant structure 1 and a database 3. The plant structure 1 includes a plant model 10, a device model 20, a system model 30, and a partition model 40. The transmitted information 2 of the plant model 10, the device model 20, the system model 30, and the partition model 40 respectively includes associated information of an engineering object 50 and document information 60. The classification in the database 3 includes a plant object class 70 and a professional document class 80.

[0072] It should be noted that the above-mentioned specific embodiments are exemplary, and those skilled in the art can come up with various solutions inspired by the disclosure of the present invention, and these solutions also belong to the disclosure scope of the present invention and fall within the protection scope of the present invention. Those skilled in the art should understand that the present invention specification and its drawings are illustrative and do not constitute a limitation on the claims. The scope of protection of the present invention is defined by the claims and their equivalents. The present invention specification contains multiple inventive concepts, such as "preferably", "according to a preferred embodiment" or "all indicate that the corresponding paragraph discloses an independent concept, and the applicant reserves the right to file a divisional application based on each inventive concept.

Claims

1. A terminal for monitoring project progress, wherein at least one management module and an information change monitoring module are provided in the terminal, and the terminal is connected to a server in a wired or wireless manner, characterized in that: In response to an operator directly clicking on a desired engineering object (50) on the terminal, the server sends and displays various attribute categories of the engineering object (50) to the terminal; The management module pre-specifies a change limit of an attribute parameter (500) of an engineering object (50); When the time for the change amount of the attribute parameter (500) of the engineering object (50) to reach the change limit has a tendency to shorten, the management module increases the frequency of information reminders by reducing the change limit; The information change monitoring module issues reminder information based on the attribute parameters (500) pre-specified by the management module and their changes.

2. The terminal according to claim 1, characterized in that Establishing association relationships between the attribute parameters (500) of the same engineering object (50) and different management modules; When the attribute parameter (500) changes, a management module associated with the attribute parameter (500) detects the attribute parameter change and determines whether to issue a reminder message based on a pre-specified attribute parameter change range; When the pre-specified attribute parameter changes exceed the change limit, a reminder message is issued.

3. The terminal according to claim 1 or 2, characterized in that: The attribute parameters (500) of the engineering object (50) displayed by the management module change dynamically based on changes in the attribute parameters (500) in the database (3).

4. The terminal according to any one of claims 1 to 3, characterized in that: The management module includes a design management module (101), a procurement management module (102) and a construction management module (103); In response to parameter change information of a pre-specified attribute of an engineering object (50) issued by the design management module (101), the procurement management module (102) and / or the construction management module (103) associated with the pre-specified attribute adjusts related procurement parameter information and / or construction parameter information based on the parameter change information and issues a reminder message; In response to parameter change information of a pre-specified attribute of an engineering object (50) issued by the procurement management module (102), the construction management module (103) associated with the pre-specified attribute compares the parameter change information of the engineering object (50) with necessary engineering objects involved within a preset time range. If the engineering object (50) is a necessary engineering object, the construction management module (103) issues at least one reminder message.

5. The terminal according to any one of claims 1 to 4, characterized in that: The management module also includes a debugging management module (104), The construction management module (103) determines the progress of the engineering object (50) based on the image information collected by the plurality of sensors. In response to the signal of the installation completion status sent by the construction management module (103), the debugging management module (104) selects debugging content based on the attribute information of the engineering object (50) and performs automatic debugging. The debugging management module (104) feeds back the debugging result to the progress management module (105).

6. A server capable of establishing a connection with a terminal for monitoring the progress of a project in a wired or wireless manner, characterized in that: In response to an operation by an operator directly clicking on a desired engineering object (50) at the terminal, the server sends and displays various attribute categories of the engineering object (50) to the terminal; The management module in the terminal pre-specifies a change limit of an attribute parameter (500) of an engineering object (50); When the time for the change amount of the attribute parameter (500) of the engineering object (50) to reach the change limit has a tendency to shorten, the management module increases the frequency of information reminders by reducing the change limit; The information change monitoring module issues reminder information based on the attribute parameters (500) pre-specified by the management module and their changes.

7. The server according to claim 6, characterized in that: The change information of the attribute parameter (500) has a time attribute and is stored with time as associated information; The attribute parameters (500) of the engineering object (50) change dynamically based on changes in the attribute parameters (500) in the database (3); When the terminal needs to view or retrieve the attribute parameters of the engineering object (500), the terminal directly obtains the latest attribute parameters of the engineering object from the server; When the attribute information in the list of the terminal is selected, the server displays attribute parameters of different times based on the selection instruction (500).

8. The server according to claim 6 or 7, characterized in that: Establishing association relationships between the attribute parameters (500) of the same engineering object (50) and different management modules; When the attribute parameter (500) changes, a management module associated with the attribute parameter (500) detects the attribute parameter change and determines whether to issue a reminder message based on a pre-specified attribute parameter change range; When the pre-specified attribute parameter changes exceed the change limit, a reminder message is issued.

9. A method for monitoring project progress, characterized in that: The method comprises: In response to an operator directly clicking on a desired engineering object (50) on the terminal, the server sends and displays various attribute categories of the engineering object (50) to the terminal; The management module in the terminal pre-specifies a change limit of an attribute parameter (500) of an engineering object (50); When the time for the change amount of the attribute parameter (500) of the engineering object (50) to reach the change limit has a tendency to shorten, the management module increases the frequency of information reminders by reducing the change limit; The information change monitoring module issues reminder information based on the attribute parameters (500) pre-specified by the management module and their changes.

10. The method for monitoring engineering progress according to claim 9, characterized in that: The method further comprises: establishing association relationships between the attribute parameters (500) of the same engineering object (50) and different management modules; When the attribute parameter (500) changes, a management module associated with the attribute parameter (500) detects the attribute parameter change and determines whether to issue a reminder message based on a pre-specified attribute parameter change range; When the pre-specified attribute parameter changes exceed the change limit, a reminder message is issued.

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