CN117874899A - Fire-fighting system input/output module arrangement method, device, equipment and storage medium - Google Patents

Abstract

The invention relates to the technical field of building design, and discloses a method, a device, equipment and a storage medium for arranging input and output modules of a fire-fighting system. According to the method, all the fire-fighting linkage equipment is extracted based on a three-dimensional design model of an area to be arranged, an equipment data table is generated, then the types and the number of required input/output modules are calculated based on equipment attributes of the fire-fighting linkage equipment recorded in the equipment data table and combined with building information of the fire-fighting linkage equipment, so that automatic arrangement of the input/output modules of the fire-fighting linkage equipment is realized.

Description

Fire protection system input and output module layout method, device, equipment and storage medium

Technical Field

The present invention relates to the technical field of building design, and in particular to a method, device, equipment and storage medium for arranging input and output modules of a fire protection system.

Background technique

The input and output modules in the fire protection system are mainly used to connect the fire linkage equipment that needs to be controlled by the fire alarm controller, such as alarm bells, sound and light alarms, fire shutter doors, water pumps, smoke exhaust fans, elevators, broadcast switches, etc.; in addition to monitoring the equipment, the input and output modules can also control the operation of the equipment during linkage. At present, the layout of the input and output modules is mainly done manually in the design of drawings in combination with the corresponding professions. However, after the layout is completed, due to the actual situation or changes in the drawings, the input and output modules that have been arranged need to be adjusted, and each adjustment requires the designer to manually adjust the input and output modules, re-sort the control relationship between the input and output modules and the fire protection equipment, add modules for the added fire protection equipment, and cancel modules for the reduced fire protection equipment; due to the large number of fire protection equipment and loose distribution, manual layout is very time-consuming, omissions often occur, and the module layout positions selected by inexperienced designers are not reasonable, which makes the later installation and maintenance very inconvenient.

Summary of the invention

The main purpose of the present invention is to solve the problem that the existing arrangement scheme of input and output modules of a fire protection system needs to be rearranged each time it is adjusted, resulting in low efficiency and easy omission of arrangement.

A first aspect of the present invention provides a method for arranging input and output modules of a fire protection system, comprising: obtaining a three-dimensional design model of an area to be arranged based on water supply and drainage and HVAC professionals, and generating an equipment data table of the area to be arranged and building information of each fire linkage equipment in the equipment data table based on the three-dimensional design model, wherein the equipment data table contains at least one fire linkage equipment; determining the type and quantity of input and output modules required for each fire linkage equipment based on the equipment attributes of each fire linkage equipment in the equipment data table; and arranging the input and output modules of each fire linkage equipment based on the building information and the type and quantity of input and output modules corresponding to each fire linkage equipment.

Optionally, in a first implementation method of the first aspect of the present invention, the equipment data table of the area to be arranged and the building information of each fire linkage equipment in the equipment data table are generated based on the three-dimensional design model, including: identifying the component information of the fire linkage equipment in the three-dimensional design model, and using a preset equipment identification model to identify the fire linkage equipment corresponding to the component information; obtaining the equipment attributes of the fire linkage equipment, and storing them in a data table to obtain the equipment data table of the area to be arranged; extracting the structural parts within a preset radius at the corresponding positions of each component information in the three-dimensional design model to obtain the corresponding building information of the fire linkage equipment.

Optionally, in a second implementation of the first aspect of the present invention, the device attributes include at least a device name and a control method; the method of determining the type and quantity of input and output modules required for each fire linkage device based on the device attributes of each fire linkage device in the device data table includes: based on the device name and control method of each fire linkage device in the device data table, using the design specifications and control requirements of each input and output module, calculating the type and quantity of input and output modules required for each fire linkage device.

Optionally, in a third implementation of the first aspect of the present invention, based on the device name and control method of each fire linkage device in the device data table, the type and quantity of input and output modules required for each fire linkage device are calculated using the design specifications and control requirements of each input and output module, including: performing a matching calculation based on the device name and the control method with the control requirements of each input and output module to obtain a matching degree between each fire linkage device and each input and output module, and determining a target input and output module of each fire linkage device based on the matching degree to obtain the type of each fire linkage device; calculating the required number of the target input and output modules based on the design specifications of the target input and output modules and the corresponding building information of the fire linkage equipment.

Optionally, in a fourth implementation method of the first aspect of the present invention, after determining the type and quantity of input and output modules required for each fire linkage device based on the device attributes of each fire linkage device in the device data table, it also includes: obtaining the module ID and module name of each target input and output module, and creating a module list of all target input and output modules; based on the device ID of the fire linkage device corresponding to each target input and output module, associating the device data table with the module list.

Optionally, in a fifth implementation manner of the first aspect of the present invention, the input and output modules of each fire linkage device are arranged based on the building information and the types and quantities of the input and output modules corresponding to each of the fire linkage devices, including: determining the installation requirements of the input and output modules based on the types of the input and output modules corresponding to each of the fire linkage devices; determining the target installation method based on the installation requirements and the corresponding building information of the fire linkage device; searching for installation positions at the locations of each of the fire linkage devices, and selecting positions that meet the installation method from the searched installation positions to obtain a position set; solving N solutions from the position set using a preset target optimization algorithm, where the size of N is equal to the number of input and output modules; and arranging the input and output modules for the corresponding fire linkage devices based on the N solutions.

Optionally, in a sixth implementation method of the first aspect of the present invention, after arranging the input and output modules of each fire linkage device based on the building information and the type and quantity of the input and output modules corresponding to each of the fire linkage devices, it also includes: periodic polling to identify whether there is any change in the fire linkage equipment in the area to be arranged; if so, based on the device ID of the changed fire linkage equipment, traversing whether the association relationship between the device data table and the module list is established; if not, rearranging the input and output modules of the changed fire linkage equipment.

A second aspect of the present invention provides a fire protection system input and output module arrangement device, the fire protection system input and output module arrangement device comprising:

An acquisition module is used to acquire a three-dimensional design model of the area to be arranged provided by water supply and drainage and HVAC professionals, and generate a device data table of the area to be arranged and building information of each fire linkage device in the device data table based on the three-dimensional design model, wherein the device data table contains at least one fire linkage device;

A determination module, used to determine the type and quantity of input and output modules required for each fire linkage device based on the device attributes of each fire linkage device in the device data table;

The arrangement module is used to arrange the input and output modules of each fire linkage device based on the building information and the types and quantities of the input and output modules corresponding to each fire linkage device.

Optionally, in a first implementation manner of the second aspect of the present invention, the acquisition module is specifically used to:

Identify component information of the fire linkage equipment in the three-dimensional design model, and use a preset equipment identification model to identify the fire linkage equipment corresponding to the component information;

Obtaining the device attributes of the fire linkage equipment and storing them in a data table to obtain the device data table of the area to be arranged;

The structural parts within a preset radius at the corresponding positions of the component information in the three-dimensional design model are extracted to obtain the corresponding building information of the fire linkage equipment.

Optionally, in a second implementation of the second aspect of the present invention, the device attributes include at least a device name and a control mode; and the determination module is specifically configured to:

Based on the device name and control mode of each fire linkage device in the device data table, and using the design specifications and control requirements of each input and output module, the type and quantity of input and output modules required for each fire linkage device are calculated.

Optionally, in a third implementation manner of the second aspect of the present invention, the determining module includes:

A matching unit, configured to perform matching calculation based on the device name and the control mode and the control requirements of each input-output module, obtain the matching degree between each fire linkage device and each input-output module, determine the target input-output module of each fire linkage device based on the matching degree, and obtain the type of each fire linkage device;

The calculation unit is used to calculate the required number of the target input-output modules based on the design specifications of the target input-output modules and the building information of the corresponding fire linkage equipment.

Optionally, in a fourth implementation of the second aspect of the present invention, the fire protection system input and output module arrangement device further includes: an association module, specifically configured to:

Obtaining the module ID and module name of each of the target input and output modules, and creating a module list of all target input and output modules;

Based on the device ID of the fire linkage device corresponding to each of the target input and output modules, the device data table is associated with the module list.

Optionally, in a fifth implementation of the second aspect of the present invention, the arrangement module includes:

A determination unit, configured to determine the installation requirements of the input-output modules based on the types of the input-output modules corresponding to each of the fire linkage devices; and determine a target installation method based on the installation requirements and the building information of the corresponding fire linkage devices;

A search unit, configured to search for installation positions at the positions of the fire linkage equipment, and select positions that meet the installation mode from the searched installation positions to obtain a position set;

A solution unit is used to solve N solutions from the position set by using a preset target optimization algorithm, wherein the size of N is equal to the number of input and output modules.

The arrangement unit is used to arrange input and output modules of the fire linkage equipment corresponding to the N solutions.

Optionally, in a sixth implementation of the second aspect of the present invention, the defense system input and output module arrangement device further includes: an updating module, specifically configured to:

Regular polling to identify whether there are any changes in the fire linkage equipment in the area to be deployed;

If yes, then based on the device ID of the changed fire linkage device, check whether the association relationship between the device data table and the module list is established;

If not, the input and output modules of the fire linkage equipment that has changed are rearranged, and the equipment data table and the module list are updated.

The third aspect of the present invention provides a fire protection system input and output module layout device, which includes a memory and at least one processor, wherein the memory stores instructions; the at least one processor calls the instructions in the memory to enable the fire protection system input and output module layout device to perform the various steps of the fire protection system input and output module layout method as described above.

A fourth aspect of the present invention provides a computer-readable storage medium having instructions stored thereon, and when the instructions are executed by a processor, the various steps of the fire protection system input and output module arrangement method as described above are implemented.

In the technical solution provided by the present invention, a three-dimensional design model of the area to be arranged provided by the water supply and drainage and HVAC professionals is obtained, and an equipment data table of the area to be arranged and building information of each fire linkage equipment in the equipment data table are generated based on the three-dimensional design model, wherein the equipment data table contains at least one fire linkage equipment; based on the equipment attributes of each fire linkage equipment in the equipment data table, the type and quantity of input and output modules required for each fire linkage equipment are determined; based on the building information and the type and quantity of input and output modules corresponding to each of the fire linkage equipment, the input and output modules of each of the fire linkage equipment are arranged.

The method extracts all fire linkage equipment based on the three-dimensional design model of the area to be arranged, generates an equipment data table, and then calculates the type and quantity of required input and output modules based on the equipment attributes of the fire linkage equipment recorded in the equipment data table and the building information of the fire linkage equipment, thereby realizing the automatic arrangement of the input and output modules of the fire linkage equipment. Since the input and output modules of each fire linkage equipment are arranged based on the equipment data table, there is no need to re-identify and search, which avoids missed arrangement and can also improve the arrangement efficiency to a certain extent.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG1 is a schematic diagram of a first embodiment of a method for arranging input and output modules of a fire protection system provided by an embodiment of the present invention;

FIG2 is a schematic diagram of a second embodiment of a method for arranging input and output modules of a fire protection system provided by an embodiment of the present invention;

FIG3 is a schematic diagram of a structure of a fire protection system input and output module arrangement device provided by an embodiment of the present invention;

FIG4 is another schematic diagram of the structure of the fire protection system input and output module arrangement device provided by an embodiment of the present invention;

FIG5 is a schematic diagram of the structure of a fire protection system input and output module arrangement device provided in an embodiment of the present invention.

Detailed ways

Aiming at the problems existing in the layout of input and output modules of the existing fire linkage equipment, the present application proposes a method, device, equipment and storage medium for arranging input and output modules of a fire system, recording the fire linkage equipment in the area to be arranged into a data table, and then calculating the corresponding type of input and output modules based on the control mode of the fire linkage equipment, and then obtaining the corresponding building information in turn based on the fire linkage equipment in the data table, and calculating the number of arranged according to the building information and the corresponding type of input and output modules, so as to realize the arrangement of the input and output modules of the fire linkage equipment. Such a layout method does not need to search for equipment one by one in the design drawing, avoiding the problem of omission, and uses the target optimization algorithm to determine the layout position point of the input and output module of each fire linkage equipment, thereby ensuring the quality of the layout. Furthermore, the data table and the input and output module are associated to obtain an associated table. When the subsequent fire linkage equipment sends a change, the layout can be directly detected and updated through the association between the data table and the input and output module, which solves the problem of poor communication of design information, avoids the situation that the fire linkage equipment is modified and the input and output module is not updated, and ensures the accuracy of the design information transmission.

The terms "first", "second", "third", "fourth", etc. (if any) in the specification and claims of the present invention and the above-mentioned drawings are used to distinguish similar objects, and are not necessarily used to describe a specific order or sequence. It should be understood that the data used in this way can be interchanged where appropriate, so that the embodiments described herein can be implemented in an order other than that illustrated or described herein. In addition, the terms "including" or "having" and any variations thereof are intended to cover non-exclusive inclusions, for example, a process, method, device, product or apparatus that includes a series of steps or units is not necessarily limited to those steps or units clearly listed, but may include other steps or units that are not clearly listed or inherent to these processes, methods, products or apparatus.

For ease of understanding, the specific process of the embodiment of the present invention is described below. Please refer to FIG. 1 for a schematic diagram of a first embodiment of a method for arranging input and output modules of a fire protection system provided by an embodiment of the present invention. The method specifically includes the following steps:

101. Obtain a three-dimensional design model of the area to be arranged based on the water supply and drainage and HVAC professionals, and generate an equipment data sheet for the area to be arranged and the building information of each fire linkage equipment in the equipment data sheet based on the three-dimensional design model.

In this embodiment, the equipment data table contains at least one fire linkage equipment. The area to be arranged refers to the floor or area where the fire linkage equipment needs to be arranged, such as the garage floor. First, the target area is determined, and then the plane design drawing of the target area is obtained. A three-dimensional model of the target area is constructed based on the plane design drawing using three-dimensional modeling software, and then the water supply and drainage and HVAC lines are arranged in the three-dimensional model to obtain the corresponding three-dimensional design model. The components of the fire linkage equipment and the building information of the location of the components are extracted from the three-dimensional design model, and the actual fire linkage equipment is determined based on the components. Finally, the equipment attributes of each fire linkage equipment are found from the database, and the equipment attributes are recorded in a data table to obtain the equipment data table of the area to be arranged.

102. Determine the type and quantity of input and output modules required for each fire linkage device based on the device attributes of each fire linkage device in the device data table.

Specifically, by traversing each fire linkage device in the device data table, extracting the device attributes of each fire linkage device, and then calculating the type and quantity of input and output modules required for each fire linkage device based on the device attributes, as well as the layout specifications and control requirements of the input and output modules.

For example, the control method in the equipment attributes is paired with the control requirements of each input and output module, the input and output modules of each fire linkage equipment are determined based on the pairing results, and the required number is calculated based on the layout specifications of the input and output modules and the control method of the fire linkage equipment.

Furthermore, if the input-output modules and the fire linkage equipment are related in name, the corresponding input-output modules can be matched by the name of the fire linkage equipment, and then the corresponding quantity can be calculated based on the control method, control requirements and layout specifications.

103. Arrange the input and output modules of each fire linkage device based on the building information and the types and quantities of the input and output modules corresponding to each fire linkage device.

In this embodiment, the building information includes the outline of the room where the fire linkage equipment is located, nearby walls, columns and doors, etc. The installation method is determined based on the type of input and output modules corresponding to each fire linkage equipment to determine the corresponding installation location type. Based on the installation location type, the corresponding structural parts, such as walls, columns and doors, etc., are determined from the building information. Then, the structural parts that meet the installation method of the input and output modules are searched in the building information, and the input and output modules are arranged on the structural parts based on the design specifications of the input and output modules, and the arrangement position is specifically calculated.

This solution extracts all the fire linkage equipment based on the three-dimensional design model of the area to be arranged, generates an equipment data table, and then calculates the type and quantity of the required input and output modules based on the equipment attributes of the fire linkage equipment recorded in the equipment data table and the building information of the fire linkage equipment, thereby realizing the automatic arrangement of the input and output modules of the fire linkage equipment. Since the input and output modules of each fire linkage equipment are arranged based on the equipment data table, there is no need to re-identify and search, which avoids missed arrangements and can also improve the arrangement efficiency to a certain extent.

Please refer to FIG. 2, which is a schematic diagram of a second embodiment of a method for arranging input and output modules of a fire protection system provided by an embodiment of the present invention. The method specifically comprises the following steps:

201. Obtain the three-dimensional design model of the area to be arranged based on the water supply and drainage and HVAC professionals.

The three-dimensional design model contains components of the fire linkage equipment and all architectural information of the location where the fire linkage equipment is located, such as the outline of the room where the fire linkage equipment is located, nearby walls, columns, doors and other architectural information.

202. Identify component information of the fire linkage equipment in the three-dimensional design model, and use a preset equipment identification model to identify the fire linkage equipment corresponding to the component information.

The components of the fire linkage equipment in the three-dimensional design model, such as identification components, are identified through the equipment identification model, and then the equipment corresponding to each component in the preset model is queried based on the identification components to obtain a list of fire linkage equipment, wherein the equipment identification model is a model of the correspondence between component information and fire linkage equipment.

203. Obtain equipment attributes of the fire linkage equipment and store them in a data table to obtain an equipment data table of the area to be deployed.

In this step, the equipment attributes include the fire linkage equipment ID, name, control mode and other data. Specifically, through the database system, an equipment data table of the fire linkage equipment is automatically created in the database, and based on the name of each fire linkage equipment, the corresponding attribute information is queried, that is, the equipment ID, name, control mode, etc., and the equipment ID, name, control mode and other data are stored in the equipment data table.

204. Extract the structural parts within the preset radius at the corresponding positions of the component information in the three-dimensional design model to obtain the corresponding building information of the fire linkage equipment.

In this step, the information of the structural parts in the three-dimensional design model is identified through the recognition algorithm. Specifically, the position of the fire linkage equipment in the model is first determined (that is, the position of the identification component corresponding to the fire linkage equipment in the model), and then based on the effective control distance of the input and output modules as the radius, the structural parts within the radius of the position are searched, such as walls, columns, doors, etc., and these structural parts are used as the building information of the fire linkage equipment.

In practical applications, the components of the fire linkage equipment in the model are extracted, the corresponding fire linkage equipment is determined based on the components, and the data such as the equipment ID, name and control method are obtained and stored in a preset data table to obtain the fire linkage equipment data table.

205. Based on the equipment name and control method of each fire linkage equipment in the equipment data table, and using the design specifications and control requirements of each input and output module, calculate the type and quantity of input and output modules required for each fire linkage equipment.

Specifically, a matching calculation is performed based on the device name and the control method with the control requirements of each input and output module to obtain the matching degree between each fire linkage device and each input and output module, and the target input and output module of each fire linkage device is determined based on the matching degree to obtain the type of each fire linkage device; based on the design specifications of the target input and output module and the corresponding building information of the fire linkage equipment, the required number of the target input and output modules is calculated.

In practical applications, a similarity calculation algorithm is used to calculate the similarity between the device name of the fire linkage equipment and the name of each input and output module, and the input and output modules with greater similarity are selected as candidate targets. Then, the matching degree between the control method of the fire linkage equipment and the control requirements of the candidate targets is calculated, and then the one with the greatest matching degree among the candidate targets is selected as the target input and output module, where the matching degree refers to the control principles or communication protocols between the two being the same or similar.

206. Construct a module list for each target input and output module, and associate the device data table with the module list.

Specifically, by obtaining the module ID and module name of each target input and output module, and creating a module list of all target input and output modules; based on the device ID of the fire linkage device corresponding to each target input and output module, the device data table is associated with the module list.

In practical applications, based on the equipment name and control method of the fire linkage equipment obtained in the model, the type and quantity of the input and output modules corresponding to each fire linkage equipment are calculated according to the input and output module calculation method under the design specifications and control requirements; a module list of the input and output modules is automatically created in the database to store the module ID, type, quantity and equipment ID of the corresponding fire linkage equipment of the input and output modules. The equipment ID of the corresponding fire linkage equipment is used as the module list foreign key of the input and output module, pointing to the primary key (equipment ID) of the equipment data table of the fire linkage equipment, so that the equipment data table of the fire linkage equipment in the database and the module table of the input and output module are associated to obtain the constraint relationship between each fire linkage equipment and the corresponding input and output module.

207. Arrange the input and output modules of each fire linkage device based on the building information and the types and quantities of the input and output modules corresponding to each fire linkage device.

In this step, the installation requirements of the input and output modules are determined based on the types of the input and output modules corresponding to each of the fire linkage devices;

Determine a target installation method based on the installation requirements and the corresponding building information of the fire linkage equipment;

Searching for installation positions at the positions of the fire linkage equipment, and selecting positions that meet the installation method from the searched installation positions to obtain a position set;

A preset target optimization algorithm is used to obtain N solutions from the position set, wherein the size of N is equal to the number of input and output modules.

Arrange input and output modules for the corresponding fire linkage equipment based on N solutions.

In this embodiment, the installation requirements of the input and output modules corresponding to each fire linkage device are first determined, such as wall-mounted installation or ceiling-mounted installation, and installation distance and other specifications. The walls, columns or doors in the building information are screened by the installation method to select the installation position that meets the installation requirements of the input and output modules. Then, the target optimization algorithm is used to solve the control performance between each installation position and the fire linkage device, and the installation positions are sorted based on the solution results, and N installation positions are selected as the final installation positions.

The solution to the control performance can be specifically to simulate the communication success rate between the input and output modules of each installation position and the corresponding fire linkage equipment through simulation, so as to obtain the control performance, that is, the control success rate, and obtain a solution.

208. By setting up timed polling, the input and output modules can be rearranged and automatically updated after changes to the fire linkage equipment.

Specifically, it is identified through periodic polling whether there is any change in the fire linkage equipment in the area to be deployed;

If yes, then based on the device ID of the changed fire linkage device, check whether the association relationship between the device data table and the module list is established;

If not, the input and output modules of the fire linkage equipment that has changed are rearranged, and the equipment data table and the module list are updated.

That is, by periodically polling the database, check whether each piece of data is associated with the primary key (ID) of the fire linkage equipment data table and the foreign key (corresponding to the fire linkage equipment ID) of the input and output module data table. If a piece of data association is not established, it means that a fire linkage equipment has been added or cancelled. This is used as a trigger condition to add the corresponding input and output module to the added fire linkage equipment, and delete the corresponding input and output module for the cancelled fire linkage equipment.

In actual applications, after the input and output modules are arranged, when changes are detected in the fire linkage equipment in the area to be arranged, the change information of the fire linkage equipment is automatically updated to the equipment data table, resulting in the invalidation of the association between the equipment data table and the module list. Specifically, based on the layout specifications of the input and output modules, the constraint relationship between the input and output modules and the fire linkage equipment will be detected. When the constraint relationship changes, it will be updated to the equipment data table in real time.

By implementing the above method, this solution achieves at least the following beneficial effects:

1. By generating equipment data tables to realize subsequent layout traversal, the workload of fire protection system designers in manually arranging input and output modules is reduced; designers do not need to search for fire protection linkage equipment one by one in the design drawings, and manually arrange input and output modules for each fire protection linkage equipment.

2. By setting the association between the equipment data table and the module list, the problem of mismatch between fire-controlled equipment and input-output modules that is easy to occur during the design process is solved, including the situation that there is no corresponding input-output module for the newly added fire linkage equipment, the corresponding input-output module is not deleted when the fire linkage equipment is cancelled, and the type and quantity of input-output modules are incorrect.

3. Arrange the input and output modules, and use the target optimization algorithm to select the layout points through quantitative evaluation and comprehensive consideration to ensure that the selected location points meet the design specifications and installation requirements, thereby ensuring the design quality.

4. Regular polling and automatic update of input and output modules. Changes in fire linkage equipment automatically trigger updates of input and output modules, which solves the problem of poor communication of design information, avoids modifications to fire linkage equipment and failure to update input and output modules, and ensures the accuracy of design information transmission.

The above describes the method for arranging the input and output modules of the fire protection system in the embodiment of the present invention. The following describes in detail the arrangement device for arranging the input and output modules of the fire protection system in the embodiment of the present invention from the perspective of modular functional entities. Please refer to FIG3, which is a structural schematic diagram of the arrangement device for the input and output modules of the fire protection system provided in the embodiment of the present invention, including:

The acquisition module 310 is used to acquire a three-dimensional design model of the area to be arranged provided by water supply and drainage and HVAC professionals, and generate a device data table of the area to be arranged and building information of each fire linkage device in the device data table based on the three-dimensional design model, wherein the device data table contains at least one fire linkage device;

A determination module 320, configured to determine the type and quantity of input and output modules required for each fire linkage device based on the device attributes of each fire linkage device in the device data table;

The arrangement module 330 is used to arrange the input and output modules of each fire linkage device based on the building information and the types and quantities of the input and output modules corresponding to each fire linkage device.

In this embodiment, all fire linkage equipment is extracted based on the three-dimensional design model of the area to be arranged, and an equipment data table is generated. Then, based on the equipment attributes of the fire linkage equipment recorded in the equipment data table and combined with the building information of the fire linkage equipment, the type and quantity of the required input and output modules are calculated, thereby realizing automatic arrangement of the input and output modules of the fire linkage equipment. Since the input and output modules of each fire linkage equipment are arranged based on the equipment data table, there is no need to re-identify and search, which avoids missed arrangements and can also improve the arrangement efficiency to a certain extent.

Please refer to FIG. 4, which is another structural diagram of a fire protection system input and output module arrangement device provided by an embodiment of the present invention, including:

The acquisition module 310 is used to acquire a three-dimensional design model of the area to be arranged provided by water supply and drainage and HVAC professionals, and generate a device data table of the area to be arranged and building information of each fire linkage device in the device data table based on the three-dimensional design model, wherein the device data table contains at least one fire linkage device;

A determination module 320, configured to determine the type and quantity of input and output modules required for each fire linkage device based on the device attributes of each fire linkage device in the device data table;

The arrangement module 330 is used to arrange the input and output modules of each fire linkage device based on the building information and the types and quantities of the input and output modules corresponding to each fire linkage device.

In this embodiment, the acquisition module 310 is specifically used for:

Identify component information of the fire linkage equipment in the three-dimensional design model, and use a preset equipment identification model to identify the fire linkage equipment corresponding to the component information;

Obtaining the device attributes of the fire linkage equipment and storing them in a data table to obtain the device data table of the area to be arranged;

The structural parts within a preset radius at the corresponding positions of the component information in the three-dimensional design model are extracted to obtain the corresponding building information of the fire linkage equipment.

In this embodiment, the device attributes include at least a device name and a control mode; the determination module 320 is specifically used to:

Based on the device name and control mode of each fire linkage device in the device data table, and using the design specifications and control requirements of each input and output module, the type and quantity of input and output modules required for each fire linkage device are calculated.

In this embodiment, the determining module 320 includes:

A matching unit 321 is used to perform matching calculation based on the device name and the control mode and the control requirements of each input and output module to obtain the matching degree between each fire linkage device and each input and output module, and determine the target input and output module of each fire linkage device based on the matching degree to obtain the type of each fire linkage device;

The calculation unit 322 is used to calculate the required number of the target input-output modules based on the design specifications of the target input-output modules and the building information of the corresponding fire linkage equipment.

In this embodiment, the fire protection system input and output module arrangement device further includes: an association module 340, which is specifically used to:

Obtaining the module ID and module name of each of the target input and output modules, and creating a module list of all target input and output modules;

Based on the device ID of the fire linkage device corresponding to each of the target input and output modules, the device data table is associated with the module list.

In this embodiment, the arrangement module 330 includes:

The determining unit 331 is used to determine the installation requirements of the input and output modules based on the types of the input and output modules corresponding to each of the fire linkage devices; and determine the target installation method based on the installation requirements and the building information of the corresponding fire linkage devices;

A search unit 332, configured to search for installation positions at the positions of the fire linkage equipment, and select positions that meet the installation mode from the searched installation positions to obtain a position set;

The solving unit 333 is used to solve N solutions from the position set by using a preset target optimization algorithm, wherein the size of N is equal to the number of input and output modules.

The arrangement unit 334 is used to arrange input and output modules of the corresponding fire linkage equipment based on the N solutions.

In this embodiment, the defense system input and output module arrangement device further includes: an updating module 350, which is specifically used to:

Regular polling to identify whether there are any changes in the fire linkage equipment in the area to be deployed;

If yes, based on the device ID of the changed fire linkage device, check whether the association relationship between the device data table and the module list is established;

If not, the input and output modules of the fire linkage equipment that has changed are rearranged, and the equipment data table and the module list are updated.

This solution records the fire linkage equipment in the area to be arranged into a data table, and then calculates the corresponding type of input and output modules based on the control mode of the fire linkage equipment, and then obtains the corresponding building information based on the fire linkage equipment in the data table, and calculates the number of arranged input and output modules according to the building information and the corresponding type of input and output modules, thereby realizing the arrangement of the input and output modules of the fire linkage equipment. This arrangement method does not need to search for equipment one by one in the design drawing, avoiding the problem of omission, and uses the target optimization algorithm to determine the arrangement location point of the input and output module of each fire linkage equipment, thereby ensuring the quality of the arrangement.

3 and 4 above describe in detail the fire protection system input and output module arrangement device in the embodiment of the present invention from the perspective of modular functional entities, and the following describes in detail the fire protection system input and output module arrangement device in the embodiment of the present invention from the perspective of hardware processing.

FIG5 is a schematic diagram of the structure of a fire protection system input/output module arrangement device provided by an embodiment of the present invention. The fire protection system input/output module arrangement device 500 may have relatively large differences due to different configurations or performances, and may include one or more processors (central processing units, CPU) 510 (for example, one or more processors) and a memory 520, and one or more storage media 530 (for example, one or more mass storage devices) storing application programs 533 or data 532. Among them, the memory 520 and the storage medium 530 may be temporary storage or permanent storage. The program stored in the storage medium 530 may include one or more modules (not shown in the figure), and each module may include a series of instruction operations in the fire protection system input/output module arrangement device 500. Furthermore, the processor 510 may be configured to communicate with the storage medium 530, and execute a series of instruction operations in the storage medium 530 on the fire protection system input/output module arrangement device 500 to implement the method provided by the above implementation.

The fire protection system input and output module arrangement device 500 may also include one or more power supplies 540, one or more wired or wireless network interfaces 550, one or more input and output interfaces 560, and/or, one or more operating devices 531, such as Windows Serve, Mac OS X, Unix, Linux, FreeBSD, etc. Those skilled in the art will appreciate that the fire protection system input and output module arrangement device structure shown in FIG5 does not constitute a limitation on the fire protection system input and output module arrangement device provided by the present invention, and may include more or less components than shown in the figure, or combine certain components, or arrange components differently.

The present invention also provides a computer-readable storage medium, which may be a non-volatile computer-readable storage medium or a volatile computer-readable storage medium. Instructions are stored in the computer-readable storage medium. When the instructions are executed on a computer, the computer executes the various steps of the fire protection system input and output module arrangement method provided in the above-mentioned embodiments.

Those skilled in the art can clearly understand that, for the convenience and brevity of description, the specific working process of the above-described equipment, devices, and units can refer to the corresponding process in the aforementioned method embodiment and will not be repeated here.

If the integrated unit is implemented in the form of a software functional unit and sold or used as an independent product, it can be stored in a computer-readable storage medium. Based on this understanding, the technical solution of the present invention is essentially or the part that contributes to the prior art or all or part of the technical solution can be embodied in the form of a software product. The computer software product is stored in a storage medium, including several instructions for a computer device (which can be a personal computer, server, or network device, etc.) to perform all or part of the steps of the method described in each embodiment of the present invention. The aforementioned storage medium includes: U disk, mobile hard disk, read-only memory (ROM), random access memory (RAM), disk or optical disk, etc., various media that can store program codes.

As described above, the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit the same. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that the technical solutions described in the aforementioned embodiments may still be modified, or some of the technical features may be replaced by equivalents. However, these modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims (10)

1. The method for arranging the input and output modules of the fire-fighting system is characterized by comprising the following steps of:

acquiring a three-dimensional design model based on an area to be arranged provided by water supply and drainage and heating and ventilation professions, and generating an equipment data table of the area to be arranged and building information of each fire-fighting linkage equipment in the equipment data table based on the three-dimensional design model, wherein the equipment data table comprises at least one fire-fighting linkage equipment;

determining the types and the quantity of the input and output modules required by each fire-fighting linkage device based on the device attribute of each fire-fighting linkage device in the device data table;

And arranging the input and output modules of the fire-fighting linkage equipment based on the building information and the types and the quantity of the input and output modules corresponding to the fire-fighting linkage equipment.

2. The fire protection system input/output module arrangement method according to claim 1, wherein the generating the equipment data table of the area to be arranged and the building information of each fire protection linkage equipment in the equipment data table based on the three-dimensional design model comprises:

identifying component information of fire-fighting linkage equipment in the three-dimensional design model, and identifying the fire-fighting linkage equipment corresponding to the component information by using a preset equipment identification model;

acquiring equipment attributes of the fire-fighting linkage equipment, and storing the equipment attributes in a data table to obtain an equipment data table of the area to be arranged;

and extracting structural members in a preset radius range from the corresponding positions of the structural member information in the three-dimensional design model to obtain the building information of the corresponding fire-fighting linkage equipment.

3. The fire protection system input/output module arrangement method according to claim 1, wherein the equipment attribute at least includes an equipment name and a control mode; the determining the type and the number of the input/output modules required by each fire-fighting linkage device based on the device attribute of each fire-fighting linkage device in the device data table comprises the following steps:

Based on the equipment names and control modes of the fire-fighting linkage equipment in the equipment data table, the types and the numbers of the input and output modules required by the fire-fighting linkage equipment are calculated by utilizing the design specifications and the control requirements of the input and output modules.

4. The method for arranging the input and output modules of the fire protection system according to claim 3, wherein the calculating the type and the number of the input and output modules required by each fire protection linkage device based on the device name and the control mode of each fire protection linkage device in the device data table by using the design specification and the control requirement of each input and output module comprises the following steps:

matching calculation is carried out based on the equipment name and the control mode and the control requirements of each input and output module to obtain the matching degree of each fire-fighting linkage equipment and each input and output module, and the target input and output module of each fire-fighting linkage equipment is determined based on the matching degree to obtain the type of each fire-fighting linkage equipment;

and calculating the number of the required target input/output modules based on the design specifications of the target input/output modules and the building information of the corresponding fire-fighting linkage equipment.

5. The fire protection system input-output module arrangement method according to claim 4, further comprising, after the determining the type and number of input-output modules required for each fire protection linkage device based on the device attribute of each fire protection linkage device in the device data table:

Obtaining the module ID and the module name of each target input/output module, and creating a module list of all target input/output modules;

and associating the equipment data table with the module list based on the equipment ID of the fire-fighting linkage equipment corresponding to each target input/output module.

6. The fire protection system input-output module arrangement method according to claim 5, wherein the arranging the input-output modules of each fire protection linkage device based on the building information and the type and number of the input-output modules corresponding to each fire protection linkage device includes:

determining the installation requirement of the input/output module based on the type of the input/output module corresponding to each fire-fighting linkage device;

determining a target installation mode based on the installation requirement and the building information of the corresponding fire-fighting linkage equipment;

searching installation positions on the positions of the fire-fighting linkage equipment, and selecting positions conforming to the installation mode from the searched installation positions to obtain a position set;

solving N solutions from the position set by using a preset target optimization algorithm, wherein the size of N is equal to the number of input and output modules;

And arranging the input and output modules based on the N solutions for the corresponding fire-fighting linkage equipment.

7. The fire protection system input-output module arrangement method according to claim 5, further comprising, after the arranging of the input-output modules of each fire protection linkage device based on the building information and the type and number of the input-output modules corresponding to each fire protection linkage device:

the timing polling identifies whether fire linkages in the area to be deployed are changing;

if yes, traversing whether the association relationship between the equipment data table and the module list is established or not based on the equipment ID of the changed fire-fighting linkage equipment;

and if not, rearranging the input and output modules of the fire-fighting linkage equipment with the rising and changing states, and updating the equipment data table and the module list.

8. An input-output module arrangement device of a fire protection system, which is characterized by comprising:

the device comprises an acquisition module, a control module and a control module, wherein the acquisition module is used for acquiring a three-dimensional design model based on a region to be arranged provided by water supply and drainage and heating and ventilation professions, and generating a device data table of the region to be arranged and building information of each fire-fighting linkage device in the device data table based on the three-dimensional design model, wherein the device data table comprises at least one fire-fighting linkage device;

The determining module is used for determining the types and the quantity of the input and output modules required by each fire-fighting linkage device based on the device attribute of each fire-fighting linkage device in the device data table;

the arrangement module is used for arranging the input and output modules of the fire-fighting linkage equipment based on the building information and the types and the numbers of the input and output modules corresponding to the fire-fighting linkage equipment.

9. The fire-fighting system input-output module arrangement device is characterized by comprising a memory and at least one processor, wherein the memory stores instructions; the at least one processor invokes the instructions in the memory to cause the fire protection system input output module arrangement device to perform the steps of the fire protection system input output module arrangement method of any one of claims 1-7.

10. A computer readable storage medium having instructions stored thereon, which when executed by a processor, perform the steps of the fire protection system input output module arrangement method of any one of claims 1-7.