A method, apparatus, and equipment for determining the construction scheme of a sprinkler fire extinguishing system.

Abstract

This invention provides a method, apparatus, and equipment for determining the construction scheme of a sprinkler fire suppression system. The method includes: acquiring attribute parameters of multiple components of the sprinkler fire suppression system and floor division parameters of the building; dividing the entire building model into multiple independent areas according to the floor division parameters; establishing sprinkler fire suppression system models for each independent area based on the attribute parameters of the multiple components of the sprinkler fire suppression system and each independent area; performing multiple collision detections and adjustments on the sprinkler fire suppression system models of each independent area until the test results meet a set first detection target; performing multiple collision detections and adjustments between the sprinkler fire suppression system models of each independent area until the test results meet a set second detection target; determining the layout scheme of multiple components; and outputting the construction scheme of the sprinkler fire suppression system. This invention can reduce the difficulty and workload of adjustments and reduce the repetitive adjustment work caused by new collisions.

Description

Technical Field

[0001] This invention relates to the field of building construction technology, and in particular to a method, apparatus and equipment for determining the construction scheme of a sprinkler fire extinguishing system. Background Technology

[0002] Sprinkler systems are essential fire protection equipment in buildings. During the design phase, sprinkler systems often require comprehensive collision testing of the system model. The collision results are almost never zero, necessitating adjustments by professionals to address each collision point. This process involves multiple collision tests and adjustments, and because sprinkler systems are complex, any change can have far-reaching consequences. Adjusting one collision point can affect the entire system's layout and functionality, potentially triggering new collisions. The workload and difficulty of these adjustments are immense. Summary of the Invention

[0003] The technical problem to be solved by the present invention is to provide a method, device and equipment for determining the construction scheme of a water sprinkler fire extinguishing system, which can reduce the difficulty and workload of adjustment and reduce the repeated adjustment work caused by new collisions.

[0004] To solve the above-mentioned technical problems, the technical solution of the present invention is as follows: A method for determining the construction scheme of a sprinkler fire extinguishing system, comprising:

[0005] Obtain the attribute parameters of multiple components of the sprinkler system and the floor division parameters of the building;

[0006] The entire building model is divided into multiple independent areas based on the building's floor division parameters;

[0007] Based on the attribute parameters of multiple components of the sprinkler system and each independent area, establish sprinkler system models for each independent area.

[0008] The sprinkler system models for each independent area were subjected to multiple collision tests and adjustments until the test results met the set first detection target.

[0009] Multiple collision tests and adjustments were performed on the sprinkler system models of each independent area until the test results met the set second detection target.

[0010] Based on the sprinkler system models of each independent area that meet the first and second detection targets, the layout scheme of the multiple components is determined, and the construction scheme of the sprinkler system is output.

[0011] Optionally, obtaining the attribute parameters of multiple components of the sprinkler system and the building's floor division parameters includes:

[0012] Obtain attribute parameters of multiple components in a sprinkler fire extinguishing system, including nozzle type, pipe size, valve specifications, and water supply facility parameters;

[0013] Obtain the building's floor division parameters, which include the floor elevation, floor function information, and building structural system.

[0014] Optionally, dividing the entire building model into multiple independent areas based on the building's floor division parameters includes:

[0015] Based on the floor elevation of the building, all building models within a certain floor elevation range are divided into independent areas corresponding to that floor.

[0016] Based on the functional information of each floor, the independent area of ​​each floor is divided into multiple independent sub-areas;

[0017] Based on the structural system of the building, the boundaries of each independent sub-region are determined.

[0018] Optionally, the step of establishing a sprinkler system model for each independent area based on the attribute parameters of multiple components of the sprinkler system and each independent area includes:

[0019] Based on the protection radius and coverage area parameters of the nozzles in each independent area, as well as the layout of each independent area, the nozzles are located to obtain their positions.

[0020] The pipe diameter is determined based on the nozzle location, water flow direction, and water flow velocity limits in each section of the pipe.

[0021] Select the fire pump based on the pressure and flow requirements of the pipeline system;

[0022] The models of sprinkler heads, pipes with defined diameters, and fire pump components are integrated to form a complete independent area sprinkler fire extinguishing system model.

[0023] Optionally, the process of performing multiple collision tests and adjustments on the sprinkler system models of each independent area until the test results meet the set first detection target includes:

[0024] Collision detection was performed on the sprinkler system models of each independent area, and multiple collision detection results were obtained.

[0025] Based on the specific location of the collision point within the area in the collision detection results, the collision type is marked and the information related to the collision is listed.

[0026] Analyze the collision points, collision types, and collision-related information in the collision detection results to determine the causes of each collision problem;

[0027] Based on the causes of each collision problem, determine the adjustment plan for each collision problem;

[0028] The model of the sprinkler system was modified according to the aforementioned adjustment plan;

[0029] Repeat the above steps multiple times until the collision test results meet the set first detection target.

[0030] Optionally, the process of performing multiple collision detections and adjustments between the sprinkler system models of each independent area until the test results meet the set second detection target includes:

[0031] A comprehensive collision detection was performed between the models of the sprinkler systems in each independent area, resulting in multiple collision detection results.

[0032] Based on the specific location of the collision point within the overall area in the collision detection results, the collision type is marked and the information related to the collision is listed.

[0033] Analyze the collision points, collision types, and collision-related information in the collision detection results to determine the causes of each collision problem;

[0034] Based on the causes of each collision problem, determine the adjustment plan for each collision problem;

[0035] The model of the sprinkler system was modified according to the aforementioned adjustment plan;

[0036] Repeat the above steps multiple times until the collision test results meet the set second detection target.

[0037] Optionally, the step of determining the layout scheme of the multiple components based on the sprinkler system model of each independent area that meets the first detection target and the second detection target, and outputting the construction scheme of the sprinkler system, includes:

[0038] The data of the sprinkler system models of each independent area, after multiple rounds of collision detection and adjustment, are summarized to obtain the layout of the sprinkler system components.

[0039] Optimize the layout of the sprinkler system components and output the construction plan for the sprinkler system.

[0040] The present invention also provides a device for determining the construction scheme of a sprinkler fire extinguishing system, applied to the determination method described above, comprising:

[0041] The acquisition module is used to acquire the attribute parameters of multiple components of the sprinkler system and the floor division parameters of the building;

[0042] The processing module is used to divide the entire building model into multiple independent areas according to the building's floor division parameters; to establish sprinkler system models for each independent area based on the attribute parameters of multiple components of the sprinkler system and each independent area; to perform multiple collision detections and adjustments on the sprinkler system models of each independent area until the test results meet the set first detection target; to perform multiple collision detections and adjustments between the sprinkler system models of each independent area until the test results meet the set second detection target; and to determine the layout scheme of the multiple components based on the sprinkler system models of each independent area that meet the first and second detection targets, and output the construction scheme of the sprinkler system.

[0043] The present invention further provides a computing device, comprising: a processor and a memory storing a computer program, wherein the computer program executes the method described above when executed by the processor.

[0044] The present invention also provides a computer-readable storage medium storing instructions, which, when executed on a computer, enable the computer to execute the method described above.

[0045] The above-described solution of the present invention has at least the following beneficial effects:

[0046] The above-described solution of this invention employs a regional modeling and collision detection approach, breaking down the complex overall system into multiple relatively simple, independent regions for processing. Compared to overall collision detection, each region's model has a smaller data volume and simpler structure, allowing professionals to have a clearer objective when analyzing collision issues, narrowing the adjustment scope, and reducing the cascading impact of a single change. For example, in a large shopping mall project, if overall detection detects a collision at a certain location, adjustments may affect the system layout of all floors and areas of the entire building; however, regional detection only requires adjustments to that specific region, without interfering with other areas, greatly reducing the difficulty and workload of adjustments.

[0047] After zonal testing and adjustments, inter-zonal collision detection and adjustments are also conducted, forming a comprehensive and systematic testing process. Compared to simply conducting overall collision detection, this approach can more comprehensively identify and resolve collision issues, avoiding the recurrence of new collisions during adjustments due to incomplete initial testing. For example, in high-rise office building projects, inter-zonal collision detection can identify conflicts in pipe connections and sprinkler placement between different floors in advance, resolving them early and preventing problems from being discovered only during subsequent construction or overall commissioning, thus reducing repetitive adjustments caused by new collisions.

[0048] By acquiring component attribute parameters and floor division parameters, the system design can be precisely tailored to the actual building conditions. The building model is divided into zones based on these parameters, taking into account the differences in function, spatial layout, and fire protection requirements across different floors. This avoids the pitfalls of a uniform design, such as the targeted design for the ground floor of a shopping mall and the upper-floor office areas. This makes the system more adaptable to the needs of each area and improves design accuracy. Attached Figure Description

[0049] Figure 1 This is a flowchart of the method for determining the construction scheme of the sprinkler fire extinguishing system of the present invention;

[0050] Figure 2 This is a schematic diagram of the module for determining the construction plan of the sprinkler fire extinguishing system of the present invention. Detailed Implementation

[0051] Exemplary embodiments of the invention will now be described in more detail with reference to the accompanying drawings. While exemplary embodiments of the invention are shown in the drawings, it should be understood that the invention may be implemented in various forms and should not be limited to the embodiments set forth herein. Rather, these embodiments are provided so that this invention will be thorough and complete, and will fully convey the scope of the invention to those skilled in the art.

[0052] like Figure 1 As shown, an embodiment of the present invention provides a method for determining the construction plan of a sprinkler fire extinguishing system, including:

[0053] Step 11: Obtain the attribute parameters of multiple components of the sprinkler system and the floor division parameters of the building;

[0054] Step 12: Divide the entire building model into multiple independent areas according to the building's floor division parameters;

[0055] Step 13: Establish a sprinkler system model for each independent area based on the attribute parameters of multiple components of the sprinkler system and each independent area.

[0056] Step 14: Perform multiple collision tests and adjustments on the sprinkler system models of each independent area until the test results meet the set first detection target.

[0057] Step 15: Perform multiple collision detections and adjustments between the sprinkler system models of each independent area until the test results meet the set second detection target;

[0058] Step 16: Based on the sprinkler system model of each independent area that meets the first detection target and the second detection target, determine the layout scheme of the multiple components and output the construction scheme of the sprinkler system.

[0059] This invention employs a region-based modeling and collision detection approach, breaking down a complex overall system into multiple relatively simple, independent regions for processing. Compared to overall collision detection, each region's model has a smaller data volume and simpler structure, allowing professionals to have a clearer objective when analyzing collision issues, narrowing the adjustment scope, and reducing the cascading impact of a single change. For example, in a large shopping mall project, if overall detection detects a collision at a certain location, adjustments may affect the system layout of all floors and areas of the entire building; however, region-based detection only requires adjustments to that specific region, without interfering with other areas, significantly reducing the difficulty and workload of adjustments.

[0060] After zonal testing and adjustments, inter-zonal collision detection and adjustments are also conducted, forming a comprehensive and systematic testing process. Compared to simply conducting overall collision detection, this approach can more comprehensively identify and resolve collision issues, avoiding the recurrence of new collisions during adjustments due to incomplete initial testing. For example, in high-rise office building projects, inter-zonal collision detection can identify conflicts in pipe connections and sprinkler placement between different floors in advance, resolving them early and preventing problems from being discovered only during subsequent construction or overall commissioning, thus reducing repetitive adjustments caused by new collisions.

[0061] By acquiring component attribute parameters and floor division parameters, the system design can be precisely tailored to the actual building conditions. The building model is divided into zones based on these parameters, taking into account the differences in function, spatial layout, and fire protection requirements across different floors. This avoids the pitfalls of a uniform design, such as the targeted design for the ground floor of a shopping mall and the upper-floor office areas. This makes the system more adaptable to the needs of each area and improves design accuracy.

[0062] In an optional embodiment of the present invention, step 11, obtaining the attribute parameters of multiple components of the sprinkler system and the building's floor division parameters, includes:

[0063] Step 111: Obtain the attribute parameters of multiple components in the sprinkler fire extinguishing system, including nozzle type, pipe size, valve specifications, and water supply facility parameters;

[0064] Step 112: Obtain the floor division parameters of the building, which include the floor elevation, floor functional information and building structural system.

[0065] In this example, step 111, obtaining information such as sprinkler type, pipe size, valve specifications, and water supply facility parameters, allows designers to tailor a sprinkler system to meet the building's actual fire safety needs. For instance, based on the building's fire hazard level, sprinklers with appropriate flow coefficients and response times can be selected; and based on the system's flow and pressure requirements, pipe sizes and water supply facility parameters can be accurately calculated and determined to ensure the system functions promptly and effectively in the event of a fire.

[0066] In this example, step 112, by understanding the floor elevation, functional information, and building structural system, allows for the perfect integration of the sprinkler system with the building. Different floor elevations determine the vertical layout of the pipes and the calculation of head loss; floor functional information (such as office areas, commercial areas, residential areas, etc.) affects the density and type selection of sprinkler heads; and the building structural system (frame structure, shear wall structure, etc.) restricts the pipe laying path and installation method, helping designers to plan ahead and avoid conflicts with the building structure.

[0067] In this example, a comprehensive understanding of these parameters allows for the early detection of potential construction problems and the reduction of construction risks. For instance, knowing the building's structural system allows for advance planning of the location and method of pipes crossing beams, columns, and other structural components, preventing any impact on structural safety. Based on floor function information, the construction sequence can be rationally arranged, reducing interference between different construction areas and improving construction efficiency.

[0068] In an optional embodiment of the present invention, step 12, which involves dividing the entire building model into multiple independent areas based on the building's floor division parameters, includes:

[0069] Step 121: Based on the floor elevation of the building, construct and divide all building models within a certain floor elevation range into independent areas corresponding to that floor.

[0070] Step 122: Based on the functional information of each floor, divide the independent area of ​​each floor into multiple independent sub-areas;

[0071] Step 123: Determine the boundaries of each independent sub-region based on the structural system of the building.

[0072] In this example, dividing the area by floor elevation allows for customized design based on different floor heights and vertical layouts. Different floors have different functions and requirements within the building's vertical layout. Dividing the area by floor elevation ensures the design is closely integrated with the vertical layout. In traditional overall collision detection and adjustment, adjusting one collision can affect the entire system layout and function, triggering new collisions and leading to significant adjustment difficulty and workload. With independent areas based on floor elevation, each floor can be adjusted independently, with a clearly defined and narrowed scope. If a sprinkler head is found to be colliding with a pipe on a certain floor, adjustment only needs to be made within that floor's model, preventing a chain reaction on other floors, greatly reducing adjustment difficulty and workload. Dividing the area by floor elevation also allows for quick location of the specific floor if a collision problem occurs. Compared to traditional overall detection, which requires searching the entire complex model, this method allows professionals to more efficiently identify the problem, improving problem-solving efficiency and saving time and labor costs.

[0073] In this example, traditional holistic collision detection faces the challenge of large and complex models, resulting in numerous and difficult-to-analyze detection results. By dividing the area into zones based on floor elevations, collision detection rules can be tailored to the characteristics of each floor. For instance, for floors with higher ceilings, the focus can be on checking whether the nozzle spacing meets coverage requirements; for floors with special equipment, the focus can be on collisions between the equipment and pipes. This improves the targeting of detection, reduces invalid detection results, and makes collision detection more efficient. Each floor, as an independent zone, has a relatively smaller model data volume, reducing computational load and accelerating detection speed. Simultaneously, the detection results are simpler, facilitating the analysis and handling of collision issues, avoiding the analytical difficulties and processing chaos caused by the massive data volume of traditional holistic detection.

[0074] In this example, the customized design based on floor elevation division better meets the specific needs of each floor and improves system reliability. For instance, on floors with cleanliness requirements, special nozzle and pipe layouts can be designed according to their space and functional needs, ensuring both fire extinguishing effectiveness and meeting cleanliness requirements; while traditional overall design struggles to accommodate the specific needs of each floor, potentially affecting the system's reliability on some floors.

[0075] In this example, by precisely adapting to the space and functions of each floor, the system reduces the need for adjustments due to unreasonable design, lowers the probability of system failure during operation, ensures the overall stability and reliability of the sprinkler system, and ensures that it can effectively function in the event of a fire.

[0076] In an optional embodiment of the present invention, step 13, which involves establishing a sprinkler system model for each independent area based on the attribute parameters of multiple components of the sprinkler system and each independent area, includes:

[0077] Step 131: Based on the protection radius and coverage area parameters of the nozzles in each independent area and the layout of each independent area, locate the nozzles to obtain their positions.

[0078] Step 132: Determine the pipe diameter based on the nozzle position, water flow direction, and water flow velocity limits for each section of the pipe;

[0079] Step 133: Select a fire pump based on the pressure and flow requirements of the pipeline system;

[0080] Step 134: Integrate the models of the sprinkler heads, pipes with determined diameters, and fire pump components to form a complete independent area sprinkler fire extinguishing system model.

[0081] In this example, step 131, which involves locating sprinklers based on their protection radius, coverage area parameters, and regional layout for each independent area, fully considers the differences in function, fire hazard level, and spatial height among different areas. For instance, in areas with high fire hazard levels, the sprinkler spacing can be appropriately reduced based on the sprinkler parameters to ensure comprehensive fire suppression coverage; for areas with high spatial heights, selecting appropriate types of sprinklers and positioning them correctly ensures effective water spraying for fire suppression within a larger space, thereby precisely meeting the fire protection needs of each area.

[0082] In this example, step 132, determining the pipe routing based on the sprinkler head location, allows the pipe layout to better meet actual needs, reducing unnecessary pipe detours and intersections, and lowering system resistance. Simultaneously, determining the pipe diameter based on water flow direction and velocity limitations, and using hydraulic calculations, ensures that each pipe section meets the flow and pressure requirements of the sprinkler system while operating within a reasonable water flow velocity range, avoiding resource waste or system performance degradation due to excessively large or small pipe diameters.

[0083] In this example, step 133, selecting a fire pump based on the pressure and flow requirements of the piping system, ensures that the power provided by the fire pump precisely matches the actual needs of the system. For areas requiring pressurized water supply, a suitable fire pump can guarantee sufficient water pressure and volume, enabling the sprinkler system to operate effectively throughout the building, especially in high-rise or large-area buildings, meeting the fire water needs of different floors and areas.

[0084] In this example, step 134 integrates the models of components such as sprinklers, pipes with determined diameters, and fire pumps to construct a complete independent area sprinkler fire extinguishing system model. This integration enables the various components to cooperate and work together, ensuring a smooth process from water supply to sprinkler spraying, and guaranteeing stable system operation under various working conditions.

[0085] In an optional embodiment of the present invention, step 14, which involves performing multiple collision tests and adjustments on the sprinkler system models of each independent area until the test results meet the set first detection target, includes:

[0086] Step 141: Perform collision detection on the sprinkler system models of each independent area to obtain multiple collision detection results;

[0087] Step 142: Based on the specific location of the collision point in the area from the collision detection results, mark the collision type and list the information related to the collision;

[0088] Step 143: Analyze the collision points, collision types, and collision-related information in the collision detection results to determine the causes of each collision problem;

[0089] Step 144: Determine the adjustment plan for each collision problem based on the causes of each collision problem;

[0090] Step 145: Modify the sprinkler system model according to the adjustment plan;

[0091] Step 146: Repeat the above steps multiple times until the collision test results meet the set first detection target.

[0092] In this example, steps 141 and 142 involve performing collision detection on the sprinkler system models of each independent area, and clearly labeling the collision point locations, collision types, and related information. This allows for precise identification of problems within the model. This provides designers with a clear and intuitive understanding of each collision issue, preventing misjudgments or omissions when addressing them, and laying the foundation for accurate problem-solving. For instance, in complex building structures, clearly identifying whether the collision point is at a pipe bend against a building beam, or at an intersection of a sprinkler head and a ventilation duct, enables designers to quickly understand the problem.

[0093] In this example, step 143 involves an in-depth analysis of the collision detection results to identify the root causes of each collision problem. This helps designers not only address surface collision phenomena but also fundamentally eliminate the factors that cause collisions. For example, if it is found that a sprinkler head collides with other equipment because the initial functional layout planning of the area was unreasonable, resulting in insufficient spacing between equipment, then adjusting the layout planning can make the design more scientific and reasonable, improving the quality of the entire sprinkler fire extinguishing system model.

[0094] In this example, step 144 involves developing a targeted adjustment plan based on the cause of the collision problem. This effectively solves specific collision issues and avoids using general but potentially inaccurate solutions. For instance, if the collision is due to an unreasonable pipe routing design, the adjustment plan can be specific, such as changing the pipe routing to avoid obstacles and redesigning the pipe connection method. This optimizes the design of the sprinkler system and improves its compatibility with different areas of the building.

[0095] In this example, multiple collision detections and adjustments during the design phase enabled the early identification and resolution of potential conflicts between the sprinkler system and the building structure, other equipment, etc. This avoids risks such as design changes, project delays, and additional costs due to collision issues during construction, ensuring a smooth construction process. For instance, discovering collisions between pipes and building structural columns before actual construction allows for adjustments to the piping plan, avoiding the hassle of dismantling or reinstalling pipes during construction.

[0096] In this example, the sprinkler system model, after multiple optimizations, is designed to better suit actual construction conditions. The adjustment plan considers practical factors such as construction techniques and sequence, making the final design more feasible during construction, reducing difficulty, and improving quality. For instance, when developing the pipeline installation adjustment plan, the space constraints of the construction site and the operating range of the equipment are taken into account, selecting appropriate connection methods and installation sequences to facilitate operation by construction personnel.

[0097] In this example, by focusing on detection and adjustments in individual areas, designers can concentrate their efforts on a smaller scope, avoiding the chaos and inefficiency of searching for and addressing problems within a large overall model. This makes the work more targeted, enabling rapid location and resolution of issues and improving efficiency. For instance, in a large building, dividing it into multiple independent areas allows designers to concentrate on collision issues in a specific area without worrying about interference from other areas, significantly reducing problem-solving time.

[0098] In an optional embodiment of the present invention, step 15, which involves performing multiple collision detections and adjustments on the sprinkler system models of each independent area until the test results meet the set second detection target, includes:

[0099] Step 151: Perform comprehensive collision detection between the sprinkler system models of each independent area to obtain multiple collision detection results;

[0100] Step 152: Based on the specific location of the collision point in the overall area in the collision detection results, mark the collision type and list the information related to the collision;

[0101] Step 153: Analyze the collision points, collision types, and collision-related information in the collision detection results to determine the causes of each collision problem;

[0102] Step 154: Determine the adjustment plan for each collision problem based on the causes of each collision problem;

[0103] Step 155: Modify the sprinkler system model according to the adjustment plan;

[0104] Step 156: Repeat the above steps multiple times until the collision test results meet the set second detection target.

[0105] In this example, step 151, by conducting comprehensive collision detection between the sprinkler system models of each independent area, can effectively identify collision problems at the boundaries of different independent area models, such as improper pipe connections or unreasonable sprinkler head placement. This helps ensure that the sprinkler systems of each area can be naturally and smoothly connected at the boundaries, forming a unified and efficient overall system, avoiding problems such as fire-fighting blind spots or poor water flow that affect the overall performance of the system. For example, at the boundary of sprinkler systems in different functional areas of a large shopping mall (such as the catering area and the retail area), detection can reveal whether the pipe connections are accurate and whether the sprinkler head placement can cover the boundary area.

[0106] In steps 153 and 154, the needs and connections of each area are comprehensively considered from a macro perspective of the entire building. For example, by adjusting the routing of pipes and the arrangement of sprinklers between different areas, not only are the fire protection needs of each area met, but the overall system layout is also made more reasonable, improving the overall performance and fire extinguishing efficiency of the system. Taking high-rise buildings as an example, by rationally planning the vertical pipe layout between independent areas on different floors, the water flow distribution can be more uniform and the fire extinguishing effect can be better when the system responds to a fire.

[0107] This effectively prevents system malfunctions caused by interference between different areas. For example, it prevents pipe adjustments in one area from affecting the working pressure of sprinklers in adjacent areas, ensuring that the sprinkler system in each area operates stably and reliably when working in conjunction with other areas, thus improving the overall system reliability during a fire. This process is particularly important in complex building structures where systems in different areas significantly influence each other; it guarantees the overall stable operation of the system.

[0108] In step 156, the coordination between different areas can be continuously optimized to reduce potential risks caused by incoordination between areas. This helps enhance the stability of the sprinkler system during long-term operation, ensuring it functions properly under various complex conditions and providing continuous and reliable fire protection for the building. For example, as the building ages, various factors may cause minor changes in the system between areas. Through repeated optimization, these potential problems can be addressed in advance, ensuring the long-term stable operation of the system.

[0109] In this example, the collision detection and adjustment process between the models of different areas helps ensure that the sprinkler system as a whole complies with relevant fire protection codes and standards. During the analysis of collision causes and the development of adjustment plans, the requirements of the codes are fully considered to ensure that the system meets the regulations in terms of area connection, sprinkler spacing, and pipe pressure, avoiding safety hazards caused by non-compliance. For example, strictly following fire protection codes ensures that the spacing and protection range of sprinklers between different areas meet the standards, guaranteeing effective fire suppression in the event of a fire.

[0110] The finalized plan, determined after multiple rounds of collision testing and adjustments to the models of the sprinkler systems in each independent area, provides more accurate guidance for actual construction. Based on the optimized plan, construction personnel can clearly understand the installation locations and connection methods of system components in each area, reducing misunderstandings and errors during construction and improving convenience and accuracy. For example, when installing pipelines spanning different areas, construction personnel can accurately locate and connect the pipelines according to the adjusted plan, avoiding repeated modifications due to an unreasonable plan.

[0111] In an optional embodiment of the present invention, step 16, which involves determining the layout scheme of the multiple components based on the sprinkler system model of each independent area conforming to the first detection target and the second detection target, and outputting the construction scheme of the sprinkler system, includes:

[0112] Step 161: Summarize the model data of the sprinkler fire extinguishing system in each independent area after multiple rounds of collision detection and adjustment to obtain the layout of the sprinkler fire extinguishing system components;

[0113] Step 162: Optimize the layout of the sprinkler system components and output the construction plan for the sprinkler system.

[0114] In this example, step 161 involves summarizing the sprinkler system model data from each independent area after multiple rounds of collision detection and adjustment, thus comprehensively integrating information from all parts of the system. This ensures that the construction plan covers the design details of the system in different areas, avoiding incomplete plans due to missing or omitted data, and providing a comprehensive and accurate information foundation for subsequent construction. For example, in a large commercial complex project, summarizing the sprinkler system data from different floors and functional areas can fully present the entire system architecture, including the number of sprinklers in each area, pipe routing, and connection methods, ensuring the completeness of the construction plan.

[0115] In this example, step 162 optimizes the layout of the sprinkler system components, taking into account the overall system and the needs and connections of each area. By optimizing the sprinkler head arrangement and pipe routing, head loss can be reduced, system water supply efficiency can be improved, and the uniformity of water pressure and flow rate of sprinklers in each area can be ensured, thereby enhancing the system's fire extinguishing effect. For example, in high-rise buildings, the reasonable adjustment of the layout of risers and horizontal pipes can balance the pressure of the sprinkler system on each floor, enhancing the system's ability to respond to fires.

[0116] In this example, after summarizing the data and optimizing the layout, the output construction plan is more closely aligned with the actual construction situation. Construction personnel can clearly understand the installation location, sequence, and technical requirements of each component based on the plan, reducing misunderstandings and errors during construction. At the same time, the optimized layout considers construction space and operational convenience, reducing construction difficulty and improving efficiency. For example, in a confined equipment room, the optimized layout allows construction personnel to smoothly install pipes and equipment, avoiding construction obstacles caused by space constraints.

[0117] The automatic sprinkler fire extinguishing system in the above embodiments of the present invention consists of components such as sprinkler heads, alarm valve assemblies, water flow alarm devices (water flow indicators or pressure switches), as well as pipelines and water supply facilities, and is an automatic fire extinguishing system capable of spraying water in the event of a fire. It comprises wet alarm valve assemblies, closed sprinkler heads, water flow indicators, control valves, end-of-line test devices, pipelines, and water supply facilities. The system's pipelines are filled with pressurized water; once a fire occurs, the sprinkler heads activate and immediately spray water. The aforementioned model can be a building information model including the pipeline layout, sprinkler head locations, valve settings, fire pumps, and all other system components.

[0118] After determining the above construction plan, the following procedures can be followed:

[0119] 1. Prefabricated design

[0120] Identify prefabricated modules: Based on the building information model, determine which parts can be prefabricated.

[0121] Design prefabricated modules, such as pipe assemblies, nozzle assemblies, valve assemblies, etc.

[0122] Create prefabricated module drawings: Create detailed fabrication drawings for each prefabricated module, including dimensions, connection methods, etc., and number each pipe section.

[0123] Prepare a bill of materials based on the drawings: Based on the drawings, prepare a bill of materials for each room, including detailed information such as the length of pipes with different numbers, the location of tees, elbows and other fittings, and the direction of the fittings. This bill of materials should be delivered to the prefabrication plant along with the drawings.

[0124] 2. Prefabricated production

[0125] 2.1 Factory processing

[0126] Pipe fabrication: Based on the prefabricated module drawings and material list, pipe cutting, bending, welding, and other processing are performed. As shown in the figure, a combination of welding and threaded connections can be used to save manufacturing time and costs. Automated equipment is used to improve processing accuracy and efficiency.

[0127] Component assembly: The processed pipes and components are assembled to form prefabricated modules. Preliminary quality inspection is conducted to ensure that each module meets the standards.

[0128] 2.2 Labelling and Packaging

[0129] Identification Module: Each prefabricated module is identified, including its serial number and installation location. QR codes or barcodes are used for identification to facilitate on-site recognition and management.

[0130] Packaging Module: The module is packaged using specialized packaging materials to prevent damage during transportation. The module's weight, dimensions, and other information are clearly marked for easy transport and handling.

[0131] 3. On-site construction

[0132] 3.1 On-site preparation

[0133] Site cleanup: Clean up the construction site to ensure the ground is flat and free of obstructions.

[0134] Erect temporary facilities: Erect temporary facilities such as scaffolding and safety fences to ensure construction safety.

[0135] Prepare tools and equipment: Prepare necessary construction tools and equipment, such as clamping tools, electric wrenches, etc.

[0136] 3.2 Module Transportation: Transporting prefabricated modules to the construction site. Modules are stacked according to the room labels on the materials list for easy subsequent installation.

[0137] Check the modules: Check for any damage to the modules and ensure that each module is intact.

[0138] 3.3 Module installation, pipe support installation: Install pipe supports according to the building information model and construction drawings, ensuring the supports are secure.

[0139] Install prefabricated modules: Install the prefabricated modules sequentially according to the building information model and construction drawings.

[0140] Use quick-connect technologies (such as press-fit, threaded, flanged, etc.) for pipe connections. Install nozzles, valves, and other components, ensuring accurate positioning.

[0141] 3.4 System Connection

[0142] Connecting pipes: Connect the various modules into a complete system. Check all connection points to ensure there are no leaks.

[0143] Install the control system: Connect the piping to the control system and ensure that the system is operating properly.

[0144] 4. Debugging and Acceptance

[0145] 4.1 System Testing

[0146] Hydrostatic test: Conduct a hydrostatic test to check the system's sealing and strength. Record the test results to ensure the system is leak-free.

[0147] Functional testing: Conduct functional tests to verify the nozzle's response time and coverage. Record the test results to ensure the system functions correctly.

[0148] 4.2 System Debugging

[0149] Adjust the nozzle angle: Adjust the angle and position of the nozzle to ensure that the coverage area meets the design requirements.

[0150] Adjust valve opening: Adjust the valve opening to ensure smooth water flow.

[0151] System linkage testing: Conduct system linkage testing to ensure that all components work together.

[0152] 4.3 System Acceptance

[0153] Submit as-built documentation: Submit as-built documentation, including design drawings, construction records, test reports, etc.

[0154] Third-party testing: Have a third-party testing agency conduct acceptance testing to ensure that the system meets fire safety regulations.

[0155] The above-described solution of this invention can shorten the construction cycle. Prefabricated pipes and components are pre-processed and assembled in the factory, requiring only simple installation and connection on-site, greatly reducing construction time. Modular design: Dividing the system into multiple independent modules allows for parallel construction, improving overall efficiency. Reduced labor costs: Reduced on-site work: Most work is completed in the factory, requiring only a small number of personnel for installation and commissioning on-site, reducing labor costs. Simplified operation: Quick connection technologies such as crimp and threaded connections are simple to operate, eliminating the need for highly skilled workers and reducing training costs. Improved construction quality: Factory production: Processing and assembly in a controlled environment makes quality easier to control and guarantee. Standardized components: Using standardized prefabricated components reduces on-site errors and improves the overall quality of the system. Reduced safety risks: Reduced hazardous on-site operations: Prefabrication and modularization reduce hazardous operations such as on-site welding, lowering the risk of fire and explosion. Improved working environment: Reduced on-site work reduces safety hazards associated with working at heights and in confined spaces. Reduced environmental pollution: Reduced on-site processing: Factory production reduces smoke and noise generated by on-site welding and cutting, mitigating pollution to the surrounding environment. Waste Management: Waste can be better managed and disposed of within the factory, reducing environmental pollution. Improved Flexibility and Maintainability: Modular Design: The modular design of the system makes modification and maintenance easier, allowing for quick replacement or addition of modules as needed. Quick-Connect Technology: Using quick-connect technology facilitates disassembly and reinstallation, improving the system's flexibility and maintainability.

[0156] like Figure 2 As shown, the present invention also provides a device 20 for determining the construction plan of a sprinkler fire extinguishing system, comprising:

[0157] The acquisition module 21 is used to acquire the attribute parameters of multiple components of the sprinkler fire extinguishing system and the floor division parameters of the building;

[0158] The processing module 22 is used to divide the entire building model into multiple independent areas according to the building's floor division parameters; to establish sprinkler system models for each independent area based on the attribute parameters of multiple components of the sprinkler system and each independent area; to perform multiple collision detections and adjustments on the sprinkler system models of each independent area until the test results meet the set first detection target; to perform multiple collision detections and adjustments between the sprinkler system models of each independent area until the test results meet the set second detection target; and to determine the layout scheme of the multiple components based on the sprinkler system models of each independent area that meet the first and second detection targets, and output the construction scheme of the sprinkler system.

[0159] Optionally, obtaining the attribute parameters of multiple components of the sprinkler system and the building's floor division parameters includes:

[0160] Obtain attribute parameters of multiple components in a sprinkler fire extinguishing system, including nozzle type, pipe size, valve specifications, and water supply facility parameters;

[0161] Obtain the building's floor division parameters, which include the floor elevation, floor function information, and building structural system.

[0162] Optionally, dividing the entire building model into multiple independent areas based on the building's floor division parameters includes:

[0163] Based on the floor elevation of the building, all building models within a certain floor elevation range are divided into independent areas corresponding to that floor.

[0164] Based on the functional information of each floor, the independent area of ​​each floor is divided into multiple independent sub-areas;

[0165] Based on the structural system of the building, the boundaries of each independent sub-region are determined.

[0166] Optionally, the step of establishing a sprinkler system model for each independent area based on the attribute parameters of multiple components of the sprinkler system and each independent area includes:

[0167] Based on the protection radius and coverage area parameters of the nozzles in each independent area, as well as the layout of each independent area, the nozzles are located to obtain their positions.

[0168] The pipe diameter is determined based on the nozzle location, water flow direction, and water flow velocity limits in each section of the pipe.

[0169] Select the fire pump based on the pressure and flow requirements of the pipeline system;

[0170] The models of sprinkler heads, pipes with defined diameters, and fire pump components are integrated to form a complete independent area sprinkler fire extinguishing system model.

[0171] Optionally, the process of performing multiple collision tests and adjustments on the sprinkler system models of each independent area until the test results meet the set first detection target includes:

[0172] Collision detection was performed on the sprinkler system models of each independent area, and multiple collision detection results were obtained.

[0173] Based on the specific location of the collision point within the area in the collision detection results, the collision type is marked and the information related to the collision is listed.

[0174] Analyze the collision points, collision types, and collision-related information in the collision detection results to determine the causes of each collision problem;

[0175] Based on the causes of each collision problem, determine the adjustment plan for each collision problem;

[0176] The model of the sprinkler system was modified according to the aforementioned adjustment plan;

[0177] Repeat the above steps multiple times until the collision test results meet the set first detection target.

[0178] Optionally, the process of performing multiple collision detections and adjustments between the sprinkler system models of each independent area until the test results meet the set second detection target includes:

[0179] A comprehensive collision detection was performed between the models of the sprinkler systems in each independent area, resulting in multiple collision detection results.

[0180] Based on the specific location of the collision point within the overall area in the collision detection results, the collision type is marked and the information related to the collision is listed.

[0181] Analyze the collision points, collision types, and collision-related information in the collision detection results to determine the causes of each collision problem;

[0182] Based on the causes of each collision problem, determine the adjustment plan for each collision problem;

[0183] The model of the sprinkler system was modified according to the aforementioned adjustment plan;

[0184] Repeat the above steps multiple times until the collision test results meet the set second detection target.

[0185] Optionally, the step of determining the layout scheme of the multiple components based on the sprinkler system model of each independent area that meets the first detection target and the second detection target, and outputting the construction scheme of the sprinkler system, includes:

[0186] The data of the sprinkler system models of each independent area, after multiple rounds of collision detection and adjustment, are summarized to obtain the layout of the sprinkler system components.

[0187] Optimize the layout of the sprinkler system components and output the construction plan for the sprinkler system.

[0188] It should be noted that the device is a device corresponding to the above method, and all implementation methods in the above method embodiments are applicable to the embodiments of the device and can achieve the same technical effects.

[0189] An embodiment of the present invention further provides a computing device comprising: a processor and a memory storing a computer program, wherein the computer program, when executed by the processor, performs the method described in the above embodiment. All implementations of the above method embodiments are applicable to this embodiment and can achieve the same technical effects.

[0190] The present invention also provides a computer-readable storage medium storing instructions that, when executed on a computer, cause the computer to execute the method described in the above embodiment. All implementations of the above method embodiments are applicable to this embodiment and can achieve the same technical effects.

[0191] Those skilled in the art will appreciate that the units and algorithm steps of each example described in conjunction with the embodiments disclosed herein can be implemented in electronic hardware, or a combination of computer software and electronic hardware. Whether these functions are performed in hardware or software depends on the specific application and design constraints of the technical solution. Professionals and technicians can use different methods to implement the described functions for each specific application, but such implementation should not be considered beyond the scope of the present invention.

[0192] Those skilled in the art will understand that, for the sake of convenience and brevity, the specific working processes of the systems, devices, and units described above can be referred to the corresponding processes in the foregoing method embodiments, and will not be repeated here.

[0193] In the embodiments provided by the present invention, it should be understood that the disclosed devices and methods can be implemented in other ways. For example, the device embodiments described above are merely illustrative. For example, the division of the units is merely a logical function division. In actual implementation, there may be other division methods, such as multiple units or components can be combined or integrated into another system, or some features can be ignored or not executed. In addition, the mutual coupling or direct coupling or communication connection shown or discussed can be through some interface, indirect coupling or communication connection of devices or units, which can be electrical, mechanical or other forms.

[0194] The units described as separate components may or may not be physically separate, and the components shown as units may or may not be physical units, that is, they may be located in one place or distributed across multiple network units. Some or all of these units may be selected to achieve the purpose of this embodiment according to actual needs.

[0195] In addition, each functional unit in each embodiment of the present invention may be integrated into one processing unit, or each unit may exist physically separately, or two or more units may be integrated into one unit.

[0196] If the functions are implemented in the form of software functional units and sold or used as independent products, they can be stored in a computer-readable storage medium. Based on this understanding, the technical solution of the present invention, or the part that contributes to the prior art, or part of the technical solution, can be embodied in the form of a software product. This computer software product is stored in a storage medium and includes several instructions for enabling a computer device (which can be a personal computer, server, or network device, etc.) to execute all or part of the steps of the method described in each embodiment of the present invention. The aforementioned storage medium includes various media that can store program code, such as a USB flash drive, a mobile hard drive, ROM, RAM, a magnetic disk, or an optical disk.

[0197] In addition, it should be noted that, in the apparatus and method of the present invention, it is obvious that each component or each step can be decomposed and / or recombined. These decompositions and / or recombinations should be regarded as equivalent schemes of the present invention. Moreover, the steps of performing the above-mentioned series of processing can naturally be performed in chronological order according to the order of description, but it is not necessary to perform them in chronological order, and some steps can be performed in parallel or independently of each other. For those of ordinary skill in the art, it will be understood that all or any steps or components of the method and apparatus of the present invention can be implemented in any computing device (including processors, storage media, etc.) or a network of computing devices in hardware, firmware, software or a combination thereof, which can be achieved by those of ordinary skill in the art using their basic programming skills after reading the description of the present invention.

[0198] Therefore, the purpose of the present invention can also be achieved by running a program or a group of programs on any computing device. The computing device can be a well-known general-purpose device. Therefore, the purpose of the present invention can also be achieved simply by providing a program product containing program code that implements the method or device. That is to say, such a program product also constitutes the present invention, and the storage medium storing such a program product also constitutes the present invention. Obviously, the storage medium can be any well-known storage medium or any storage medium developed in the future. It should also be pointed out that in the device and method of the present invention, it is obvious that each component or each step can be decomposed and / or recombined. These decompositions and / or recombinations should be regarded as equivalent schemes of the present invention. In addition, the steps of performing the above-mentioned series of processing can naturally be performed in chronological order according to the order of description, but do not necessarily need to be performed in chronological order. Certain steps can be performed in parallel or independently of each other.

[0199] The above is a preferred embodiment of the present invention. It should be pointed out that for ordinary technicians in this technical field, several improvements and modifications can be made without departing from the principles of the present invention. These improvements and modifications should also be regarded as within the scope of protection of the present invention.

Claims

1. A method for determining the construction scheme of a sprinkler fire extinguishing system, characterized in that, include: Obtain the attribute parameters of multiple components of the sprinkler system and the floor division parameters of the building; The entire building model is divided into multiple independent areas based on the building's floor division parameters; Based on the attribute parameters of multiple components of the sprinkler system and each independent area, establish sprinkler system models for each independent area. The sprinkler system models for each independent area were subjected to multiple collision tests and adjustments until the test results met the set first detection target. Multiple collision tests and adjustments were performed on the sprinkler system models of each independent area until the test results met the set second detection target. Based on the sprinkler system model of each independent area that meets the first and second detection targets, determine the layout scheme of the multiple components and output the construction scheme of the sprinkler system. Obtain the attribute parameters of multiple components of the sprinkler system and the building's floor division parameters, including: Obtain attribute parameters of multiple components in a sprinkler fire extinguishing system, including nozzle type, pipe size, valve specifications, and water supply facility parameters; Obtain the floor division parameters of the building, including the floor elevation, floor functional information and building structural system; Based on the building's floor division parameters, the entire building model is divided into multiple independent areas, including: Based on the floor elevation of the building, all building models within a certain floor elevation range are divided into independent areas corresponding to that floor. Based on the functional information of each floor, the independent area of ​​each floor is divided into multiple independent sub-areas; Based on the structural system of the building, determine the boundaries of each independent sub-region; Based on the attribute parameters of multiple components of the sprinkler system and the independent areas, establish sprinkler system models for each independent area, including: Based on the protection radius and coverage area parameters of the nozzles in each independent area, as well as the layout of each independent area, the nozzles are located to obtain their positions. The pipe diameter is determined based on the nozzle location, water flow direction, and water flow velocity limits in each section of the pipe. Select the fire pump based on the pressure and flow requirements of the pipeline system; The models of sprinkler heads, pipes with defined diameters, and fire pump components are integrated to form a complete independent area sprinkler fire extinguishing system model. The process involves locating sprinklers based on their protection radius, coverage area parameters, and regional layout, taking into account the different functions, fire hazard levels, and spatial height differences of each area. Pipeline routing is determined based on sprinkler locations to minimize unnecessary detours and intersections. Pipe diameters are determined by considering water flow direction and velocity limitations, and hydraulic calculations ensure that each pipe section meets the flow and pressure requirements of the sprinkler system while operating within a reasonable flow velocity range. Fire pumps are selected based on the pressure and flow requirements of the piping system, ensuring that the power provided by the fire pump matches the actual needs of the system. Finally, the sprinkler, pipe diameter-determined, and fire pump component models are integrated to construct a complete independent zone sprinkler system model. Multiple collision tests and adjustments were performed on the sprinkler system models of each independent area until the test results met the set first detection target, including: Collision detection was performed on the sprinkler system models of each independent area, and multiple collision detection results were obtained. Based on the specific location of the collision point within the area in the collision detection results, the collision type is marked and the information related to the collision is listed. Analyze the collision points, collision types, and collision-related information in the collision detection results to determine the causes of each collision problem; Based on the causes of each collision problem, determine the adjustment plan for each collision problem; The model of the sprinkler system was modified according to the aforementioned adjustment plan; Repeat the above steps multiple times until the collision test results meet the set first detection target; Multiple collision checks and adjustments were performed on the sprinkler system models of each independent area until the test results met the set second detection target, including: A comprehensive collision detection was performed between the models of the sprinkler systems in each independent area, resulting in multiple collision detection results. Based on the specific location of the collision point within the overall area in the collision detection results, the collision type is marked and the information related to the collision is listed. Analyze the collision points, collision types, and collision-related information in the collision detection results to determine the causes of each collision problem; Based on the causes of each collision problem, determine the adjustment plan for each collision problem; The model of the sprinkler system was modified according to the aforementioned adjustment plan; Repeat the above steps multiple times until the collision test results meet the set second detection target; Based on the sprinkler system models of each independent area that meet the first and second detection objectives, the layout scheme of the multiple components is determined, and the construction scheme of the sprinkler system is output, including: The data of the sprinkler system models of each independent area, after multiple rounds of collision detection and adjustment, are summarized to obtain the layout of the sprinkler system components. Optimize the layout of the sprinkler system components and output the construction plan for the sprinkler system.

2. A device for determining the construction plan of a sprinkler fire extinguishing system, applied to the determination method described in claim 1, characterized in that, include: The acquisition module is used to acquire the attribute parameters of multiple components of the sprinkler system and the floor division parameters of the building; The processing module is used to divide the entire building model into multiple independent areas according to the building's floor division parameters; to establish sprinkler system models for each independent area based on the attribute parameters of multiple components of the sprinkler system and each independent area; to perform multiple collision detections and adjustments on the sprinkler system models of each independent area until the test results meet the set first detection target; to perform multiple collision detections and adjustments between the sprinkler system models of each independent area until the test results meet the set second detection target; and to determine the layout scheme of the multiple components based on the sprinkler system models of each independent area that meet the first and second detection targets, and output the construction scheme of the sprinkler system. Obtain the attribute parameters of multiple components of the sprinkler system and the building's floor division parameters, including: Obtain attribute parameters of multiple components in a sprinkler fire extinguishing system, including nozzle type, pipe size, valve specifications, and water supply facility parameters; Obtain the floor division parameters of the building, including the floor elevation, floor functional information and building structural system; Based on the building's floor division parameters, the entire building model is divided into multiple independent areas, including: Based on the floor elevation of the building, all building models within a certain floor elevation range are divided into independent areas corresponding to that floor. Based on the functional information of each floor, the independent area of ​​each floor is divided into multiple independent sub-areas; Based on the structural system of the building, determine the boundaries of each independent sub-region; Based on the attribute parameters of multiple components of the sprinkler system and the independent areas, establish sprinkler system models for each independent area, including: Based on the protection radius and coverage area parameters of the nozzles in each independent area, as well as the layout of each independent area, the nozzles are located to obtain their positions. The pipe diameter is determined based on the nozzle location, water flow direction, and water flow velocity limits in each section of the pipe. Select the fire pump based on the pressure and flow requirements of the pipeline system; The models of sprinkler heads, pipes with defined diameters, and fire pump components are integrated to form a complete independent area sprinkler fire extinguishing system model. The process involves locating sprinklers based on their protection radius, coverage area parameters, and regional layout, taking into account the different functions, fire hazard levels, and spatial height differences of each area. Pipeline routing is determined based on sprinkler locations to minimize unnecessary detours and intersections. Pipe diameters are determined by considering water flow direction and velocity limitations, and hydraulic calculations ensure that each pipe section meets the flow and pressure requirements of the sprinkler system while operating within a reasonable flow velocity range. Fire pumps are selected based on the pressure and flow requirements of the piping system, ensuring that the power provided by the fire pump matches the actual needs of the system. Finally, the sprinkler, pipe diameter-determined, and fire pump component models are integrated to construct a complete independent zone sprinkler system model. Multiple collision tests and adjustments were performed on the sprinkler system models of each independent area until the test results met the set first detection target, including: Collision detection was performed on the sprinkler system models of each independent area, and multiple collision detection results were obtained. Based on the specific location of the collision point within the area in the collision detection results, the collision type is marked and the information related to the collision is listed. Analyze the collision points, collision types, and collision-related information in the collision detection results to determine the causes of each collision problem; Based on the causes of each collision problem, determine the adjustment plan for each collision problem; The model of the sprinkler system was modified according to the aforementioned adjustment plan; Repeat the above steps multiple times until the collision test results meet the set first detection target; Multiple collision checks and adjustments were performed on the sprinkler system models of each independent area until the test results met the set second detection target, including: A comprehensive collision detection was performed between the models of the sprinkler systems in each independent area, resulting in multiple collision detection results. Based on the specific location of the collision point within the overall area in the collision detection results, the collision type is marked and the information related to the collision is listed. Analyze the collision points, collision types, and collision-related information in the collision detection results to determine the causes of each collision problem; Based on the causes of each collision problem, determine the adjustment plan for each collision problem; The model of the sprinkler system was modified according to the aforementioned adjustment plan; Repeat the above steps multiple times until the collision test results meet the set second detection target; Based on the sprinkler system models of each independent area that meet the first and second detection objectives, the layout scheme of the multiple components is determined, and the construction scheme of the sprinkler system is output, including: The data of the sprinkler system models of each independent area, after multiple rounds of collision detection and adjustment, are summarized to obtain the layout of the sprinkler system components. Optimize the layout of the sprinkler system components and output the construction plan for the sprinkler system.

3. A computing device, characterized in that, include: A processor and a memory storing a computer program, wherein the computer program, when executed by the processor, performs the method as described in claim 1.

4. A computer-readable storage medium, characterized in that, The system stores instructions that, when executed on a computer, cause the computer to perform the method as described in claim 1.

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