Dry-type reactor fire extinguishing complete equipment
Through the integration of the intelligent inspection host and the chemical injection device, remote control and efficient fire extinguishing of dry-type reactors are achieved, solving the problems of personnel safety and chemical environmental protection in reactor fires, and improving the stability of the power grid and operation and maintenance efficiency.
Patent Information
- Application Number
- CN202511123721.6
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-08-12
- Publication Date
- 2025-10-10
AI Technical Summary
Existing reactors lack dedicated fire-fighting sets, which results in fire risks for personnel after a fire occurs. In addition, existing agents pose environmental, equipment damage, and insulation risks when used in reactors.
A complete set of dry-type reactor fire extinguishing equipment was designed, which adopts an intelligent inspection host, an area control unit and a chemical injection and delivery device to achieve remote control and efficient fire extinguishing. Perfluorohexanone chemical is used, and the reactor structure is precisely covered through a specific sprinkler head structure.
It achieves efficient and safe fire extinguishing of reactor fires, prevents personnel from approaching high-risk areas, improves grid operation stability and operation and maintenance efficiency, and reduces environmental and insulation risks.
Smart Images

Figure CN120754483A_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The present application belongs to the technical field of dry-type reactor fire extinguishing, and particularly relates to a dry-type reactor fire extinguishing complete device. BACKGROUND
[0002] In the power system, the reactor has a wide application and is a key device for improving the power factor, adjusting the voltage and compensating the reactive power in the power grid. With the rapid development of the smart grid, wind power, photovoltaic and other new energy fields, the substation is gradually increasing, the demand for the reactor is increasing, and the reactor fire accidents are also increasing. How to quickly extinguish the fire after the reactor catches fire has become an urgent problem to be solved.
[0003] The existing reactor does not have a dedicated fire extinguishing complete device. After the fire, the operating personnel or the firemen use the manual method to spray the dry powder extinguishing agent or the water foam extinguishing agent. In the fire extinguishing process, the personnel face the fire risk and other personal safety risks. At present, there is a micro new fire extinguishing complete device specially used for the distribution box and the cabinet. This kind of device has a small size and can only be applied in the unattended, fire hazard existing and relatively closed small cavity type electrical cabinet. The research on the fire extinguishing complete device for the outdoor reactor, which is a large primary power equipment, is still relatively insufficient. Based on the above problems, a new dry-type reactor fire extinguishing complete device is needed. SUMMARY
[0004] The purpose of the present application is to overcome the deficiencies of the prior art and provide a dry-type reactor fire extinguishing complete device. The device uses intelligent spraying control and remote control, can achieve early fire extinguishing, efficient suppression, realizes the purpose of quickly extinguishing the reactor, and solves the problems in the background technology.
[0005] The purpose of the present application is achieved by a dry-type reactor fire extinguishing complete device, which comprises: an intelligent inspection host, which is used for communicating with an external intelligent auxiliary control system, monitoring the running state of a fire extinguishing complete assembly in real time, and executing a remote start instruction; a regional control unit connected with the intelligent inspection host, configured to receive a start signal and output a control instruction to a controller of the fire extinguishing complete assembly; the controller of the fire extinguishing complete assembly is connected with the regional control unit and triggers a fire extinguisher when receiving the control instruction; a medicament spraying and conveying device for conveying the fire extinguishing agent of the fire extinguisher to the fire location of the reactor after the fire extinguisher is triggered.
[0006] By integrating the intelligent inspection host: remote communication, state monitoring, instruction execution, regional control unit signal receiving and forwarding, fire extinguishing complete set controller power signal excitation, and specific agent injection delivery device, a fire extinguishing device dedicated to dry-type reactors is formed, which supports remote operation. The core idea is to realize efficient, safe (remote to avoid personnel close to high-risk areas), and partitioned management of automatic / semi-automatic fire extinguishing of the reactor fire through this hierarchical control architecture. It greatly improves the stability of the power grid, improves the operation and maintenance efficiency, and enhances the safety of operation and inspection personnel and equipment.
[0007] Further, the regional control unit includes a partition control mode, a manual mode, and an automatic mode; the partition control mode is used to start a single or multiple fire extinguishing complete sets individually or simultaneously; in the manual mode, state detection is used; and in the automatic mode, a remote start signal is received. Through the setting of the partition control mode, it allows flexible selection of starting a single or multiple fire extinguishing devices ("partitioning") according to the fire situation, providing more fine control capabilities and the possibility of resource optimization configuration, and solving the problems of dry-type reactor (possibly multiple or large area) fire location and efficient response coverage.
[0008] Further, the fire extinguishing agent is perfluorohexanone. By using perfluorohexanone as the fire extinguishing agent, it has the comprehensive advantages of environmental protection (no greenhouse effect, ODP=0), non-toxic (relatively safe), good insulation, no residue, high-efficiency fire extinguishing, etc., and is very suitable for dry-type reactor fire scenarios in transformer substations with high voltage, precision equipment, and personnel who may need to approach or be located indoors. It solves the problems of environmental protection, equipment damage, and insulation risk of existing agents (such as water, dry powder, and some gases) in the application of reactors.
[0009] Further, the intelligent inspection host includes a pressure acquisition module for real-time monitoring of the pressure state of the fire extinguisher and triggering an alarm when the pressure is below a set threshold. Through real-time pressure acquisition and pressure loss alarm functions, the reliability of the fire extinguishing device itself is ensured (pressure is a key parameter for normal storage and effective injection of the agent). When the pressure is insufficient (indicating possible leakage or insufficient agent), an alarm can be triggered in time, allowing maintenance personnel to perform maintenance before a fire occurs, greatly solving the "invisible" failure risk problem (i.e., the device itself cannot work normally at critical moments) of existing fire extinguishing systems, and improving the reliability and safety of the system.
[0010] Furthermore, the fire extinguishing system's controller includes a solenoid valve activation device, which is used to trigger the fire extinguisher in the high electromagnetic environment of the substation. Designed specifically for the harsh, high electromagnetic environment of the substation, this solenoid valve activation device serves as a key actuator in the controller. This solves the problem of conventional electronic triggering devices failing or malfunctioning under strong electromagnetic interference, ensuring that the fire extinguisher can be reliably triggered when needed most.
[0011] Furthermore, the agent injection and delivery device includes a frame, a movable seat is fixedly connected to the bottom of the frame, a telescopic assembly extending in the vertical direction is connected to the middle position of the upper surface of the movable seat, the upper end of the telescopic assembly is connected to a rotating seat, a plurality of spray pipes are fixedly provided on the upper surface of the rotating seat, and a plurality of spray heads are connected to the spray pipes. A delivery device structure with an adjustable (lifting + rotating) spray assembly is provided. The movable seat provides basic positioning, the telescopic assembly (which can be a hydraulic cylinder, electric push rod, etc.) realizes height adjustment, and the rotating seat realizes direction adjustment. This structure enables the spray head to accurately align with and effectively cover the complex, multi-layered honeycomb winding structure of the dry-type reactor, solving the problem of effective penetration and uniform coverage of the agent in the narrow winding gap.
[0012] Furthermore, the sprinkler head includes multiple wide-angle nozzles and multiple oblique-angle nozzles, evenly spaced and spaced apart. The oblique-angle nozzles are tilted at a 65° angle. This specific combination of wide-angle and oblique-angle nozzles combines the advantages of wide-angle coverage over large areas with the advantages of oblique angle penetration into narrow gaps (aligned with winding gaps). The 65° tilt angle, a targeted angle selected through practical application, optimizes the spray coverage efficiency and deep penetration of the agent within the complex reactor structure, ensuring comprehensive firefighting.
[0013] Furthermore, the spray pipe includes a central coil, which is connected to a plurality of extension tubes arranged at equal intervals along its circumference. The outer ends of the extension tubes are connected to an arc-shaped outer tube, and the spray head is mounted on the arc-shaped outer tube. By configuring a specific spray pipe structure, the central coil connects the radial extension tubes and the arc-shaped outer tube. This structure facilitates surrounding the dry-type reactor cylinder. It can be a cylindrical or prismatic structure arranged in an annular or arc shape. This allows the spray head mounted on the arc-shaped outer tube to form an enveloping, three-dimensional spray surface, improving the uniformity and efficiency of the surrounding coverage of the reactor by the agent.
[0014] Further, the intelligent inspection host machine is electrically connected with a real-time state display module, and the real-time state display module is used for visual display of the distributed position and pressure data of the fire extinguishing complete set. Through the real-time state display module, the distributed position and pressure data are visualized, which not only facilitates the operation and maintenance personnel to intuitively master the deployment state position of all fire extinguishing devices, but more importantly, can monitor the key parameter pressure in real time, provides instant and clear data support for decision-making whether to repair, where the fire alarm is started, etc., and improves the manageability and operation and maintenance efficiency of the system.
[0015] A method for using the above dry reactor fire extinguishing complete set, comprising the steps of: the operator remotely sends an instruction signal to the intelligent inspection host machine, the intelligent inspection host machine receives the remote start instruction, and sends the start instruction to the regional control unit, the regional control unit generates a partition control signal according to the instruction, and outputs a control instruction to the controller of the fire extinguishing complete set, the controller of the fire extinguishing complete set outputs 24V power to trigger the fire extinguisher, after the fire extinguisher is triggered, the medicament spraying and conveying device drives the frame and the fire extinguisher to move through the moving seat, and moves the perfluorohexanone medicament to the fire position, sprays the perfluorohexanone through the spray head, realizes the rapid fire extinguishing of the reactor, protects the safety of the operator, and greatly improves the safety. The medicament spraying and conveying device automatically adjusts the spraying direction and height by using PLC control during the perfluorohexanone medicament conveying process.
[0016] The application has the following advantages: by integrating the intelligent inspection host machine remote communication, state monitoring, instruction execution, regional control unit signal receiving and forwarding, fire extinguishing complete set controller power signal triggering, and specific medicament spraying and conveying device, a fire extinguishing device special for dry reactors is formed, which supports remote operation. The automatic / semi-automatic fire extinguishing of the reactor can be realized in an efficient, safe (remote operation avoids personnel approaching high-risk areas) and partitioned manner. The operation stability of the power grid is greatly improved, the operation and maintenance efficiency is improved, and the safety of the operation and inspection personnel and equipment is improved. By using perfluorohexanone as the fire extinguishing medicament, the comprehensive advantages of environmental protection, no greenhouse effect, non-toxicity, good insulation, no residue, high efficiency, etc. are achieved, which is very suitable for the dry reactor fire extinguishing scene of the substation with high voltage, precision equipment and personnel who may need to approach or be located in an indoor environment. The problems of environmental protection, equipment damage and insulation risk of existing medicaments (such as water, dry powder and some gases) in the application of reactors are solved.
[0017] By setting up a conveying device structure with an adjustable lifting and rotating spray component, the mobile seat provides basic positioning, the telescopic component can be a hydraulic cylinder, an electric push rod, etc. for achieving height adjustment, and the rotating seat achieves direction adjustment. This structure enables the spray head to accurately align with and effectively cover the complex, multi-layered honeycomb winding structure of the dry-type reactor, solving the problem of effective penetration and uniform coverage of the agent in the narrow winding gap. By setting up a specific spray pipe structure, the central coil connects the radial extension tube and the arc-shaped outer tube. This structure is conducive to surrounding the dry-type reactor column. It can be a cylindrical or prismatic structure for an annular or arc-shaped arrangement, so that the spray head set on the arc-shaped outer tube can form an enveloping, three-dimensional spray surface, improving the uniformity and efficiency of the agent's surrounding coverage of the reactor as a whole. BRIEF DESCRIPTION OF THE DRAWINGS
[0018] Figure 1 is a schematic diagram of the present invention; Figure 2 It is a schematic diagram of the frame structure of the present invention; Figure 3 The present invention Figure 2 A in the middle is an enlarged view.
[0019] In the figure: 1 frame, 2 movable base, 3 telescopic assembly, 4 rotating base, 5 intermediate coil, 6 extension pipe, 7 curved outer pipe, 8 wide-angle nozzle, 9 angled nozzle. DETAILED DESCRIPTION
[0020] The present invention will be further described in detail below with reference to the accompanying drawings. It should be pointed out that all directional words such as up, down, front, back, left, and right appearing in the present invention do not limit the present invention, but are only for the purpose of more clearly illustrating and explaining the present invention. Example 1
[0021] like Figures 1-3 As shown, this embodiment discloses a dry-type reactor fire extinguishing device, which includes: an intelligent inspection host, which is used to communicate with an external intelligent auxiliary control system, monitor the operating status of the fire extinguishing device in real time, and execute remote start instructions; a regional control unit, which is connected to the intelligent inspection host and configured to receive a start signal and output a control instruction to the controller of the fire extinguishing device; the controller of the fire extinguishing device is connected to the regional control unit and activates the fire extinguisher when receiving the control instruction; and an agent injection and delivery device, which is used to deliver the fire extinguishing agent of the fire extinguisher to the fire location of the reactor after the fire extinguisher is activated.
[0022] By integrating the intelligent inspection host remote communication, state monitoring, instruction execution, regional control unit signal receiving and forwarding, fire extinguishing complete set controller power signal excitation, and specific agent injection and delivery device, a fire extinguishing device dedicated to dry-type electric reactors is formed, which supports remote operation. The core idea is to realize efficient, safe (remote to avoid personnel close to high-risk areas), and zoned management of automatic / semi-automatic fire extinguishing of electric reactor fires through this hierarchical control architecture. This greatly improves the stability of the power grid, improves the operation and maintenance efficiency, and enhances the safety of operation and inspection personnel and equipment. Embodiment 2
[0023] As shown in Figures 1-3 The embodiment discloses a dry-type electric reactor fire extinguishing complete device, which comprises an intelligent inspection host configured to communicate with an external intelligent auxiliary control system, monitor the running state of the fire extinguishing complete set in real time, and execute a remote start instruction; a regional control unit connected with the intelligent inspection host and configured to receive a start signal and output a control instruction to a controller of the fire extinguishing complete set; and a controller of the fire extinguishing complete set connected with the regional control unit and configured to excite a fire extinguisher upon receiving the control instruction; and an agent injection and delivery device configured to deliver fire extinguishing agent of the fire extinguisher to a fire location of the electric reactor after the fire extinguisher is excited.
[0024] By integrating the intelligent inspection host remote communication, state monitoring, instruction execution, regional control unit signal receiving and forwarding, fire extinguishing complete set controller power signal excitation, and specific agent injection and delivery device, a fire extinguishing device dedicated to dry-type electric reactors is formed, which supports remote operation. The core idea is to realize efficient, safe (remote to avoid personnel close to high-risk areas), and zoned management of automatic / semi-automatic fire extinguishing of electric reactor fires through this hierarchical control architecture. This greatly improves the stability of the power grid, improves the operation and maintenance efficiency, and enhances the safety of operation and inspection personnel and equipment.
[0025] For better effect, the regional control unit comprises a zoned control mode, a manual mode, and an automatic mode; the zoned control mode is configured to start a single or multiple fire extinguishing complete sets individually or simultaneously; in the manual mode, state detection is performed; and in the automatic mode, a remote start signal is received. Through the setting of the zoned control mode, it allows flexible selection of starting a single or multiple fire extinguishing devices ("zoned") according to the fire, providing more fine control capability and the possibility of resource optimization configuration, and solving the problem of fire location positioning and efficient response coverage of dry-type electric reactors (which may have multiple or large areas).
[0026] In order to better effect, the fire extinguishing agent is perfluorohexanone, by using perfluorohexanone as the fire extinguishing agent, has the comprehensive advantages of environmental protection (no greenhouse effect, ODP=0), non-toxic (relatively safe), good insulation, no residue, high efficiency of fire extinguishing, etc. It is very suitable for the fire scene of the dry-type reactor of the substation with high voltage, precise equipment and personnel who may need to approach or be located in the indoor environment. The problems of environmental protection, equipment damage and insulation risk of the existing agents (such as water, dry powder and part of gas) in the application of the reactor are solved.
[0027] In order to better effect, the intelligent inspection host includes a pressure acquisition module, which is used to monitor the pressure state of the fire extinguisher in real time and trigger an alarm when the pressure is lower than a set threshold. Through real-time pressure acquisition and pressure loss alarm function, the reliability of the fire extinguishing device itself is ensured (pressure is the key parameter of normal storage and effective injection of the agent). When the pressure is insufficient (indicating possible leakage or insufficient agent), timely alarm can be made, so that the maintenance personnel can maintain before the fire occurs, greatly solving the "invisible" failure risk problem of the existing fire extinguishing system (i.e. the device itself cannot work normally at the critical moment), and improving the reliability and safety of the system.
[0028] In order to better effect, the controller of the fire extinguishing complete set includes an electromagnetic valve excitation device, which is used to trigger the fire extinguisher in the high electromagnetic environment of the substation. In view of the special harsh working condition of the high electromagnetic environment of the substation, a special electromagnetic valve excitation device is designed as the key executive component of the controller. The problem that the conventional electronic trigger device may fail or malfunction under strong electromagnetic interference is solved, and it is ensured that the fire extinguisher can be reliably triggered when it is most needed.
[0029] In order to better effect, the agent injection and delivery device includes a frame body 1, a movable seat 2 is fixedly connected and arranged at the bottom of the frame body 1, a telescopic assembly 3 extending in the up-down direction is connected and arranged at the middle position of the upper surface of the movable seat 2, a rotating seat 4 is connected to the upper end of the telescopic assembly 3, a plurality of spray pipes are fixedly arranged on the upper surface of the rotating seat 4, and a plurality of spray heads are communicated with the spray pipes. By setting the delivery device structure with adjustable (lifting + rotating) spray assembly. The movable seat 2 provides basic positioning, the telescopic assembly 3 (which can be a hydraulic cylinder, an electric push rod, etc.) realizes height adjustment, and the rotating seat 4 realizes direction adjustment. This structure enables the spray head to accurately aim at and effectively cover the complex, multi-level honeycomb winding structure of the dry-type reactor, solving the problem of effective penetration and uniform coverage of the agent in the narrow winding gap.
[0030] For optimal effectiveness, the sprinkler head includes multiple wide-angle nozzles 8 and multiple angled nozzles 9, evenly spaced and spaced apart. The angled nozzles 9 are tilted at a 65° angle. This specific combination of wide-angle and angled nozzles 9 combines the advantages of wide-angle coverage over large areas with the advantages of angled penetration into narrow gaps (aligned with winding gaps). The 65° tilt angle, a targeted angle selected through practical application, optimizes the spray coverage efficiency and deep penetration of the agent within the complex reactor structure, ensuring comprehensive firefighting.
[0031] For better results, the spray pipe includes a central coil 5, which is connected to a plurality of extension tubes 6 arranged at equal intervals along its circumference. The outer ends of the extension tubes 6 are connected to an arc-shaped peripheral tube 7, and the spray head is arranged on the arc-shaped peripheral tube 7. By setting a specific spray pipe structure, the central coil connects the radial extension tubes 6 and the arc-shaped peripheral tube 7. This structure is conducive to surrounding the dry-type reactor column. It can be a cylindrical or prismatic structure with an annular or arc-shaped arrangement. The spray head set on the arc-shaped peripheral tube 7 can form an enveloping, three-dimensional spray surface, improving the uniformity and efficiency of the surrounding coverage of the reactor as a whole by the agent.
[0032] For optimal effectiveness, the intelligent inspection host is electrically connected to a real-time status display module, which visualizes the location and pressure data of the fire extinguishing system components. This visual display not only allows maintenance personnel to intuitively understand the deployment status and location of all fire extinguishing devices, but more importantly, it monitors key parameters and pressures in real time, providing immediate and clear data support for decision-making regarding maintenance needs and fire alarm activation, thereby improving system manageability and operational efficiency.
[0033] A method for using the above-mentioned dry-type reactor fire extinguishing device comprises the following steps: a user remotely sends a command signal to an intelligent inspection host, the intelligent inspection host receives the remote start command and sends the start command to a regional control unit, the regional control unit generates a partition control signal based on the command and outputs the control command to the controller of the fire extinguishing device, the controller of the fire extinguishing device outputs a 24V power supply to activate the fire extinguisher, after the fire extinguisher is activated, the agent spraying and conveying device drives the frame 1 and the fire extinguisher to move via the movable seat 2, transfers the perfluorohexanone agent to the fire location, and sprays the perfluorohexanone through the sprinkler head, thereby achieving rapid fire extinguishing of the reactor, protecting the safety of the operator, and greatly improving safety. During the perfluorohexanone agent delivery process, the agent spraying and conveying device uses a PLC control to automatically adjust the spray direction and height.
[0034] The above merely describes preferred embodiments of the present application, but the protection scope of the present application is not limited thereto, and any person skilled in the art can make equivalent substitutions or changes within the technical scope disclosed by the present application and according to the technical solutions and concepts of the present application, which should be covered within the protection scope of the present application.
Claims
1. A dry-type reactor fire extinguishing device, characterized in that: include: Intelligent inspection host, used to communicate with the external intelligent auxiliary control system, monitor the operating status of the fire extinguishing kit in real time, and execute remote start commands; an area control unit connected to the intelligent inspection host and configured to receive a start signal and output a control instruction to the controller of the fire extinguishing assembly; A controller of the fire extinguishing assembly is connected to the regional control unit and activates the fire extinguisher upon receiving a control command; The agent spraying and conveying device is used to convey the fire extinguishing agent of the fire extinguisher to the fire position of the reactor after the fire extinguisher is activated.
2. The dry-type reactor fire extinguishing device according to claim 1, characterized in that: The area control unit includes a partition control mode, a manual mode and an automatic mode; the partition control mode is used to start a single or multiple fire extinguishing sets individually or simultaneously; in the manual mode, it is used for status detection; in the automatic mode, it is used to receive a remote start signal.
3. The dry-type reactor fire extinguishing device according to claim 1, characterized in that: The fire extinguishing agent is perfluorohexanone.
4. The dry-type reactor fire extinguishing device according to claim 1, characterized in that: The intelligent inspection host includes a pressure acquisition module, which is used to monitor the pressure status of the fire extinguisher in real time and trigger an alarm when the pressure is lower than a set threshold.
5. The dry-type reactor fire extinguishing device according to claim 1, characterized in that: The controller of the fire extinguishing assembly includes a solenoid valve excitation device, which is used to trigger the fire extinguisher when in a high electromagnetic environment of the substation.
6. The dry-type reactor fire extinguishing device according to claim 1, characterized in that: The drug injection and delivery device includes a frame, a movable seat is fixedly connected to the bottom of the frame, a telescopic component extending in the up and down directions is connected to the middle position of the upper surface of the movable seat, the upper end of the telescopic component is connected to a rotating seat, and a plurality of spray pipes are fixedly provided on the upper surface of the rotating seat, and the spray pipes are connected to a plurality of spray heads.
7. The dry-type reactor fire extinguishing device according to claim 6, characterized in that: The spray heads include a plurality of wide-angle spray heads and a plurality of oblique-angle spray heads, and the plurality of wide-angle spray heads and the plurality of oblique-angle spray heads are evenly spaced and distributed, and the inclination angle of the oblique-angle spray heads is 65°.
8. The dry-type reactor fire extinguishing device according to claim 6, characterized in that: The spray pipe includes a middle coil, which is connected to a plurality of extension pipes arranged at equal intervals along its circumference. The outer ends of the extension pipes are connected to an arc-shaped peripheral pipe, and the spray head is arranged on the arc-shaped peripheral pipe.
9. The dry-type reactor fire extinguishing device according to claim 1, characterized in that: The intelligent inspection host is electrically connected to a real-time status display module, and the real-time status display module is used to visually display the distribution position and pressure data of the fire extinguishing set components.
10. A method for using the dry-type reactor fire extinguishing device according to claim 1, characterized in that: Including steps: Receive remote start instructions through the intelligent inspection host; The regional control unit generates a partition control signal according to the instruction; The controller of the fire extinguishing kit outputs 24V power to excite the fire extinguisher; The agent spraying and conveying device conveys the perfluorohexanone agent to the fire location. During the perfluorohexanone agent conveying process, the agent spraying and conveying device adopts PLC control to automatically adjust the spraying direction and height.