Real estate management method based on high-altitude surveying and mapping equipment

Abstract

The invention relates to the technical field of real estate management, in particular to a real estate management method based on high-altitude surveying and mapping equipment. According to the technical scheme, the method comprises the steps that a home building and surrounding objects are scanned through information acquisition equipment, building parameter information is acquired, and the building parameter information is sent to terminal equipment; generating a building model and a two-dimensional building image according to the building parameter information; according to the building model and the two-dimensional building image, an operation window page is established, and a manager can quickly analyze and judge the state of the local building through the operation window; the method comprises the following steps: continuously acquiring entering information of a plurality of using objects through terminal equipment to obtain real-time information, generating guidance information according to the real-time information, and informing a manager of actual using information of a home building according to the guidance information. The method has the technical effects that efficient, accurate and intelligent management of the real estate is realized through an integrated monitoring device and a comprehensive information management process.

Description

Technical Field

[0001] The present application relates to the field of real estate management technology, and in particular to a real estate management method based on high-altitude surveying and mapping equipment. Background Art

[0002] In the field of real estate management, with the acceleration of urbanization and the continuous advancement of construction technology, the demand for efficient, accurate, and intelligent real estate management is growing. Traditional real estate management methods often rely on manual inspections and paper records. This approach is not only inefficient but also difficult to achieve comprehensive, real-time monitoring of real estate and its surrounding environment. Especially in complex and changing urban environments, the spatial relationship between the original building and surrounding objects is close, requiring more refined management methods to ensure building safety, hygiene, and legal compliance.

[0003] Drone surveying and mapping technology has been widely used in the field of real estate management due to its high efficiency and accuracy. Through the information acquisition equipment carried by drones, it is possible to quickly scan the building and surrounding objects and obtain detailed building parameter information. This information provides the basis for generating accurate building models and two-dimensional building images, and thus provides managers with an intuitive and comprehensive management interface. However, existing real estate management methods still have some limitations, such as insufficiently detailed management of the interior space of the building, insufficiently comprehensive monitoring of the surrounding environment, and a lack of effective monitoring methods for special areas such as underground buildings. Summary of the Invention

[0004] This application provides a real estate management method based on high-altitude surveying equipment to solve the problem of existing technology that relies on manual inspections and paper records. This method is not only inefficient but also difficult to achieve comprehensive and real-time monitoring of real estate and its surrounding environment.

[0005] This application provides a real estate management method based on high-altitude surveying and mapping equipment, comprising:

[0006] Scan the building and surrounding objects through the information acquisition device to obtain building parameter information, and send the building parameter information to the terminal device;

[0007] Generate building models and two-dimensional building images based on building parameter information;

[0008] Based on the building model and two-dimensional building image, an operation window page is established. Through the operation window, managers can quickly analyze and judge the status of the building.

[0009] Through terminal devices, the occupancy information of several users is continuously obtained to obtain real-time information, and guidance information is generated based on the real-time information. Based on the guidance information, the management personnel are informed of the actual usage information of the building.

[0010] Among them, the users are: people who live or work in this building through leasing, buying and selling, etc.

[0011] The above technical solution has the following advantages: through integrated monitoring devices and comprehensive information management processes, efficient, accurate and intelligent management of real estate is achieved.

[0012] Optionally, the information acquisition equipment includes: aerial scanning equipment and ground scanning equipment;

[0013] Building parameter information includes: first ground building information, second ground building information, underground building information, building interior information and surrounding object information;

[0014] Scan the exterior of the building and surrounding objects using high-altitude scanning equipment to obtain first-ground building information and surrounding object information;

[0015] Scan the exterior of the primary building, the interior of the primary building, and underground buildings using ground scanning equipment to obtain second-ground building information, building interior information, and underground building information;

[0016] The building model includes: ground building model, underground building model and surrounding object model;

[0017] Building a ground building model according to the first ground building information, the second ground building information and the building interior information;

[0018] Build underground building models based on underground building information; build surrounding object models based on surrounding object information;

[0019] The ground building model and the surrounding object models are inserted into the preset model space, and the ground building model and the surrounding object models are arranged according to the actual spatial position.

[0020] The above technical solution has the following advantages: through the comprehensive use of high-altitude scanning equipment and ground scanning equipment, as well as precise model building technology, comprehensive, accurate and intuitive management of the building and its surrounding environment is achieved.

[0021] Optionally, the surrounding objects include: surrounding buildings and surrounding plants;

[0022] The surrounding object models include: surrounding building models and surrounding plant models;

[0023] The ground building model includes: several key location nodes;

[0024] At each preset time, the surrounding plant models are scanned again by the high-altitude scanning device. If the high-altitude scanning device obtains new object information, additional information is generated, and an additional model is generated based on the additional information. The additional model is inserted into the surrounding plant model to obtain an updated object model.

[0025] Connect several key nodes with the updated object model in a horizontal straight line to obtain several spacing data, and compare the several spacing data with the preset safety distance values. If at least one of the spacing data is smaller than the preset safety distance value, a spacing warning message is generated and sent to the terminal device. Through the spacing warning message, the management personnel are informed that the distance between the surrounding plants and the local building is too close.

[0026] Among them, key location nodes are: entrances and exits where people travel or locations where the building is close to surrounding objects.

[0027] The above technical solution has the following advantages: it not only improves the management efficiency of the building, but also ensures the harmonious coexistence between the building and the surrounding environment.

[0028] Optionally, the ground building model includes: a building interior model and a building exterior model;

[0029] The building interior model includes: several independent space models;

[0030] Acquire the settlement information of several user objects, link each settlement information with the corresponding independent space model, and obtain several usage space models;

[0031] Get the separation part information, and generate the separation module model based on the separation part information.

[0032] When the user needs to restructure the layout of an independent space in a building, the user sends application information to the terminal device through the information processing device. Based on the application information, the user determines the use space model and obtains the space model to be restructured. The restructured space model and the partition module model are sent to the user's information processing device.

[0033] The user object uses the information processing equipment to treat the transformation space model with the separation module model to perform virtual transformation and obtain the actual transformation model. The user object then sends the actual transformation model to the terminal device. The management personnel analyze and evaluate the actual transformation model and then determine whether to carry out actual construction.

[0034] The partition part information includes: size information of partition parts such as partition walls or quick-detachable partition boards commonly used in rooms.

[0035] The above technical solution has the following advantages: it not only provides an efficient virtual transformation process for building interior spaces, but also ensures the safety and compliance of the transformation process. It also enhances communication and collaboration between users and managers, improving overall management efficiency and service quality.

[0036] Optionally, the application information includes: construction time information for layout modification;

[0037] The settlement information includes: the working hours information of the corresponding user;

[0038] Treating the transformed spatial model, adjacent independent spatial models are marked to obtain several adjacent spatial models;

[0039] If there is at least one use space model among the adjacent space models, then the working time information of the corresponding use space model is obtained;

[0040] The construction time information is compared with at least one working time information. If the construction time information overlaps with at least one working time information, conflict information is generated. The management personnel can use the conflict information to assist in judging whether construction can be carried out, and can use the conflict information to adjust in advance with the users affected by the construction.

[0041] The above technical solution has the following advantages: it provides an efficient construction time conflict warning mechanism, promotes effective communication and collaboration between managers and users, ensures the smooth progress of construction activities and protects the rights and interests of users.

[0042] Optionally, the two-dimensional building image includes: an image of a road surrounding the building;

[0043] Several key location nodes include: several ground key nodes and several building key nodes;

[0044] Generate several ground key area marks according to several ground key nodes;

[0045] Through the camera equipment, the monitoring images of the environment around the main building are continuously obtained, and several ground key area marks are inserted into the monitoring images. If an obstacle appears in any ground key area mark in the monitoring image, blocking information is generated and sent to the terminal device. The blocking information notifies the management personnel of the obstacle impact around the main building.

[0046] The above technical solution has the following advantages: it provides an efficient means of monitoring the surrounding environment, and also realizes real-time early warning and rapid response to the environment around the building, which helps to ensure unobstructed access to the environment around the building and reduce safety hazards and traffic congestion caused by obstacles.

[0047] Optionally, each key node of the building is provided with a video surveillance component, which continuously monitors the surrounding building models through the video surveillance component, and the video surveillance component continuously generates monitoring images and sends the monitoring images to the terminal device, and the monitoring images are timestamped;

[0048] Among them, the key nodes of the building are: the locations where the building is close to the surrounding objects.

[0049] The above technical solution has the following advantages: it provides real-time monitoring of key nodes around the building, and realizes early warning and rapid response to potential legal issues such as high-altitude throwing, which helps to reduce safety hazards and legal disputes caused by improper behaviors such as high-altitude throwing.

[0050] Optionally, the underground structure includes: open space and closed space;

[0051] Each of the opening and closing doors of the closed space is provided with a switch detection device, and each of the switch detection devices is in communication connection with the terminal device; each of the opening and closing doors of the closed space is provided with an alarm device, and each of the alarm devices is in communication connection with the terminal device;

[0052] When any opening and closing door is opened, the opening node of the opening and closing door is obtained, and the interval time data is obtained based on the current opening node and the last opening node. The interval time data is compared with the preset time data. If the interval time data is greater than the preset time data, an alarm message is generated and sent to the alarm device at the corresponding position. The alarm message informs the entrants into the closed space that the closed space has not been opened for a long time and they need to pay attention to protection.

[0053] The above technical solution has the following advantages: it realizes real-time monitoring of the opening and closing status of closed spaces in underground buildings, and can provide timely alarms and protection suggestions when necessary. This helps to reduce safety hazards such as air turbidity and bacterial growth caused by long-term non-opening, and provides a safer and healthier environment for people in underground buildings. BRIEF DESCRIPTION OF THE DRAWINGS

[0054] In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, a brief introduction will be given below to the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are some embodiments of the present application. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative labor.

[0055] Figure 1 A schematic diagram of an application scenario provided in one embodiment of the present application;

[0056] Figure 2A flowchart of a real estate management method based on high-altitude surveying and mapping equipment provided in one embodiment of the present application; DETAILED DESCRIPTION

[0057] To make the purpose, technical solutions, and advantages of the embodiments of the present application clearer, the technical solutions in the embodiments of the present application will be clearly and completely described below in conjunction with the drawings in the embodiments of the present application. Obviously, the described embodiments are part of the embodiments of the present application, not all of the embodiments. Based on the embodiments in the present application, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of this application.

[0058] In addition, the term "and / or" in this document merely describes the association relationship between related objects in the real estate management method based on high-altitude surveying equipment and the system thereof, indicating that three relationships can exist. For example, A and / or B can represent the following three situations: A exists alone, A and B exist simultaneously, and B exists alone. In addition, the character " / " in this document, unless otherwise specified, generally indicates that the related objects are in an "or" relationship.

[0059] The embodiments of the present application are described in further detail below with reference to the accompanying drawings.

[0060] Traditional real estate management methods often rely on manual inspections and paper records. This approach is not only inefficient but also makes it difficult to achieve comprehensive, real-time monitoring of real estate and its surrounding environment. Especially in complex and changing urban environments, where the spatial relationship between the original building and surrounding objects is close, more refined management methods are needed to ensure the safety, hygiene and legal compliance of the building.

[0061] Based on this, the present application provides a real estate management method based on high-altitude surveying and mapping equipment.

[0062] Figure 1 A schematic diagram of an application scenario of a real estate management method based on high-altitude surveying and mapping equipment provided in this application.

[0063] When real estate management is performed, the method of the present application is applied to the management of the real estate. The method of the present application is applied to a monitoring device, which includes: an information acquisition device, a camera device, a server and a terminal device.

[0064] Figure 2 This is a flowchart of a real estate management method based on high-altitude surveying equipment provided in one embodiment of the present application. Figure 2 As shown, the method includes:

[0065] S201. Scan the building and surrounding objects through the information acquisition device to obtain building parameter information, and send the building parameter information to the terminal device.

[0066] S202: Generate a building model and a two-dimensional building image according to the building parameter information.

[0067] S203. An operation window page is established based on the building model and the two-dimensional building image. Through the operation window, the management personnel can quickly analyze and judge the status of the building.

[0068] Specifically, an operation window page is established based on the building model and the two-dimensional building image, and the page is sent to the terminal device. The management personnel can use this operation window page to quickly analyze and judge the status of the building. For example, by observing the building model, the structural layout of the building and the distribution of surrounding objects can be clearly seen; and the two-dimensional building image can help the management personnel understand the traffic conditions and road environment around the building.

[0069] S204. Continuously obtain the occupancy information of a number of users through the terminal device to obtain real-time information, generate guidance information based on the real-time information, and inform the management personnel of the actual usage information of the building based on the guidance information.

[0070] Specifically, the system continuously obtains the occupancy information of a number of users, who are people who live or work in the building through leasing, buying and selling. Based on this real-time information, the system will generate corresponding guidance information and inform the management personnel of the actual usage information of the building. In this way, the management personnel can reasonably arrange and manage the use of the building based on this information to ensure its normal and efficient operation.

[0071] Through the solution provided in this embodiment, efficient, accurate and intelligent management of real estate is achieved through integrated monitoring devices and comprehensive information management processes.

[0072] In some embodiments, the information acquisition device includes: an aerial scanning device and a ground scanning device;

[0073] Building parameter information includes: first ground building information, second ground building information, underground building information, building interior information and surrounding object information; through high-altitude scanning equipment, the exterior of the building and surrounding objects are scanned to obtain the first ground building information and surrounding object information; through ground scanning equipment, the exterior of the building, the interior of the building and the underground building are scanned to obtain the second ground building information, building interior information and underground building information; the building model includes: a ground building model, an underground building model and a surrounding object model; according to the first ground building information, the second ground building information and the building interior information, a ground building model is built; according to the underground building information, an underground building model is built; according to the surrounding object information, a surrounding object model is built; the ground building model and the surrounding object model are inserted into the preset model space, and the ground building model and the surrounding object model are arranged according to the actual spatial position.

[0074] Specifically, high-altitude scanning equipment (such as drones, high-altitude cameras, etc.) is used to scan the exterior of the building and surrounding objects. This step can capture the overall structure, shape, and relative position relationship of the exterior of the building and the surrounding environment, thereby generating the first ground building information and surrounding object information. This information is crucial for the subsequent construction of the building model.

[0075] At the same time, the ground scanning equipment conducts a comprehensive scan of the exterior, interior and underground parts of the building. Through this step, the second ground building information, building interior information and underground building information can be obtained. This information records in detail the key details of the building's internal layout, floor structure, basement location, etc.

[0076] The first ground building information is information about the high part of the building obtained by the high-altitude scanning equipment. Compared with the ground scanning equipment, the high-altitude scanning equipment can obtain the information of this part of the building more conveniently and quickly.

[0077] The second ground building information is the information of the part of the building close to the ground obtained by the ground scanning equipment. The high-altitude scanning equipment cannot accurately obtain the information of this part of the building.

[0078] After obtaining these detailed building parameter information, we began to build the building model. Based on the first ground building information, the second ground building information and the building interior information, we first built a ground building model. This model accurately restored the ground part of the original building, including its appearance, floor layout and main structural features.

[0079] Next, we used the underground building information to build an underground building model. This model shows in detail the layout, structure, and connection between the basement and other parts.

[0080] In addition, a surrounding object model is built based on the surrounding object information. This model includes buildings, plants and other important objects around the building, which together constitute the surrounding environment of the building.

[0081] After completing the construction of the ground building model, underground building model and surrounding object model, these models are inserted into a preset model space. In this space, these models are accurately arranged and adjusted according to the actual spatial position relationship. In this way, a complete and accurate three-dimensional model of the building and its surrounding environment is obtained.

[0082] Through this model, managers can intuitively understand the overall layout, surrounding environment and various key parameters of the building, which not only greatly improves management efficiency, but also provides strong support for subsequent maintenance, renovation and management decisions.

[0083] Through the solution provided in this embodiment, by comprehensively utilizing high-altitude scanning equipment and ground scanning equipment, as well as precise model building technology, comprehensive, accurate and intuitive management of the building and its surrounding environment is achieved.

[0084] In some embodiments, surrounding objects include surrounding buildings and surrounding plants; surrounding object models include surrounding building models and surrounding plant models; the ground building model includes several key location nodes; within each preset time, the surrounding plant model is scanned again by a high-altitude scanning device. If the high-altitude scanning device obtains new object information, additional information is generated, and an additional model is generated based on the additional information. The additional model is inserted into the surrounding plant model to obtain an updated object model; several key nodes are horizontally connected to the updated object model to obtain several distance data, and the several distance data are compared with preset safety distance values. If at least one of the distance data is less than the preset safety distance value, a distance warning message is generated and sent to a terminal device. The distance warning message notifies the management personnel that the surrounding plants are too close to the target building. Among them, the key location nodes are: entrances and exits where people travel or locations where the target building is close to surrounding objects.

[0085] Specifically, a preliminary scan of the surrounding objects is performed using high-altitude scanning equipment to create a model of the surrounding objects, including surrounding building models and surrounding plant models. These models provide managers with intuitive visual references, enabling them to clearly understand the relationship between the building and the surrounding environment.

[0086] Then, in order to continuously track the growth of surrounding plants, the system will use the high-altitude scanning equipment to scan the surrounding plant models again at each preset time (such as every month or every quarter). During this process, if the high-altitude scanning equipment captures new object information, that is, the growth changes of plants, the system will generate additional models based on this additional information and insert these models into the original surrounding plant models to obtain updated object models.

[0087] Subsequently, the system will connect several key location nodes in the ground building model (such as entrances and exits, locations close to surrounding objects, etc.) with the updated surrounding plant models in a horizontal straight line, and calculate several spacing data. These spacing data reflect the actual distance between the building and the surrounding plants.

[0088] The system compares these spacing data with the preset safety distance values. If any of the spacing data is less than the preset safety distance value, the system will automatically generate a spacing warning message and send this information to the terminal device. After receiving this warning message, the management personnel can quickly take measures, such as pruning plants or adjusting plant layout, to ensure that the appropriate distance is maintained between the building and the surrounding plants, thereby avoiding possible safety hazards or maintenance problems.

[0089] The solution provided by this embodiment not only improves the management efficiency of the building, but also ensures the harmonious coexistence between the building and the surrounding environment.

[0090] In some embodiments, a ground building model includes: a building interior model and a building exterior model; the building interior model includes: several independent space models; the occupancy information of several users is obtained, and each occupancy information is linked to the corresponding independent space model to obtain several use space models; partition part information is obtained, and a partition module model is generated based on the partition part information. When the user needs to renovate the layout of an independent space in the building, the user sends application information to a terminal device via an information processing device. Based on the application information, the use space model is determined, and the space model to be renovated is obtained. The renovated space model and the partition module model are sent to the information processing device of the user. The user uses the partition module model to perform a virtual renovation of the space model to be renovated via the information processing device to obtain an actual renovation model. The user then sends the actual renovation model to the terminal device, and the management personnel analyze and evaluate the actual renovation model to determine whether to proceed with actual construction. The partition part information is: the size information of partition parts such as partition walls or quick-detachable partitions commonly used in rooms.

[0091] Specifically, the ground building model is subdivided into the building interior model and the building exterior model. The building interior model further contains several independent space models. These independent space models represent the various rooms or functional areas in the building, providing a basic framework for subsequent space transformation.

[0092] When a user (such as a tenant or owner) requests space renovation, the system will first obtain their occupancy information, which records in detail the independent space currently occupied by each user. Subsequently, the system will link each occupancy information with the corresponding independent space model to generate several usage space models. These models reflect the actual usage of the current building interior space.

[0093] In order to support the virtual transformation process, the system also needs to obtain partition part information, including the size, material and installation requirements of commonly used partition walls, quick-detachable partition panels and other partition parts. Based on this information, the system generates partition module models, which can be freely combined and adjusted in the virtual environment.

[0094] When users decide to renovate the layout of one or more independent spaces in a building, they can send application information to the terminal device through an information processing device (such as a smartphone, tablet or computer). The system determines the model of the space to be renovated based on the application information and sends it together with the partition module model to the user's information processing device.

[0095] On the user's information processing device, they can use the partition module model to virtually transform the space model to be transformed. This process includes selecting appropriate partition parts, adjusting their positions and sizes, and previewing the layout of the transformed space. Through repeated attempts and adjustments, the user can eventually obtain a satisfactory actual transformation model.

[0096] After completing the virtual transformation, the user sends the actual transformation model to the terminal device. After receiving the model, the management personnel will conduct a detailed analysis and evaluation. This process includes checking the rationality and safety of the transformation plan and its impact on the overall structure of the building. If the transformation plan meets the relevant standards and requirements, the management personnel will approve the actual construction; if not, the management personnel will make modification suggestions or reject the application.

[0097] The solution provided by this embodiment not only provides an efficient virtual transformation process for the interior space of a building, but also ensures the safety and compliance of the transformation process. It also enhances the communication and collaboration between users and managers, thereby improving overall management efficiency and service quality.

[0098] In some embodiments, the application information includes: construction time information for the layout modification;

[0099] The entry information includes: the working time information of the corresponding user object; for the renovated space model, the adjacent independent space models are marked to obtain several adjacent space models; among the several adjacent space models, if there is at least one use space model, the working time information of the corresponding use space model is obtained; the construction time information is compared with at least one working time information. If the construction time information overlaps with at least one working time information, conflict information is generated. The management personnel can make auxiliary judgments on whether construction can be carried out through the conflict information, and can make adjustments in advance with the users affected by the construction through the conflict information.

[0100] Specifically, when the user submits the application information for layout modification, the time information of the work and construction records the time of each use of the object, that is, the independent specific space time period that the object may expect to occupy for its construction in daily use. At the same time, the system has established detailed specific time periods for each user based on the occupancy information.

[0101] Next, the system will mark the adjacent space models of the space model to be renovated. The purpose of this step is to identify all independent spaces adjacent to the construction area, because the users of these spaces may be affected by the construction activities.

[0102] After marking the adjacent space models, the system will check whether these models contain the space models that are already in use. If so, the system will obtain the working time information of the users corresponding to these space models.

[0103] The system then compares the construction time information with the working time information of at least one user. If the construction time information overlaps with the working time information of a user, that is, the construction activity may be carried out during the working hours of the user, the system will immediately generate a conflict information.

[0104] After receiving the conflict information, managers can assist in determining whether construction can proceed as originally planned. If the construction time seriously conflicts with the working hours of multiple users, managers may consider adjusting the construction time or looking for other solutions to reduce interference with users around the construction area.

[0105] In addition, conflict information can also serve as a bridge for communication between managers and users. Managers can use conflict information to coordinate with users affected by construction in advance, explain the construction plan, expected impacts, and possible mitigation measures, thereby building trust and understanding among users and reducing conflicts and dissatisfaction caused by construction.

[0106] The solution provided by this embodiment provides an efficient construction time conflict warning mechanism, and also promotes effective communication and collaboration between managers and users, ensuring the smooth progress of construction activities and protecting the rights and interests of users.

[0107] In some embodiments, a two-dimensional building image includes: an image of the surrounding roads of the main building; a number of key position nodes include: a number of ground key nodes and a number of building key nodes; a number of ground key area marks are generated based on the number of ground key nodes; through a camera device, a monitoring image of the surrounding environment of the main building is continuously obtained, and a number of ground key area marks are inserted into the monitoring image. If an obstacle appears in any ground key area mark in the monitoring image, blocking information is generated and sent to the terminal device. The blocking information notifies the management personnel of the obstacle impact around the main building.

[0108] Specifically, cameras are placed on the building to fully monitor the environment around it. These cameras capture not only images of the building itself, but also images of the roads surrounding the building. These images provide managers with real-time environmental information, allowing them to keep abreast of changes around the building.

[0109] In the two-dimensional building image, we specially marked several key location nodes. These nodes include key areas on the ground (such as entrances and exits, emergency passages, etc.), as well as key parts of the building itself (such as fire escapes, escape exits, etc.). These key location nodes are key to ensuring the safety and smooth flow of people inside and outside the building.

[0110] Based on these ground key nodes, we generated several ground key area markers. These markers are clearly visible in the two-dimensional building image and are monitored in real time by cameras in the actual environment. Once the camera captures any obstacle entering these key area markers, the system will immediately generate blocking information.

[0111] The blocking information includes information such as the type, location and possible impact of the obstacle. This information is quickly sent to the terminal device to inform the management staff that there are obstacles around the building. After receiving this information, the management staff can take immediate action, such as contacting relevant departments to remove obstacles, adjusting traffic flow lines or taking other necessary emergency measures.

[0112] The solution provided by this embodiment provides an efficient means of monitoring the surrounding environment, and also realizes real-time early warning and rapid response to the environment around the building, which helps to ensure unobstructed access to the surrounding environment of the building, reduces safety hazards and traffic congestion problems caused by obstacles, and provides a safer and more convenient travel environment for people in the building. At the same time, it also provides managers with an effective management tool, enabling them to more accurately grasp the dynamic changes in the environment around the building and take necessary measures in a timely manner to maintain safety and order inside and outside the building.

[0113] In some embodiments, each key node position of a building is provided with a video surveillance component, which continuously monitors the surrounding building models through the video surveillance component, and the video surveillance component continuously generates monitoring images and sends the monitoring images to the terminal device, and the monitoring images have a timestamp; wherein, the key node of the building is: the location where the building is close to the surrounding objects.

[0114] Specifically, in the complex environment of real estate management, especially in densely populated urban areas, the spatial relationship between the main building and surrounding buildings is often very close. In order to ensure the safety and sanitation of the main building and to promptly respond to possible legal issues such as high-altitude throwing, we proposed a surrounding key node monitoring mechanism that combines video surveillance components.

[0115] First, we set up several video surveillance components at key locations where the building is close to surrounding objects. These key nodes are usually narrow passages between the building and adjacent buildings, shared spaces, or areas where there is a risk of objects being thrown from high places. By precisely arranging these video surveillance components, we can achieve comprehensive monitoring of the surrounding environment of the building.

[0116] Each camera monitoring component has a continuous monitoring function. They can continuously capture images of surrounding building models and send these monitoring images to the terminal device in real time. These monitoring images are attached with time stamps to ensure the accuracy and traceability of the images. Managers can view these monitoring images at any time through the terminal device to understand the real-time situation around the building.

[0117] When the video surveillance component captures objects thrown from high places, garbage accumulation or other abnormal situations, the system will immediately generate an early warning message and send it to the management personnel. The early warning message contains information such as the type, location, timestamp and possible legal consequences of the abnormal situation, helping managers to make quick judgments and take necessary measures.

[0118] The solution provided by this embodiment provides a means of real-time monitoring of key nodes around the building, and also realizes early warning and rapid response to potential legal issues such as throwing objects from high places. This helps to reduce safety hazards and legal disputes caused by improper behaviors such as throwing objects from high places, and provides a safer and cleaner environment for the building and its surrounding areas. At the same time, this also provides managers with an effective management tool, enabling them to more accurately grasp the dynamic changes in the environment around the building and take necessary measures in a timely manner to maintain the safety and hygiene of the building.

[0119] In some embodiments, the underground building includes: an open space and a closed space; each opening and closing door of the closed space is provided with a switch detection device, and each switch detection device is communicatively connected to the terminal device; each opening and closing door of the closed space is provided with an alarm device, and each alarm device is communicatively connected to the terminal device; when any opening and closing door is opened, the opening node of the opening and closing door is obtained, and the interval time data is obtained based on the current opening node and the last opening node, and the interval time data is compared with the preset time data. If the interval time data is greater than the preset time data, an alarm message is generated and sent to the alarm device at the corresponding position, and the entrants into the closed space are informed through the alarm message that the closed space has not been opened for a long time and needs to be protected.

[0120] Specifically, we divided the underground building in detail and clarified the specific locations of open and closed spaces. We installed switch detection equipment on the opening and closing doors of each closed space. These devices can accurately record the opening and closing time of the doors and send this information to the terminal device in real time.

[0121] At the same time, each closed space is equipped with an alarm device next to the opening and closing door. These devices maintain communication connection with the terminal device and can emit an alarm sound or light prompt when receiving specific instructions.

[0122] When any door is opened, the system will immediately obtain the opening node of the door, that is, the accurate record of the opening time. Then, the system will calculate the interval time data based on the current opening node and the last opening node, that is, the time difference between the two openings of the closed space.

[0123] Next, the system compares the interval time data with the preset time data, which is set according to the actual use of the closed space in the underground building and the safety standards, to determine whether the closed space has not been opened for a long time.

[0124] If the interval time data is greater than the preset time data, that is, the closed space has not been opened for a long time, the system will immediately generate an alarm message. This alarm message includes the specific location of the closed space, the potential risks of not opening for a long time, and recommended protective measures.

[0125] The system then sends the alarm information to the alarm device at the corresponding location. After receiving the information, the alarm device will immediately sound an alarm or light a prompt to inform people entering the closed space to pay attention to protection.

[0126] Through the solution provided in this embodiment, real-time monitoring of the opening and closing status of closed spaces in underground buildings is achieved, and timely alarms and protective suggestions can be provided when necessary. This helps to reduce safety hazards such as air turbidity and bacterial growth caused by long-term non-opening, and provides a safer and healthier environment for people in underground buildings. At the same time, this also provides managers with an effective management tool, enabling them to more accurately grasp the usage of closed spaces in underground buildings and take necessary measures in a timely manner to maintain the safety and hygiene of the buildings.

[0127] The device of this embodiment can be used to execute the method of any of the above embodiments. Its implementation principles and technical effects are similar and will not be described in detail here.

Claims

1. A real estate management method based on high-altitude surveying and mapping equipment, characterized in that: The real estate management method is applied to a monitoring device, which includes: an information acquisition device, a camera device, a server and a terminal device. The method includes: Scanning the local building and surrounding objects through the information acquisition device to obtain building parameter information, and sending the building parameter information to the terminal device; Generate building models and two-dimensional building images based on building parameter information; An operation window page is established based on the building model and the two-dimensional building image, through which the management personnel can quickly analyze and judge the status of the building; The terminal device continuously obtains the occupancy information of several users to obtain real-time information, generates guidance information based on the real-time information, and informs the management personnel of the actual usage information of the building based on the guidance information. The users are persons who live or work in the building through renting, buying and selling.

2. The method according to claim 1, characterized in that include: The information acquisition equipment includes: high-altitude scanning equipment and ground scanning equipment; The building parameter information includes: first ground building information, second ground building information, underground building information, building interior information and surrounding object information; Scanning the exterior of the host building and the surrounding objects using the high-altitude scanning device to obtain first ground building information and surrounding object information; Scanning the exterior of the primary building, the interior of the primary building, and underground buildings using the ground scanning device to obtain second ground building information, building interior information, and underground building information; The building model includes: a ground building model, an underground building model and a surrounding object model; Building a ground building model according to the first ground building information, the second ground building information and the building interior information; Building an underground building model based on the underground building information; building a surrounding object model based on the surrounding object information; The ground building model and the surrounding object model are inserted into a preset model space, and the ground building model and the surrounding object model are arranged according to actual spatial positions.

3. The method according to claim 2, characterized in that Also includes: The surrounding objects include: surrounding buildings and surrounding plants; The surrounding object models include: surrounding building models and surrounding plant models; The ground building model includes: a number of key location nodes; At each preset time, the surrounding plant model is scanned again by the high-altitude scanning device. If the high-altitude scanning device obtains new object information, additional information is generated, an additional model is generated based on the additional information, and the additional model is inserted into the surrounding plant model to obtain an updated object model; Connecting the key nodes with the updated object model in a horizontal straight line to obtain a plurality of spacing data, comparing the plurality of spacing data with a preset safety distance value, and if at least one of the spacing data is smaller than the preset safety distance value, generating a spacing warning message, sending the spacing warning message to the terminal device, and informing the management personnel through the spacing warning message that the surrounding plants are too close to the building. The key location nodes are: entrances and exits where people travel or locations where the building is close to the surrounding objects.

4. The method according to claim 2, characterized in that Also includes: The ground building model includes: building interior model and building exterior model; The building interior model includes: a plurality of independent space models; Acquiring the settlement information of a plurality of user objects, linking each settlement information with the corresponding independent space model to obtain a plurality of usage space models; Obtain separation part information, and generate a separation module model based on the separation part information, When the user needs to restructure the independent space in the building, the user sends application information to the terminal device through the information processing device. The user determines the model of the used space based on the application information, obtains the model of the space to be restructured, and sends the restructured space model and the partition module model to the information processing device of the user. The user uses the information processing device to virtually transform the space model to be transformed using the separation module model to obtain an actual transformation model. The user then sends the actual transformation model to the terminal device, and the management personnel analyze and evaluate the actual transformation model to determine whether to carry out actual construction. The partition part information is: size information of partition parts such as partition walls or quick-detachable partition boards commonly used in rooms.

5. The method according to claim 3, characterized in that Also includes: The application information includes: construction time information of layout transformation; The entry information includes: working time information corresponding to the user; For the spatial model to be transformed, the adjacent independent spatial models are marked to obtain a plurality of adjacent spatial models; Among the plurality of adjacent space models, there is at least one usage space model, and the working time information corresponding to the usage space model is obtained; The construction time information is compared with at least one of the working time information. If the construction time information overlaps with at least one of the working time information, conflict information is generated. The management personnel can use the conflict information to assist in judging whether construction can be carried out, and can use the conflict information to make adjustments in advance with the user objects affected by the construction.

6. The method according to claim 3, characterized in that The camera device is arranged on the primary building, and the method further comprises: The two-dimensional building image includes: an image of the surrounding roads of the building; The key position nodes include: a number of ground key nodes and a number of building key nodes; generating a plurality of ground key area marks according to the plurality of ground key nodes; Through the camera equipment, monitoring images of the surrounding environment of the main building are continuously obtained, and the several ground key area marks are inserted into the monitoring image. If an obstacle appears in any of the ground key area marks in the monitoring image, blocking information is generated and sent to the terminal device. The management personnel are notified by the blocking information that obstacles have appeared around the main building.

7. The method according to any one of claim 6, characterized in that The camera device includes: a number of camera monitoring components, and also includes: Each key node position of the building is provided with a video surveillance component, through which the surrounding building model is continuously monitored, and the video surveillance component continuously generates a surveillance image and sends the surveillance image to the terminal device, and the surveillance image has a timestamp. The key building node is the location where the building is close to the surrounding objects.

8. The method according to claim 2, characterized in that The monitoring device further comprises: a plurality of switch detection devices and a plurality of alarm devices, and the method further comprises: The underground building includes: an open space and a closed space; Each of the opening and closing doors of the closed space is provided with a switch detection device, and each of the switch detection devices is communicatively connected to the terminal device; each of the opening and closing doors of the closed space is provided with an alarm device, and each of the alarm devices is communicatively connected to the terminal device; When any of the opening and closing doors is opened, the opening node of the opening and closing door is obtained, and the interval time data is obtained based on the current opening node and the last opening node. The interval time data is compared with the preset time data. If the interval time data is greater than the preset time data, an alarm message is generated and sent to the alarm device at the corresponding position. The alarm message is used to inform people entering the closed space that the closed space has not been opened for a long time and they need to pay attention to protection.

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