A building thermal map control system

Abstract

The present invention discloses a building thermal map control system. The key points of its technical solution include an environment subsystem, a modeling subsystem, and a fitting subsystem provided in a thermal map simulation terminal. The environment subsystem includes an environment acquisition module, an environment thermal module, and a correction module. Based on the environment subsystem, a reference thermal map within the target building area and the radiation threshold range is obtained. The modeling subsystem includes a simulation module, an analysis module, and an adjustment module. Based on the modeling subsystem, a comprehensive thermal map within the target building area and the radiation threshold range is obtained. Based on the fitting subsystem, the risks within the target building area and the radiation threshold range are monitored and a risk report is generated, and the risk report is printed on a 3D thermal map, achieving the effect of adjusting and controlling the thermal map of the target building after analysis based on the thermal map, so as to achieve the purpose of constructing a rational urban construction.

Description

Technical Field

[0001] The present invention relates to the technical field of heat maps, and more specifically to a building heat map control system. Background Art

[0002] Currently, with the rapid development of technology, the heat map technology previously used for traffic density and human body temperature has also been extended for more applications. The heat map has evolved from the previous non-table heat line graph to the table-type heat map. A heat map is a statistical chart that displays data by coloring color blocks, generally represented by the depth rule of colors. The darker the color, the larger the heat value, and the lighter the color, the smaller the heat value. With the development of the heat map, it has gradually been utilized in the construction field.

[0003] The existing Chinese patent with the publication number CN115146364A discloses a method and device for constructing a building heat map, which includes displaying granularity by setting plane granularity and height difference; obtaining a preset height, as well as the outline and building surface layer height of the target building; dividing the outline into multiple grids according to the plane granularity to obtain the grid position data corresponding to all grids; determining the target components corresponding to the target building based on the outline; constructing a model entity corresponding to the target building based on the preset height, grid position data, and building surface layer height; using the target components and the model entity for collision to obtain the net height data corresponding to the target building; and filling each grid with color respectively according to the net height data and the height difference display granularity to obtain the building heat map corresponding to the target building.

[0004] Although the above-mentioned existing patent document can obtain the outline and building layer height of the target building by constructing a heat map, it is only applied to the application after the target building is constructed. Whether there is an impact on the surrounding buildings during the construction of the target building in the planning area and after the construction of the component target building cannot be analyzed and planned through constructing a heat map, which makes it easy to cause problems such as affecting the lighting or vision of the surrounding buildings after building the target building in the planning area. Therefore, it is urgent to solve the problem of using heat map technology to analyze the planning area and the surrounding environment to construct the heat map of the target building in the planning area, so as to achieve the fit between the heat map of the target building in the planning area and the heat map of the surrounding buildings based on the analysis of the heat map, and construct a reasonable urban building effect. Summary of the Invention

[0005] Aiming at the deficiencies of the existing technology, the purpose of the present invention is to provide a building heat map control system that can solve the technical problems in the existing technology.

[0006] To achieve the above purpose, the present invention provides the following technical solutions:

[0007] A building heat map control system, including those provided in the heat map simulation terminal:

[0008] An environment subsystem, the environment subsystem includes an environment acquisition module, an environment heat module, and a correction module. A radiation threshold is configured in the environment acquisition module, and the radiation threshold represents the range value for acquiring environmental information within the surrounding circular area centered on the target building area. A call strategy is configured in the environment acquisition module, and the call strategy includes using 5G communication to dock with a map software, retrieving the 3D satellite cloud map in the map software, obtaining the target building area based on the 3D satellite cloud map, and obtaining the surrounding environment with the radiation threshold as the radius to generate environmental data. The environment heat module is used to fit the environmental data into the heat map simulation terminal and construct an environment heat map. A correction strategy is configured in the correction module, and the correction strategy is used to obtain a corrected heat map according to the actual survey map, and correct the environment heat map based on the corrected heat map to generate a reference heat map;

[0009] A modeling subsystem, the modeling subsystem includes a simulation module, an analysis module, and an adjustment module. The simulation module is used to input the expected planned building data based on the target building area. The planned building data includes the building area, building height, and building angle. The building area represents the land area value used by the target building. The building angle represents establishing a plane coordinate system for the center point of the target building area, and the deflection angle between the target building and the coordinate axes in the plane coordinate system. A planned heat map is generated based on the planned building data. A heat threshold is configured in the analysis module, and the heat threshold represents the maximum threshold of the heat value in the heat map. A comprehensive heat map is generated according to the planned heat map and the corrected reference heat map, and it is also used to analyze the comprehensive heat map, compare the heat value in the comprehensive heat map with the heat threshold, and mark the area exceeding the heat threshold to form a heat mark. The adjustment module is used to adjust the heat map of the target building to adjust the heat value of each area in the comprehensive heat map to meet the heat threshold;

[0010] A fitting subsystem, the fitting subsystem includes a map output module and a risk module. The risk module is used to mark the areas with heat risks on the comprehensive heat map and form a risk report. The map output module is used to print the comprehensive heat map formed after being adjusted by the adjustment module online to form a 3D heat map, and print the risk report on the areas with heat risks to the 3D heat map.

[0011] As a further improvement of the present invention, the call strategy is specifically:

[0012] The heat map simulation terminal is provided with a map input box and a selection interface. Multiple map software identifiers are set in the selection interface. By touching different map software identifiers, the display interfaces of the corresponding map software are opened. Based on the map input box, the geographical location of the target building area is input to locate to the target building area in the map input box. When the target building area is located, a cloud map instruction is generated, and at the same time, a 3D satellite cloud map of the target building area is retrieved according to the radiation threshold.

[0013] The heat map simulation terminal also has a split screen interface. When the preset split screen interface is initialized, it remains as two interfaces. Based on the split screen interface, more than two map software identifiers can be selected simultaneously and the corresponding map software can be opened to form 3D satellite cloud maps of the target building area with the target area as the center and the radiation threshold as the radius. Then, the multiple 3D satellite cloud maps displayed in the split screen interface are compared to verify whether the 3D satellite cloud maps within the target building area are consistent. If they are inconsistent, a real scene comparison signal is generated and sent to the environment acquisition module.

[0014] As a further improvement of the present invention, the calling strategy further includes:

[0015] Based on the real scene comparison signal, enter the real scene module of the map software, obtain the latest updated real scene map in the map software and compare it with the 3D satellite cloud map. If the 3D satellite cloud map is inconsistent with the real scene map, use the real scene map to correct the 3D satellite cloud map.

[0016] As a further improvement of the present invention, a heat strategy is configured in the environmental heat module. The heat strategy includes:

[0017] Based on the 3D satellite cloud map in the environmental data, the actual buildings within the radiation threshold range are displayed on the heat map simulation terminal interface and presented in a 3D projection manner. It is identified whether there is a lack of actual buildings within the radiation threshold range. If there is a lack of some buildings in the actual buildings, a filling instruction is generated. At this time, the satellite cloud map within the radiation threshold range on the heat map simulation terminal interface is reduced, and the missing outline of the environmental buildings in the radiation threshold edge area is identified. After completely identifying the external outline of the environmental buildings in the radiation threshold edge area, a stop instruction is generated, and after the actual buildings are filled sufficiently, they are presented again in a 3D projection manner, and an environmental heat map corresponding to the actual buildings is generated according to the height and density of the actual buildings.

[0018] As a further improvement of the present invention, the correction strategy includes:

[0019] According to the on-site survey information of the actual buildings in the environmental heat map within the radiation threshold, the on-site survey information includes surveying the height and density of the actual buildings to form an actual heat map, and also includes the light heat map of the actual buildings within the unit number of days. The light heat map is based on the degree of light received by the actual buildings in the environmental heat map per unit hour within the unit number of days. The degree of light includes the light duration and the light period, and the light heat map is formed by fitting according to the light period and the light duration. The environmental heat map is corrected according to the actual heat map formed by the on-site survey, and at the same time, the light heat map is assigned to the environmental heat map corrected by the actual heat map to form a reference heat map.

[0020] As a further improvement of the present invention, an analysis strategy is configured in the analysis module, and the analysis strategy includes:

[0021] When generating a heat mark, analyze the influencing factors exceeding the heat threshold based on the position of the heat mark, and obtain a reference solution according to the analyzed influencing factors. The reference solution includes modifying the building area, building height, and building angle in the planned building data.

[0022] As a further improvement of the present invention, an adjustment strategy is configured in the adjustment module, and the adjustment strategy includes:

[0023] Retrieve the reference solution, adjust the planned building data based on the reference solution, and generate a comprehensive heat map after adjusting the planned building data. If there are still heat marks in the comprehensive heat map, generate a feedback signal. Based on the feedback signal, the analysis module continues to analyze according to the analysis strategy and generates a reference solution until no heat marks appear in the comprehensive heat map after adjusting the planned building data, then generate a target instruction, and control the fitting subsystem to perform risk estimation and draw a map.

[0024] As a further improvement of the present invention, a risk strategy and a risk threshold are configured in the risk module. The risk threshold represents the range value within which there are special buildings or places that will affect the heat values in the target building area and within the radiation threshold range, with the target building area as the center and the risk threshold as the radius. The special buildings or places include airports, signal towers, lighthouses, and landmark buildings. The risk strategy includes:

[0025] Retrieve the 3D satellite cloud map in the map software with the risk threshold, identify whether there are special buildings or places within the risk threshold range, and generate a risk mark when a special building or place is identified. The risk mark is used to mark the position of the special building or place, and generate a risk heat map according to the special building or place. After comparing the risk heat map and the comprehensive heat map, form a risk report.

[0026] As a further improvement of the present invention, a drawing strategy is configured in the drawing module, and the drawing strategy includes:

[0027] Retrieve the 3D satellite cloud map and superimpose the comprehensive heat map on the 3D satellite cloud map to form a 3D heat map. The 3D heat map is used to represent the floor area, building height, and building angle of the target building. At the same time, in the formed 3D heat map, the risk area outside the radiation threshold range is printed on the 3D heat map. The buildings between the radiation threshold range and the risk area are removed, and the risk area is translated to the radiation threshold at the relative angular position of the target building area where the risk area is located. The linear distance value and angle value of the risk area from the target building area are marked, and a risk report is printed at the risk area.

[0028] Advantages of the present invention: Through the environmental subsystem, the building information within the range with the radiation threshold as the radius of the target building area is used to connect to the map software via 5G communication to obtain the 3D satellite cloud map. According to the environmental data, an environmental heat map is fitted and constructed in the heat map simulation terminal. And under the action of the correction module, the heat correction map is obtained based on the actual survey map to correct the environmental heat map to obtain the actual building heat map around the target building area. Under the action of the modeling subsystem, according to the planned building data, actual fitting is carried out in the heat map simulation terminal to form a comprehensive heat map that conforms to the actual building environment. And under the action of the fitting subsystem, the risk factors within the radiation threshold range are analyzed and a risk report is generated. The risk report is printed on the 3D heat map together, so as to not only control and adjust the surrounding heat map with the target building area as the center and the radiation threshold as the radius, but also evaluate the existing risks, achieving the effect of adjusting and controlling the target building heat map after analysis based on the heat map, so as to achieve the purpose of constructing a rational urban construction. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 To show the system diagram of the present invention. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0030] The present invention will be further described in detail below with reference to the drawings and embodiments. The same reference numerals are used for the same components. It should be noted that the terms "front", "rear", "left", "right", "upper" and "lower" used in the following description refer to the directions in the drawings, and the terms "bottom surface" and "top surface", "inner" and "outer" refer to the directions towards or away from the geometric center of a specific component respectively.

[0031] Reference Figure 1As shown in the figure, it is a specific implementation manner of a building thermal map control system of the present invention, including an environment subsystem, a modeling subsystem, and a fitting subsystem disposed in a thermal map simulation terminal. The environment subsystem includes an environment acquisition module, an environment thermal module, and a correction module. A radiation threshold is configured in the environment acquisition module, and the radiation threshold represents a range value for acquiring environmental information within a circumferential area around the target building area as the center. A call strategy is configured in the environment acquisition module, and the call strategy includes using 5G communication to dock with a map software, retrieving a 3D satellite cloud map in the map software, obtaining the target building area based on the 3D satellite cloud map, and acquiring the surrounding environment with the radiation threshold as the radius to generate environmental data. The environment thermal module is used to fit the environmental data into the thermal map simulation terminal and construct an environment thermal map. A correction strategy is configured in the correction module, and the correction strategy is used to obtain a corrected thermal map according to the actual survey map and correct the environment thermal map based on the corrected thermal map to generate a reference thermal map.

[0032] The modeling subsystem includes a simulation module, an analysis module, and an adjustment module. The simulation module is used to input expected planned building data based on the target building area. The planned building data includes building area, building height, and building angle. The building area represents the land area used by the target building. The building angle represents establishing a plane coordinate system with the center point of the target building area, and the deflection angle between the target building and the coordinate axes in the plane coordinate system. A planned thermal map is generated based on the planned building data. A thermal threshold is configured in the analysis module, and the thermal threshold represents the maximum threshold of the thermal value in the thermal map. A comprehensive thermal map is generated according to the planned thermal map and the corrected reference thermal map, and it is also used to analyze the comprehensive thermal map, compare the thermal value in the comprehensive thermal map with the thermal threshold, and mark the area exceeding the thermal threshold to form a thermal mark. The adjustment module is used to adjust the thermal map of the target building to adjust the thermal values of each area in the comprehensive thermal map to meet the thermal threshold.

[0033] The fitting subsystem includes a map output module and a risk module. The risk module is used to mark the areas with thermal risks on the comprehensive thermal map and form a risk report. The map output module is used to print the comprehensive thermal map formed after being adjusted by the adjustment module online to form a 3D thermal map, and print the risk report on the areas with thermal risks to the 3D thermal map.

[0034] The specific call strategy is as follows:

[0035] The heat map simulation terminal is provided with a map input box and a selection interface. Multiple map software identifiers are set in the selection interface. Based on touching different map software identifiers, the display interfaces of the corresponding map software are opened. Based on the map input box, the geographical location of the target building area is input to locate to the target building area in the map input box, and a cloud map instruction is generated when locating to the target building area. At the same time, the 3D satellite cloud map of the target building area is retrieved according to the radiation threshold;

[0036] The heat map simulation terminal also has a split-screen interface. When the preset split-screen interface is initialized, it remains as two interfaces. Based on the split-screen interface, more than two map software identifiers can be selected simultaneously and the corresponding map software can be opened to form the 3D satellite cloud map of the target building area with the radiation threshold as the radius centered on the target area. And the multiple 3D satellite cloud maps displayed in the split-screen interface are compared to verify whether the 3D satellite cloud maps in the target building area are consistent. If they are inconsistent, a real-scene comparison signal is generated and sent to the environment acquisition module.

[0037] The calling strategy also includes:

[0038] Based on the real-scene comparison signal, enter the real-scene module of the map software, obtain the latest updated real-scene map in the map software and compare the real-scene map with the 3D satellite cloud map. If the 3D satellite cloud map is inconsistent with the real-scene map, use the real-scene map to correct the 3D satellite cloud map.

[0039] A heat strategy is configured in the environmental heat module. The heat strategy includes:

[0040] Based on the 3D satellite cloud map in the environmental data, the actual buildings within the radiation threshold range are displayed on the heat map simulation terminal interface and presented in a 3D projection manner. And it is identified whether there is a lack of actual buildings within the radiation threshold range. If there is a lack of some buildings in the actual buildings, a filling instruction is generated. At this time, the satellite cloud map within the radiation threshold range on the heat map simulation terminal interface is reduced, and the missing outline of the environmental buildings in the radiation threshold edge area is identified. After completely identifying the external outline of the environmental buildings in the radiation threshold edge area, a stop instruction is generated. And after the actual buildings are filled sufficiently, they are presented again in a 3D projection manner, and the environmental heat map of the corresponding actual buildings is generated according to the height and density of the actual buildings.

[0041] The correction strategy includes:

[0042] According to the field survey information of the actual buildings in the environmental thermal map within the radiation threshold, the field survey information includes surveying the height and density of the actual buildings and forming an actual thermal map, and also includes surveying the light thermal map of the actual buildings within the unit day. The light thermal map is based on the degree of light received by the actual buildings in the environmental thermal map in unit hours within the unit day. The light degree includes the light duration and the light period, and the light thermal map is formed by fitting according to the light period and the light duration. The environmental thermal map is corrected according to the actual thermal map formed by the field survey, and the light thermal map is also assigned to the environmental thermal map corrected by the actual thermal map to form a reference thermal map.

[0043] The analysis module is configured with an analysis strategy, which includes:

[0044] When generating thermal markers, factors that exceed the thermal threshold are analyzed based on the location of the thermal markers, and a reference plan is derived based on the analyzed factors. The reference plan includes modifying the building area, building height and building angle in the planned building data.

[0045] The adjustment module is configured with an adjustment strategy, which includes:

[0046] Retrieve the reference plan, adjust the planned building data based on the reference plan, and generate a comprehensive thermal map after adjusting the planned building data. If thermal marks still appear in the comprehensive thermal map, generate a feedback signal. Based on the feedback signal analysis module, continue to analyze and generate a reference plan according to the analysis strategy. Generate target instructions until no thermal marks appear in the comprehensive thermal map after adjusting the planned building data, and control the fitting subsystem to perform risk assessment and map output.

[0047] The risk module is configured with a risk strategy and a risk threshold. The risk threshold represents the range of values within a radius centered on the target building area and with the risk threshold as the radius, where the presence of special buildings or places will affect the target building area and the thermal value within the radiation threshold range. The special buildings or places include airports, signal towers, lighthouses, and landmark buildings. The risk strategy includes:

[0048] The 3D satellite cloud map in the map software is retrieved with the risk threshold, and it is identified whether there are special buildings or places within the risk threshold range. When special buildings or places are identified, a risk mark is generated. The risk mark is used to mark the location of the special buildings or places, and a risk heat map is generated based on the special buildings or places. A risk report is formed based on the comparison of the risk heat map and the comprehensive heat map.

[0049] The output module is configured with an output strategy, which includes:

[0050] Retrieve the 3D satellite cloud map and superimpose the comprehensive heat map on the 3D satellite cloud map to form a 3D heat map. The 3D heat map is used to represent the building area, building height, and building angle of the target building. At the same time, in the formed 3D heat map, the risk areas outside the radiation threshold range are printed on the 3D heat map. The buildings between the radiation threshold range and the risk areas are removed, and the risk areas are translated to the radiation threshold along the relative angular position of the risk areas in the target building area. The linear distance value and angle value of the risk areas from the target building area are marked, and a risk report is printed at the risk areas.

[0051] Working principle and its effects:

[0052] Through the environmental subsystem, the building information within the range with the radiation threshold as the radius in the target building area is connected to the map software using 5G communication to obtain the 3D satellite cloud map. According to the environmental data, an environmental heat map is fitted and constructed in the heat map simulation terminal. And under the action of the correction module, the heat correction map is obtained based on the actual survey map to correct the environmental heat map to obtain the actual building heat map around the target building area. Under the action of the modeling subsystem, the actual fitting is carried out in the heat map simulation terminal according to the planned building data to form a comprehensive heat map that conforms to the actual building environment. And under the action of the fitting subsystem, the risk factors within the radiation threshold range are analyzed and a risk report is generated. The risk report is printed on the 3D heat map together, so as to not only control and adjust the surrounding heat map with the target building area as the center and the radiation threshold as the radius, but also evaluate the existing risks, achieving the effect of adjusting and controlling the target building heat map after analysis based on the heat map, so as to achieve the purpose of constructing a rational urban construction.

[0053] The above is only the preferred embodiment of the present invention. The protection scope of the present invention is not limited to the above embodiments. All technical solutions within the idea of the present invention belong to the protection scope of the present invention. It should be noted that for those of ordinary skill in the art in this technical field, several improvements and refinements made without departing from the principle of the present invention should also be regarded as within the protection scope of the present invention.

Claims

1. A building heat map control system, characterized in that, Including those provided in the heat map simulation terminal: An environment subsystem, which includes an environment acquisition module, an environment heat module, and a correction module. A radiation threshold is configured in the environment acquisition module, and the radiation threshold represents the range value for acquiring environmental information within a circumferential area centered on the target building area. A call strategy is configured in the environment acquisition module, and the call strategy includes using 5G communication to dock with a map software, retrieving the 3D satellite cloud map in the map software, acquiring the target building area based on the 3D satellite cloud map, acquiring the surrounding environment with the radiation threshold as the radius, and generating environmental data. The environment heat module is used to fit the environmental data into the heat map simulation terminal and construct an environment heat map. A correction strategy is configured in the correction module, and the correction strategy is used to obtain a corrected heat map based on the actual survey map and correct the environment heat map based on the corrected heat map to generate a reference heat map; A modeling subsystem, which includes a simulation module, an analysis module, and an adjustment module. The simulation module is used to input expected planned building data based on the target building area. The planned building data includes building area, building height, and building angle. The building area represents the land area value used by the target building. The building angle represents establishing a plane coordinate system for the center point of the target building area, and the deflection angle between the target building and the coordinate axes in the plane coordinate system. Based on the planned building data, a planned heat map is generated. A heat threshold is configured in the analysis module, and the heat threshold represents the maximum threshold of the heat value in the heat map. A comprehensive heat map is generated based on the planned heat map and the corrected reference heat map, and it is also used to analyze the comprehensive heat map, compare the heat value in the comprehensive heat map with the heat threshold, and mark the areas exceeding the heat threshold to form heat marks. The adjustment module is used to adjust the heat map of the target building to adjust the heat values in each area of the comprehensive heat map to meet the heat threshold; A fitting subsystem, which includes a map generation module and a risk module. The risk module is used to mark the areas with heat risks on the comprehensive heat map and form a risk report. The map generation module is used to print the comprehensive heat map formed after being adjusted by the adjustment module online to form a 3D heat map, and print the risk report on the areas with heat risks onto the 3D heat map.

2. The building heat map control system according to claim 1, wherein: The specific call strategy is as follows: A map input box and a selection interface are provided on the heat map simulation terminal. Multiple map software identifiers are set in the selection interface. Based on touching different map software identifiers, the display interface of the corresponding map software is opened. Based on the map input box, the geographical location of the target building area is input to locate the target building area in the map input box, and a cloud map instruction is generated when the target building area is located. At the same time, the 3D satellite cloud map of the target building area is retrieved according to the radiation threshold; The heat map simulation terminal also has a split screen interface. When the preset split screen interface is initialized, it remains as two interfaces. Based on the split screen interface, more than two map software identifiers can be selected simultaneously and the corresponding map software can be opened to form 3D satellite cloud maps of target building areas centered on the target area with a radiation threshold as the radius. Then, the multiple 3D satellite cloud maps displayed in the split screen interface are compared to verify whether the 3D satellite cloud maps within the target building area are consistent. If they are inconsistent, a real scene comparison signal is generated and sent to the environment acquisition module.

3. The building heat map control system according to claim 2, characterized in that: The call strategy also includes: Based on the real scene comparison signal, enter the real scene module of the map software, obtain the latest updated real scene map in the map software, and compare the real scene map with the 3D satellite cloud map. If the 3D satellite cloud map is inconsistent with the real scene map, use the real scene map to correct the 3D satellite cloud map.

4. The building heat map control system according to claim 3, characterized in that: A heat strategy is configured in the environmental heat module. The heat strategy includes: Based on the 3D satellite cloud map in the environmental data, display the actual buildings within the radiation threshold range on the heat map simulation terminal interface, present them in a 3D projection manner, and identify whether there are any missing actual buildings within the radiation threshold range. If there are missing parts of the buildings in the actual buildings, a filling instruction is generated. At this time, the satellite cloud map within the radiation threshold range on the heat map simulation terminal interface is reduced, and the missing outlines of the environmental buildings in the edge area of the radiation threshold are identified. After completely identifying the outer shape outlines of the environmental buildings in the edge area of the radiation threshold, a stop instruction is generated, and after the actual buildings are filled sufficiently, they are presented again in a 3D projection manner, and an environmental heat map corresponding to the actual buildings is generated according to the height and density of the actual buildings.

5. The building thermal map control system according to claim 4, wherein: The correction strategy includes: According to the on-site survey information of the actual buildings in the environmental heat map within the radiation threshold, the on-site survey information includes surveying the height and density of the actual buildings to form an actual heat map, and also includes surveying the light heat map of the actual buildings within the unit number of days. The light heat map is based on the degree of light received by the actual buildings in the environmental heat map within the unit hour within the unit number of days. The degree of light includes the light duration and the light period, and the light heat map is formed by fitting according to the light period and the light duration. The environmental heat map is corrected according to the actual heat map formed by the on-site survey, and at the same time, the light heat map is assigned to the environmental heat map after being corrected by the actual heat map to form a reference heat map.

6. The building heat map control system according to claim 5, characterized in that: An analysis strategy is configured in the analysis module. The analysis strategy includes: When generating a heat mark, analyze the influencing factors that exceed the heat threshold based on the position of the heat mark, and obtain a reference solution according to the analyzed influencing factors. The reference solution includes modifying the building area, building height, and building angle in the planned building data.

7. The building thermal map control system according to claim 6, characterized in that: An adjustment strategy is configured in the adjustment module. The adjustment strategy includes: Retrieve the reference plan, adjust the planned building data based on the reference plan, and generate a comprehensive heat map after adjusting the planned building data. If there are still heat marks in the comprehensive heat map, generate a feedback signal, and the analysis module based on the feedback signal continues to analyze according to the analysis strategy and generate a reference plan until a target instruction is generated when there are no heat marks in the comprehensive heat map after adjusting the planned building data, and control the fitting subsystem to perform risk estimation and map generation.

8. A building thermal map control system according to claim 7, characterized in that: A risk strategy and a risk threshold are configured in the risk module. The risk threshold represents the range value within which there are special buildings or places that will affect the heat values in the target building area and the radiation threshold range, centered on the target building area with the risk threshold as the radius. The special buildings or places include airports, signal towers, lighthouses, and landmark buildings. The risk strategy includes: Retrieve the 3D satellite cloud map in the map software with the risk threshold, identify whether there are special buildings or places within the risk threshold range, and generate a risk mark when a special building or place is identified. The risk mark is used to mark the location of the special building or place, and generate a risk heat map based on the special building or place. A risk report is formed after comparing the risk heat map with the comprehensive heat map.

9. The building thermal map control system according to claim 8, characterized in that: An out - mapping strategy is configured in the out - mapping module. The out - mapping strategy includes: Retrieve the 3D satellite cloud map and perform an overlay process on the comprehensive heat map and the 3D satellite cloud map to form a 3D heat map. The 3D heat map is used to represent the floor area, building height, and building angle of the target building. At the same time, in the formed 3D heat map, the risk areas outside the radiation threshold range are printed onto the 3D heat map, the buildings between the radiation threshold range and the risk areas are removed, and the risk areas are translated along the relative angular position of the risk areas in the target building area to the radiation threshold, and the linear distance value and angle value of the risk areas from the target building area are marked, and the risk report is printed at the risk areas.

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