Construction site management system based on intelligent deployment technology
By adopting a construction site management system based on intelligent allocation technology at the construction site, the problems of difficulty in managing the construction site and calculating workers' salaries are solved, and informatization and intelligent management of the construction site are realized, and management efficiency and construction safety are improved.
Patent Information
- Application Number
- CN202411491548.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-24
- Publication Date
- 2025-03-07
AI Technical Summary
Due to the complex production environment and complex personnel at the construction site, the construction site is scattered and the construction site is difficult to manage. The larger the scope of the construction site, the more difficult it is to work in all aspects and supervise personnel. Moreover, the daily staff on the construction site is not fixed, and it is difficult to calculate the salary clearly, which can easily lead to difficulties in collecting workers' remuneration.
The construction site management system based on intelligent allocation technology is adopted, including human-computer interaction module, work allocation module, attendance module, salary calculation module, video monitoring module, equipment dispatch module and vehicle entry and exit management module. Through the coordinated work of these modules, the information and intelligent management of the construction site is realized.
Through the system's informatization and intelligent management, the management efficiency of the construction site is improved, management omissions are prevented, construction environment losses are reduced, construction safety is improved, compensation calculations are clear, and environmental protection is helpful.
Smart Images

Figure CN119578745A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the field of smart construction sites, and in particular to a construction site management system based on intelligent deployment technology. Background Art
[0002] At present, traditional construction sites require a large number of laborers, but there is no effective integration of various information and data of laborers, which is prone to management loopholes and false reporting or underreporting of the actual number of employees. The real-name information management of laborers has become an important way for construction companies to standardize labor management, which can reflect the labor situation in a timely and accurate manner. Construction site laborers have different types of work and different levels, and can provide different working hours, but the current smart construction site management system cannot maximize the efficiency of all human resources on the construction site.
[0003] As far as the current construction sites are concerned, the production environment is complex, the personnel are complex, multiple types of work are cross-operated, and there are many ways of collaboration, showing the characteristics of scattered construction sites and difficult construction site management. The larger the scope of the construction site, the more difficult it is to combine various aspects of work and supervise personnel. In addition, the daily staff on the construction site are not completely fixed, and it is difficult to clearly calculate the salary, which easily makes it difficult to collect workers' remuneration. Summary of the invention
[0004] The present invention proposes a construction site management system based on intelligent deployment technology, which is used to solve the current complex production and operation environment of construction sites, complex personnel, cross-operation of multiple types of work, and multiple ways of collaboration, resulting in scattered construction sites and difficult construction site management. The larger the scope of the construction site, the more difficult it is to combine various aspects of work and supervise personnel. In addition, the daily staff on the construction site are not completely fixed, and it is difficult to clearly calculate the salary, which easily leads to difficulties in collecting workers' remuneration.
[0005] The present invention proposes a construction site management system based on intelligent deployment technology, comprising:
[0006] Human-computer interaction module: generates a functional interaction interface in response to real-time instructions triggered by the user;
[0007] Work dispatching module: Based on the functional interaction interface, the work tasks of the construction site workers are configured and displayed on the first visual display interface triggered in the functional interaction interface; wherein the first visual display interface is provided with a dispatching node, each construction site worker corresponds to a unique node, and the dispatching node sends the work task to the corresponding worker after receiving the feedback authentication information;
[0008] Attendance module: responds to the task dispatch information of the dispatching node and records the attendance; after the identity of the construction site worker is confirmed on the attendance record, the authentication information is fed back to the dispatching node;
[0009] Salary calculation module: connects with the dispatch node and attendance records, and calculates salary through the preset salary calculation model;
[0010] Video surveillance module: used to detect violations of workers and import violation detection information into the salary calculation model;
[0011] Equipment scheduling module: used to connect to the dispatch node and assign equipment control permissions to the corresponding workers according to the work tasks of the dispatch node;
[0012] Vehicle access management module: used to determine the target vehicles that can enter and exit the construction site according to the equipment control authority, and to perform vehicle management and control.
[0013] Further: the human-computer interaction module includes:
[0014] Task awakening unit: used to obtain the first awakening instruction and generate an interactive main interface of the target event; wherein the target event is any work task;
[0015] Functional interaction unit: When the interactive main interface receives the real-time instruction, it determines the call API data, connects the interactive main interface with the Java virtual machine through the functional interface, and generates a functional interaction interface through the connected functional interface, wherein:
[0016] Functional interfaces include function customization interfaces and IoT device docking interfaces;
[0017] The function customization interface is configured with a first function editing interface and a second function editing interface. The first function editing interface is used to edit the customized interactive function, and the second function editing interface is used to display the function description information generated according to the automatic interactive function.
[0018] Further: the work deployment module includes:
[0019] Task announcement unit: used to generate a set of work tasks in the functional interaction interface, and display the authority to receive work tasks according to the type of work tasks, and announce the tasks; among them,
[0020] The task announcement is made through the first visual display interface under the functional interaction interface;
[0021] Communication docking unit: used for communication docking through the identity authentication unit of the dispatching node and the attendance module;
[0022] Task progress determination unit: used to generate an evaluation network for work tasks at the dispatching node, and to determine the execution progress of the work tasks through the evaluation network, and to output task progress data; wherein the evaluation network is used to load task information in real time, and the task information includes but is not limited to: type of work information, task measurement information and salary information.
[0023] Further: the attendance module includes:
[0024] Database unit: used to establish a personnel information database through MYSQL database; the personnel information database includes the identity information, registration information and job information of the workers on the construction site;
[0025] Task corresponding unit: used to determine the type of work information according to the work task, and to perform a screening in the personnel information database, wherein the screening is used to screen the construction site workers who meet the type of work in the work task and the personnel information database;
[0026] Secondary screening unit: used to set up a pre-task platform, record the construction workers who have pre-tasks, and compare them with the construction workers who meet the job requirements in the personnel information database for secondary screening;
[0027] Attendance recording unit: used to extract the identity information of the construction site workers who have been screened for the second time, and compare the identity information with the identity information of the construction site workers who have pre-accepted the work tasks, and when the comparison is successful, record the corresponding worker's completion of attendance.
[0028] Further: the salary calculation model includes the following salary calculation steps:
[0029] Obtain work tasks, work task collection information, and attendance information;
[0030] Loading the work task into the salary calculation model, determining the task type, and the first salary calculation model corresponding to the task type;
[0031] Loading attendance information into a first salary calculation rule, determining construction site workers for whom salary can be calculated, and determining a second salary calculation model;
[0032] The work task receipt information is loaded into the second salary calculation model, and the completion degree of the work tasks of the construction site workers is calculated. Based on the completion degree calculation, the salary information of the current work tasks accepted by the construction site workers is determined.
[0033] Further: the video surveillance module includes:
[0034] Scene acquisition unit: used to obtain scene data of any construction worker on the construction site; wherein the scene data is a real-time behavior image of the construction worker under the monitoring equipment;
[0035] Violation determination unit: Use the yolov5 target detection algorithm to identify violations in real-time behavior images and determine whether there are any violations; violations include: theft, crossing fences, not wearing helmets, and abnormal gathering of people;
[0036] Violation loading unit: Based on the violation behavior, the violation behavior is loaded into the salary calculation model to trigger the corresponding salary penalty mechanism.
[0037] Further: the device scheduling module includes:
[0038] Device calling unit: used to obtain the device calling information in the task information of the work task according to the dispatching node, and determine the calling device and the open function of the calling device;
[0039] Permission configuration unit: Determine the functional permissions for calling the device according to the open functions of the device, and configure the authorization permissions for calling the device for the construction workers who receive the corresponding work tasks;
[0040] Power metering unit: determines the power data and idle status of the available equipment on the construction site based on the equipment call information, and generates an equipment call interactive interface;
[0041] Idle equipment display unit: transmits the equipment call interactive interface to the terminal devices of workers on the construction site and performs real-time location navigation.
[0042] Further: the real-time location navigation includes:
[0043] Acquire the location information of the callable device on the interactive interface, determine the target device, and determine the first call path for the construction site workers to reach the target device;
[0044] When the first calling path meets the preset calling condition, the text navigation guidance information is started through the terminal device;
[0045] Based on the text recognition of OCR technology, while determining the target location of the target device in the first calling path, the same navigation target location is synchronously guided according to the text navigation guidance information.
[0046] Further: the vehicle access management module includes:
[0047] License plate recognition unit: used to obtain license plate information of vehicles entering and leaving the construction site;
[0048] Control unit: used to determine the corresponding vehicle information and vehicle control authority based on the license plate information; the vehicle control authority is used to determine whether the vehicle can be controlled to enter or exit;
[0049] Flushing unit: used to automatically flush the vehicle when the vehicle leaves the construction site if the vehicle information indicates that the vehicle is allowed to enter and exit.
[0050] Further: the vehicle control also includes:
[0051] Inspect the compartments of vehicles entering and exiting to determine the transported items in the compartments;
[0052] Determine whether the transported items are associated with the work task and generate associated information;
[0053] Based on the associated information and license plate information, the workload data of the corresponding construction site workers is determined, and the workload data is input into the salary calculation model to determine whether there is a salary deviation.
[0054] The beneficial effects of the present invention are:
[0055] Through the cooperation between various modules, this system can make construction site management more information-based and intelligent, and can comprehensively monitor the construction site, prevent various management omissions, reduce losses in the construction environment, improve construction safety, make salary calculations clearer, and control dust, which can also play an important role in environmental protection.
[0056] Other features and advantages of the present invention will be described in the following description, and partly become apparent from the description, or understood by practicing the present invention. The purpose and other advantages of the present invention can be realized and obtained by the structures particularly pointed out in the written description and the accompanying drawings.
[0057] The technical solution of the present invention is further described in detail below through the accompanying drawings and embodiments. BRIEF DESCRIPTION OF THE DRAWINGS
[0058] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:
[0059] Figure 1 A system composition diagram of a construction site management system based on intelligent deployment technology in an embodiment of the present invention;
[0060] Figure 2 This is a workflow diagram of the attendance module in an embodiment of the present invention;
[0061] Figure 3 4 is a flowchart of the salary module in an embodiment of the present invention. DETAILED DESCRIPTION
[0062] The preferred embodiments of the present invention are described below in conjunction with the accompanying drawings. It should be understood that the preferred embodiments described herein are only used to illustrate and explain the present invention, and are not used to limit the present invention.
[0063] like Figure 1 As shown, this embodiment provides a construction site management system based on intelligent deployment technology, including:
[0064] Human-computer interaction module: generates a functional interaction interface in response to real-time instructions triggered by the user;
[0065] Work dispatching module: Based on the functional interaction interface, the work tasks of the construction site workers are configured and displayed on the first visual display interface triggered in the functional interaction interface; wherein the first visual display interface is provided with a dispatching node, each construction site worker corresponds to a unique node, and the dispatching node sends the work task to the corresponding worker after receiving the feedback authentication information;
[0066] Attendance module: responds to the task dispatch information of the dispatching node and records the attendance; after the identity of the construction site worker is confirmed on the attendance record, the authentication information is fed back to the dispatching node;
[0067] Salary calculation module: connects with the dispatch node and attendance records, and calculates salary through the preset salary calculation model;
[0068] Video surveillance module: used to detect violations of workers and import violation detection information into the salary calculation model;
[0069] Equipment scheduling module: used to connect to the dispatch node and assign equipment control permissions to the corresponding workers according to the work tasks of the dispatch node;
[0070] Vehicle access management module: used to determine the target vehicles that can enter and exit the construction site according to the equipment control authority, and to perform vehicle management and control.
[0071] The principle of the above technical solution is:
[0072] The present invention proposes a construction site management system based on intelligent deployment technology. In specific implementation, a human-computer interaction module is used to provide a visual interface; a work deployment module is used to realize the dispatch of work tasks by managers, the receipt of work by workers, the statistics of on-the-job personnel, and the recording of task completion; wherein the dispatch of work tasks, the receipt of work, the statistics of on-the-job personnel, and the completion of tasks are all displayed on the visual interface; an attendance module is used to obtain attendance data; the attendance data includes attendance records and visitor information registration; a salary calculation module is used to calculate salaries based on the dispatch of work tasks, the receipt of wages, the statistics of on-the-job personnel, the completion of tasks, and attendance data. A video surveillance module is used to provide anti-theft monitoring and helmet wearing monitoring functions. An equipment scheduling module is used to provide a reasonable equipment allocation function. A vehicle access management module is used to provide vehicle control and sediment control functions.
[0073] Specifically, the human-computer interaction module generates a functional interaction interface in response to the real-time instructions triggered by the user. It can generate a corresponding functional interaction interface according to the user's operation instructions. For example, after receiving the user's instructions, the corresponding option menu can be automatically popped up to allow the user to select the required function. The work allocation module configures the work tasks of the construction site workers based on the functional interaction interface and displays them in the first visual display interface triggered in the functional interaction interface. It can automatically generate corresponding work tasks according to the task type, time and other information selected by the user on the functional interaction interface, and display them in the first visual display interface, which is convenient for users to view and manage. The attendance module responds to the task dispatching information of the dispatching node and performs attendance records. It can record the attendance of the construction site workers by receiving the task dispatching information sent by the dispatching node, and record the workers' arrival status, working hours and other information, so that the administrator can perform subsequent work such as salary settlement for the workers. The salary calculation module is connected with the dispatching node and the attendance record, and performs salary calculation through the preset salary calculation model. It can calculate the salary of workers through the preset salary calculation model according to the real-time data of the dispatch node and attendance record, and return the calculation results to the administrator. The video surveillance module is used to detect violations of workers and import the violation detection information into the salary calculation model. It can monitor the workers' violations in real time through the cameras installed on the construction site, and promptly feedback the violation detection information to the salary calculation module so that it can be adjusted accordingly. The equipment scheduling module is used to connect to the dispatch node and assign equipment control permissions to the corresponding workers according to the work tasks of the dispatch node. It can automatically assign equipment control permissions to the corresponding workers according to the work tasks of the dispatch node to ensure that they can use the relevant equipment normally when they are working. The vehicle access management module is used to determine the target vehicles that can enter and exit the construction site according to the equipment control permissions and conduct vehicle control. It can determine which vehicles can enter the construction site and which vehicles cannot enter the construction site according to the equipment control permissions, and monitor the vehicles in real time to ensure their safe and orderly operation.
[0074] The beneficial effects of the above technical solution are:
[0075] Through the cooperation between various modules, this system can make construction site management more information-based and intelligent, and can comprehensively monitor the construction site, prevent various management omissions, reduce losses in the construction environment, improve construction safety, make salary calculations clearer, and control dust, which can also play an important role in environmental protection.
[0076] As an embodiment of the present invention: the human-computer interaction module includes:
[0077] Task awakening unit: used to obtain the first awakening instruction and generate an interactive main interface of the target event; wherein the target event is any work task;
[0078] Functional interaction unit: When the interactive main interface receives the real-time instruction, it determines the call API data, connects the interactive main interface with the Java virtual machine through the functional interface, and generates a functional interaction interface through the connected functional interface, wherein:
[0079] Functional interfaces include function customization interfaces and IoT device docking interfaces;
[0080] The function customization interface is configured with a first function editing interface and a second function editing interface. The first function editing interface is used to edit the customized interactive function, and the second function editing interface is used to display the function description information generated according to the automatic interactive function.
[0081] The principle of the above technical solution is:
[0082] Through the task wake-up unit and function interaction unit of the human-computer interaction module, the interaction between the user and the system is realized, making the system more user-friendly and easy to use. Among them, the task wake-up unit is responsible for obtaining the user's first wake-up instruction and generating the interactive main interface of the target event, while the function interaction unit further determines the call API data on this basis, connects the interactive main interface with the Java virtual machine through the function interface, and generates a function interaction interface. At the same time, the function interface includes a function customization interface and an IoT device docking interface. The custom interface can edit a custom access device, and the IoT device docking interface can be connected to different IoT device networks to realize function interaction and meet the different needs of different users for system functions. Among them, the first function editing interface of the function customization interface is used for users to edit interactive functions independently, and the second function editing interface is used to display the function description information automatically generated by the system for easy user understanding.
[0083] As an embodiment of the present invention: the work allocation module includes:
[0084] Task announcement unit: used to generate a set of work tasks in the functional interaction interface, and display the authority to receive work tasks according to the type of work tasks, and announce the tasks; among them,
[0085] The task announcement is made through the first visual display interface under the functional interaction interface;
[0086] Communication docking unit: used for communication docking through the identity authentication unit of the dispatching node and the attendance module;
[0087] Task progress determination unit: used to generate an evaluation network for work tasks at the dispatching node, and to determine the execution progress of the work tasks through the evaluation network, and to output task progress data; wherein the evaluation network is used to load task information in real time, and the task information includes but is not limited to: type of work information, task measurement information and salary information.
[0088] The principle of the above technical solution is:
[0089] The task publicity unit of the present invention mainly generates a set of work tasks on the functional interaction interface, and according to the type of work tasks, can know the task collection authority and publicize the task. It can be realized by communicating with the first visual display interface under the functional interaction interface. The communication docking unit is mainly used for communication docking through the identity authentication unit of the dispatching node and the attendance module. In this way, the security of the system can be guaranteed and unauthorized users can be prevented from accessing. The task progress determination unit mainly generates an evaluation network of the work task at the dispatching node, and judges the execution progress of the task through the evaluation network, and outputs the task progress data. Its data source should include: type of work information, task measurement information and salary information. These data can help us more accurately evaluate the progress and execution effect of the task. The various modules of the present invention can cooperate with each other to jointly complete the functions of the entire system. In the specific implementation, functions such as search and screening can be added to the task publicity unit to facilitate users to quickly find the information they need. In the communication docking unit, it can be considered to add a multiple identity authentication mechanism to ensure the security of the system. In the task progress determination unit, the task information can be structured for efficient processing in the evaluation network.
[0090] As an embodiment of the present invention: the attendance module includes:
[0091] Database unit: used to establish a personnel information database through MYSQL database; the personnel information database includes the identity information, registration information and job information of the workers on the construction site;
[0092] Task corresponding unit: used to determine the type of work information according to the work task, and to perform a screening in the personnel information database, wherein the screening is used to screen the construction site workers who meet the type of work in the work task and the personnel information database;
[0093] Secondary screening unit: used to set up a pre-task platform, record the construction workers who have pre-tasks, and compare them with the construction workers who meet the job requirements in the personnel information database for secondary screening;
[0094] Attendance recording unit: used to extract the identity information of the construction site workers who have been screened for the second time, and compare the identity information with the identity information of the construction site workers who have pre-accepted the work tasks, and when the comparison is successful, record the corresponding worker's completion of attendance.
[0095] The principle of the above technical solution is:
[0096] like Figure 2 As shown, the database unit of the present invention is mainly responsible for storing and managing the basic information of all employees, such as name, gender, ID number, telephone number, date of employment, etc. The working efficiency of this module directly affects the efficiency of subsequent work, so it is necessary to ensure the accuracy and completeness of the data. The task corresponding unit is responsible for querying qualified employees from the database unit according to the work tasks, and then further screening. The purpose of this step is to ensure that only employees who meet specific conditions (such as having specific skills or experience) will be taken into consideration. The secondary screening unit is responsible for setting up the platform for pre-accepting tasks and obtaining the employee information of pre-accepting tasks from it. Then, it is compared with the employee information in the database unit for secondary screening. The purpose of this is to prevent loopholes caused by some misoperations. Attendance recording unit: responsible for extracting qualified employees according to the results of the secondary screening, and comparing their identity information with the pre-accepted tasks. Once the comparison is successful, it means that the employee has completed the attendance work for the day.
[0097] In actual implementation, Figure 2 As shown, the following steps are also included: S11: First, a personnel information database is established using the MySql database. The workers included in the personnel information database are all registered personnel, and the personnel information includes but is not limited to the personnel name, ID card, face information, etc.;
[0098] S12: By comparing the identity information received from the work deployment module with the personnel information database, the personnel information that has been successfully compared is extracted to establish a daily face comparison set;
[0099] S13: performing face recognition on the face information read at the entrance and the face information in the daily face comparison set;
[0100] S14: Determine whether the recognized face information is a worker who should enter the construction site on that day. If so, proceed to step S15; if not, proceed to step S16;
[0101] S15: The personnel passes the test, and the verified personnel information and time information are sent to the salary calculation module;
[0102] S16: Record the visitor information into the visitor information list.
[0103] Among them, face recognition is to first align the collected face images, transform the face into a standard face as much as possible, put the aligned face into the neural network, and obtain 128 feature measurement values, combined with the formula: The Euclidean distance is calculated by comparing the measured values extracted from the daily face comparison set, where d(x, y) represents the Euclidean distance, and x(x1, x2, ..., xn) and y(y1, y2, ..., yn) are the feature measurement values of the two faces. Finally, the numerical values are compared, and if they reach the threshold range, the face recognition is considered successful.
[0104] As an embodiment of the present invention: the salary calculation model includes the following salary calculation steps:
[0105] Obtain work tasks, work task collection information, and attendance information;
[0106] Loading the work task into the salary calculation model, determining the task type, and the first salary calculation model corresponding to the task type;
[0107] Loading attendance information into a first salary calculation rule, determining construction site workers for whom salary can be calculated, and determining a second salary calculation model;
[0108] The work task receipt information is loaded into the second salary calculation model, and the completion degree of the work tasks of the construction site workers is calculated. Based on the completion degree calculation, the salary information of the current work tasks accepted by the construction site workers is determined.
[0109] The principle of the above technical solution is:
[0110] Obtain work tasks and work task collection information, as well as attendance information: This is the basis of the entire calculation. Only by mastering this basic information can further subsequent calculations be carried out. Load the work tasks into the salary calculation model, determine the task type, and the first salary calculation model corresponding to the task type: This is to determine different calculation models according to different types of work tasks. For example, some tasks may only need to calculate the salary according to the number of completed tasks, while some tasks may need to be calculated according to the complexity of the task or the difficulty of solving the task. Load the attendance information into the first salary calculation rule, determine the construction site workers who can calculate the salary, and determine the second salary calculation model: This step is to determine which workers are eligible to participate in the calculation based on the attendance information. At the same time, the calculation rules will be further refined according to the details of the attendance information to make it more targeted. Load the work task collection information into the second salary calculation model, calculate the completion of the construction site workers' work tasks, and determine the salary information of the current work tasks accepted by the construction site workers based on the completion calculation: This step is to integrate the results obtained from the above three steps and calculate the salary that each construction site worker deserves. At the same time, the calculated remuneration will vary depending on the specific circumstances of the task and the degree of completion.
[0111] In actual implementation, Figure 3As shown, salary calculation can also be counted by days. S21: Obtaining tasks, task collection status, and attendance information;
[0112] S22: judging whether the task is a day-based type according to the task information, if so, proceeding to step S23; if not, proceeding to step S24;
[0113] S23: The salary a worker can receive = task salary * actual working days, which will be included in the total salary of the worker who receives the task;
[0114] S24: Determine whether the task is completed on time, if so, proceed to step S25; if not, proceed to step S26;
[0115] S25: The salary a worker can get = task salary;
[0116] S26: The salary that workers can get = task salary - amount to be deducted;
[0117] S27: Repeat steps S21-S26 every day, and finally calculate the monthly salary.
[0118] As an embodiment of the present invention: the video monitoring module includes:
[0119] Scene acquisition unit: used to obtain scene data of any construction worker on the construction site; wherein the scene data is a real-time behavior image of the construction worker under the monitoring equipment;
[0120] Violation determination unit: Use the yolov5 target detection algorithm to identify violations in real-time behavior images and determine whether there are any violations; violations include: theft, crossing fences, not wearing helmets, and abnormal gathering of people;
[0121] Violation loading unit: Based on the violation behavior, the violation behavior is loaded into the salary calculation model to trigger the corresponding salary penalty mechanism.
[0122] The principle of the above technical solution is:
[0123] The scene acquisition unit of the present invention mainly captures the real-time behavior image of any worker on the construction site, which is the basis for subsequent violation identification and behavior analysis. The violation determination unit uses the target detection algorithm of YOLOv5 to identify the violation behavior of the real-time behavior image. In the actual detection process, the yolov5 target detection algorithm is used, and a large amount of relevant data is invested in the algorithm in advance for learning, so that the algorithm can autonomously analyze and identify the acquired surveillance video images. When it is identified that someone has theft, crossing the fence, etc. at the fence, an alarm is issued to warn the person with such behavior. If the person still does not stop the action, the security room is notified to let the security go to the scene to stop; when it is identified that there are workers who do not wear safety helmets as required in the construction site area, a sound reminder is issued; when it is identified that abnormal situations occur in the construction site, such as abnormal gathering of personnel, personnel falling and other emergencies, the management personnel are notified to deal with them in time, and all notification methods notify the relevant personnel through the visual interface.
[0124] The contents to be identified include theft, crossing fences, not wearing helmets, abnormal gatherings of people, etc. Once these behaviors are identified, they will immediately trigger the corresponding salary penalty mechanism in the salary calculation model. The main task of the violation loading unit is to load specific violation information into the salary calculation model based on the violation. The purpose of this is to ensure that when workers commit any form of violation, the corresponding salary penalty mechanism can be accurately triggered.
[0125] As an embodiment of the present invention: the device scheduling module includes:
[0126] Device calling unit: used to obtain the device calling information in the task information of the work task according to the dispatching node, and determine the calling device and the open function of the calling device;
[0127] Permission configuration unit: Determine the functional permissions for calling the device according to the open functions of the device, and configure the authorization permissions for calling the device for the construction workers who receive the corresponding work tasks;
[0128] Power metering unit: determines the power data and idle status of the available equipment on the construction site based on the equipment call information, and generates an equipment call interactive interface;
[0129] Idle equipment display unit: transmits the equipment call interactive interface to the terminal devices of workers on the construction site and performs real-time location navigation.
[0130] The principle of the above technical solution is:
[0131] The device calling unit of the present invention is mainly responsible for the device calling information existing in the task information obtained by the dispatching node, as well as the open functions of the device. This step is to clarify the specific equipment that each worker needs to use and the functions that can be executed. After the permission configuration unit clarifies the open functions of the device, the permission configuration unit will determine the specific functional permissions of the device based on this information. At the same time, this unit will also connect to the workers of the corresponding work tasks and configure them as users with the functional permissions of the device. The power metering unit will judge the power data and idle status of the callable equipment in the construction site based on the device calling information. This step is to ensure that when the workers use the equipment, the equipment is sufficient and will not affect the work due to insufficient power. The idle device display unit will transmit the device calling interactive interface to the terminal device of the workers on the construction site and perform real-time location navigation. This step is to facilitate workers to find and use the equipment. In general, the design of this equipment scheduling module is to ensure that each worker can use the equipment correctly according to the actual needs of the task.
[0132] During the equipment scheduling process, an electric meter is connected to different devices, and the data from the electric meter is uploaded to the system in real time through wireless transmission technology. The system analyzes the power consumption data collected in real time, determines whether the equipment is in an idle stage, and reflects the real-time status of the equipment on the visual interface. Workers can make reservations and use the equipment according to the real-time status of the equipment, thus saving the time wasted in searching for equipment to the greatest extent; equipment with abnormal power consumption data will be marked and managers will be reminded to deal with it in a timely manner.
[0133] As an embodiment of the present invention: the real-time location navigation includes:
[0134] Acquire the location information of the callable device on the interactive interface, determine the target device, and determine the first call path for the construction site workers to reach the target device;
[0135] When the first calling path meets the preset calling condition, the text navigation guidance information is started through the terminal device;
[0136] Based on the text recognition of OCR technology, while determining the target location of the target device in the first calling path, the same navigation target location is synchronously guided according to the text navigation guidance information.
[0137] The principle of the above technical solution is that the present invention determines the target device by obtaining the location information of the callable device on the interactive interface, and determines the first call path for the construction site workers to reach the target device. This part is mainly to obtain the specific location of the equipment that the workers need to use, and determine the operation steps that the workers should perform first after arriving at the equipment, that is, the first step of the call path. When the first call path meets the preset call conditions, the text navigation guidance information is started through the terminal device. This part is to provide text navigation guidance through the terminal device after the workers come to the device according to the call path of the first step, if the conditions are met, to help the workers find the target device more accurately. Based on the text recognition of OCR technology, while determining the target location of the target device in the first call path, the same navigation target location is synchronously guided according to the text navigation guidance information. This part is to use OCR technology to identify the text navigation guidance information, and synchronize the guidance device according to the guidance information, so that it is consistent with the text navigation guidance information, thereby providing more accurate navigation guidance.
[0138] In the actual implementation process, the vehicle access management module mainly uses image recognition technology to analyze and read the license plate information of vehicles entering and leaving the construction site, and finally feeds back the statistical data to the visualization interface for query; when the vehicle leaves the construction site, the vehicle is automatically washed to prevent too much mud and sand from being brought out of the construction site.
[0139] Among them, the communication method between modules mainly adopts wireless transmission technologies such as WIFI or LoRa to achieve real-time transmission and ensure that the modules can work well together.
[0140] As an embodiment of the present invention: the vehicle access management module includes:
[0141] License plate recognition unit: used to obtain license plate information of vehicles entering and leaving the construction site;
[0142] Control unit: used to determine the corresponding vehicle information and vehicle control authority based on the license plate information; the vehicle control authority is used to determine whether the vehicle can be controlled to enter or exit;
[0143] Flushing unit: used to automatically flush the vehicle when the vehicle leaves the construction site if the vehicle information indicates that the vehicle is allowed to enter and exit.
[0144] The principle of the above technical solution is:
[0145] The license plate recognition unit of the present invention is responsible for obtaining the license plate information of all vehicles entering and leaving the construction site, which is the basic information for obtaining the identity of the vehicle. The management and control unit can set the control right for the vehicle. By comparing the license plate information and the vehicle information, we can determine the identity of the vehicle and then give them the corresponding control authority. If the vehicle is allowed to enter and exit the construction site, then we will grant it the corresponding control authority. On the contrary, if the vehicle is not allowed to enter and exit the construction site, then we will reject its request. The flushing unit automatically flushes when the vehicle leaves the construction site. When the vehicle information is a vehicle that we allow to enter and exit the construction site, we know that it can leave the construction site freely, so we can let it automatically flush to prevent any possible pollution. Through the above functions, the present invention can not only accurately control the actions of each vehicle to ensure that they only travel on the roads we specify, but also automatically flush when necessary, such as when the vehicle needs to leave or enter the construction site, to ensure the safety and cleanliness of the vehicle.
[0146] As an embodiment of the present invention: the vehicle control further includes:
[0147] Inspect the compartments of vehicles entering and exiting to determine the transported items in the compartments;
[0148] Determine whether the transported items are associated with the work task and generate associated information;
[0149] Based on the associated information and license plate information, the workload data of the corresponding construction site workers is determined, and the workload data is input into the salary calculation model to determine whether there is a salary deviation.
[0150] The principle of the above technical solution is:
[0151] First, by inspecting the compartments of vehicles entering and leaving, we can accurately understand the status of the goods, which is of great significance for management and safety. Secondly, by judging whether the transported items are related to the work tasks, we can better allocate workers and improve work efficiency. Finally, based on the associated information and license plate information, we can determine the workload data of the corresponding construction site workers, and input these data into the salary calculation model, which can effectively avoid the salary deviation problem caused by uneven workload distribution.
[0152] Obviously, those skilled in the art can make various changes and modifications to the present invention without departing from the spirit and scope of the present invention. Thus, if these modifications and variations of the present invention fall within the scope of the claims of the present invention and their equivalents, the present invention is also intended to include these modifications and variations.
Claims
1. A construction site management system based on intelligent deployment technology, characterized in that: include: Human-computer interaction module: generates a functional interaction interface in response to real-time instructions triggered by the user; Work dispatching module: Based on the functional interaction interface, the work tasks of the construction site workers are configured and displayed on the first visual display interface triggered in the functional interaction interface; wherein the first visual display interface is provided with a dispatching node, each construction site worker corresponds to a unique node, and the dispatching node sends the work task to the corresponding worker after receiving the feedback authentication information; Attendance module: responds to the task dispatch information of the dispatching node and records the attendance; after the identity of the construction site worker is confirmed on the attendance record, the authentication information is fed back to the dispatching node; Salary calculation module: connects with the dispatch node and attendance records, and calculates salary through the preset salary calculation model; Video surveillance module: used to detect violations of workers and import violation detection information into the salary calculation model; Equipment scheduling module: used to connect to the dispatch node and assign equipment control permissions to the corresponding workers according to the work tasks of the dispatch node; Vehicle access management module: used to determine the target vehicles that can enter and exit the construction site according to the equipment control authority, and to perform vehicle management and control.
2. A construction site management system based on intelligent deployment technology as claimed in claim 1, characterized in that: The human-computer interaction module comprises: Task awakening unit: used to obtain the first awakening instruction and generate an interactive main interface of the target event; wherein the target event is any work task; Functional interaction unit: When the interactive main interface receives the real-time instruction, it determines the call API data, connects the interactive main interface with the Java virtual machine through the functional interface, and generates a functional interaction interface through the connected functional interface, wherein: Functional interfaces include function customization interfaces and IoT device docking interfaces; The function customization interface is configured with a first function editing interface and a second function editing interface. The first function editing interface is used to edit the customized interactive function, and the second function editing interface is used to display the function description information generated according to the automatic interactive function.
3. A construction site management system based on intelligent deployment technology as claimed in claim 1, characterized in that: The work deployment module includes: Task announcement unit: used to generate a set of work tasks in the functional interaction interface, and display the authority to receive work tasks according to the type of work tasks, and announce the tasks; among them, The task announcement is made through the first visual display interface under the functional interaction interface; Communication docking unit: used for communication docking through the identity authentication unit of the dispatching node and the attendance module; Task progress determination unit: used to generate an evaluation network for work tasks at the dispatching node, and to determine the execution progress of the work tasks through the evaluation network, and to output task progress data; wherein the evaluation network is used to load task information in real time, and the task information includes but is not limited to: type of work information, task measurement information and salary information.
4. A construction site management system based on intelligent deployment technology as claimed in claim 1, characterized in that: The attendance module includes: Database unit: used to establish a personnel information database through MYSQL database; the personnel information database includes the identity information, registration information and job information of the workers on the construction site; Task corresponding unit: used to determine the type of work information according to the work task, and to perform a screening in the personnel information database, wherein the screening is used to screen the construction site workers who meet the type of work in the work task and the personnel information database; Secondary screening unit: used to set up a pre-task platform, record the construction workers who have pre-tasks, and compare them with the construction workers who meet the job requirements in the personnel information database for secondary screening; Attendance recording unit: used to extract the identity information of the construction site workers who have been screened for the second time, and compare the identity information with the identity information of the construction site workers who have pre-accepted the work tasks, and when the comparison is successful, record the corresponding worker's completion of attendance.
5. A construction site management system based on intelligent deployment technology as claimed in claim 1, characterized in that: The salary calculation model includes the following salary calculation steps: Obtain work tasks, work task collection information, and attendance information; Loading the work task into the salary calculation model, determining the task type, and the first salary calculation model corresponding to the task type; Loading attendance information into a first salary calculation rule, determining construction site workers for whom salary can be calculated, and determining a second salary calculation model; The work task receipt information is loaded into the second salary calculation model, and the completion degree of the work tasks of the construction site workers is calculated. Based on the completion degree calculation, the salary information of the current work tasks accepted by the construction site workers is determined.
6. A construction site management system based on intelligent deployment technology as claimed in claim 1, characterized in that: The video surveillance module comprises: Scene acquisition unit: used to obtain scene data of any construction worker on the construction site; wherein the scene data is a real-time behavior image of the construction worker under the monitoring equipment; Violation determination unit: Use the yolov5 target detection algorithm to identify violations in real-time behavior images and determine whether there are any violations; violations include: theft, crossing fences, not wearing helmets, and abnormal gathering of people; Violation loading unit: Based on the violation behavior, the violation behavior is loaded into the salary calculation model to trigger the corresponding salary penalty mechanism.
7. A construction site management system based on intelligent deployment technology as claimed in claim 1, characterized in that: The device scheduling module includes: Device calling unit: used to obtain the device calling information in the task information of the work task according to the dispatching node, and determine the calling device and the open function of the calling device; Permission configuration unit: Determine the functional permissions for calling the device according to the open functions of the device, and configure the authorization permissions for calling the device for the construction workers who receive the corresponding work tasks; Power metering unit: determines the power data and idle status of the available equipment on the construction site based on the equipment call information, and generates an equipment call interactive interface; Idle equipment display unit: transmits the equipment call interactive interface to the terminal devices of workers on the construction site and performs real-time location navigation.
8. A construction site management system based on intelligent deployment technology as claimed in claim 7, characterized in that: The real-time location navigation includes: Acquire the location information of the callable device on the interactive interface, determine the target device, and determine the first call path for the construction site workers to reach the target device; When the first calling path meets the preset calling condition, the text navigation guidance information is started through the terminal device; Based on the text recognition of OCR technology, while determining the target location of the target device in the first calling path, the same navigation target location is synchronously guided according to the text navigation guidance information.
9. A construction site management system based on intelligent deployment technology as claimed in claim 1, characterized in that: The vehicle access management module includes: License plate recognition unit: used to obtain license plate information of vehicles entering and leaving the construction site; Control unit: used to determine the corresponding vehicle information and vehicle control authority based on the license plate information; the vehicle control authority is used to determine whether the vehicle can be controlled to enter and exit; Flushing unit: used to automatically flush the vehicle when the vehicle leaves the construction site if the vehicle information indicates that the vehicle is allowed to enter and exit.
10. A construction site management system based on intelligent deployment technology as claimed in claim 1, characterized in that: The vehicle control also includes: Inspect the compartments of vehicles entering and exiting to determine the transported items in the compartments; Determine whether the transported items are associated with the work task and generate associated information; Based on the associated information and license plate information, the workload data of the corresponding construction site workers is determined, and the workload data is input into the salary calculation model to determine whether there is a salary deviation.