A material allocation system and method for land wind power project

Abstract

The present invention discloses a material allocation system and method for an onshore wind power project. The system includes a cloud server, a mobile platform for management personnel, a mobile platform for material management, and a mobile platform for on-site personnel. The method adopts five steps and can visualize the distribution of on-site materials in real time, effectively avoid secondary transportation of materials, save resources and costs, and can be widely used in the construction stage of onshore wind power projects. It solves the problems of construction delays and waste of resources caused by traditional construction management methods, and realizes reasonable allocation of resources and maximum utilization.

Description

Technical Field

[0001] The present invention belongs to the technical field of onshore wind power generation, and in particular relates to a material allocation system and method for an onshore wind power generation project. Background Art

[0002] In onshore wind power projects, since most wind turbines are located in relatively scattered locations, and the peak period of on-site construction coincides with a large demand for materials, the reasonable allocation of wind turbine equipment towers, wind blades and other materials is particularly important. Managers often cannot intuitively view the progress of each wind turbine position through charts, resulting in excessively rough stacking of new materials on site, and the transportation of materials to some wind turbine locations that do not meet the installation conditions, causing chaos in on-site management and making it even more difficult for on-site construction progress to meet actual construction requirements.

[0003] In addition, the rental cost of the main crane and auxiliary crane used in on-site construction is high. In order to save costs and maximize and optimize resource utilization, they need to be reasonably assigned to designated machine locations. The manufacturer's customized scheduling is uncertain, which often brings unnecessary losses in cost and construction period to on-site construction. The location of the fan point where the factory-made fan equipment is transported to the site will be extremely critical. Summary of the invention

[0004] The purpose of the present invention is to solve the above-mentioned technical problems existing in the prior art, and to provide a material allocation system and method for onshore wind power projects, which can visualize the distribution of on-site materials in real time, effectively avoid secondary transportation of materials, save resources and costs, and can be widely used in the construction stage of onshore wind power projects. It solves the delays in construction period and waste of resources caused by traditional construction management methods, and realizes reasonable allocation of resources and maximum utilization.

[0005] In order to solve the above technical problems, the present invention adopts the following technical solutions:

[0006] A material deployment system for a land wind power project, characterized in that:

[0007] Cloud server, used to store wind turbine site process data, record project progress, and communicate with various mobile platforms;

[0008] The mobile platform for managers is used to view the progress of wind turbine construction, the arrival of materials and equipment in real time, control the material transportation location, direct the construction of wind turbines, and project acceptance;

[0009] The mobile platform for material management is used to record the arrival of materials and mechanical equipment and their real-time locations, and to receive materials and control their transportation locations;

[0010] The mobile platform for on-site personnel is used to record the actual construction situation on site and initiate project acceptance.

[0011] Through information communication between cloud servers, management personnel mobile platforms, material management mobile platforms and on-site personnel mobile platforms, real-time regulation and control of materials for onshore wind power projects is achieved, making it easier to grasp real-time information on construction and to visualize the distribution of on-site materials in real time, effectively avoiding secondary transportation of materials and saving resources and costs.

[0012] Furthermore, after the construction is completed, the material QR code will correspond to the machine site and the actual site location. After scanning, the corresponding basic parameters, design parameters, transportation process, location information, and matching materials can be viewed. After the construction is completed, the material QR code can provide information such as the parameters and materials of the wind turbine site, which can facilitate the later project acceptance and operation and maintenance management.

[0013] Furthermore, the process from a single position to the inspection batch is pre-entered, and the on-site personnel can fill in the corresponding completed process on the mobile platform, and can initiate acceptance, take photos and upload them. After acceptance by the five responsible parties, the construction work of the process is officially completed and presented as visible in the system. The construction progress can be presented in a visible state in the system, which facilitates the overall management of the project construction and helps manage the construction progress.

[0014] Furthermore, the cloud server provides a visual drawing based on the uploaded information, in which the information of each construction point is recorded.

[0015] A method for allocating materials for a land wind power project, characterized by comprising the following steps:

[0016] Step 1: Establish a process database for each wind turbine site and input it into the system progress module. On-site construction personnel fill in the corresponding completed process according to the actual construction situation on site. The currently completed items on the progress one-picture overview page are grayed out; when they continue to click on quality acceptance, after the acceptance of the five parties is completed, the process is officially completed and will be actually displayed on the one-picture interface and the corresponding content can be viewed by clicking on it.

[0017] Step 2: When the manager has completed the wind turbine foundation and hoisting platform tasks, he will select the corresponding locations for wind turbine installation and can view the construction progress of the locations in real time on a progress chart.

[0018] Step 3: The management personnel can check the real-time location and estimated arrival time of the wind turbine and tower equipment with the corresponding equipment QR code number. The driver can update the material location by scanning the QR code. At the same time, the management personnel will specify the materials carried by the vehicle to the corresponding wind turbine point location. After the designation, the driver will obtain the desired location by scanning the QR code. The whole process is fully visualized.

[0019] Step 4: After the materials are assigned to the designated location, the idle main crane and auxiliary crane mechanical equipment points will be assigned to the next designated machine position. When the materials and mechanical equipment are in place, the entire match will be locked and cannot be changed. The cloud server progress interface shows that the current machine position match is successful and construction is about to begin.

[0020] Step 5: After the construction is completed, the material QR code will correspond to the machine location and the actual location on site. After scanning, you can view the corresponding basic parameters, design parameters, transportation process, location information, and matching materials.

[0021] Furthermore, in step one, the machine location selected on site can be any point at the location of the project. After the machine location is selected, the completion status of each part of the process will be displayed on a map.

[0022] Furthermore, in step 2, it is not limited to a single machine location, and any machine location can be selected to adapt to different basic constructions of various machine locations.

[0023] Furthermore, in step three, the QR code is designated as a member to which the mini program belongs who has the authority to view it, and can store and update real-time information.

[0024] Furthermore, in step 4, the main hoist and auxiliary hoist equipment can be adapted to all wind turbine machine locations, and their corresponding positions can also be viewed in real time.

[0025] The present invention has the following beneficial effects due to the adoption of the above technical solution:

[0026] The present invention combines the use of a mobile platform with material transportation scheduling to match the optimal transportation route and resource allocation plan. It can solve the problems of improper material allocation in traditional construction processes due to complex transportation routes, non-intuitive drawings, and tight construction schedules, as well as secondary transportation caused by the long distance between wind turbine locations, which leads to waste of resources. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] The present invention will be further described below in conjunction with the accompanying drawings:

[0028] Figure 1 The present invention is a structural schematic diagram of a material deployment system for a land wind power project.

[0029] Figure 2 It is a schematic diagram of the flow chart structure of a method for allocating materials for a land wind power project according to the present invention;

[0030] In the figure, 1- cloud server; 2- mobile platform for managers; 3- mobile platform for material management; 4- mobile platform for on-site personnel. DETAILED DESCRIPTION

[0031] like Figure 1As shown, a material allocation system for a land wind power project of the present invention comprises:

[0032] Cloud server 1, used to store wind turbine site process data, record project progress, and communicate with various mobile terminal platforms;

[0033] Mobile platform 2 for managers, used to view the progress of wind turbine construction, the arrival of materials and equipment in real time, control the material transportation location, direct the construction of wind turbines, and project acceptance;

[0034] Material management mobile platform 3, used to record the arrival of materials and machinery and equipment and the real-time location of materials and machinery, and to receive materials and control the transportation location;

[0035] The mobile platform 4 for on-site personnel is used to record the actual construction situation on site and initiate project acceptance.

[0036] Through information communication among the cloud server 1, the management personnel mobile platform 2, the material management mobile platform 3 and the on-site personnel mobile platform 4, real-time regulation and control of the materials of the onshore wind power project is realized, which facilitates the grasp of the real-time information of the construction, and enables real-time visualization of the distribution of on-site materials, effectively avoiding the secondary transportation of materials and saving resources and costs.

[0037] After the construction is completed, the material QR code will correspond to the machine site and the actual site location. After scanning, you can view the corresponding basic parameters, design parameters, transportation process, location information, and matching materials. After the construction is completed, the material QR code can provide information such as the parameters and materials of the wind turbine site, which can facilitate the later project acceptance and operation and maintenance management.

[0038] The process from a single machine position to the inspection batch is pre-entered, and the on-site personnel can fill in the corresponding completed process on the mobile platform 4. At the same time, they can initiate acceptance, take photos and upload them. After acceptance by the five responsible parties, the construction work of this process is officially completed and presented as visible in the system. The construction progress can be presented in a visible state in the system, which facilitates the overall management of the project construction and helps manage the construction progress.

[0039] The cloud server 1 provides a visual drawing based on the uploaded information, in which the information of each construction point is recorded.

[0040] like Figure 2 As shown, a material allocation method for a land wind power project includes the following steps:

[0041] Step 1: Establish a process database for each wind turbine site and input it into the system progress module. On-site construction personnel fill in the corresponding completed process according to the actual construction situation on site. The currently completed items on the progress one-picture overview page are grayed out; when they continue to click on quality acceptance, after the acceptance of the five parties is completed, the process is officially completed and will be actually displayed on the one-picture interface and the corresponding content can be viewed by clicking on it.

[0042] Step 2: When the manager has completed the wind turbine foundation and hoisting platform tasks, he will select the corresponding locations for wind turbine installation and can view the construction progress of the locations in real time on a progress chart.

[0043] Step 3: The management personnel can check the real-time location and estimated arrival time of the wind turbine and tower equipment with the corresponding equipment QR code number. The driver can update the material location by scanning the QR code. At the same time, the management personnel will specify the materials carried by the vehicle to the corresponding wind turbine point location. After the designation, the driver will obtain the desired location by scanning the QR code. The whole process is fully visualized.

[0044] Step 4: After the materials are assigned to the designated location, the idle main crane and auxiliary crane mechanical equipment points will be assigned to the next designated machine position. When the materials and mechanical equipment are in place, the entire match will be locked and cannot be changed. The progress interface of Cloud Server 1 shows that the current machine position match is successful and construction is about to begin.

[0045] Step 5: After the construction is completed, the material QR code will correspond to the machine location and the actual location on site. After scanning, you can view the corresponding basic parameters, design parameters, transportation process, location information, and matching materials.

[0046] In step one, the machine location selected on site can be any point at the project location. After the machine location is selected, the completion status of each part of the process will be displayed on a map.

[0047] In step 2, it is not limited to a single machine location, and any machine location can be selected to adapt to the different basic constructions of various machine locations.

[0048] In step three, the QR code is specified as a permission for members of the mini program to view, and real-time information can be stored and updated.

[0049] In step 4, the main and auxiliary hoisting equipment can be adapted to all wind turbine machine locations, and their corresponding positions can also be viewed in real time.

[0050] The present invention combines the use of a mobile platform with material transportation scheduling to match the optimal transportation route and resource allocation plan. It can solve the problems of improper material allocation in traditional construction processes due to complex transportation routes, non-intuitive drawings, and tight construction schedules, as well as secondary transportation caused by the long distance between wind turbine locations, which leads to waste of resources.

[0051] The above are only specific embodiments of the present invention, but the technical features of the present invention are not limited thereto. Any simple changes, equivalent replacements or modifications made based on the present invention to solve basically the same technical problems and achieve basically the same technical effects are all included in the protection scope of the present invention.

Claims

1. A method for material deployment of a land wind power project, characterized in that: The material allocation system used in onshore wind power projects includes Cloud server, used to store wind turbine site process data, record project progress, and communicate with various mobile platforms; The mobile platform for managers is used to view the progress of wind turbine construction, the arrival of materials and equipment in real time, control the material transportation location, direct the construction of wind turbines, and project acceptance; The mobile platform for material management is used to record the arrival of materials and mechanical equipment and their real-time locations, and to receive materials and control their transportation locations; The material allocation method for the onshore wind power project comprises the following steps: Step 1: Establish a process database for each wind turbine site and input it into the system progress module. On-site construction personnel fill in the corresponding completed process according to the actual construction situation on site. The currently completed items on the progress one-picture overview page are marked gray. When they continue to click on quality acceptance, after the acceptance of the five parties is completed, the process is officially completed and the corresponding content will be displayed on the one-picture interface. Step 2: When the manager selects the wind turbine foundation and the hoisting platform, the corresponding points for wind turbine installation are selected, and the construction progress of the points is checked in real time on the progress chart; Step 3: The manager can check the real-time location and estimated arrival time of the wind turbine and tower equipment with the corresponding equipment QR code number. The driver can update the material location by scanning the QR code. At the same time, the manager will specify the material carried by the vehicle to the corresponding wind turbine point location. After the designation, the driver can obtain the desired location by scanning the QR code. The whole process is visualized. Step 4: After the material is assigned to the designated location, the idle main crane and auxiliary crane mechanical equipment points will be assigned to the next designated machine position. When the materials and mechanical equipment are in place, the entire match will be locked and cannot be changed. The cloud server progress interface will show that the current machine position is successfully matched and construction is about to begin; Step 5: After the construction is completed, the material QR code will correspond to the machine location and the actual location on site. After scanning, you can view the corresponding basic parameters, design parameters, transportation process, location information, and matching materials.

2. A method for preparing materials for a land wind power project according to claim 1, characterized in that: In step one, the machine location selected on site is any point at the location of the project. After the machine location is selected, the completion status of each part of the process will be displayed on a map.

3. A method for preparing materials for a land wind power project according to claim 1, characterized in that: In step 2, it is not limited to a single machine location, and any machine location can be selected to adapt to different basic constructions of various machine locations.

4. A method for preparing materials for a land wind power project according to claim 1, characterized in that: In step three, the QR code is specified as a permission for members of the mini program to view and store updated real-time information.

5. The material deployment method for a land wind power project according to claim 1, characterized in that: In step 4, the main and auxiliary hoisting equipment are adapted to all wind turbine machine locations, and their corresponding positions can also be viewed in real time.

6. A method for preparing materials for a land wind power project according to claim 1, characterized in that: The process steps from a single machine position to the inspection batch are pre-entered, and on-site personnel can fill in and report the corresponding completed process on the mobile platform. At the same time, they can initiate acceptance, upload photos, and after acceptance by the five responsible parties, the construction work of the process is officially completed and visible in the system.

7. A method for preparing materials for a land wind power project according to claim 1, characterized in that: The cloud server provides visual drawings based on the uploaded information, which record the information of each construction point.

Images