KR20220093791A - A fire extinguishing pump management system and the management method thereof - Google Patents

Abstract

The present invention relates to a fire pump management system and a management method therefor, and more particularly, to a fire pump management system and a control method therefor that can periodically check the presence or absence of an abnormality of a fire pump and parts of the pump through various modes of operation it's about
The present invention provides a pump module, a main pipe connected to the pump module; at least one branch pipe connected to the main pipe; a bypass pipe connected to the main pipe; a sprinkler installed in the branch pipe; bypass; In the fire pump management system applied to a firefighting equipment system having a test valve installed in a pipe, the fire pump management system is communicatively connected to a pump module, a test valve, and a sensor unit installed in a main pipe and a branch pipe It operates in monitoring mode to monitor and analyze the status of the pump module and parts of the pump module when water is sprayed by a sprinkler, and monitors and analyzes the status of the pump module and parts of the pump module when water is supplied to the bypass pipe It provides a fire pump management system and its control method, characterized in that it operates in a test mode for

Description

A fire extinguishing pump management system and its management method { A fire extinguishing pump management system and the management method thereof}

The present invention relates to a fire pump management system and a management method therefor, and more particularly, to a fire pump management system and a control method therefor that can periodically check the presence or absence of an abnormality of a fire pump and parts of the pump through various modes of operation it's about

In general, there are various types of fire suppression equipment, but it is known that firefighting equipment using fire water is the most economical and effective in extinguishing most general fires, except for oil fires, electric fires, and other special environments.

Firefighting equipment using fire water requires a device that receives fire water from a water tank or water supply pipe and ejects it from the spraying part. A pump is a device that applies mechanical energy obtained from a driving device such as an electric motor or an internal combustion engine to a liquid or gas and transports the liquid or gas through a pipe to a high place or a long distance or at a high speed. In particular, a pump for firefighting has been developed and developed in a structure that transports firefighting water or a fire extinguishing agent such as a halogen compound through a fire hose of a fire engine or a fire pipe of a building so that it can be ejected at a constant pressure from a nozzle.

Centrifugal pumps such as volute pumps and turbine pumps are mainly used as fire pumps. vertical height), the flow rate and pumping pressure that can be supplied from the inlet pipe, and it should be appropriately designed according to the pipe.

However, although the fire hazard of a building is great, it is rare that a fire actually occurs. Therefore, a fire pump designed taking these various factors into account is actually never used or used once or twice during the useful life of the building, which is several decades. It is highly likely that they will only be used sequentially.

No one can guarantee that a fire pump installation that has been on standby for so long will perform as designed in a real fire situation. Not only the fire pump itself, but also the driving device such as the motor that drives the fire pump cannot be guaranteed to operate in an emergency if it does not operate for a long time.

In order to check whether the fire pump equipment actually works, it is necessary to test the operation. Unlike other fire equipment such as smoke control equipment and disaster prevention shutters, unless the personnel inside the building are introduced and the furniture is removed, the fire pump or sprinkler is practically used. It is practically impossible to test the operation with In the case of halogen fire extinguishing equipment for electric fires, operation tests are often not performed because the extinguishing fluid is harmful to the human body and the extinguishing agent is very expensive.

For these practical reasons, only a formal inspection is performed during the fire inspection by the authorities, and regular equipment replacement should be performed instead of an operation test.

In consideration of this point, Korean Patent Laid-Open No. 2016-0070963 discloses an automatic pump control system using a fire tank pressure.

The posted automatic pump control system includes: a fire-fighting pressure tank equipped with a sensor unit for detecting internal pressure on the outer surface; a fire pump including a main pump and an auxiliary pump each individually drivable; and a main control panel for controlling driving of the fire pump based on the pressure value and displaying a driving state of the fire pump.

And the main control panel drives the main pump and the auxiliary pump in an alternating or sequential manner by setting the pressure of the fire-fighting pressure tank.

Since the conventional system has a structure to prevent sticking by detecting the pressure tank pressure or the water level in the water collecting tank, the pump is not driven when the pressure is maintained for a long time or the water level in the water collecting tank is not lowered. Therefore, it is not possible to fundamentally solve the problem of sticking of the pump due to not using it for a long time.

The sticking of these pumps has a problem in that firefighting equipment installed in buildings to suppress fires becomes useless because fire water cannot be pumped in a timely manner in the event of a fire.

In order to solve this problem, Korean Patent Application Laid-Open No. 10-2011-013948 or Korean Patent Registration No. 10-1937330 discloses a technique for preventing the pump from sticking and monitoring the operation of the pump.

However, in the case of Korean Patent Laid-Open Patent No. 10-2011-013948, since only the pump operates without considering the overall state of the fire extinguishing facility in which the pump is installed, if the pump does not operate normally due to a complex cause, there was a problem that the proper cause could not be found. , Korean Patent Registration No. 10-1937330 also had a problem in that it did not determine whether the pump was abnormal by interlocking the pump with a component that should be operated when an actual fire occurred, such as a sprinkler.

The present invention has been prepared to solve this problem, and, instead of managing only the pump itself in isolation, it is linked with the operation of the overall components of the firefighting equipment connected to the pump and integrated including whether there is an abnormality in the operation of the pump or whether there is an abnormality in parts It aims to provide a fire pump management system that can be managed effectively.

The present invention for achieving this object, A pump module, a main pipe connected to the pump module; At least one branch pipe connected to the main pipe; A bypass pipe connected to the main pipe; Installation in the branch pipe In the fire pump management system applied to the fire fighting equipment system having a test valve installed in the bypass pipe and a sprinkler being

The fire pump management system is communicatively connected to the pump module, the test valve, and the sensor unit installed in the main pipe and branch pipe during monitoring mode operation, so that when water is sprayed by a sprinkler, the state of the pump module and the state of the parts of the pump module provides a fire pump management system, characterized in that it monitors and analyzes the state of the pump module and the state of parts of the pump module when water is supplied to the bypass pipe during test mode operation.

The fire pump management system includes a communication unit for transmitting and receiving information;

a monitoring unit for motoring the operating state of the pump module and the state of parts in the monitoring mode or the test mode; a period management unit for managing the period of the monitoring mode or the test mode; A preventive information management unit that detects replacement or repair of parts in advance and provides information on it based on replacement information or lifespan information on parts of the pump module; Data on normal operation of various firefighting equipment including the pump module an operation unit that compares and calculates data obtained in the case of an actual operation; An analysis unit that analyzes and provides a result when an abnormal pressure or flow rate occurs in the monitoring mode or the test mode, and a DB unit that stores information about a history according to the operation in the monitoring mode or the test mode; It is characterized in that it includes a control unit for controlling them.

The analysis unit categorizes the causes of failures or errors predicted by comparing the hydraulic pressure information or flow rate information or power information with information managed by the DB unit or information provided from the outside into mechanical causes, hydraulic causes, electrical causes, and electronic causes, , it is characterized in that it provides a difference between the normal information and the detected abnormal information.

The calculation unit is characterized in that it provides data so as to predict a failure or error of the pump module using a density-based clustering technique based on at least one of flow rate information, water pressure information, or history information.

In addition, the present invention includes a pump module and a main pipe connected to the pump module; at least one branch pipe connected to the main pipe; a bypass pipe connected to the main pipe; a sprinkler installed in the branch pipe; and a fire pump management applied to a fire fighting system having a test valve installed in the bypass pipe In the system management method, the fire pump management system operates in a monitoring mode or a test mode, but operates the pump module to spray water by a sprinkler when the monitoring mode is operated, and the state of the pump module and the state of the parts of the pump module monitoring and analyzing, operating the pump module to supply water to the bypass pipe during test mode operation, and monitoring and analyzing the state of the pump module and the state of parts of the pump module It provides a management method of the fire pump management system.

opening a branch pipe valve during monitoring mode operation; closing around a sprinkler or hydrant; operating the pump module; collecting pump module and firefighting equipment information; Analyzing the failure or error or abnormal state of the pump module and firefighting equipment based on the collected information and providing the result.

opening a bypass pipe valve and operating a pump module during test mode operation; collecting pump module information; and analyzing the failure or error or abnormal state of the pump module based on the collected information and providing the result.

The collected information is characterized in that it is processed and provided to predict a failure, error, or abnormal state using a density-based clustering technique.

According to the present invention, there is an advantage in that it is possible to prevent the fire pump module from sticking due to non-use for a long period of time.

And, according to the importance of inspection, the test mode, which tests only the pump module, and the monitoring mode, which can inspect not only the pump module but also other firefighting equipment (eg sprinklers, fire hydrants) There is also the advantage of being able to secure it.

In addition, by predicting failures or errors in advance using the data acquired while operating the fire pump module periodically or frequently, and performing inspections, replacements, or repairs in advance, failures or errors actually occur and the pump module cannot be used when necessary. You can avoid possible problems in advance.

It is possible to analyze aging according to aging through major performance comparison analysis, so that it is possible to respond more flexibly, away from the response according to the replacement/repair cycle of uniform parts or fire pumps.

On the other hand, there is an advantage that the fire pump module can be easily tested without degrading the usability of the building by using the bypass pipe.

In addition, by connecting the fire pump management system to the private cloud, information is shared with an external BMS or public institution server so that maintenance activities for not only the fire pump module of the building but also other fire fighting facilities can be performed three-dimensionally. It has the advantage of being able to

1 is a schematic diagram of a fire pump management system according to the present invention;
2 is a schematic diagram illustrating a structure in which the fire pump management system according to the present invention is connected to the outside through a private cloud.
3 and 4 show various visual information displayed on the manager's terminal according to the fire pump management system according to the present invention.
5 is a flowchart of a control method of a fire pump management system according to the present invention.

Since the present invention may have various changes and may have various embodiments, specific embodiments will be illustrated and described in the drawings.

However, this is not intended to limit the present invention to specific embodiments, and it should be understood to include all modifications, equivalents and substitutes included in the spirit and scope of the present invention.

Terms including an ordinal number, such as first, second, etc., may be used to describe various elements, but the elements are not limited by the terms.

The above terms are used only for the purpose of distinguishing one component from another.

For example, without departing from the scope of the present invention, the second component may be referred to as the first component, and similarly, the first component may also be referred to as the second component.

and/or includes a combination of a plurality of related listed items or any of a plurality of related listed items.

When an element is referred to as being “connected” or “connected” to another element, it is understood that it may be directly connected or connected to the other element, but other elements may exist in between. it should be

On the other hand, when it is said that a certain element is "directly connected" or "directly connected" to another element, it should be understood that the other element does not exist in the middle.

The terms used in the present application are only used to describe specific embodiments, and are not intended to limit the present invention.

The singular expression includes the plural expression unless the context clearly dictates otherwise.

In the present application, terms such as “comprise” or “have” are intended to designate that a feature, number, step, operation, component, part, or combination thereof described in the specification exists, but one or more other features It should be understood that this does not preclude the existence or addition of numbers, steps, operations, components, parts, or combinations thereof.

Hereinafter, the embodiment will be described in detail with reference to the accompanying drawings, but the same or corresponding components are given the same reference numerals regardless of reference numerals, and overlapping descriptions thereof will be omitted.

As shown in Fig. 1, looking at the structure of a firefighting facility to which the firefighting pump management system 1 according to the present invention is applied, the water tank 10 installed on the basement and/or roof of the building, and water from the water tank The pump module 200, the sprinkler 21 and the fire hydrant 22 for spraying water in an emergency in the space provided on each floor connected to the pump module 200 are provided.

The water tank 10 and the pump module 200 are connected by an inlet pipe 31 , a main pipe 32 is provided at the outlet of the pump module 200 , and a plurality of branch pipes 33 are provided in the main pipe 32 . ) is connected. The branch pipe 33 is branched along each floor, and each branch pipe 33 is provided with a sprinkler 21 , a fire hydrant 22 , and a branch pipe valve 23 .

And a water pressure sensor 24 is provided in each branch pipe 33 to measure the water pressure in each branch pipe 33, and the water pressure sensor 24 is provided to communicate with the outside in an IOT method, and the fire pump according to the present invention It is possible to provide information about the water pressure inside the branch pipe to the management system 1 .

On the other hand, a bypass pipe 34 is connected to the main pipe 32 separately from the branch pipe 33 , and a test valve 25 is provided in the bypass pipe 34 .

When the test valve 25 operates the pump module 200 to test whether the pump module 200 operates normally even in a state where no actual fire occurs, the water discharged by the pump module 200 is a bypass pipe It is a valve provided to discharge water through a bypass pipe by moving it to

In addition, the water pressure sensor pipe 35 for mounting the water pressure sensor 26 for the main pipe is separately provided in the main pipe 32 .

The water pressure sensor 26 provided in the water pressure sensor pipe 35 measures the water pressure in the main pipe 32, and is provided so as to communicate with the outside in an IOT method, and is provided in the fire pump management system 1 according to the present invention to the main pipe ( 32) It can provide information about the internal water pressure.

On the other hand, an intermediate valve 27 is provided between the branching point of the branch pipe 33 and the bypass pipe 34 provided in the main pipe 32 , and the intermediate valve 27 provides water in the test mode in the branch pipe 33 . It prevents the flow to and serves to open and close the main pipe 32 that only flows to the bypass pipe 34 .

The pump module 200 is preferably provided as a vertical multi-stage pump module having the same shape as in the picture, but is not limited thereto. The pump module 200 includes a main pump 201 , a charge pump 202 , and a control panel 210 that controls them.

Looking at the configuration of the control panel 210, the communication unit 211 for transmitting and receiving information about the operation of the pump while communicating with an external communication module, and a pressure sensor and pump module 200 for measuring the internal pressure of the pump module 200 ) A display unit 212 that is connected to a flow sensor that measures the internal flow rate and displays the flow rate and pressure, an input unit 213 composed of a button, etc., and a pump moving unit 214 for driving the main pump and the filling pump; , and a valve actuating part 215 for operating a valve for controlling the inflow and outflow of water to and from the main pump and the filling pump.

All of these are controlled by the pump control unit 216 .

The fire pump management system 1 according to the present invention is provided to communicate with the above-described water pressure sensors 24 , 26 and valves 23 , 25 , 27 , and the control panel 210 of the pump module 200 .

The fire pump management system 1 communicates with the above components and exchanges information with the communication unit 101, and various firefighting facilities including the pump module 200 operate state information, operation period information, test operation information, and monitoring. The DB unit 102, which contains information such as operation information, preventive maintenance period information, and parts replacement period information, and a monitoring unit 103 for monitoring the operation status of various firefighting equipment including the pump module, and the pump module By comparing and calculating the data on the normal operation of various firefighting facilities, including the data obtained in the case of actual operation, which part the problem occurred, the numerical values related to the occurrence of the problem are checked, and the 'density-based clustering technique ( Density-Based Spatial Clustering of Application with noise: DBSCAN) includes a calculation unit 104 that calculates to detect an abnormal operation.

Density-based clustering is a method of clustering a high-density part because points representing data are densely clustered. If there are n or more points within a radius X from a point, it is recognized as a single cluster, and the data constituting such a cluster is Analysis is performed assuming data.

In addition, the fire pump management system according to the present invention includes a cycle management unit 105, and the cycle management unit 105 manages a test operation cycle or a monitoring operation cycle for firefighting equipment including a pump module. , especially in the case of the degree of deterioration of the equipment, replacement of parts, or the long time of repair, it plays a role in adjusting the cycle of such operation or providing information to adjust it.

In addition, the preventive maintenance management unit 106 provides information on consumables that need to be replaced periodically or parts that need to be maintained periodically, and a method or method that can perform such replacement of consumables or periodic maintenance more economically and quickly It manages and updates customer information.

The analysis unit 107 classifies the category for abnormal operation/failure provided from the outside or the category for abnormal operation/failure recorded in the DB on the basis of the analysis data calculated and provided by the operation unit to determine what kind of abnormal data is It plays a role in analyzing whether it is related to a part failure or abnormal operation.

That is, the analysis unit 107 compares the hydraulic information or the flow information or the power information with the information stored in the DB unit 102 and managed information or information provided from the outside to determine the cause of the predicted failure or error as a mechanical cause, hydraulic It is classified into cause, electrical cause, and electronic cause, and the difference is provided by quantifying the normal information and the detected abnormal information, and based on the difference, which part is most likely to cause a failure or error, and how long after Analyze whether such a failure or error is likely to occur.

The information collection unit 108 periodically or always collects information about products and firefighting equipment to which the fire pump management system according to the present invention is applied from the outside (manufacturer, association, etc.) On the other hand, it serves as a gateway for information that can be stored in 102 and provided to the manager's terminal through the communication unit 101 .

Meanwhile, the power supply unit 109 serves to supply power, and the input unit 110 and the output unit 111 serve to input and output data, respectively.

And the control unit 112 includes the above-mentioned communication unit 101, DB unit 102, monitoring unit 103, calculating unit 104, periodic management unit 105, preventive maintenance management unit 106, analysis unit 107, In connection with the information collection unit 108 , the power supply unit 109 , the input unit 110 , the output unit 111 , and the like, it controls their operations and plays a role in coordinating role performance among them.

As shown in Figure 2, the fire pump management system 100 is connected to the control panel 210 of the pump module 200, the power detector 300, the fire receiving panel 400, etc. to collect facility information of the above facilities and , collects and manages operation information (trip information) of each facility, diagnoses whether there is an abnormality in the operation of these facilities, and notifies the operation, while managing history and schedule (periodic) for operation or replacement information and test/monitoring information ) is managed.

The collection, management, and notification information in the fire pump management system 100 is based on a private cloud rather than a public cloud for security, and the server of the BMS (building management system) 500 or the administrator's terminal furthermore, a public institution (especially, It is connected to the server of the fire department) (600).

Through this, the collection, management, and notification information performed in the fire pump management system 100 does not end with being accumulated in a single isolated system, but is shared with stakeholders, and thus may serve as an important reference that can be used elsewhere.

Furthermore, by establishing a knowledge-based sharing system through continuous updates through this, it can help to perform regular/periodic tests or upgraded management for monitoring or maintenance of various firefighting equipment including pump modules.

3, the fire pump management system 100 is communicatively connected with the information collection device (Smart IOT collection device) 120, and the information collection device 120 is the control panel of the pump module 200 ( 210) is communicatively connected.

A method in which the fire pump management system 100 is communicatively connected with an information collection device (Smart IOT collection device) is made, for example, in a RESTFUL method based on a Co-App (Constrained Application Protocol, CoAP).

Constrained Application Protocol (CoAP) is a REST (REpresentational State Transfer)-based It is a lightweight message transfer protocol.

CoAP was established by the Internet Engineering Task Force (IETF) Core: Constrained RESTful Environments (CORE) working group, and resources such as memory capacity, computing power, and battery like a sensor node or a control node. It is based on a lightweight REST architecture used in constrained small devices.

The REST architecture supports functions such as resource discovery, multicast, and asynchronous processing request and response. And the message size is small, and it can be easily converted and linked with the existing HTTP web protocol.

However, the present invention is not limited thereto, and various other communication methods may be applied.

On the other hand, the communication standard between the information collection device 120 and the pump module 200 is typically implemented as, for example, RS485, but is not limited thereto, and various protocols may be used.

On the screen of the terminal (desktop PC, notebook, tablet PC, smartphone) of the fire pump management system 100, status monitoring information, DB construction and trend analysis information, and failure prediction analysis information shown on the right side of FIG. 3 are visually displayed. , in addition to this information, history and data analysis information as shown in FIG. 4 may also be displayed.

As shown in Fig. 3 (a), the status monitoring screen that displays the current state of each component constituting the pump module by color at a glance, or as shown in Fig. 3 (b), the operation of the pump The state is expressed in time series, the DB is built based on this information, and the screen showing the result of analyzing the trend of the pump operation, or as shown in Fig. 3(c), the operation graph and current A screen may be displayed to detect a failure or error by comparing the graph of the operating state, to predict where and when the failure or error will appear, and to show the analysis result.

Such prediction and analysis may be performed using the 'density-based clustering technique' described above.

In addition, as shown in Figure 4 (a), the history information according to the operation of the pump for each time section is provided in the form of a plurality of comparison charts, or as shown in Figure 4 (b), this comparison chart data can be put in one chart frame and provided in the form of a multi-chart that can be compared.

And, as shown in Fig. 4(c), the characteristic values for each period and each equipment (pump module) are compared, but an error is detected according to the change in equipment performance history, which sets a scenario for comparing the performance of the pump module. operation, and as a result of determining whether a significant change for each scenario occurs, a meaningful result data value is derived using the 'density-based clustering technique'. Provides a visual comparison of the data that contributed to the occurrence.

Through this, it is possible to monitor the status of the pump module in real time, but in detail, IOT-based regular failure monitoring and prediction, and to grasp the pump status information, and to notify and report the abnormality in real time.

In addition, history-based anomaly detection analysis is performed, and aging according to aging is analyzed through major performance comparison analysis, and based on this, failure prediction and actual failure can be prevented.

And, by connecting this system to the cloud system as shown in FIG. 2, it is possible to link with disaster monitoring and fire disaster prevention technology, and data on fire pump history management, that is, failure, malfunction, operation history, pump performance history, and maintenance history By continuously accumulating and tracking changes, it is possible to systematically maintain and manage the fire pump so that the pump can be effectively operated in case of an actual fire.

5 illustrates a control operation of the fire pump management system 100 according to the present invention. The mode for checking the pump module in the fire pump management system 100 according to the present invention can be divided into a monitoring mode and a test mode.

In the case of the monitoring mode, it refers to a mode in which the water discharged from the pump module is sent to fire-fighting equipment such as sprinklers and fire hydrants by controlling the flow rate of the pump module to check not only the pump but also the fire-fighting equipment as a whole.

The test mode is a mode for mainly testing the pump module using the bypass pipe. Compared to the monitoring mode, the test mode can be conducted more frequently, and since the bypass pipe is used that does not affect the available space of the actual building, the pump Despite the module's testing, it has the advantage of not interfering with spatial activity within the building.

When the monitoring mode is selected, it is determined whether the monitoring execution cycle has been reached (S11), and the branch pipe valve is opened (S12). Here, the intermediate valve is also opened and the bypass piping valve is closed. Then, using a member that can divide the space where water is discharged from the sprinkler or hydrant from other spaces by making a box or other local space, close the area around the sprinkler or hydrant (indicated by a dotted line box in Fig. 2) ( S13).

And after operating the pump module (S14), information (water pressure information, flow rate information, time information, performance history information, etc.) of the pump module and each firefighting equipment is collected (S15), and the analysis result is analyzed by analyzing it (S15). provided (S16).

On the other hand, when the test mode is selected, it is determined whether the test mode execution period has been reached.

When the test mode is selected, the branch pipe valve provided in the branch pipe to which a sprinkler is connected, and the intermediate valve provided in the area toward the branch pipe among the main pipe (the area between the branch point of the bypass pipe and the branch point of the first branch pipe) are closed. do (S22).

Then, when the bypass pipe valve is opened and the pump module is operated, the flow rate from the pump module is discharged to the outside through the bypass pipe (S23, S24). Here, the bypass pipe may be connected to a water tank, or may be connected to a sewer.

During this test mode operation, the pump module (water pressure information, flow rate information, time information, performance history information, etc.) is collected (S25), and analyzed to provide an analysis result (S26).

In particular, in the case of such a test mode operation, the test cycle can be shortened, and furthermore, the maintenance of the pump module can be facilitated, and the risk of sticking due to long-term non-use of the pump module can be eliminated. .

In addition, it is possible to prevent the actual occurrence of a failure or error by quantifying the possibility of failure or error in advance by performing multi-angle analysis of the pump module's operation state, predicting it, and providing a guide for preventive maintenance or parts replacement and repair. There are advantages.

As described above, the present invention has been described with reference to the embodiments shown in the drawings, but this is only for explaining the invention, and various modifications or equivalents from the detailed description of the invention to those of ordinary skill in the art to which the present invention pertains It will be appreciated that one embodiment is possible.

Therefore, the true scope of the present invention should be determined by the technical spirit of the claims.

100: fire pump management system 200: pump module
210: control panel

Claims (8)

a pump module and a main pipe connected to the pump module;
at least one branch pipe connected to the main pipe; a bypass pipe connected to the main pipe; a sprinkler installed in the branch pipe; and a fire pump management applied to a fire fighting system having a test valve installed in the bypass pipe In the system,
The fire pump management system is
During monitoring mode operation, it is communicatively connected to the pump module, the test valve, and the sensor installed in the main pipe and branch pipe to monitor and analyze the status of the pump module and parts of the pump module when water is sprayed by the sprinkler,
Fire pump management system, characterized in that it monitors and analyzes the state of the pump module and parts of the pump module when water is supplied to the bypass pipe during test mode operation. According to claim 1,
The fire pump management system is
a communication unit for transmitting and receiving information;
a monitoring unit for monitoring the operating state of the pump module and the state of parts in the monitoring mode or the test mode;
a period management unit for managing the period of the monitoring mode or the test mode;
a preventive information management unit that detects replacement or repair of parts in advance based on replacement information or life information about the parts of the pump module and provides information thereto;
a calculation unit for comparing and calculating data on normal operation of various firefighting equipment, including the pump module, and data obtained in the case of actual operation;
An analysis unit that analyzes and provides a result when an abnormal pressure or flow rate occurs in the monitoring mode or test mode;
a DB unit for storing information on a history according to an operation in a monitoring mode or a test mode;
Fire pump management system comprising a control unit for controlling them. 3. The method of claim 2,
The analysis unit categorizes the causes of failures or errors predicted by comparing the hydraulic pressure information or flow rate information or power information with information managed by the DB unit or information provided from the outside into mechanical causes, hydraulic causes, electrical causes, and electronic causes, , Fire pump management system, characterized in that the difference between the normal information and the detected abnormal information is digitized. 3. The method of claim 2,
Fire pump management system, characterized in that the calculating unit provides data to predict failure or error of the pump module using a density-based clustering technique based on at least one of flow rate information, water pressure information, or history information. a pump module and a main pipe connected to the pump module; at least one branch pipe connected to the main pipe; a bypass pipe connected to the main pipe; a sprinkler installed in the branch pipe; and a fire pump management applied to a fire fighting system having a test valve installed in the bypass pipe In the system management method,
The fire pump management system is
Operate in monitoring mode or test mode,
In the monitoring mode operation, operating the pump module so that water is sprayed by the sprinkler, and monitoring and analyzing the state of the pump module and the state of the parts of the pump module,
Operating the pump module to supply water to the bypass pipe during the test mode operation, and monitoring and analyzing the state of the pump module and the state of the parts of the pump module. 6. The method of claim 5,
In monitoring mode
opening the branch pipe valve;
closing around a sprinkler or hydrant;
operating the pump module;
collecting pump module and firefighting equipment information;
A management method of a fire pump management system comprising the step of analyzing a failure, error, or abnormal state of a pump module and fire fighting equipment based on the collected information and providing the result. 6. The method of claim 5,
During test mode operation
opening the bypass pipe valve; and
operating the pump module;
collecting pump module information;
A management method of a fire pump management system comprising the step of analyzing a failure or error or abnormal state of a pump module based on the collected information and providing the result. 8. The method according to claim 6 or 7,
The management method of a fire pump management system, characterized in that the collected information is processed and provided to predict a failure, error, or abnormal state using a density-based clustering technique.

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