An intelligent supervision platform for power construction progress

Abstract

The present invention belongs to the technical field of electric power construction progress supervision, and specifically discloses an intelligent electric power construction progress supervision platform, comprising: by detecting the progress status of each construction stage within a specified electric power project cycle, it is helpful to monitor the construction progress of the electric power project in a timely manner; by analyzing the construction progress related information of each construction stage within the specified electric power project cycle and its adjacent electric power project cycles, the corresponding lag coefficients of the material supply source, construction maintenance source, personnel composition source, and meteorological condition source of each construction stage are analyzed, and the restriction degree of each factor on the construction progress can be quantitatively evaluated; by analyzing the lag time limit of the electric power project construction progress, and adjusting the construction plan according to the lag time limit of the electric power project construction progress, dynamic updating and real-time display of data are realized, so that management personnel can grasp the latest situation of the construction site at any time, which is helpful to put forward optimization suggestions for resource scheduling to improve construction efficiency and quality.

Description

Technical Field

[0001] The invention belongs to the technical field of electric power construction progress supervision and relates to an intelligent supervision platform for electric power construction progress. Background Art

[0002] With the continuous growth of global energy demand and the rapid development of the power industry, power engineering construction, as an important infrastructure supporting social and economic development, has received increasing attention for its construction progress and quality control. However, the traditional way of supervising the progress of power construction often relies on manual on-site inspections, paper records and regular reports. This method is not only inefficient, but also prone to errors, making it difficult to achieve real-time and accurate monitoring of the construction progress. In this context, intelligent supervision of power construction progress has become an inevitable trend in the development of the industry.

[0003] With the rapid development of technologies such as big data, artificial intelligence, and the Internet of Things, these advanced technologies provide strong technical support for the intelligent supervision of power construction progress. By integrating these technologies, real-time monitoring, data analysis, and intelligent early warning of the entire power construction process can be achieved, thereby significantly improving the efficiency and accuracy of construction management.

[0004] In the prior art, there are also some related solutions involving power construction progress supervision. For example, the Chinese patent publication number CN116882844A discloses a construction progress supervision method and system, which creates corresponding project part data and construction unit data according to the sub-projects of different types of construction projects; the project part management information table of the construction project, and creates the construction unit progress management information table of the construction project; obtains the sub-project planned construction period, sub-sub-project planned construction period and construction unit planned construction period of the construction project according to the total contract construction period of the construction project, the project part management information table and the construction period estimation coefficient; sets the planned start date of the construction project, and generates a progress schedule for each construction unit according to the construction unit progress management information table of the construction project; generates an actual progress schedule for each construction unit of the construction project according to the actual quality inspection time and the actual quality acceptance time of the construction project; generates early warning information according to the construction unit progress schedule and the actual progress schedule of the construction unit.

[0005] Although the above scheme proposes some solutions to the supervision of power construction progress, it still has the following limitations: 1. The existing technology is insufficient in data analysis and can only provide simple statistical information. It is unable to deeply analyze the degree of restriction of each factor on the construction progress and its internal connection. This leads to the lack of scientific basis for managers when formulating construction plans and makes it difficult to make accurate decisions.

[0006] 2. When the construction progress lags behind, the existing technology often lacks effective response measures, which leads to managers often only being able to take a passive approach when faced with the lag problem, making it difficult to effectively shorten the lag time and restore the construction progress. Summary of the invention

[0007] In view of this, in order to solve the problems raised in the above background technology, an intelligent supervision platform for power construction progress is proposed.

[0008] The purpose of the present invention can be achieved by the following technical solutions: The present invention provides an intelligent supervision platform for power construction progress, including: a construction data acquisition module for acquiring a power engineering construction log, listing each construction stage within a specified power engineering cycle, and numbering them as , and extract the engineering plan for each construction stage within the specified power engineering cycle. The engineering plan includes material supply information, construction and maintenance information, personnel composition information, meteorological conditions information, time information, and scale information.

[0009] The progress status detection module is used to detect the progress status of each construction stage within the specified power engineering cycle, including the lagging state and the advanced state. When the progress status of each construction stage is the lagging state, the construction progress driving source of each construction stage is analyzed. The construction progress driving source includes the material supply source, construction maintenance source, personnel composition source, and meteorological condition source.

[0010] The delay time limit analysis and control module is used to build a correlation model of the construction progress driving source, analyze the delay time limit of the power project construction progress, and then adjust the construction plan according to the delay time limit of the power project construction progress.

[0011] Compared with the prior art, the present invention has the following beneficial effects: (1) The present invention helps to monitor the construction progress of a power project in a timely manner by detecting the progress status of each construction stage within a specified power project cycle.

[0012] (2) The present invention analyzes the hysteresis coefficients of the material supply source, construction maintenance source, personnel composition source, and meteorological condition source of each construction stage by analyzing the construction progress related information of each construction stage in the specified power engineering cycle and its adjacent power engineering cycles. It can quantitatively evaluate the degree of restriction of each factor on the construction progress, and thus provide a scientific basis for the subsequent adjustment and optimization of the construction plan.

[0013] (3) The present invention realizes dynamic updating and real-time display of data by analyzing the time limit of construction progress lag of power engineering projects and adjusting the construction plan according to the time limit of construction progress lag of power engineering projects, so that management personnel can grasp the latest situation of the construction site at any time, which helps to put forward optimization suggestions for resource scheduling to improve construction efficiency and quality. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings required for describing the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other accompanying drawings can be obtained based on these accompanying drawings without paying creative work.

[0015] Figure 1 This is a schematic diagram of the connection of the system modules of the present invention.

[0016] Figure 2 It is a schematic diagram of the content of the construction progress driving source in the progress status detection module of the present invention.

[0017] Figure 3 It is a display diagram of the association model of the construction progress driving source of the present invention. DETAILED DESCRIPTION

[0018] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0019] See also Figure 1 As shown, the present invention provides an intelligent supervision platform for electric power construction progress, including: a construction data acquisition module, a progress status detection module, and a lag time limit analysis and control module.

[0020] The construction data acquisition module is connected to the progress status detection module, and the progress status detection module is connected to the lag time limit analysis and control module.

[0021] The construction data acquisition module is used to obtain the power engineering construction log, list the various construction stages within the specified power engineering cycle, and number them as , and extract the engineering plan for each construction stage within the specified power engineering cycle. The engineering plan includes material supply information, construction and maintenance information, personnel composition information, meteorological conditions information, time information, and scale information.

[0022] The construction phases are sub-periods divided into the entire power engineering construction period.

[0023] In a preferred embodiment, the material supply information includes various material categories and their planned usage.

[0024] The construction maintenance information includes each rework object and each mechanical maintenance object and their operation duration.

[0025] The personnel composition information includes the type of work of the operators, the number of operators and their unit construction task volume.

[0026] The meteorological condition information includes the meteorological type and its condition time limit.

[0027] The time information includes the start time and the node time.

[0028] The scale information includes the total installed capacity of the power project, the project type, and the specific project quantity.

[0029] See also Figure 2 As shown, the progress status detection module is used to detect the progress status of each construction stage within the specified power engineering cycle, including a lagging state and an advanced state. When the progress status of each construction stage is a lagging state, the construction progress driving source of each construction stage is analyzed. The construction progress driving source includes a construction maintenance source, a material supply source, a personnel composition source, and a meteorological condition source.

[0030] The material supply source is used to detect progress delays caused by untimely material supply.

[0031] The construction maintenance source is used to handle progress delays caused by operating rework objects and mechanical maintenance objects.

[0032] The personnel composition source is used to detect delays in the implementation of construction tasks by operating personnel.

[0033] The meteorological condition source is used to detect the impact of meteorological types on each construction step.

[0034] In a preferred embodiment, the detection of the progress status of each construction stage within the specified power engineering cycle includes: extracting the node time from the corresponding time information of the engineering plan of each construction stage within the specified power engineering cycle, and extracting the static time of each construction stage from the power engineering construction log, and comparing them. When the node time of a construction stage is before the static time, the progress status of the construction stage is recorded as a lagging state, and when the node time of the construction stage is after the static time, the progress status of the construction stage is recorded as an advanced state, thereby identifying the progress status of each construction stage within the specified power engineering cycle.

[0035] The present invention helps to monitor the progress of power engineering construction in a timely manner by detecting the progress status of each construction stage within a specified power engineering cycle.

[0036] In a further preferred embodiment, the material supply source includes: extracting each material category and its planned usage from the material supply information corresponding to the engineering plan of each construction stage within the specified power engineering cycle, and extracting each material category and its usage in each construction stage from the power engineering construction log, comparing and subtracting the planned usage of each material category in each construction stage with the usage of the corresponding material category in the corresponding construction stage, and obtaining the replenishment quantity of each material category in each construction stage within the specified power engineering cycle. .

[0037] Compare the corresponding replenishment quantities of each material category in each construction stage within the specified power project cycle, filter out the minimum value, and determine it as the corresponding replenishment quantity threshold of the material category in each construction stage , and extract the corresponding replenishment channel program complexity of each material category in each construction stage from the power engineering construction log , evaluate the time consumption weight of material repurchase at each construction stage ,in is the material category number, .

[0038] The replenishment channels include direct supply from suppliers and temporary allocation through emergency procurement channels.

[0039] Extract the adjacent power engineering cycle of the specified power engineering cycle and the corresponding material categories of each construction stage from the power engineering construction log, obtain the corresponding material supply information of the engineering plan of each construction stage in the adjacent power engineering cycle, and extract the planned usage of each material category corresponding to each construction stage in the adjacent power engineering cycle, recorded as , evaluate the replenishment of materials for the adjacent power engineering cycle ,in Indicates the planned usage of each material category in each construction phase within the specified power project cycle. It is the number of the construction phase within the cycle of the adjacent power project. , It is the number of the material category belonging to the construction phase within the adjacent power project cycle. .

[0040] Analyze the corresponding hysteresis coefficient of material supply sources at each construction stage ,in Indicates the preset reference replenishment quantity of the material category.

[0041] In a further preferred embodiment, the construction maintenance source includes: extracting the total number of rework objects and mechanical maintenance objects in each construction stage within the specified power engineering cycle from the power engineering construction log and the total operation time , evaluate the maintenance weight of each construction stage within the specified power project cycle ,in Indicates the total duration of the preset reference operation.

[0042] The total number of construction objects in each construction stage within the specified power engineering cycle is extracted from the power engineering construction log, and the total number of rework objects and mechanical maintenance objects in each construction stage within the specified power engineering cycle is compared to obtain the probability of progress delay in each construction stage within the adjacent power engineering cycle. .

[0043] Analyze the corresponding hysteresis coefficient of construction maintenance sources at each construction stage .

[0044] In a further preferred embodiment, the personnel composition source includes: extracting the type of work and number of workers from the corresponding personnel composition information of the engineering plan for each construction stage within the specified power engineering cycle, and then extracting the unit construction task quantity of each worker in each construction stage. The actual construction volume of each operator at each construction stage in the specified power engineering cycle is extracted from the power engineering construction log, and the corresponding task compensation volume of each operator at each construction stage in the specified power engineering cycle is obtained by comparison and difference. , The operator's number. .

[0045] The job matching refers to the technical ability levels of different operators.

[0046] The corresponding technical ability levels of each operator in each construction stage within the specified power engineering cycle are solved for the mean value, and the comprehensive technical level of the operator type combination in each construction stage within the specified power engineering cycle is obtained. The engineering plans of the corresponding construction stages of the adjacent power engineering cycle are extracted, and then the corresponding work type combination of the operators in each construction stage within the adjacent power engineering cycle is extracted. Similarly, the comprehensive technical level of the operator type combination in each construction stage within the adjacent power engineering cycle is identified.

[0047] Compare the comprehensive technical level of the type of workers in each construction stage of the specified power project cycle with the comprehensive technical level of the type of workers in each construction stage of the adjacent power project cycle, and evaluate the lagging weight of the personnel composition in each construction stage of the adjacent power project cycle. , where It means that the comprehensive technical level of the staff type matching in each construction stage of the specified power project cycle is higher than the comprehensive technical level of the staff type matching in each construction stage of the adjacent power project cycle. It means that the comprehensive technical level of the staff type matching in each construction stage of the specified power project cycle is not higher than the comprehensive technical level of the staff type matching in each construction stage of the adjacent power project cycle. All are set constants. .

[0048] Extract the unit construction task quantity of each operator in each construction stage of the adjacent power project cycle from the engineering plan of each construction stage of the adjacent power project cycle , and then determine the corresponding task compensation amount of the operators in the adjacent power engineering cycle Based on this, the corresponding hysteresis coefficient of the personnel composition source in each construction stage is analyzed , where It indicates the preset reference task compensation amount within the specified power engineering cycle. It represents the preset reference task compensation amount in the adjacent power engineering cycle. It is the number of the operator in the construction phase during the adjacent power project cycle. .

[0049] In a further preferred embodiment, the meteorological condition source includes: detecting the meteorological type and condition time limit of each construction stage in the specified power engineering cycle through a meteorological detection instrument, matching it with the influence coefficient of each preset meteorological type on each construction step, and obtaining the influence coefficient of each construction step of the meteorological type in each construction stage in the specified power engineering cycle , is the number of the construction step, .

[0050] The weather types include strong wind / thunderstorm weather, low temperature / freezing weather, and the impact of the weather types on each construction step, such as the impact of strong wind / thunderstorm weather on the time schedule for outdoor and high-altitude operations, and the impact of low temperature / freezing weather on the time schedule for concrete freezing.

[0051] The conditional time limit is the duration of the weather type.

[0052] The various construction steps include outdoor and high-altitude work steps and concrete freezing steps.

[0053] The corresponding condition time limit of the meteorological type in each construction stage within the specified power project cycle is multiplied by the preset unit condition time limit corresponding reduction factor to obtain the corresponding condition time limit reduction factor of the meteorological type in each construction stage. .

[0054] Analyze the corresponding hysteresis coefficient of material supply sources at each construction stage .

[0055] The present invention analyzes the corresponding hysteresis coefficients of material supply sources, construction maintenance sources, personnel composition sources, and meteorological condition sources in each construction stage by analyzing the construction progress related information of each construction stage in a specified power engineering cycle and its adjacent power engineering cycles. The present invention can quantitatively evaluate the degree of restriction of each factor on the construction progress, including the timeliness of material supply, the efficiency of construction maintenance, the rationality of personnel composition, and the suitability of meteorological conditions, thereby providing a scientific basis for subsequent adjustment and optimization of the construction plan.

[0056] The time delay analysis and control module is used to construct a correlation model of the construction progress driving source, analyze the time delay of the electric power project construction progress, and then adjust the construction plan according to the time delay of the electric power project construction progress.

[0057] See also Figure 3 As shown, in a preferred embodiment, the construction progress driving source association model is constructed in the following manner: J1. Extracting the material call amount caused by construction maintenance within a specified power engineering cycle from the power engineering construction log , analyze the corresponding correlation measurement between material supply source and construction maintenance source ,in Represents the material compensation call amount within a specified power project cycle, where .

[0058] J2. Extract the material call amount caused by operator misoperation during the specified power engineering cycle from the power engineering construction log , analyze the corresponding correlation measurement between material supply source and personnel composition source .

[0059] J3. Extract the amount of material loss caused by meteorological conditions during the specified power project period from the power project construction log , analyze the corresponding correlation measurement between material supply source and meteorological condition source .

[0060] J4. Construct the material supply source correlation model by combining the corresponding correlation measurements between the material supply source and the construction maintenance source, the material supply source and the personnel composition source, and the material supply source and the meteorological condition source.

[0061] In a further preferred embodiment, the analysis of the time limit of the power engineering construction progress lag includes: analyzing the corresponding construction progress overlap factors of the material supply sources in each construction stage according to a material supply source association model.

[0062] Specifically, the method for analyzing the overlap factor of the corresponding construction progress of the material supply source in each construction stage is: performing mean calculation on the associated measurements in the material supply source association model, and using the mean calculation result as the overlap factor of the corresponding construction progress of the material supply source in each construction stage.

[0063] The corresponding lag coefficients of the material supply source, construction maintenance source, personnel composition source and meteorological condition source of each construction stage are multiplied by the corresponding construction progress overlap factor of the material supply source of the corresponding construction stage, and are multiplied by the corresponding lag time limit of the preset unit construction progress overlap factor to obtain the corresponding construction progress lag time limit of the material supply source, construction maintenance source, personnel composition source and meteorological condition source of each construction stage.

[0064] The construction progress lag time limit of the power engineering project is obtained by summing up the corresponding construction progress lag time limits of the material supply source, construction maintenance source, personnel composition source, and meteorological condition source at each construction stage.

[0065] In a further preferred embodiment, the construction plan includes synchronous construction by multiple teams and alternating continuous construction.

[0066] The multi-team synchronous construction refers to the situation that during the same construction phase within a specified power engineering cycle, multiple construction teams are responsible for different work areas or work contents and carry out construction at the same time.

[0067] The alternating continuous construction means that during a specified power project cycle, different construction teams enter the construction site in turn to carry out operations in a predetermined construction sequence. Each team withdraws after completing its construction task, and is replaced by the next team to carry out subsequent construction.

[0068] The construction plan is adjusted according to the time limit of the power project construction progress delay, including: obtaining the total installed capacity of the power project from the corresponding scale information of the project plan of each construction stage within the specified power project cycle , project type, specific project quantity , match the engineering type of the corresponding power engineering in each construction stage with the preset technical difficulty of each engineering type, and determine the technical difficulty of the corresponding power engineering in each construction stage .

[0069] The total installed capacity refers to the sum of the rated powers of all generators in a power project. For example, if a power plant has three generators, each with a rated power of 100 megawatts, then the total installed capacity of the power plant is 300 megawatts.

[0070] The types of projects mentioned above, such as hydropower stations, thermal power stations, nuclear power stations, wind power projects, photovoltaic power generation projects, etc., have their own characteristics and requirements in terms of equipment installation, civil construction, commissioning and operation, and the construction scales are different.

[0071] The specific project quantities include concrete pouring volume, equipment installation volume, building area, etc.

[0072] Compare the delay time limit of the power project construction progress with the preset benchmark delay time limit to obtain the urgency index of the power project construction period. .

[0073] Analyze the construction planning and control expectations of power engineering ,in They respectively represent the reference values ​​of the preset total installed capacity, technical difficulty and specific engineering quantity, and e is a natural constant.

[0074] A control expectation threshold is set between multi-team synchronous construction and alternating continuous construction, and the control expectation of the construction plan of the power project is compared with the set control expectation threshold. When the control expectation of the construction plan of the power project exceeds the set control expectation threshold, the construction plan is adjusted to multi-team synchronous construction, otherwise the construction plan is adjusted to alternating continuous construction.

[0075] The present invention realizes dynamic updating and real-time display of data by analyzing the time limit of construction progress lag of power engineering projects and adjusting the construction plan according to the time limit of construction progress lag of power engineering projects, so that management personnel can grasp the latest situation of the construction site at any time, which is helpful to put forward optimization suggestions for resource scheduling, such as adjusting personnel allocation, so as to improve construction efficiency and quality.

[0076] The above contents are merely examples and explanations of the concept of the present invention. Those skilled in the art may make various modifications or additions to the specific embodiments described or replace them in a similar manner. As long as they do not deviate from the concept of the invention or exceed the scope defined by the present invention, they shall all fall within the protection scope of the present invention.

Claims

1. An intelligent monitoring platform for power construction progress, characterized in that: include: The construction data acquisition module is used to obtain the power project construction log, list the construction stages within the specified power project cycle, and number them , and extract the engineering plan for each construction stage within the specified power engineering cycle, the engineering plan includes material supply information, construction and maintenance information, personnel composition information, meteorological conditions information, time information, and scale information; The progress status detection module is used to detect the progress status of each construction stage within the specified power engineering cycle, including the lagging state and the advanced state. When the progress status of each construction stage is the lagging state, the construction progress driving source of each construction stage is analyzed. The construction progress driving source includes the material supply source, the construction maintenance source, the personnel composition source, and the meteorological condition source; The delay time limit analysis and control module is used to build a correlation model of the construction progress driving source, analyze the delay time limit of the power project construction progress, and then adjust the construction plan according to the delay time limit of the power project construction progress; The material supply source includes: extracting each material category and its planned usage, and extracting each material category and its usage in each construction stage from the power engineering construction log, and subtracting to obtain the purchase quantity of each material category in each construction stage within the specified power engineering cycle; Compare the corresponding replenishment quantities of each material category in each construction stage within the specified power project cycle, filter out the minimum value, and determine it as the corresponding replenishment quantity threshold of the material category in each construction stage , and extract the complexity of the corresponding replenishment channel procedures for each material category in each construction stage , evaluate the time consumption weight of material repurchase at each construction stage ,in is the material category number, ; Extract the adjacent power engineering cycle of the specified power engineering cycle and the corresponding material categories in each construction stage, and evaluate the replenishment quantity of the corresponding material categories in the adjacent power engineering cycle ; Analyze the corresponding hysteresis coefficient of material supply sources at each construction stage ,in Indicates the preset reference replenishment quantity of the material category; The construction and maintenance source includes: extracting the total number of rework objects and mechanical maintenance objects in each construction stage within the specified power engineering cycle and the total operation time , evaluate the maintenance weight of each construction stage within the specified power project cycle ,in Indicates the total duration of the preset reference operation; Extract the total number of construction objects in each construction stage within the specified power engineering cycle, and compare it with the total number of rework objects and mechanical maintenance objects in each construction stage within the specified power engineering cycle to obtain the probability of progress delay in each construction stage within the adjacent power engineering cycle. , It is the number of the construction phase within the cycle of the adjacent power project. ; Analyze the corresponding hysteresis coefficient of construction maintenance sources at each construction stage ; The personnel composition source includes: extracting the type of work and number of workers, and then extracting the unit construction task volume of each worker in each construction stage. , and extract the actual construction volume of each operator at each construction stage within the specified power engineering cycle, and compare and subtract to obtain the corresponding task compensation volume of each operator at each construction stage within the specified power engineering cycle , The operator's number. ; Identify the comprehensive technical level of the type of workers in each construction stage of the specified power project cycle, extract the corresponding type of workers in each construction stage of the adjacent power project cycle, and similarly identify the comprehensive technical level of the type of workers in each construction stage of the adjacent power project cycle, and evaluate the lagging weight of the personnel composition in each construction stage of the adjacent power project cycle. ; Extract the unit construction task quantity of each operator in each construction stage of the adjacent power project cycle, and then determine the corresponding task compensation quantity of the operators in the adjacent power project cycle Based on this, the corresponding hysteresis coefficient of the personnel composition source in each construction stage is analyzed , where It indicates the preset reference task compensation amount within the specified power engineering cycle. It indicates the preset reference task compensation amount in the adjacent power engineering cycle; The meteorological condition source includes: using meteorological detection instruments to detect the meteorological type and condition time limit of each construction stage within the specified power engineering cycle, matching it with the preset influence coefficients of each meteorological type on each construction step, and obtaining the influence coefficients of each meteorological type on each construction step within the specified power engineering cycle. , is the number of the construction step, ; The corresponding condition time limit of the meteorological type in each construction stage within the specified power project cycle is multiplied by the preset unit condition time limit corresponding reduction factor to obtain the corresponding condition time limit reduction factor of the meteorological type in each construction stage. ; Analyze the meteorological conditions and corresponding hysteresis coefficients at each construction stage ; The association model of the construction progress driving source is constructed in the following specific manner: J1. Extract the material call amount caused by construction and maintenance within the specified power project cycle , analyze the corresponding correlation measurement between material supply source and construction maintenance source ,in Indicates the amount of material compensation called within a specified power project cycle; J2. Extract the material call amount caused by operator misoperation within the specified power engineering cycle , analyze the corresponding correlation measurement between material supply source and personnel composition source ; J3. Extract the amount of material loss caused by meteorological conditions during the specified power project cycle , analyze the corresponding correlation measurement between material supply source and meteorological condition source ; J4. Construct the material supply source correlation model by combining the corresponding correlation measurements between the material supply source and the construction maintenance source, the material supply source and the personnel composition source, and the material supply source and the meteorological condition source.

2. According to claim 1, an intelligent monitoring platform for electric power construction progress is characterized in that: The material supply information includes various material categories and their planned usage; The construction maintenance information includes each rework object and each mechanical maintenance object and their operation time; The personnel composition information includes the type of work of the operators, the number of operators and their unit construction task volume; The meteorological condition information includes the meteorological type and its condition time limit; The time information includes the start time and the node time; The scale information includes the total installed capacity of the power project, the project type, and the specific project quantity.

3. According to claim 2, an intelligent monitoring platform for electric power construction progress is characterized in that: The detection of the progress status of each construction stage within the specified power engineering cycle includes: extracting the node time from the corresponding time information of the engineering plan of each construction stage within the specified power engineering cycle, and extracting the static time of each construction stage from the power engineering construction log, and comparing them. When the node time of a construction stage is before the static time, the progress status of the construction stage is recorded as a lagging state, and when the node time of the construction stage is after the static time, the progress status of the construction stage is recorded as an advanced state, thereby identifying the progress status of each construction stage within the specified power engineering cycle.

4. According to claim 1, an intelligent monitoring platform for electric power construction progress is characterized in that: The analysis of the time limit of the construction progress lag of the power project includes: analyzing the corresponding construction progress overlap factors of the material supply sources in each construction stage according to the material supply source association model; Respectively multiply the corresponding hysteresis coefficients of the material supply source, construction maintenance source, personnel composition source, and meteorological condition source of each construction stage with the corresponding construction progress overlap factor of the material supply source of the corresponding construction stage, and multiply them with the corresponding hysteresis time limit of the preset unit construction progress overlap factor to obtain the corresponding construction progress hysteresis time limit of the material supply source, construction maintenance source, personnel composition source, and meteorological condition source of each construction stage, and sum them to obtain the construction progress hysteresis time limit of the power engineering project; The method for analyzing the overlap factor of the corresponding construction progress of the material supply source in each construction stage is: performing mean calculation on the associated measurements in the material supply source association model, and using the mean calculation result as the overlap factor of the corresponding construction progress of the material supply source in each construction stage.

5. The intelligent monitoring platform for electric power construction progress according to claim 2 is characterized in that: The construction plan includes simultaneous construction by multiple teams and alternating continuous construction; The construction plan for repairing the power project according to the time limit of the delayed construction progress includes: Get the total installed capacity of the power project , project type, specific project quantity , match the engineering type of the corresponding power engineering in each construction stage with the preset technical difficulty of each engineering type, and determine the technical difficulty of the corresponding power engineering in each construction stage ; Compare the delay time limit of the power project construction progress with the preset benchmark delay time limit to obtain the urgency index of the power project construction period. ; Analyze the construction planning and control expectations of power engineering ,in They represent the preset total installed capacity, technical difficulty, and reference values ​​of specific engineering quantities, respectively, and e is a natural constant; A control expectation threshold is set between multi-team synchronous construction and alternating continuous construction, and the control expectation of the construction plan of the power project is compared with the set control expectation threshold. When the control expectation of the construction plan of the power project exceeds the set control expectation threshold, the construction plan is adjusted to multi-team synchronous construction, otherwise the construction plan is adjusted to alternating continuous construction.

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