Pipe-network-free fire extinguishing system control method, device and equipment and storage medium

Abstract

The invention relates to a pipe network-free fire extinguishing system control method, device and equipment and a storage medium, and the method comprises the steps: adjusting a preset sensor detection threshold value based on preset system fusion depth information, and obtaining an adaptability detection threshold value; judging whether the adaptability detection threshold value exceeds a preset standard, and if not, taking the adaptability detection threshold value as a detection threshold value used by a sensor; if yes, auxiliary equipment linkage control information is generated according to the adaptability detection threshold value and a corresponding standard; taking the auxiliary equipment linkage control information as feedback detection control information, adjusting the adaptive detection threshold value based on the auxiliary equipment linkage control information, and generating a detection threshold value used by a sensor; and monitoring based on the detection threshold value used by the sensor. The method has the effect of improving the detection accuracy of the pipe-network-free fire extinguishing system.

Description

Technical Field

[0001] The present invention relates to the technical field of pipeless fire extinguishing systems, and in particular to a pipeless fire extinguishing system control method, device, equipment and storage medium. Background Art

[0002] At present, the pipeless fire extinguishing system refers to a fire extinguishing system that is pre-designed and assembled into a set of fire extinguishing agent storage devices and spraying components according to certain application conditions and has linkage control functions. It is also called a prefabricated fire extinguishing system. This system is divided into two types: cabinet-type gas fire extinguishing devices and suspended gas fire extinguishing devices. It is suitable for smaller, non-explosive gas, liquid, solid surface fires and electrical fires. Compared with the pipe-network fire extinguishing system, the pipeless fire extinguishing system has many advantages such as flexible and convenient installation, light and portable, short construction period, and no damage to the structure of the protection area.

[0003] In the related technology, pipeless fire extinguishing control mainly involves the storage, release and related linkage control of fire extinguishing agents. When a fire occurs, the control system will detect the fire signal and trigger the release of the fire extinguishing agent, and at the same time start the related linkage equipment, such as closing the ventilation system and opening the smoke exhaust system, so as to achieve the purpose of quickly extinguishing the fire and controlling the fire.

[0004] However, since the pipeless fire extinguishing system includes multiple detection sensors distributedly installed in different places, and the performance and location of each detection sensor are different, but the detection threshold of each detection sensor is the same, this may result in the inability to detect fire signals in a timely manner. Summary of the invention

[0005] In order to improve the detection accuracy of a pipeless fire extinguishing system, the present application provides a pipeless fire extinguishing system control method, device, equipment and storage medium.

[0006] In the first aspect, the above-mentioned invention objective of the present application is achieved through the following technical solutions: A method for controlling a pipeless fire extinguishing system, the method comprising: Based on the preset system fusion depth information, the preset sensor detection threshold is adjusted to obtain an adaptive detection threshold; Determining whether the adaptive detection threshold exceeds a preset standard, and if the adaptive detection threshold exceeds a preset standard, using the adaptive detection threshold as a detection threshold used by the sensor; If the judgment is yes, then generating auxiliary equipment linkage control information according to the adaptability detection threshold and the corresponding specification standard; Using the auxiliary device linkage control information as feedback detection control information, and adjusting the adaptive detection threshold based on the auxiliary device linkage control information to generate a detection threshold used by a sensor; Monitoring is performed based on a detection threshold used by the sensor.

[0007] By adopting the above technical solution, the system fusion depth information refers to the degree of design integration between the pipeless fire extinguishing system and the building. The higher the degree of design integration between the pipeless fire extinguishing system and the building, the more suitable the equipment in the pipeless fire extinguishing system is for the current application scenario. Correspondingly, the sensors used to detect fire in the pipeless fire extinguishing system are more accurate in detecting and judging the fire. For example, when the sensors in the pipeless fire extinguishing system are designed so as not to affect the line construction of the computer room or cause too much electromagnetic interference to the equipment in the computer room, they are installed at a position far away from the equipment in the computer room or use relevant anti-electromagnetic interference equipment for certain electromagnetic isolation. In this way, the detection data of the sensors will have certain deviations, resulting in these sensors being unable to detect and judge the occurrence of fire in a timely and accurate manner. Therefore, the system fusion depth information is analyzed in advance, so as to judge the degree to which the sensors in the pipeless fire extinguishing system are affected according to the system fusion depth information, and then the preset sensor detection threshold is adjusted accordingly to achieve adaptive adjustment of the sensors and improve the detection accuracy of the pipeless fire extinguishing system. In addition, in the overall pipeless network In the use and design specifications of the fire extinguishing system, there are also standard specifications for sensor detection, for example, the response time and detection range of the sensor are specified. After the adaptive detection threshold is generated, if the adaptive detection threshold exceeds the preset standard, the use of the adaptive detection threshold will be non-standard. Therefore, other equipment in the pipeless fire extinguishing system can be used to control other equipment in a linkage manner during the sensor detection process. For example, the pipeless fire extinguishing system includes a fan device and a control device for controlling door and window switches. When it is judged that the adaptive detection threshold of the temperature sensor exceeds the preset standard, the adaptive detection threshold is lowered within the preset standard, and the opening of the doors and windows near the temperature sensor is controlled by controlling the control device for controlling the door and window switches, so that the overall temperature in the machine room remains basically unchanged, but the detection data of the temperature sensor decreases, so that the detection threshold of the temperature sensor should also decrease. In this way, the detection threshold of the sensor can adapt to the current application scenario of the building and meet the design specifications for use, thereby improving the detection accuracy of the pipeless fire extinguishing system.

[0008] In a preferred example, the present application can be further configured as follows: the system fusion depth information is obtained by: Acquire design information of a pipeless fire extinguishing system, wherein the design information of a pipeless fire extinguishing system includes design time of the pipeless fire extinguishing system, design standard of the pipeless fire extinguishing system, and design achievement information of the pipeless fire extinguishing system; According to the design information of the pipeless fire extinguishing system and in combination with preset building design information, the design fusion depth between the pipeless fire extinguishing system and the building is determined to obtain system fusion depth information.

[0009] By adopting the above technical scheme, the design information of the pipeless fire extinguishing system includes the time point of the design of the pipeless fire extinguishing system, the standards referred to in the design of the pipeless fire extinguishing system and the final design results of the pipeless fire extinguishing system. In addition, the content of the preset building design information includes the content corresponding to the design information of the pipeless fire extinguishing system. Therefore, the design information of the pipeless fire extinguishing system can be compared with the preset building design information to judge the depth of design integration between the pipeless fire extinguishing system and the building. Among them, for some contents that cannot be compared, for example, the standards referred to in the design of the pipeless fire extinguishing system and the standards referred to in the building design should be different, and cannot be analyzed by direct comparison. At this time, we can deeply analyze the different standards of pipeless fire extinguishing systems and buildings, extract the parts related to each other from the standards of the pipeless fire extinguishing system and the building, and then compare them. For example, the requirements for the building part in the design standard of the pipeless fire extinguishing system and the requirements for the fire protection system in the design standard of the current building, and then compare the requirements for the building part in the design standard of the pipeless fire extinguishing system with the corresponding parts in the design standard of the current building, and compare the requirements for the fire protection system in the design standard of the current building with the corresponding parts in the design standard of the pipeless fire extinguishing system, so as to realize the comparative analysis of the design standards of the pipeless fire extinguishing system and the building, so as to further judge the depth of integration of the pipeless fire extinguishing system and the building.

[0010] In a preferred example, the present application may be further configured as follows: the design fusion depth between the pipeless fire extinguishing system and the building is determined based on the design information of the pipeless fire extinguishing system and combined with the preset building design information to obtain the system fusion depth information, including: Determine the system design timing integration depth according to the design time of the pipeless fire extinguishing system and the corresponding part of the preset building design information; Determine the integration depth of the system design standard according to the corresponding parts of the pipeless fire extinguishing system design standard and the preset building design information; According to the design result information of the pipeless fire extinguishing system and the corresponding parts of the preset building design information, the system design optimization fusion depth is determined; The system design timing fusion depth, the system design standard fusion depth and the system design optimization fusion depth are comprehensively considered to obtain system fusion depth information.

[0011] By adopting the above technical scheme, when judging the integration depth of the pipeless fire extinguishing system and the building through the design time of the pipeless fire extinguishing system, it is possible to compare whether the design time of the pipeless fire extinguishing system is the same as the building design, and whether the design time of the pipeless fire extinguishing system is after the building is fully constructed. Because for the distributed design of the pipeless fire extinguishing system, if the pipeless gas fire extinguishing system can be combined with the building design during the design, a more accurate and practical installation plan can be achieved. If the design of the pipeless fire extinguishing system is carried out after the building is fully constructed, it is necessary to design it on the existing building, and there are more aspects to consider and avoid during the design, which leads to a decrease in the design integration depth between the pipeless fire extinguishing system and the building. In addition, the design standards of the pipeless fire extinguishing system and the design results information of the pipeless fire extinguishing system can also be compared to judge the design integration depth between the pipeless fire extinguishing system and the building. Finally, the design integration depth of various aspects is integrated to obtain the final system integration depth, so that the final system integration depth considers multiple aspects of information to ensure the accuracy of the final system integration depth.

[0012] In a preferred example, the present application may be further configured as follows: the system fusion depth information based on the preset system is adjusted to obtain the adaptive detection threshold, including: Based on the preset system fusion depth information, query the preset fusion adjustment index to obtain the fusion adjustment coefficient; According to the fusion adjustment coefficient, the preset sensor detection threshold is adjusted to obtain an adaptive detection threshold.

[0013] By adopting the above technical scheme, corresponding to the system fusion depth information, there is a preset fusion adjustment index, which refers to the fusion adjustment index obtained in advance by analyzing the actual application of the pipeless fire extinguishing system installed in a variety of different buildings. The fusion adjustment index includes fusion adjustment coefficients for sensors of different models at different degrees of system fusion depth. Because in different buildings, the models of sensors selected may be different, and different models of sensors may also have different detection results when facing the same scene. Therefore, the preset fusion adjustment index is obtained by analyzing the use of sensors in the pipeless fire extinguishing system that has been actually applied. For example, for a certain model of temperature sensor, the difference in detection data at different system fusion depths is judged to generate fusion adjustment coefficients corresponding to different system fusion depths. In this way, the preset system fusion depth information can be used to query the preset fusion adjustment index to obtain the fusion adjustment coefficient, and then the fusion adjustment coefficient is used to adjust the detection threshold of the corresponding sensor to obtain an adaptive detection threshold, thereby improving the detection accuracy of the pipeless fire extinguishing system.

[0014] In a preferred example, the present application may be further configured as follows: if the judgment is yes, then according to the adaptability detection threshold and the corresponding specification standard, auxiliary device linkage control information is generated, including: If the judgment is yes, then analyzing the gap between the adaptability detection threshold and the corresponding specification standard to obtain design gap information; According to the design gap information, combined with the design information of the pipeless fire extinguishing system, the corresponding auxiliary equipment is determined, and the auxiliary equipment linkage control information is generated.

[0015] By adopting the above technical solution, when it is judged that the adaptability detection threshold exceeds the preset specification standard, it means that the adaptability detection threshold at this time is not suitable for the current building design. For example, the preset specification standard clearly requires the detection threshold of the sensor, or the preset specification standard requires the fire resistance level of the building. The fire resistance level of the building is used to judge that the requirement of the specification standard is to trigger the pipeless fire extinguishing system before the building temperature reaches the temperature value corresponding to the fire resistance level, or the preset specification standard requires the response time of the pipeless fire extinguishing system. Then, the temperature rise trend when a fire occurs is judged by combining the response time requirement with the current situation in the building, and then the detection threshold that should be set when the response time requirement is to be met is judged based on the temperature rise trend. Therefore, the gap between the adaptability detection threshold and the corresponding specification standard is analyzed to obtain the design gap information, and then the auxiliary equipment linkage control information is generated based on the design gap to ensure that the detection threshold meets the requirements of the relevant specification standards.

[0016] In the second aspect, the above invention objective of the present application is achieved through the following technical solutions: A pipeless fire extinguishing system control device, the pipeless fire extinguishing system control device comprising: An adaptive adjustment module, used for adjusting a preset sensor detection threshold based on preset system fusion depth information to obtain an adaptive detection threshold; A standard judgment module, used to judge whether the adaptive detection threshold exceeds a preset standard, and if it is judged to be negative, use the adaptive detection threshold as the detection threshold used by the sensor; an auxiliary linkage module, for generating auxiliary device linkage control information according to the adaptability detection threshold and corresponding specification standards if the judgment is yes; A feedback adjustment module, configured to use the auxiliary device linkage control information as feedback detection control information, and adjust the adaptive detection threshold based on the auxiliary device linkage control information to generate a detection threshold used by the sensor; A monitoring module is used for monitoring based on a detection threshold used by the sensor.

[0017] Optionally, the pipeless fire extinguishing system control device further includes: A design acquisition module is used to acquire design information of a pipeless fire extinguishing system, wherein the design information of the pipeless fire extinguishing system includes design time of the pipeless fire extinguishing system, design standard of the pipeless fire extinguishing system and design achievement information of the pipeless fire extinguishing system; The fusion depth analysis module is used to determine the design fusion depth between the pipeless fire extinguishing system and the building based on the design information of the pipeless fire extinguishing system and the preset building design information, and obtain the system fusion depth information.

[0018] Optionally, the fusion depth analysis module includes: A timing fusion analysis submodule, for determining the timing fusion depth of the system design according to the design time of the pipeless fire extinguishing system and the corresponding part of the preset building design information; A standard fusion analysis submodule, used to determine the fusion depth of the system design standard according to the corresponding parts of the pipeless fire extinguishing system design standard and the preset building design information; The optimization fusion analysis submodule is used to determine the system design optimization fusion depth according to the corresponding parts of the pipeless fire extinguishing system design result information and the preset building design information; The comprehensive analysis submodule is used to comprehensively analyze the system design opportunity fusion depth, the system design standard fusion depth and the system design optimization fusion depth to obtain system fusion depth information.

[0019] In the third aspect, the above invention objective of the present application is achieved through the following technical solutions: A computer device comprises a memory, a processor and a computer program stored in the memory and executable on the processor, wherein the processor implements the steps of the above-mentioned pipeless fire extinguishing system control method when executing the computer program.

[0020] In a fourth aspect, the above-mentioned invention objective of the present application is achieved through the following technical solutions: A computer-readable storage medium stores a computer program, and when the computer program is executed by a processor, the steps of the above-mentioned pipeless fire extinguishing system control method are implemented.

[0021] In summary, the present application includes at least one of the following beneficial technical effects: 1. Analyze the system fusion depth information in advance, and judge the degree of influence of the sensors in the pipeless fire extinguishing system according to the system fusion depth information, and then adjust the preset sensor detection threshold accordingly to achieve adaptive adjustment of the sensor and improve the detection accuracy of the pipeless fire extinguishing system; in addition, in the overall use and design specifications of the pipeless fire extinguishing system, there are also standard specifications for sensor detection, for example, specifying the response time and detection range of the sensor, etc. After the adaptive detection threshold is generated, if the adaptive detection threshold exceeds the preset standard, the use of the adaptive detection threshold will be irregular. Therefore, other equipment in the pipeless fire extinguishing system can be used to adjust the adaptive detection threshold during the sensor detection. During the process, other equipment is controlled in linkage. For example, the pipeless fire extinguishing system includes a fan device and a control device for controlling door and window switches. When it is determined that the adaptability detection threshold of the temperature sensor exceeds the preset standard, the adaptability detection threshold is lowered within the preset standard, and the opening of the doors and windows near the temperature sensor is controlled by controlling the control device for controlling the door and window switches, so that the overall temperature in the machine room remains basically unchanged but the detection data of the temperature sensor decreases, so that the detection threshold of the temperature sensor should also decrease. In this way, the detection threshold of the sensor can adapt to the current application scenario of the building and meet the design specifications, thereby improving the detection accuracy of the pipeless fire extinguishing system; 2. The design information of the pipeless fire extinguishing system can be compared with the preset building design information to determine the depth of design integration between the pipeless fire extinguishing system and the building. For some contents that cannot be compared, for example, the standards referenced in the design of the pipeless fire extinguishing system and the standards referenced in the building design should be different, and cannot be analyzed by direct comparison. At this time, the different standards of the pipeless fire extinguishing system and the building can be deeply analyzed, and the parts related to each other can be extracted from the standards of the pipeless fire extinguishing system and the building for comparison. For example, the requirements for the building part in the design standard of the pipeless fire extinguishing system and the requirements for the fire protection system in the design standard of the current building, and then the requirements for the building part in the design standard of the pipeless fire extinguishing system are compared with the corresponding parts in the design standard of the current building, and the requirements for the fire protection system in the design standard of the current building are compared with the corresponding parts in the design standard of the pipeless fire extinguishing system, so as to realize the comparative analysis of the pipeless fire extinguishing system and the building design standards, so as to further determine the integration depth of the pipeless fire extinguishing system and the building; 3. For a distributed design of a pipeless fire extinguishing system, if the pipeless gas fire extinguishing system can be combined with the building design during the design, a more accurate and practical installation plan can be achieved. If the pipeless fire extinguishing system is designed after the building is fully constructed, it needs to be designed on the existing building. There are more aspects that need to be considered and avoided during the design, which leads to a decrease in the design integration depth between the pipeless fire extinguishing system and the building. In addition, the design standards and design results information of the pipeless fire extinguishing system can also be compared to judge the design integration depth between the pipeless fire extinguishing system and the building. Finally, the design integration depth of all aspects is integrated to obtain the final system integration depth, so that the final system integration depth takes into account information from multiple aspects to ensure the accuracy of the final system integration depth. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 This is a flow chart of an implementation of a method for controlling a pipeless fire extinguishing system in an embodiment of the present application; Figure 2 is a flowchart of the method for obtaining system fusion depth information in an embodiment of the present application; Figure 3 It is a flow chart for implementing S02 of the pipeless fire extinguishing system control method in the embodiment of the present application; Figure 4 is a flowchart for implementing S10 of the pipeless fire extinguishing system control method in the embodiment of the present application; Figure 5 is a flowchart for implementing S30 of the pipeless fire extinguishing system control method in the embodiment of the present application; Figure 6 This is a principle block diagram of a pipeless fire extinguishing system control device in an embodiment of the present application; Figure 7 It is a diagram of the internal structure of a computer device in an embodiment of the present application. DETAILED DESCRIPTION

[0023] The following is combined with Figure 1-7 This application is described in further detail.

[0024] In one embodiment, if Figure 1 As shown, the present application discloses a method for controlling a pipeless fire extinguishing system, which specifically includes the following steps: S10: Based on the preset system fusion depth information, adjust the preset sensor detection threshold to obtain an adaptive detection threshold.

[0025] In this embodiment, the control method of the pipeless fire extinguishing system is applied to the fire extinguishing controller in the pipeless fire extinguishing system. The pipeless fire extinguishing system in this embodiment is a pipeless gas fire extinguishing system, specifically a pipeless heptafluoropropane fire extinguishing system. The pipeless heptafluoropropane fire extinguishing system includes a fire extinguishing controller, a detection sensor (such as a smoke detector, a temperature sensor, a pressure signaler, etc.), a fire sound and light alarm, a gas spray fire sound and light alarm, a gas release indicator light, a hand-pull starter emergency stop button, a manual / automatic conversion switch, a fire-dedicated power box, a cabinet-type heptafluoropropane, a display device, a fan linkage valve, and a door and window linkage controller, etc.; The protection area where the pipeless fire extinguishing system is installed adopts the full flooding pipeless fire extinguishing system, that is, within the specified time, a certain concentration of heptafluoropropane fire extinguishing agent is sprayed and evenly filled in the entire protection area. At this time, the fire occurring in any part of the area can be extinguished. The protection area is an independent closed space, and the ambient temperature of the protection area is the same as the natural ambient temperature. The pipeless fire extinguishing system is set in the corresponding protection area. The fire resistance limit of the protection area is>0.5h, and the compressive strength is>1200pa. In addition, when more than one fire extinguishing device of the pipeless fire extinguishing system in the same protection area is required, they must be able to start at the same time, and the action response time difference shall not be greater than 2s. In addition, in order to ensure the safe evacuation of personnel, before releasing the fire extinguishing agent, the pipeless fire extinguishing system The network fire extinguishing system will sound a fire alarm; to ensure the reliability of fire extinguishing, before or at the same time as the non-pipeline network fire extinguishing system releases the fire extinguishing agent, the necessary linkage operation should be guaranteed, that is, when the non-pipeline network fire extinguishing system issues a fire extinguishing command, the fire extinguishing controller will issue a linkage command to cut off the power supply, and shut down or stop all equipment that affects the fire extinguishing effect; underground protection areas and ground protection areas with fixed windows are equipped with mechanical exhaust devices, and the exhaust vents are located at the bottom of the protection area and directly connected to the outdoors. After releasing the fire extinguishing agent, the exhaust gas should be exhausted before personnel can enter for maintenance; the gas bottle group of the non-pipeline network fire extinguishing system can be set in an independent protection area room, with a fire resistance level of not less than level 2, a room temperature of 0℃~50℃ and kept dry and ventilated, and the fire extinguishing agent storage bottles should be kept away from sunlight; In addition, the control modes of the pipeless fire extinguishing system are automatic, electrical manual and mechanical manual. That is, when someone is working or on duty, electrical manual control can be used, and when no one is there, automatic control can be used. The conversion between automatic and manual control modes can be realized on the fire extinguishing controller (a manual control box is set outside the door of the protection zone, and emergency stop and emergency start buttons are set in the manual control box). In the automatic state, after the temperature sensor and smoke sensor in the protection zone are alarmed, the fire extinguishing controller enters the automatic spraying front state, and the controller starts the spraying device after 30 seconds. There are also display devices for manual and automatic control states inside and outside the protection zone.

[0026] Specifically, after the pipeless fire extinguishing system is put into use, the preset system fusion depth information is extracted. The system fusion depth information refers to the degree of design integration between the pipeless fire extinguishing system and the building. The higher the degree of design integration between the pipeless fire extinguishing system and the building, the more suitable the equipment in the pipeless fire extinguishing system is for the current application scenario. Correspondingly, the sensors used to detect fire in the pipeless fire extinguishing system are more accurate in detecting and judging fire conditions. The lower the degree of design integration between the pipeless fire extinguishing system and the building, the lower the accuracy of fire detection and judgment of the sensors used to detect fire in the corresponding pipeless fire extinguishing system. For example, when the sensors in the pipeless fire extinguishing system are designed so as not to affect the line construction of the computer room or cause too much electromagnetic interference to the equipment in the computer room, they are installed at a position far away from the equipment in the computer room or use relevant anti-electromagnetic interference equipment for certain electromagnetic isolation. In this way, the detection data of the sensors will have certain deviations, which will cause these sensors to fail to detect and judge the occurrence of fire in a timely and accurate manner. Therefore, it is necessary to analyze in advance the integration depth of the current pipeless fire extinguishing system and the protected area, specifically analyze the integration depth of the pipeless fire extinguishing system and the sensor area of ​​the protected area, for example, analyze whether the communication mode between the pipeless fire extinguishing system and the fire control center of the protected area is sufficient to support the transmission of control signals (specifically analyze whether the communication mode between each sensor of the pipeless fire extinguishing system and the fire control center of the protected area is sufficient to support the transmission of control signals), whether the parameters of automatic control are comprehensive (specifically analyze whether the parameters of each sensor are comprehensive), whether the pipeless fire extinguishing system is applicable to the current area of ​​the protected area (specifically analyze whether each sensor of the pipeless fire extinguishing system is applicable to the sensor area of ​​the current protected area), and how the fire extinguishing efficiency of the pipeless fire extinguishing system is when it is working (specifically analyze whether the parameters of each sensor are comprehensive), and whether the pipeless fire extinguishing system is applicable to the current area of ​​the protected area. The detection efficiency of each sensor of the pipeless fire extinguishing system when working is analyzed in detail). Similarly, the fusion depth of the pipeless fire extinguishing systems in other protected areas that have been put into use for a certain period of time is analyzed to determine the degree of deviation of the sensor's detection data at different fusion depths. Based on this, the system fusion depth information is obtained by analyzing the fusion depth of the current pipeless fire extinguishing system and the protected area, including the fusion depth information of each sensor. The detection deviation of the sensor at each fusion depth is determined by the degree of deviation of the sensor's detection data at different fusion depths. According to this, the corresponding preset sensor detection threshold is adjusted according to the detection deviation of each sensor at each fusion depth to obtain the adaptive detection threshold of each sensor.

[0027] S20: Determine whether the adaptive detection threshold exceeds a preset standard. If it is determined to be negative, use the adaptive detection threshold as the detection threshold used by the sensor.

[0028] Specifically, in the overall use and design specifications of the pipeless fire extinguishing system, there are also standard specifications for sensor detection and standard specifications related to the sensor, such as directly specifying the response time and detection range of the sensor, or standard specifications for the sensor derived from the protection standards for the protected area, etc. Therefore, the preset standard specification information is extracted, and the standard specifications for sensor detection are determined by analyzing the preset standard specification information and the direct standard specifications for sensor detection. For example, the preset standard clearly requires the standard for the detection threshold of the sensor, or the preset standard requires the fire resistance level of the building. The fire resistance level of the building is used to determine that the requirement of the standard is to trigger the pipeless fire extinguishing system before the building temperature reaches the temperature value corresponding to the fire resistance level, thereby deriving the standard for the temperature sensor; Therefore, it is determined whether the adaptability detection threshold of each sensor exceeds each specification standard. If the judgment is no, that is, the adaptability detection threshold of each sensor does not exceed each specification standard, then the adaptability detection threshold of each sensor can be directly used as the detection threshold of the sensor in the subsequent operation process, that is, the detection threshold used by the sensor.

[0029] S30: If the judgment is yes, then generate auxiliary device linkage control information according to the adaptability detection threshold and the corresponding specification standard.

[0030] Specifically, if it is determined that the adaptability detection thresholds of some sensors exceed some standard specifications, the use of the adaptability detection thresholds will be non-standard. Therefore, these sensors and the corresponding exceeded standard specifications are marked, and the gap between the adaptability detection thresholds of these sensors and the corresponding standard specifications is determined. At this time, the adaptability detection thresholds of these marked sensors are the most preferred detection thresholds at the positions of these marked sensors, but because they exceed the standard specifications, they need to be lowered within the standard specifications. In order to be as close as possible to the most preferred adaptability detection threshold, the adaptability detection thresholds of these marked sensors need to be lowered to a level that just meets the standard specifications, so as to obtain the standard adaptability detection thresholds; However, since the adaptive detection threshold of the marked sensor cannot be directly changed at this time, the adaptive detection threshold of the target can be increased in disguise by using other devices in the pipeless fire extinguishing system to control other devices in linkage during the sensor detection process; For example, determine the position of the marked sensor, and then determine other devices near the position of the marked sensor and other devices that are interconnected with the marked sensor as alternative devices, and then determine the type of the marked sensor, that is, the parameter type of the marked sensor that exceeds the standard. In this way, determine whether the parameter type of the marked sensor that exceeds the standard can be changed when the operating parameters of the control alternative device are changed. For example, the alternative devices corresponding to the marked sensor in the pipeless fire extinguishing system include fan equipment and control equipment for controlling door and window switches. When it is determined that the adaptability detection threshold of the temperature sensor exceeds the preset standard, it is necessary to To lower the adaptability detection threshold within the preset standard, the control device that controls the door and window switches controls the opening of the doors and windows near the temperature sensor, so that the overall temperature in the machine room remains basically unchanged, but the detection data of the temperature sensor decreases, so the detection threshold of the temperature sensor should also decrease. Therefore, the control device that controls the door and window switches is used as a linkage device. There is no need to directly reduce the adaptability detection threshold of the marked sensor, but by adjusting the operating parameters of the control device that controls the door and window switches, the adaptability detection threshold of the marked sensor is indirectly reduced. Therefore, the adjusted operating parameters of the control device that controls the door and window switches are used as auxiliary equipment linkage control information. It should be noted that when the pipeless fire extinguishing system is running, some linkage devices may be prohibited from continuous operation for a long time. Therefore, the startup operation frequency of these linkage devices can be set, and the adaptability detection threshold of the corresponding sensor can be reduced when these linkage devices are started.

[0031] S40: Using the auxiliary device linkage control information as feedback detection control information, and adjusting the adaptive detection threshold based on the auxiliary device linkage control information to generate a detection threshold used by the sensor.

[0032] In this embodiment, the feedback detection control information refers to feedback information used to adjust the detection threshold of the sensor.

[0033] Specifically, the auxiliary device linkage control information is used as feedback detection control information, that is, the device operating parameters corresponding to the auxiliary device linkage control information and the corresponding sensor operating parameters are associated. When the device corresponding to the auxiliary device linkage control information is running, the operating parameters of the device corresponding to the auxiliary device linkage control information are used as feedback detection control information. When the feedback detection control information is received, the sensor detection threshold corresponding to the auxiliary device linkage control information is lowered. Therefore, the lowered sensor detection threshold and the adaptive detection threshold are both used as the detection thresholds used by the sensor. When the device corresponding to the auxiliary device linkage control information is running, the lowered sensor detection threshold is used. When the device corresponding to the auxiliary device linkage control information is not running, the adaptive detection threshold is used.

[0034] S50: Monitoring is performed based on the detection threshold used by the sensor.

[0035] Specifically, after the detection threshold used by the sensor is generated, when the pipeless fire extinguishing system is running, the detection threshold used by the sensor is used as the detection threshold of each sensor for monitoring.

[0036] In one embodiment, if Figure 2 As shown, the system fusion depth information is obtained by: S01: Obtain design information of a pipeless fire extinguishing system, wherein the design information of a pipeless fire extinguishing system includes design time of the pipeless fire extinguishing system, design standard of the pipeless fire extinguishing system, and design result information of the pipeless fire extinguishing system.

[0037] Specifically, the design information of the pipeless fire extinguishing system is obtained, wherein the design information of the pipeless fire extinguishing system includes the time point of the design of the pipeless fire extinguishing system, the standards referred to in the design of the pipeless fire extinguishing system, and the final design results of the pipeless fire extinguishing system.

[0038] S02: According to the design information of the pipeless fire extinguishing system and the preset building design information, the design integration depth between the pipeless fire extinguishing system and the building is determined to obtain the system integration depth information.

[0039] Specifically, it is necessary to judge the integration depth of the pipeless fire extinguishing system and the protection zone. Therefore, the design information of the pipeless fire extinguishing system and the preset building design information are analyzed. The design information of the pipeless fire extinguishing system and the preset building design information can be compared respectively to judge the design integration depth between the pipeless fire extinguishing system and the building. For example, by comparing the design time point of the pipeless fire extinguishing system and the building design time point, it is judged whether the pipeless fire extinguishing system and the protection zone are designed in a combined manner. Because if the pipeless fire extinguishing system and the protection zone are designed in a combined manner, then the pipeless fire extinguishing system and the building can meet each other's needs during the design, and the pipeless fire extinguishing system is less restricted. Therefore, by comparing the design time point of the pipeless fire extinguishing system and the building design time point, if the design time point of the pipeless fire extinguishing system and the building design time point correspond, the corresponding system integration depth is higher; As for some contents that cannot be compared, for example, the standards referenced in the design of the pipeless fire extinguishing system should be different from the standards referenced in the building design, and cannot be analyzed by direct comparison. At this time, we can deeply analyze the different standards of the pipeless fire extinguishing system and the building, and extract the parts related to each other from the standards of the pipeless fire extinguishing system and the building for comparison. For example, the requirements for the building part in the design standard of the pipeless fire extinguishing system and the requirements for the fire protection system in the design standard of the current building, and then compare the requirements for the building part in the design standard of the pipeless fire extinguishing system with the corresponding parts in the design standard of the current building, and compare the requirements for the fire protection system in the design standard of the current building with the corresponding parts in the design standard of the pipeless fire extinguishing system, so as to realize the comparative analysis of the pipeless fire extinguishing system and the building design standards. Correspondingly, the more requirements for the fire protection system in the design standard of the current building and the corresponding parts in the design standard of the pipeless fire extinguishing system, the higher the system fusion depth.

[0040] In one embodiment, if Figure 3 As shown, in step S02, according to the design information of the pipeless fire extinguishing system, combined with the preset building design information, the design integration depth between the pipeless fire extinguishing system and the building is determined to obtain the system integration depth information, including: S021: Determine the system design timing integration depth based on the design time of the pipeless fire extinguishing system and the corresponding parts in the preset building design information.

[0041] Specifically, according to the design time of the pipeless fire extinguishing system and the corresponding parts in the preset building design information, that is, the design time point of the pipeless fire extinguishing system and the building design time point, the integration depth of the pipeless fire extinguishing system and the building in the design time dimension is judged to obtain the system design timing fusion depth. For example, compare whether the design time of the pipeless fire extinguishing system is the same as the building design, and whether the design time point of the pipeless fire extinguishing system is after the building is fully constructed. When the design time of the pipeless fire extinguishing system is the same as the building design time, the system design timing fusion depth is higher. When the design time point of the pipeless fire extinguishing system is after the building is fully constructed, the system design timing fusion depth is lowest.

[0042] S022: Determine the integration depth of the system design standards based on the corresponding parts of the pipeless fire extinguishing system design standards and the preset building design information.

[0043] Specifically, according to the corresponding parts in the design standards of the pipeless fire extinguishing system and the preset building design information, that is, the design standards of the pipeless fire extinguishing system and the design standards of the protected area buildings, the fusion depth of the pipeless fire extinguishing system and the building in the design standard dimension is judged to obtain the fusion depth of the system design standard. For example, from the respective standards of the pipeless fire extinguishing system and the building, the parts related to each other are extracted and then compared. The more corresponding parts are compared, the higher the fusion depth of the system design standard is.

[0044] S023: Determine the system design optimization integration depth based on the corresponding parts of the pipeless fire extinguishing system design results information and the preset building design information.

[0045] Specifically, according to the corresponding parts of the design results information of the pipeless fire extinguishing system and the preset building design information, that is, the design results of the pipeless fire extinguishing system and the design results of the protected area building, for example, the design drawings of the pipeless fire extinguishing system and the design drawings of the protected area building, as well as the design parameters of the pipeless fire extinguishing system and the design parameters of the protected area building, the design results of the pipeless fire extinguishing system and the design results of the protected area building are combined for analysis to determine the fusion depth of the pipeless fire extinguishing system and the building in the design results dimension, and obtain the system design optimization fusion depth; For example, first, through the preferred non-pipeline fire extinguishing system design information recommended in the design standard of the non-pipeline fire extinguishing system, the preferred non-pipeline fire extinguishing system design information recommended in the design standard of the protected area building, the preferred building design information recommended in the design standard of the non-pipeline fire extinguishing system, and the preferred building design information recommended in the design standard of the protected area building, the design results of the non-pipeline fire extinguishing system and the design results of the protected area building are compared with the corresponding preferred design information, and the proportion of the design results of the non-pipeline fire extinguishing system and the design results of the protected area building that conform to these preferred design information is determined to obtain a first proportion, for example, the number of preferred protective devices recommended in the design standard of the non-pipeline fire extinguishing system is determined to be greater than the number of preferred protective devices recommended in the design standard of the non-pipeline fire extinguishing system. The ratio of the number of protective devices of the current pipeless fire extinguishing system is used to determine the ratio of the number of fire extinguishing jet devices recommended in the design standards of the protected area buildings to the number of fire extinguishing jet devices of the current pipeless fire extinguishing system; then, based on the model specifications of each device in the pipeless fire extinguishing system, the optimal working parameter range and the optimal installation position of each device in the pipeless fire extinguishing system are determined, and then the installation information of each device in the design results of the pipeless fire extinguishing system is compared with the corresponding optimal working parameter range and optimal installation position to obtain the second ratio; in this way, the first ratio and the second ratio are combined to obtain the system design optimization fusion depth, which means the degree of fusion optimization between the pipeless fire extinguishing system and the protected area buildings during the design.

[0046] S024: Integrate the system design timing fusion depth, system design standard fusion depth and system design optimization fusion depth to obtain system fusion depth information.

[0047] Specifically, the system design timing fusion depth, system design standard fusion depth and system design optimization fusion depth are integrated. For example, according to the weights of the system design timing fusion depth, the system design standard fusion depth and the system design optimization fusion depth, the system fusion depth information is calculated by a comprehensive index method.

[0048] In one embodiment, if Figure 4 As shown, in step S10, based on the preset system fusion depth information, the preset sensor detection threshold is adjusted to obtain an adaptive detection threshold, including: S11: Based on the preset system fusion depth information, query the preset fusion adjustment index to obtain the fusion adjustment coefficient.

[0049] Specifically, when analyzing the detection threshold of the sensor based on the preset system fusion depth information, it is necessary to extract the fusion adjustment index corresponding to the system fusion depth information. The fusion adjustment index is obtained by analyzing the actual application of the pipeless fire extinguishing system installed in a variety of different buildings. The fusion adjustment index refers to an index for listing the adjustment range of the detection threshold of the sensor at different system fusion depths, wherein the fusion adjustment index includes fusion adjustment coefficients for sensors of different models at different degrees of system fusion depths, because in different buildings, the models of sensors selected may be different, and different models of sensors may also have different detection results when facing the same scene. Therefore, the preset fusion adjustment index is obtained by analyzing the use of sensors in the pipeless fire extinguishing system that has been actually applied. For example, for a certain model of temperature sensor, the difference in detection data at different system fusion depths is determined, and fusion adjustment coefficients corresponding to different system fusion depths are generated. At this time, the fusion adjustment coefficient does not need to consider the installation position of the sensor, because different system fusion depths already represent different installation positions; Therefore, based on the preset system fusion depth information, the preset fusion adjustment index is queried to obtain the fusion adjustment coefficient of each sensor under the current system fusion depth information.

[0050] S12: According to the fusion adjustment coefficient, adjust the preset sensor detection threshold to obtain an adaptive detection threshold.

[0051] Specifically, the fusion adjustment coefficient is used to adjust the preset sensor detection threshold corresponding to each sensor to obtain an adaptive detection threshold.

[0052] It should be noted that the preset sensor detection threshold corresponding to each sensor has been adjusted compared to the detection threshold when not used in a pipeless fire extinguishing system. For example, the detection threshold used by the temperature sensor in general scenarios when not used in a pipeless fire extinguishing system is different from the detection threshold when the temperature sensor is used in a pipeless fire extinguishing system. When the temperature sensor is used in a pipeless fire extinguishing system, the temperature sensor will be adjusted according to the usual application scenarios of the pipeless fire extinguishing system. Therefore, the adaptive detection threshold is obtained after each sensor is pre-adjusted and adjusted based on the fusion adjustment coefficient.

[0053] In one embodiment, if Figure 5 As shown, in step S30, if the judgment is yes, then according to the adaptability detection threshold and the corresponding specification standard, auxiliary device linkage control information is generated, including: S31: If the answer is yes, analyze the gap between the adaptability detection threshold and the corresponding specification standard to obtain design gap information.

[0054] Specifically, when it is judged that the adaptability detection threshold exceeds the preset specification standard, it means that the adaptability detection threshold at this time is not suitable for the current building design. For example, the preset specification standard clearly requires the detection threshold of the sensor, or the preset specification standard requires the fire resistance level of the building. The fire resistance level of the building is used to judge that the requirement of the specification standard is to trigger the pipeless fire extinguishing system before the building temperature reaches the temperature value corresponding to the fire resistance level, or the preset specification standard requires the response time of the pipeless fire extinguishing system. Then, the response time requirement is combined with the current situation in the building to judge the trend of temperature rise when a fire occurs, and then the detection threshold that should be set to meet the response time requirement is judged according to the trend of temperature rise. In this way, the gap between the adaptability detection threshold of each sensor and the corresponding specification standard is analyzed to obtain design gap information.

[0055] S32: According to the design gap information, combined with the design information of the pipeless fire extinguishing system, the corresponding auxiliary equipment is determined, and the auxiliary equipment linkage control information is generated.

[0056] Specifically, according to the sensor with design gap information, the alternative auxiliary equipment corresponding to the sensor with design gap information is judged through the design information of the pipeless fire extinguishing system, that is, the working range of the equipment in the pipeless fire extinguishing system during operation is judged, the equipment that can affect the detection of the sensor during equipment operation, and the equipment that has a linkage control relationship with the sensor with design gap information are judged, and these devices are used as alternative auxiliary equipment, and then the degree of influence of the alternative auxiliary equipment on the detection data of the corresponding sensor when it is operated is judged, so as to simulate and judge whether the degree of influence of the alternative auxiliary equipment on the detection data of the corresponding sensor when it is operated can offset the corresponding design gap information, or whether the degree of influence of multiple alternative auxiliary equipment on the detection data of the corresponding sensor when operating at the same time can offset the corresponding design gap information, thereby, the alternative auxiliary equipment judged to be able to offset the corresponding design gap information is used as auxiliary equipment, and the operating parameters of the auxiliary equipment judged to be able to offset the corresponding design gap information are used as auxiliary equipment linkage control information.

[0057] It should be understood that the size of the serial numbers of the steps in the above embodiments does not mean the order of execution. The execution order of each process should be determined by its function and internal logic, and should not constitute any limitation on the implementation process of the embodiments of the present application.

[0058] In one embodiment, a pipeless fire extinguishing system control device is provided, and the pipeless fire extinguishing system control device corresponds to the pipeless fire extinguishing system control method in the above embodiment. Figure 6 As shown, the pipeless fire extinguishing system control device includes an adaptive adjustment module, a standard judgment module, an auxiliary linkage module, a feedback adjustment module and a monitoring module. The detailed description of each functional module is as follows: An adaptive adjustment module, used for adjusting a preset sensor detection threshold based on preset system fusion depth information to obtain an adaptive detection threshold; A standard judgment module is used to judge whether the adaptive detection threshold exceeds a preset standard. If the judgment is no, the adaptive detection threshold is used as the detection threshold used by the sensor; The auxiliary linkage module is used to generate auxiliary equipment linkage control information according to the adaptability detection threshold and the corresponding specification standard if the judgment is yes; A feedback adjustment module, used to use the auxiliary device linkage control information as feedback detection control information, and adjust the adaptive detection threshold based on the auxiliary device linkage control information to generate a detection threshold used by the sensor; A monitoring module is used for monitoring based on a detection threshold used by the sensor.

[0059] Optionally, the pipeless fire extinguishing system control device also includes: A design acquisition module is used to acquire design information of a pipeless fire extinguishing system, wherein the design information of the pipeless fire extinguishing system includes design time of the pipeless fire extinguishing system, design standard of the pipeless fire extinguishing system and design result information of the pipeless fire extinguishing system; The fusion depth analysis module is used to determine the design fusion depth between the pipeless fire extinguishing system and the building based on the design information of the pipeless fire extinguishing system and the preset building design information, and obtain the system fusion depth information.

[0060] Optional, fused deep analysis modules include: The timing fusion analysis submodule is used to determine the timing fusion depth of the system design based on the design time of the pipeless fire extinguishing system and the corresponding part of the preset building design information; The standard fusion analysis submodule is used to determine the fusion depth of the system design standards based on the corresponding parts of the pipeless fire extinguishing system design standards and the preset building design information; The optimization fusion analysis submodule is used to determine the system design optimization fusion depth based on the corresponding parts of the pipeless fire extinguishing system design results information and the preset building design information; The comprehensive analysis submodule is used to integrate the system design timing fusion depth, the system design standard fusion depth and the system design optimization fusion depth to obtain the system fusion depth information.

[0061] Optionally, the adaptive adjustment module includes: A coefficient query submodule is used to query a preset fusion adjustment index based on preset system fusion depth information to obtain a fusion adjustment coefficient; The coefficient adjustment submodule is used to adjust the preset sensor detection threshold according to the fusion adjustment coefficient to obtain an adaptive detection threshold.

[0062] Optional auxiliary linkage modules include: The gap judgment submodule is used to analyze the gap between the adaptability detection threshold and the corresponding specification standard to obtain design gap information if the judgment is yes; The auxiliary equipment analysis submodule is used to determine the corresponding auxiliary equipment based on the design gap information and the design information of the pipeless fire extinguishing system, and generate the auxiliary equipment linkage control information.

[0063] For the specific definition of the control device of the pipeless fire extinguishing system, please refer to the definition of the control method of the pipeless fire extinguishing system above, which will not be repeated here. Each module in the above-mentioned control device of the pipeless fire extinguishing system can be implemented in whole or in part by software, hardware and a combination thereof. The above-mentioned modules can be embedded in or independent of the processor in the computer device in the form of hardware, or can be stored in the memory of the computer device in the form of software, so that the processor can call and execute the operations corresponding to the above modules.

[0064] In one embodiment, a computer device is provided. The computer device may be a server, and its internal structure diagram may be as follows: Figure 7 As shown. The computer device includes a processor, a memory, a network interface and a database connected through a system bus. Among them, the processor of the computer device is used to provide computing and control capabilities. The memory of the computer device includes a non-volatile storage medium and an internal memory. The non-volatile storage medium stores an operating system, a computer program and a database. The internal memory provides an environment for the operation of the operating system and the computer program in the non-volatile storage medium. The database of the computer device is used to store adaptive detection thresholds, auxiliary equipment linkage control information, and detection thresholds used by sensors, etc. The network interface of the computer device is used to communicate with an external terminal through a network connection. When the computer program is executed by the processor, a method for controlling a pipeless fire extinguishing system is implemented.

[0065] In one embodiment, a computer device is provided, including a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor implements the following steps when executing the computer program: Based on the preset system fusion depth information, the preset sensor detection threshold is adjusted to obtain an adaptive detection threshold; determining whether the adaptive detection threshold exceeds a preset specification standard, and if the adaptive detection threshold exceeds a preset specification standard, using the adaptive detection threshold as a detection threshold used by the sensor; If the judgment is yes, then the auxiliary equipment linkage control information is generated according to the adaptability detection threshold and the corresponding specification standard; The auxiliary device linkage control information is used as feedback detection control information, and the adaptive detection threshold is adjusted based on the auxiliary device linkage control information to generate a detection threshold used by the sensor; Monitoring is performed based on the detection threshold used by the sensor.

[0066] In one embodiment, a computer readable storage medium is provided, on which a computer program is stored, and when the computer program is executed by a processor, the following steps are implemented: Based on the preset system fusion depth information, the preset sensor detection threshold is adjusted to obtain an adaptive detection threshold; determining whether the adaptive detection threshold exceeds a preset specification standard, and if the adaptive detection threshold exceeds a preset specification standard, using the adaptive detection threshold as a detection threshold used by the sensor; If the judgment is yes, then the auxiliary equipment linkage control information is generated according to the adaptability detection threshold and the corresponding specification standard; The auxiliary device linkage control information is used as feedback detection control information, and the adaptive detection threshold is adjusted based on the auxiliary device linkage control information to generate a detection threshold used by the sensor; Monitoring is performed based on the detection threshold used by the sensor.

[0067] Those of ordinary skill in the art can understand that all or part of the processes in the above-mentioned embodiment methods can be implemented by instructing the relevant hardware through a computer program, and the computer program can be stored in a non-volatile computer-readable storage medium. When the computer program is executed, it can include the processes of the embodiments of the above-mentioned methods. Among them, any reference to memory, storage, database or other media used in the embodiments provided in this application may include non-volatile and / or volatile memory. Non-volatile memory may include read-only memory (ROM), programmable ROM (PROM), electrically programmable ROM (EPROM), electrically erasable programmable ROM (EEPROM) or flash memory. Volatile memory may include random access memory (RAM) or external cache memory. By way of illustration and not limitation, RAM is available in many forms, such as static RAM (SRAM), dynamic RAM (DRAM), synchronous DRAM (SDRAM), double data rate SDRAM (DDRSDRAM), enhanced SDRAM (ESDRAM), synchronous link (Synchlink) DRAM (SLDRAM), memory bus (Rambus) direct RAM (RDRAM), direct memory bus dynamic RAM (DRDRAM), and memory bus dynamic RAM (RDRAM), etc.

[0068] Those skilled in the art can clearly understand that for the convenience and simplicity of description, only the division of the above-mentioned functional units and modules is used as an example. In actual applications, the above-mentioned functions can be distributed and completed by different functional units and modules as needed, that is, the internal structure of the device can be divided into different functional units or modules to complete all or part of the functions described above.

[0069] The embodiments described above are only used to illustrate the technical solutions of the present application, rather than to limit them. Although the present application has been described in detail with reference to the aforementioned embodiments, a person 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. Such 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 application, and should all be included in the protection scope of the present application.

Claims

1. A method for controlling a pipeless fire extinguishing system, characterized in that: The pipeless fire extinguishing system control method comprises: Based on the preset system fusion depth information, the preset sensor detection threshold is adjusted to obtain an adaptive detection threshold; Determining whether the adaptive detection threshold exceeds a preset standard, and if the adaptive detection threshold exceeds a preset standard, using the adaptive detection threshold as a detection threshold used by the sensor; If the judgment is yes, then generating auxiliary equipment linkage control information according to the adaptability detection threshold and the corresponding specification standard; Using the auxiliary device linkage control information as feedback detection control information, and adjusting the adaptive detection threshold based on the auxiliary device linkage control information to generate a detection threshold used by a sensor; Monitoring is performed based on a detection threshold used by the sensor.

2. The method for controlling a pipeless fire extinguishing system according to claim 1, characterized in that: The system fusion depth information is obtained by: Acquire design information of a pipeless fire extinguishing system, wherein the design information of a pipeless fire extinguishing system includes design time of the pipeless fire extinguishing system, design standard of the pipeless fire extinguishing system, and design achievement information of the pipeless fire extinguishing system; According to the design information of the pipeless fire extinguishing system and in combination with preset building design information, the design fusion depth between the pipeless fire extinguishing system and the building is determined to obtain system fusion depth information.

3. The method for controlling a pipeless fire extinguishing system according to claim 2, characterized in that: The step of determining the design fusion depth between the pipeless fire extinguishing system and the building based on the pipeless fire extinguishing system design information and obtaining the system fusion depth information comprises: Determine the system design timing integration depth according to the design time of the pipeless fire extinguishing system and the corresponding part of the preset building design information; Determine the integration depth of the system design standard according to the corresponding parts of the pipeless fire extinguishing system design standard and the preset building design information; According to the design result information of the pipeless fire extinguishing system and the corresponding parts of the preset building design information, the system design optimization fusion depth is determined; The system design timing fusion depth, the system design standard fusion depth and the system design optimization fusion depth are comprehensively considered to obtain system fusion depth information.

4. The method for controlling a pipeless fire extinguishing system according to claim 1, characterized in that: The method of fusing depth information based on a preset system and adjusting a preset sensor detection threshold to obtain an adaptive detection threshold includes: Based on the preset system fusion depth information, query the preset fusion adjustment index to obtain the fusion adjustment coefficient; According to the fusion adjustment coefficient, the preset sensor detection threshold is adjusted to obtain an adaptive detection threshold.

5. The method for controlling a pipeless fire extinguishing system according to claim 1, characterized in that: If the judgment is yes, then generating auxiliary device linkage control information according to the adaptability detection threshold and the corresponding specification standard, including: If the judgment is yes, then analyzing the gap between the adaptability detection threshold and the corresponding specification standard to obtain design gap information; According to the design gap information, combined with the design information of the pipeless fire extinguishing system, the corresponding auxiliary equipment is determined, and the auxiliary equipment linkage control information is generated.

6. A pipeless fire extinguishing system control device, characterized in that: The pipeless fire extinguishing system control device comprises: An adaptive adjustment module, used for adjusting a preset sensor detection threshold based on preset system fusion depth information to obtain an adaptive detection threshold; A standard judgment module, used to judge whether the adaptive detection threshold exceeds a preset standard, and if it is judged to be negative, use the adaptive detection threshold as the detection threshold used by the sensor; an auxiliary linkage module, for generating auxiliary device linkage control information according to the adaptability detection threshold and corresponding specification standards if the judgment is yes; A feedback adjustment module, configured to use the auxiliary device linkage control information as feedback detection control information, and adjust the adaptive detection threshold based on the auxiliary device linkage control information to generate a detection threshold used by the sensor; A monitoring module is used for monitoring based on a detection threshold used by the sensor.

7. The pipeless fire extinguishing system control device according to claim 6, characterized in that: The pipeless fire extinguishing system control device also includes: A design acquisition module is used to acquire design information of a pipeless fire extinguishing system, wherein the design information of the pipeless fire extinguishing system includes design time of the pipeless fire extinguishing system, design standard of the pipeless fire extinguishing system and design achievement information of the pipeless fire extinguishing system; The fusion depth analysis module is used to determine the design fusion depth between the pipeless fire extinguishing system and the building based on the design information of the pipeless fire extinguishing system and the preset building design information, and obtain the system fusion depth information.

8. The pipeless fire extinguishing system control device according to claim 6, characterized in that: The fusion depth analysis module includes: A timing fusion analysis submodule, for determining the timing fusion depth of the system design according to the design time of the pipeless fire extinguishing system and the corresponding part of the preset building design information; A standard fusion analysis submodule, used to determine the fusion depth of the system design standard according to the corresponding parts of the pipeless fire extinguishing system design standard and the preset building design information; The optimization fusion analysis submodule is used to determine the system design optimization fusion depth according to the corresponding parts of the pipeless fire extinguishing system design result information and the preset building design information; The comprehensive analysis submodule is used to comprehensively analyze the system design opportunity fusion depth, the system design standard fusion depth and the system design optimization fusion depth to obtain system fusion depth information.

9. A computer device comprising a memory, a processor, and a computer program stored in the memory and executable on the processor, characterized in that: When the processor executes the computer program, the steps of the pipeless fire extinguishing system control method as described in any one of claims 1 to 5 are implemented.

10. A computer-readable storage medium storing a computer program, characterized in that: When the computer program is executed by a processor, the steps of the pipeless fire extinguishing system control method according to any one of claims 1 to 5 are implemented.

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