BIM green low-carbon building construction simulation device

Abstract

The invention discloses a BIM green low-carbon building construction simulation device, and relates to the technical field of BIM simulation platforms, the BIM green low-carbon building construction simulation device comprises a support, a simulation table is mounted on the support, a simulation display is mounted above the simulation table, a heat dissipation bin is fixedly connected to the lower surface of the simulation table, a core control module is mounted in the heat dissipation bin, and the BIM green low-carbon building construction simulation device further comprises a rapid pressing mechanism. An adjusting mechanism and an intelligent heat dissipation mechanism are installed in multiple sizes; according to the scheme, the distance between the supporting blocks can be adjusted, the inserting plate can rapidly adapt to clamping blocks of different lengths and sizes by adjusting the distance between the supporting blocks, wide compatibility is ensured, when the size of the analog display assembly changes, the supporting structure can correspondingly adjust supporting points, and compared with a traditional design, the supporting structure has the advantages that the supporting structure is simple and convenient to use. According to the scheme, high-adaptability installation of simulation displays of different sizes is achieved, the stability in the installation process is remarkably improved, and then higher safety and reliability are brought to BIM green low-carbon building construction simulation.

Description

Technical Field

[0001] The present invention relates to the technical field of BIM simulation device platforms, and specifically to a BIM green and low-carbon building construction simulation device. Background Art

[0002] BIM building simulation integrates information such as the design, construction, operation, and maintenance of a building into a three-dimensional digital model. Through this model, construction workers can conduct construction simulations in a virtual environment, predict and solve possible problems, thereby optimizing the construction plan and improving construction efficiency and quality.

[0003] BIM green and low-carbon building construction simulation devices usually need to process a large amount of three-dimensional model data and complex calculation tasks, which pose high requirements for the hardware performance of the platform desktop. High-performance hardware generates a large amount of heat when operating under high load. If not dissipated in time, it may cause the system to overheat, which in turn affects the stable operation and lifespan of the device. Existing cooling devices usually need to be customized separately according to their core components. Once the core control components are replaced, the cooling components must be replaced synchronously. Customized cooling devices are more complex to maintain. Since the cooling requirements of each component are different, maintenance personnel need to understand the cooling characteristics and maintenance methods of each component, which undoubtedly increases the difficulty and complexity of maintenance. And separately customizing the cooling device means that it needs to be designed and produced according to the specific specifications and performance requirements of each hardware component, which will undoubtedly increase the manufacturing cost. For large-scale deployed BIM green and low-carbon building construction simulation devices, this will be a significant expense.

[0004] In addition, in the process of applying existing BIM building simulations, when comprehensively comparing the model with the drawings, it is necessary to ensure the accuracy and consistency between the two, which undoubtedly increases the complexity of the work and the requirements for accuracy. At the same time, the simulation device needs to be continuously adjusted and the display device replaced according to the on-site personnel environment. For example, changes in factors such as light conditions, viewing distance, and viewing angle in different environments may require different display devices to achieve the best visual effect. Since the height dimension of the display changes, the relative height of its bracket also needs to change. Therefore, when replacing the display device, the bracket needs to be replaced synchronously, which not only increases the complexity of the operation but also may bring additional costs and time consumption.

[0005] Therefore, this solution needs to design standardized display devices and bracket interfaces so that different display devices can be more easily interchanged without having to replace the bracket each time;

[0006] Therefore, a BIM green and low-carbon building construction simulation device is proposed to solve the above problems. Summary of the Invention

[0007] In view of this, the technical problem to be solved by the present invention is to provide a BIM green and low-carbon building construction simulation device to solve the problem of poor adaptability of the heat dissipation component and the real bracket to different devices in the prior art.

[0008] To achieve the above object, the present invention provides the following technical solutions: A BIM green and low-carbon building construction simulation device, including a support, a simulation table is installed on the support, a simulation display is installed above the simulation table, a heat dissipation chamber is fixedly connected to the lower surface of the simulation table, a core control module is installed in the heat dissipation chamber, and further includes a quick pressing mechanism, a multi-size installation and adjustment mechanism, and an intelligent heat dissipation mechanism;

[0009] Quick pressing mechanism;

[0010] The quick pressing mechanism is arranged on the upper surface of the simulation table, and the quick pressing mechanism is used for fixing the drawings in construction simulation;

[0011] Multi-size installation and adjustment mechanism;

[0012] The multi-size installation and adjustment mechanism is arranged below the simulation display, and the multi-size installation and adjustment mechanism is used for the quick installation of different simulation display sizes;

[0013] Intelligent heat dissipation mechanism;

[0014] The intelligent heat dissipation mechanism is arranged in the heat dissipation chamber, and the intelligent heat dissipation mechanism is used for the intelligent heat dissipation of the core control module during BIM construction simulation.

[0015] Preferably, the quick pressing mechanism includes a support plate, the support plate is fixedly connected to the middle of the upper surface of the simulation table, a connecting plate is rotatably connected to the support plate, the connecting plate is composed of a plurality of rotating plates rotatably connected, and L-shaped support plates are rotatably connected to both ends of the support plate.

[0016] Preferably, a sliding hole is formed in the L-shaped support plate, and a pull buckle is slidably connected in the sliding hole. A pressing block is fixedly connected to the lower end of the pull buckle. A compression spring is sleeved on the pull buckle near the lower surface of the L-shaped support plate. One end of the compression spring is fixedly connected to the pressing block, and the other end of the compression spring is fixedly connected to the L-shaped support plate.

[0017] Preferably, the multi-size installation and adjustment mechanism includes a T-shaped sliding plate, a rotating table is slidably connected to the outer surface of the T-shaped sliding plate, the bottom of the rotating table is rotatably connected to the simulation table, push plates are symmetrically rotatably connected to the bottom of the T-shaped sliding plate, a threaded block is rotatably connected to one end of the push plate away from the T-shaped sliding plate, and a bidirectional threaded rod is threadedly connected to the middle of the threaded block.

[0018] Preferably, both ends of the bidirectional threaded rod are rotatably connected to the inner wall of the rotating table. On both sides of the outer surface of the bidirectional threaded rod, buffer springs are symmetrically sleeved. One end of the buffer spring is fixedly connected to the threaded block, and the other end of the buffer spring is fixedly connected to the inner wall of the rotating table. A wire slot is opened at the bottom of the rotating table, and the connecting wire in the simulation display can be electrically connected to the core control module through the wire slot of the rotating table.

[0019] Preferably, the multi-size installation and adjustment mechanism further includes an adjustment disk. The adjustment disk is rotatably connected to the inner wall of the T-shaped sliding plate. On the adjustment disk, two pull rods are symmetrically and rotatably connected. One end of the pull rod away from the adjustment disk is rotatably connected to a support block. A chute is opened on the upper surface of the T-shaped sliding plate near the simulation display, and the support block is slidably connected to the chute of the T-shaped sliding plate.

[0020] Preferably, a damping bearing is installed at one end of the support block away from the T-shaped sliding plate. A plug board is fixedly connected to the damping bearing. A clamping block is installed on one side of the simulation display close to the T-shaped sliding plate, and a clamping groove is opened in the clamping block. The plug board is clamped in the clamping groove of the clamping block.

[0021] Preferably, the intelligent heat dissipation mechanism includes a multi-axis slider. An adjustable plate is slidably connected to the axial surface of the multi-axis slider. On the side of the adjustable plate away from the multi-axis slider, inclined chute plates are evenly fixedly connected. A chute is opened in the inclined chute plate. A heat dissipation aluminum plate is slidably connected to the chute of the inclined chute plate. A sliding plate is slidably connected to the bottom of the heat dissipation chamber, and the bottom of the heat dissipation aluminum plate is evenly slidably connected to the sliding plate.

[0022] Preferably, a heat conduction copper tube is arranged in the heat dissipation chamber. The middle part of the heat dissipation aluminum plate is evenly slidably connected to the outer surface of the heat conduction copper tube. A heat exchange copper plate is fixedly connected to the middle part of the heat conduction copper tube. Exhaust fans are evenly installed on the upper surface of the sliding plate. A threaded shaft is rotatably connected to the bottom of the sliding plate, and the threaded shaft is threadedly connected to the bottom of the heat dissipation chamber.

[0023] Compared with the prior art, the present invention provides a BIM green and low-carbon building construction simulation device, which has the following beneficial effects:

[0024] 1. In this solution, by rotating the adjustment handle, the bidirectional threaded rod can be driven to drive the threaded block to move synchronously on the bidirectional threaded rod. Through the synchronous movement of the threaded block, the push plate can be used to push the T-shaped sliding plate to adjust the height in the rotating table. Through the design of this solution, not only the convenience of operation is greatly improved, enabling users to easily achieve free adjustment of the height of the display to adapt to different construction simulation requirements; but also by adjusting the base of the simulation display, different sizes of displays can be adapted for installation, ensuring the adaptability and reliability of the construction simulation process. In summary, this height adjustment design combines practicality, convenience, and precision, which is a major highlight in the BIM green and low-carbon building construction simulation device;

[0025] In this solution, by setting the distance between the support blocks can be adjusted. By adjusting the distance between the support blocks, the plug board can quickly adapt to the blocks with different length dimensions, ensuring wide compatibility. When the size of the simulation display component changes, its support structure will correspondingly adjust the support points, thereby expanding the support range between the block components. By setting the plug board that can synchronously change the spacing, it can quickly adapt to the installation of different simulation displays. Compared with the traditional design, this solution not only realizes the highly adaptable installation of simulation displays with different sizes, but also significantly improves the stability during the installation process, thus bringing higher safety and reliability to the BIM green and low-carbon building construction simulation.

[0026] 2. In this solution, by adjusting the height of the inclined chute plate, the spacing between the heat dissipation aluminum plates in the heat conduction copper tubes can be driven. This design in the BIM building construction simulation process is particularly important because when operating the BIM building construction simulation, it will occupy a large amount of the device's operating memory, thereby causing the problem of rapid heating of the device. In this solution, by optimizing the control of the spacing adjustment function of the heat dissipation aluminum plates and reasonably optimizing the spatial layout between the heat dissipation aluminum plates and the heat conduction copper tubes, the heat dissipation efficiency of the device can be significantly improved, ensuring that it can still operate stably under high-intensity simulation tasks and will not be affected by overheating or damaged due to overheating.

[0027] 3. In this solution, the threaded shaft is threadedly connected to the bottom of the simulation table 3. By carefully adjusting the threaded shaft, we can ensure that the heat exchange copper plate is closely attached to the core heating device in the core control module. The heat dissipation system designed in this solution can flexibly adapt to core control module devices of different specifications and models to achieve efficient heat dissipation; at the same time, in this solution, multiple exhaust fan heat dissipation elements are carefully arranged on the sliding plate. They are evenly distributed and can significantly accelerate the heat emission speed between the heat dissipation aluminum plate areas. This layout not only improves the heat dissipation efficiency but also ensures the uniformity of heat dissipation, effectively avoiding the problem of local overheating;

[0028] Compared with traditional single fixed heat dissipation devices that can only dissipate heat by changing the wind speed of the exhaust fan, the present invention incorporates intelligent control elements. When the device generates heat and the control system detects excessive memory occupancy, the controller in the core control module will respond quickly and activate the heat dissipation elements of the exhaust fan for heat dissipation. The electric cylinder installed in the heat dissipation chamber will drive the multi-axis slider to adjust, causing the distance between the heat dissipation aluminum plates to start adjusting, thereby enabling intelligent heat dissipation of the heat dissipation chamber. This intelligent control mechanism can monitor the device status in real time and automatically adjust the heat dissipation intensity as needed to ensure that the device remains stable under high-load operation. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 Schematic diagram of the three-dimensional structure of the present invention;

[0030] Figure 2 Auxiliary schematic diagram of the three-dimensional structure of the present invention;

[0031] Figure 3 Schematic diagram of the structural connection relationship of the quick pressing mechanism of the present invention;

[0032] Figure 4 For the present invention Figure 3 Enlarged view at A in;

[0033] Figure 5 For the present invention Figure 3 Enlarged view at B in;

[0034] Figure 6 Schematic diagram of the structural connection relationship of the intelligent heat dissipation mechanism of the present invention;

[0035] Figure 7 Schematic diagram of the structural connection state of the intelligent heat dissipation mechanism of the present invention;

[0036] Figure 8 For the present invention Figure 7 Enlarged view at C in;

[0037] Figure 9 Auxiliary schematic diagram of the structural connection state of the intelligent heat dissipation mechanism of the present invention;

[0038] Figure 10 Exploded schematic diagram of the structural connection relationship of the intelligent heat dissipation mechanism of the present invention.

[0039] In the figure:

[0040] 1, support; 11, simulation platform; 12, simulation display; 13, heat dissipation chamber; 14, core control module;

[0041] 2, quick pressing mechanism; 21, support plate; 22, connecting plate; 23, L-shaped support plate; 24, pressing block; 25, buckle; 26, compression spring;

[0042] 3. Multi-size installation and adjustment mechanism; 31. T-shaped sliding plate; 32. Rotating table; 33. Pushing plate; 34. Threaded block; 35. Bi-directional threaded rod; 36. Buffer spring; 37. Adjusting handle;

[0043] 301. Adjusting disc; 302. Pull rod; 303. Support block; 304. Damping bearing; 305. Insertion plate; 306. Clamping block;

[0044] 4. Intelligent heat dissipation mechanism; 41. Multi-axis slider; 42. Adjustable plate; 43. Oblique chute plate; 44. Heat dissipation aluminum plate; 45. Heat conduction copper tube; 46. Heat exchange copper block; 47. Slide plate; 48. Exhaust fan; 49. Threaded shaft. Specific implementation manners

[0045] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0046] The present invention will be further described in detail below according to the drawings and embodiments.

[0047] First embodiment

[0048] Please refer to Figures 1 to 10 as shown:

[0049] To solve the problems mentioned in the technical solutions, the embodiment of the present application provides a BIM green and low-carbon building construction simulation device, including a support 1, a simulation platform 11 is installed on the support 1, a simulation display 12 is installed above the simulation platform 11, a heat dissipation chamber 13 is fixedly connected to the lower surface of the simulation platform 11, a core control module 14 is installed in the heat dissipation chamber 13, and further includes a quick pressing mechanism 2, a multi-size installation and adjustment mechanism 3, and an intelligent heat dissipation mechanism 4;

[0050] Quick pressing mechanism 2;

[0051] The quick pressing mechanism 2 is arranged on the upper surface of the simulation platform 11, and the quick pressing mechanism 2 is used for fixing the drawings in the construction simulation;

[0052] Multi-size installation and adjustment mechanism 3;

[0053] The multi-size installation and adjustment mechanism 3 is arranged below the simulation display 12, and the multi-size installation and adjustment mechanism 3 is used for the quick installation of different sizes of the simulation display 12;

[0054] Intelligent heat dissipation mechanism 4;

[0055] The intelligent heat dissipation mechanism 4 is arranged in the heat dissipation bin 13 and is used for the intelligent heat dissipation of the core control module 14 during BIM construction simulation;

[0056] Specifically, as Figure 3 shown, the support plate 21 is fixedly connected to the middle of the upper surface of the simulation table 11. A connecting plate 22 is rotatably connected to the support plate 21. The connecting plate 22 is composed of a plurality of rotating plates rotatably connected. L-shaped support plates 23 are rotatably connected to both ends of the support plate 21;

[0057] Among them, the connecting plate 22 is a diamond-shaped telescopic chain composed of a plurality of rotatable plates, and it has a synchronous telescopic function;

[0058] In this solution, only by quickly pulling the diamond-shaped telescopic chain connecting plate 22 on one side can the diamond-shaped telescopic chain of the connecting plate 22 on the other side be synchronously pulled to stretch. Through this design of this solution, during BIM building construction simulation, it is possible to analyze while referring to the drawings and the model at the same time. Through the design of this solution, not only can the drawings be quickly and equidistantly fixed, but also the complex process of the operator fixing them alone can be greatly simplified.

[0059] Furthermore, as Figure 4 shown, a sliding hole is formed in the L-shaped support plate 23, and a buckle 25 is slidably connected in the sliding hole. A pressing block 24 is fixedly connected to the lower end of the buckle 25. A compression spring 26 is sleeved on the buckle 25 near the lower surface of the L-shaped support plate 23. One end of the compression spring 26 is fixedly connected to the pressing block 24, and the other end of the compression spring 26 is fixedly connected to the L-shaped support plate 23;

[0060] Among them. The pressing block 24 is made of rubber material. After pulling the buckle 25 up and down, the drawing is placed below the pressing block 24. Through the elastic stretching action of the compression spring 26, the drawing can be quickly fixed. Compared with the traditional design, this solution greatly simplifies the drawing fixing process, improves the convenience of operation, and at the same time ensures the stability and accuracy of the drawing during the fixing process.

[0061] Specifically, as Figure 5 shown, a rotating table 32 is slidably connected to the outer surface of the T-shaped sliding plate 31. The bottom of the rotating table 32 is rotatably connected to the simulation table 11. Push plates 33 are symmetrically rotatably connected to the bottom of the T-shaped sliding plate 31. One end of the push plate 33 away from the T-shaped sliding plate 31 is rotatably connected to a threaded block 34, and a bidirectional threaded rod 35 is threadedly connected to the middle of the threaded block 34;

[0062] Among them, the two threading directions of the bidirectional threaded rod 35 are opposite, that is, when the bidirectional threaded rod 35 is rotated, the threaded blocks 34 connected by threads will be driven to approach or move away from each other synchronously.

[0063] Further, both ends of the bidirectional threaded rod 35 are rotatably connected to the inner wall of the rotating table 32. Symmetrically sleeved on both sides of the outer surface of the bidirectional threaded rod 35 are buffer springs 36. One end of the buffer spring 36 is fixedly connected to the threaded block 34, and the other end of the buffer spring 36 is fixedly connected to the inner wall of the rotating table 32. A wire slot is opened at the bottom of the rotating table 32, and the connecting wire in the simulation display 12 can be electrically connected to the core control module 14 through the wire slot of the rotating table 32;

[0064] In this solution, by rotating the adjusting handle 37, the bidirectional threaded rod 35 can be driven to drive the threaded block 34 to move synchronously on the bidirectional threaded rod 35. Through the synchronous movement of the threaded block 34, the push plate 33 can be used to push the T-shaped sliding plate 31 to adjust the height in the rotating table 32. Through the design of this solution, not only is the operation convenience greatly improved, enabling the user to easily realize the free adjustment of the height of the display to adapt to different construction simulation requirements; but also by adjusting the base of the simulation display 12, different sizes of displays can be adapted for installation, ensuring the adaptability and reliability of the construction simulation process. In summary, this height adjustment design combines practicality, convenience and precision, and is a major highlight in the BIM green low-carbon building construction simulation device.

[0065] Specifically, as Figure 3 shown, the adjusting disc 301 is rotatably connected to the inner wall of the T-shaped sliding plate 31. Symmetrically rotatably connected to the adjusting disc 301 are pull rods 302. One end of the pull rod 302 away from the adjusting disc 301 is rotatably connected to a support block 303. A chute is opened on the upper surface of the T-shaped sliding plate 31 near one side of the simulation display 12, and the support block 303 is slidably connected in the chute of the T-shaped sliding plate 31;

[0066] Among them, the support blocks 303 are symmetrically slidably connected in the T-shaped sliding plate 31, and the damping bearing 304 adopts a damping bearing 304 with adjustable damping.

[0067] Further, a damping bearing 304 is installed at one end of the support block 303 away from the T-shaped sliding plate 31. A plug board 305 is fixedly connected to the damping bearing 304. A clamping block 306 is installed on one side of the simulation display 12 close to the T-shaped sliding plate 31. A clamping groove is opened in the clamping block 306, and the plug board 305 is clamped in the clamping groove of the clamping block 306;

[0068] In this solution, the distance between the support blocks 303 can be adjusted. By adjusting the distance between the support blocks 303, the insertion plate 305 can quickly adapt to the clamping blocks 306 of different lengths and sizes, ensuring wide compatibility. When the size of the analog display 12 component changes, its support structure will correspondingly adjust the support points, thereby expanding the support range between the clamping block 306 components. By setting the insertion plate 305 whose spacing can be synchronously changed, it can quickly adapt to the installation of different analog displays 12. Compared with the traditional design, this solution not only realizes the highly adaptable installation of analog displays 12 of different sizes, but also significantly improves the stability during the installation process, thereby bringing higher safety and reliability to the BIM green low-carbon building construction simulation.

[0069] Specifically, as Figure 8 shown, the multi-axis slider 41 is axially slidably connected to the adjustable plate 42. The side of the adjustable plate 42 away from the multi-axis slider 41 is uniformly and fixedly connected with an inclined chute plate 43. A chute is opened in the inclined chute plate 43. A heat dissipation aluminum plate 44 is slidably connected in the chute of the inclined chute plate 43. The bottom of the heat dissipation chamber 13 is slidably connected with a slide plate 47. The bottom of the heat dissipation aluminum plate 44 is uniformly slidably connected to the slide plate 47;

[0070] Among them, heat collection grooves are uniformly opened in the heat dissipation aluminum plate 44. A micro-adjustment groove is opened in the adjustable plate 42. The multi-axis slider 41 is axially slidably connected in the micro-adjustment groove opened in the adjustable plate 42. At the same time, a pressing column is fixedly connected to the middle of one side of the heat dissipation aluminum plate 44, and the pressing column is slidably connected in the chute opened in the inclined chute plate 43.

[0071] In this solution, by adjusting the height of the inclined chute plate 43, the distance between the heat dissipation aluminum plates 44 in the heat conduction copper tube 45 can be adjusted. This design in the BIM building construction simulation process is particularly important because a large amount of the operation memory of the device will be occupied during the BIM building construction simulation operation, thereby causing the problem of rapid temperature rise of the device. In this solution, by optimizing the control of the distance adjustment function of the heat dissipation aluminum plate 44 and reasonably optimizing the spatial layout between the heat dissipation aluminum plate 44 and the heat conduction copper tube 45, the heat dissipation efficiency of the device can be significantly improved, ensuring that it can still operate stably under high-intensity simulation tasks and will not be affected by overheating or damaged.

[0072] A heat conduction copper tube 45 is arranged in the heat dissipation chamber 13. The middle of the heat dissipation aluminum plate 44 is uniformly slidably connected to the outer surface of the heat conduction copper tube 45. A heat exchange copper plate block 46 is fixedly connected to the middle of the heat conduction copper tube 45. Heat exhaust fans 48 are uniformly installed on the upper surface of the slide plate 47. A threaded shaft 49 is rotatably connected to the bottom of the slide plate 47, and the threaded shaft 49 is threadedly connected to the bottom of the heat dissipation chamber 13;

[0073] Among them, an electric cylinder is installed in the heat dissipation bin 13, and the telescopic shaft of the electric cylinder is fixedly connected to the multi-axis slider 41. In this solution, the heat-conducting copper pipes 45 are evenly and fixedly connected in the heat-exchanging copper plates 46, and copper sand holes are evenly arranged in the inner wall of the pipeline of the heat-conducting copper pipes 45. The heat-receiving area of the heat-conducting copper pipes 45 can be rapidly increased through the arrangement of the copper sand holes, so that heat transfer can be carried out more quickly.

[0074] In this solution, the threaded shaft 49 is connected to the bottom of the heat dissipation bin 13 by threads. By finely adjusting the threaded shaft 49, we can ensure that the heat-exchanging copper plates 46 are closely attached to the core heating equipment in the core control module 14. The designed heat dissipation system can flexibly adapt to core control module 14 devices of different specifications and models to achieve efficient heat dissipation. At the same time, in this solution, a plurality of exhaust fans 48, which are heat dissipation components, are carefully arranged on the sliding plate 47. They are evenly distributed and can significantly accelerate the heat emission speed between the heat dissipation aluminum plates 44. This layout not only improves the heat dissipation efficiency but also ensures the uniformity of heat dissipation, effectively avoiding the problem of local overheating. Compared with traditional single fixed heat dissipation devices that can only dissipate heat by changing the wind speed of the exhaust fans 48, the present invention incorporates intelligent control elements. When the device generates heat and the control system detects that the memory occupancy is too large, the controller in the core control module 14 will quickly respond and start the exhaust fan 48 heat dissipation components for heat dissipation. The electric cylinder installed in the heat dissipation bin 13 will drive the multi-axis slider 41 to adjust, so that the distance between the heat dissipation aluminum plates 44 starts to be adjusted, thereby realizing intelligent heat dissipation of the heat dissipation bin 13. This intelligent control mechanism can monitor the device status in real time and automatically adjust the heat dissipation intensity according to needs to ensure that the device can still remain stable under high-load operation.

[0075] In summary, this solution not only realizes flexible heat dissipation for devices of different models in BIM building construction simulation, improves the heat dissipation efficiency and uniformity, but also incorporates an intelligent control mechanism that can monitor and adjust the heat dissipation intensity in real time. At the same time, through the electric cylinder adjustment mechanism, precise control of the heat dissipation distance is achieved. These advantages together constitute the unique advantages of this solution in BIM building construction simulation.

[0076] The specific implementation process of the above embodiment is as follows:

[0077] When the BIM building construction simulation software runs at full capacity on the host computer, especially when processing large and complex building models, the memory occupancy will rapidly climb. At this time, each component inside the host computer, especially the core heating equipment, will start to generate a large amount of heat.

[0078] At this time, the intelligent heat dissipation system of the present invention plays a key role. First, the system will monitor the memory occupancy of the host computer in real time. Once it detects that the memory occupancy reaches the preset threshold, it will immediately trigger the heat dissipation mechanism.

[0079] At this time, the intelligent controller installed inside the host will respond quickly. It is like the "brain" of the heat dissipation system and precisely analyzes the current heat dissipation requirements of the host. Then, the controller sends instructions to the heat dissipation components, such as starting the fan, adjusting the heat sink, etc. These heat dissipation components are like the "heat dissipation guards" of the host, and they will act quickly to lower the temperature of the host.

[0080] The following is the installation process of the heat dissipation components for different controller heating components in this solution:

[0081] As Figure 6 shown, when the core control module 14 is installed on the inner wall of the heat dissipation bin 13, at this time, the operator rotates the threaded shaft 49 through a tool. Since one end of the threaded shaft 49 is threadedly connected to the bottom of the heat dissipation bin 13 and the other end is rotatably connected to the sliding plate 47, and since the bottom of the sliding plate 47 is slidably connected to the bottom of the heat dissipation bin 13, and all the heat dissipation components of the intelligent heat dissipation mechanism 4 are arranged on the sliding plate 47, so by adjusting the threaded shaft 49, it will drive the Figure 9 shown heat exchange copper plate 46 to be effectively attached to the core heating component in the core control module 14. Once the core control module 14 detects that the memory occupancy reaches the preset threshold, it will immediately trigger the heat dissipation mechanism. At this time, the control system will control the electrically connected exhaust fan 48 to start rotating. At this time, the electric cylinder installed in the heat dissipation bin 13 starts to extend synchronously. At this time, the extension of the adjustable plate 42 will drive the oblique chute plate 43 to squeeze the extrusion column in the middle of the heat dissipation aluminum plate 44. The extrusion of the oblique chute plate 43 and the extrusion column will drive the heat dissipation aluminum plate 44 to start sliding synchronously on the heat conduction copper tube 45. At this time, the distance between the heat dissipation aluminum plates 44 on the heat conduction copper tube 45 starts to change. That is, when the heating component generates heat, the increase in the distance between the heat dissipation aluminum plates 44 is beneficial to heat dissipation. When the temperature of the heating component on the core control module 14 is lower than the threshold, at this time, the distance between the heat dissipation aluminum plates 44 becomes smaller, and its heat conduction performance increases, which is beneficial to the heat collection of the heat dissipation aluminum plates 44.

[0082] In this solution, the threaded shaft 49 is threadedly connected to the bottom of the heat dissipation bin 13. By finely adjusting the threaded shaft 49, we can ensure that the heat exchange copper plate 46 closely adheres to the core heating device in the core control module 14. The designed heat dissipation system can flexibly adapt to core control module 14 devices of different specifications and models to achieve efficient heat dissipation. At the same time, in this solution, a plurality of exhaust fans 48, which are heat dissipation elements, are carefully arranged on the sliding plate 47. They are evenly distributed and can significantly accelerate the heat emission speed between the heat dissipation aluminum plates 44. This layout not only improves the heat dissipation efficiency but also ensures the uniformity of heat dissipation, effectively avoiding the problem of local overheating. Compared with traditional single fixed heat dissipation devices that can only dissipate heat by changing the wind speed of the exhaust fan 48, the present invention incorporates intelligent control elements. When the device generates heat and the control system detects excessive memory occupancy, the controller in the core control module 14 will quickly respond and start the exhaust fan 48 heat dissipation element for heat dissipation. The electric cylinder installed in the heat dissipation bin 13 will drive the multi-axis slider 41 to adjust, so that the distance between the heat dissipation aluminum plates 44 starts to be adjusted, thereby realizing intelligent heat dissipation of the heat dissipation bin 13. This intelligent control mechanism can monitor the device status in real time and automatically adjust the heat dissipation intensity according to needs to ensure that the device remains stable even under high-load operation.

[0083] In summary, during the BIM building construction simulation process, when the host memory is too large and causes heat generation, our intelligent heat dissipation system can quickly respond. Through precise analysis and adjustment, it ensures that the host remains stable even under high-load operation, providing strong support for the BIM building construction simulation.

[0084] It should be noted that in this article, relational terms such as first and second are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variant thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements not only includes those elements but also includes other elements not expressly listed, or also includes elements inherent to such process, method, article or device. Without further limitation, an element defined by the statement "including a..." does not exclude the existence of additional identical elements in the process, method, article or device including the said element.

[0085] Although the embodiments of the present invention have been shown and described, for those of ordinary skill in the art, it can be understood that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A BIM green and low-carbon building construction simulation device, comprising a support (1), a simulation platform (11) is installed on the support (1), a simulation display (12) is installed above the simulation platform (11), a heat dissipation bin (13) is fixedly connected to the lower surface of the simulation platform (11), a core control module (14) is installed in the heat dissipation bin (13), and the device is characterized in that: It also includes a quick pressing mechanism (2), a multi-size installation adjustment mechanism (3) and an intelligent heat dissipation mechanism (4); Rapid pressing mechanism (2); The quick pressing mechanism (2) is arranged on the upper surface of the simulation platform (11), and the quick pressing mechanism (2) is used to fix the drawings in the construction simulation; Multi-size installation adjustment mechanism (3); The multi-size installation adjustment mechanism (3) is arranged below the simulation display (12), and the multi-size installation adjustment mechanism (3) is used for quick installation of simulation displays (12) of different sizes; Intelligent heat dissipation mechanism (4); The intelligent heat dissipation mechanism (4) is arranged in the heat dissipation bin (13), and the intelligent heat dissipation mechanism (4) is used for intelligent heat dissipation of the core control module (14) during BIM construction simulation.

2. A BIM green and low-carbon building construction simulation device according to claim 1, characterized in that: The quick pressing mechanism (2) comprises a support plate (21), the support plate (21) is fixedly connected to the middle part of the upper surface of the simulation platform (11), a connecting plate (22) is rotatably connected to the support plate (21), the connecting plate (22) is composed of a plurality of rotating plates rotatably connected, and L-shaped supporting plates (23) are rotatably connected to both ends of the support plate (21).

3. A BIM green and low-carbon building construction simulation device according to claim 2, characterized in that: The L-shaped support plate (23) is provided with a sliding hole, and a draw buckle (25) is slidably connected in the sliding hole, and the lower end of the draw buckle (25) is fixedly connected to a pressing block (24), and the draw buckle (25) is sleeved with a compression spring (26) near the lower surface of the L-shaped support plate (23), one end of the compression spring (26) is fixedly connected to the pressing block (24), and the other end of the compression spring (26) is fixedly connected to the L-shaped support plate (23).

4. A BIM green and low-carbon building construction simulation device according to claim 1, characterized in that: The multi-size installation adjustment mechanism (3) comprises a T-shaped sliding plate (31), the outer surface of the T-shaped sliding plate (31) is slidably connected to a rotating table (32), the bottom of the rotating table (32) is rotatably connected to the simulation table (11), the bottom of the T-shaped sliding plate (31) is symmetrically rotatably connected to a push plate (33), the push plate (33) is rotatably connected to one end away from the T-shaped sliding plate (31) with a threaded block (34), and the middle part of the threaded block (34) is threadedly connected to a bidirectional threaded rod (35).

5. A BIM green and low-carbon building construction simulation device according to claim 4, characterized in that: The two ends of the bidirectional threaded rod (35) are rotatably connected to the inner wall of the rotating platform (32); buffer springs (36) are symmetrically sleeved on both sides of the outer surface of the bidirectional threaded rod (35); one end of the buffer spring (36) is fixedly connected to the threaded block (34); the other end of the buffer spring (36) is fixedly connected to the inner wall of the rotating platform (32); a wire insertion slot is provided at the bottom of the rotating platform (32); and the connecting wires in the analog display (12) can be electrically connected to the core control module (14) through the wire insertion slot of the rotating platform (32).

6. A BIM green and low-carbon building construction simulation device according to claim 4, characterized in that: The multi-size installation adjustment mechanism (3) also includes an adjustment disk (301), the adjustment disk (301) is rotatably connected to the inner wall of the T-shaped sliding plate (31), a pull rod (302) is symmetrically rotatably connected to the adjustment disk (301), and the pull rod (302) is rotatably connected to a support block (303) at one end away from the adjustment disk (301), and a sliding groove is provided on the upper surface of the T-shaped sliding plate (31) close to the analog display (12), and the support block (303) is slidably connected in the sliding groove of the T-shaped sliding plate (31).

7. A BIM green and low-carbon building construction simulation device according to claim 6, characterized in that: A damping bearing (304) is installed at one end of the support block (303) away from the T-shaped sliding plate (31), and a plug plate (305) is fixedly connected to the damping bearing (304). A clamping block (306) is installed at one side of the analog display (12) close to the T-shaped sliding plate (31), and a clamping slot is provided in the clamping block (306), and the plug plate (305) is clamped in the clamping slot of the clamping block (306).

8. A BIM green and low-carbon building construction simulation device according to claim 1, characterized in that: The intelligent heat dissipation mechanism (4) comprises a multi-axis slider (41), the axial surface of the multi-axis slider (41) is slidably connected to an adjustable plate (42), the side of the adjustable plate (42) away from the multi-axis slider (41) is evenly fixedly connected to an oblique slide groove plate (43), a slide groove is provided in the oblique slide groove plate (43), a heat dissipation aluminum plate (44) is slidably connected in the slide groove of the oblique slide groove plate (43), the bottom of the heat dissipation bin (13) is slidably connected to a slide plate (47), and the bottom of the heat dissipation aluminum plate (44) is evenly slidably connected to the slide plate (47).

9. A BIM green and low-carbon building construction simulation device according to claim 8, characterized in that: A heat-conducting copper tube (45) is arranged in the heat dissipation bin (13); the middle of the heat dissipation aluminum plate (44) is evenly slidably connected to the outer surface of the heat-conducting copper tube (45); the middle of the heat-conducting copper tube (45) is fixedly connected to a heat-exchanging copper plate (46); a heat exhaust fan (48) is evenly installed on the upper surface of the slide plate (47); a threaded shaft (49) is rotatably connected to the bottom of the slide plate (47); and the threaded shaft (49) is threadedly connected to the bottom of the heat dissipation bin (13).

Images