REMOTE-CONTROLLED INTELLIGENT BLOWER

Abstract

Remote controlled intelligent fan (1), comprising: a blower chamber (100) for compressing outside air flowing into the interior thereof and discharging the compressed air; and a fan control chamber (200) forming a partition wall of a predetermined height with the fan chamber (100) and capable of operating and monitoring in real time the energy consumption status and the operating status of a fan (110) arranged and fixed in the fan chamber (100), wherein the blower control chamber (200) comprises: a blower control system (290) which enables a manager to set an operating state of the blower (110) arranged and fixed in the blower chamber (100) and to manage and control an operating status of the blower (110) via a display panel (250) or an external exclusive terminal in order to be able to check and control the operating state and status of the blower (110), wherein the fan control system (290) comprises: a site control system (291) which enables the manager to directly set the operating state of the blower (110) via the display panel (250) at a site where the blower (110) is installed; and an intelligent control system (292) which enables the manager to set the operating state of the blower (110) installed at the site regardless of the distance and to check the operating state in real time, the intelligent control system (292) comprising: a communication unit for fan information exchange (292a) which transmits the real-time operating state of the fan (110) in operation and information detected by a sensor unit (SS) to the conductor and enables communication with the outside to be able to receive a specific signal transmitted by the conductor; and an IoT system controller (292b) that checks the operating status of the fan (110) in operation in real time via the fan information exchange communication unit (292a) and enables the manager to remotely control the fan (110) using the exclusive terminal regardless of distance based on IoT (Internet of Things) technology, to enable the manager to check the operating status of the fan (110) installed at the site using the exclusive terminal via the IoT system controller (292b) regardless of distance, and to manage the real-time operating status of the fan (110) by resetting and controlling the operating status taking into account information about the fan (110) that has been checked and acquired, wherein the IoT system control (292b) comprises: an IoT blower mechanical controller (292b-1) that monitors the mechanical operation of the blower (110) and controls and manages the mechanical operation depending on the situation; and an IoT blower data storage unit (292b-2) that collects and manages information so that the IoT blower mechanism controller (292b-1) can be controlled and managed based on information about a discharge pressure, a flow rate, a power consumption, a rotational speed, a temperature, an outside air temperature, a compressed air temperature, an opening / closing, and an opening / closing degree of a valve detected by the blower, wherein the IoT blower mechanism control (292b-1) comprises: a control module for the sensor unit (292b-1a) which detects the operation of sensors (SS) installed on one side inside and outside the blower chamber (100) and the blower (110) and checks whether the sensors (SS) are in operation; a blower outlet control module (292b-1b) that senses, monitors, and controls the blower outlet pressure, flow rate, energy consumption, and speed, as well as the opening / closing of a valve; and a main power supply control module (292b-1c) which controls the switching on / off of the main power supplied to the blower chamber (100) and the blower control chamber (200), wherein the control module for the sensor unit (292b-1a) comprises: a discharge pressure sensor function control element (292b-1a-1) which detects the operation of a discharge pressure sensor formed in the blower (110) and checks whether the discharge pressure sensor is operating; a flow rate measuring sensor function control element (292b-1a-2) which detects the operation of a flow rate measuring sensor formed in the blower (110) and checks whether the flow rate measuring sensor is operated; a function control element for an energy consumption measuring sensor (292b-1a-3), which detects the operation of an energy consumption measuring sensor formed in the fan (110) and checks whether the energy consumption measuring sensor is operated; a speed sensor function control element (292b-1a-4) which detects the operation of a speed sensor formed in the fan (110) and checks whether the speed sensor is operating; a function control element for an internal pressure measuring sensor (292b-1a-5), which detects the operation of a temperature measuring sensor that measures the temperature of the fan (110) and checks whether the temperature measuring sensor is in operation; an intake temperature sensor function control element (292b-1a-6) which detects the operation of a temperature sensor that measures the temperature of the outside air sucked into the fan (110) and checks whether the temperature sensor is operating; a function control element for an outlet temperature measuring sensor (292b-1a-7), which detects the operation of a temperature measuring sensor that measures the temperature of compressed air discharged from the blower (110) and checks whether the temperature measuring sensor is operating; and a valve opening / closing measuring sensor function control element (292b-1a-8) which detects the operation of a sensor that measures the opening / closing and the opening / closing degree of valves formed in the blower (110) and checks whether the sensor is in operation, to detect, measure and collect in real time the outlet pressure, flow rate, energy consumption and speed of the blower, the operating status of the opening / closing of the valves and information acquired from the blower (110), as well as to check whether the sensor unit (SS) responds correctly by detecting the operation of the sensor unit (SS) formed inside and outside the blower chamber (100) and the blower (110) and checking whether the sensor unit is working, wherein the fan outlet control module (292b-1b) comprises: a discharge pressure adjustment control element (292b-1b-1) which detects and controls the discharge pressure of the blower (110); a flow rate adjustment control element (292b-1b-2) which detects and controls the flow rate of the blower (110); an energy consumption adjustment control element (292b-1b-3) which detects and controls the energy consumption of the fan (110); a speed control element (292b-1b-4) which detects and controls the speed of the fan; and a control element for adjusting the opening / closing of the valves (292b-1b-5), which detects and controls the opening / closing of the valves formed in the blower (110), to operate the blower (110) under the optimal condition by controlling not only the output values for the discharge pressure, flow rate, energy consumption and speed, but also the opening / closing of the valve in accordance with the intended use of the location where the blower (110) is installed, as well as the real-time operating status of the blower (110), wherein the IoT fan data storage unit (292b-2) comprises: a normal operating data collection module (292b-2a) which stores information on the normal operating status according to the operating schedule of the fan (110); an abnormal operation history collection module (292b-2b) which stores information about an abnormal operation condition generated during operation according to the operation plan of the blower (110); and a maintenance history collection module (292b-2c) which stores information on the manager's actions for abnormal operation, such as changing and setting a specific operating condition, replacing parts, etc., corresponding to an abnormal operating status of the blower (110), to enable the manager to control and manage the fan (110) so that the fan can operate under the optimal condition in accordance with the operating plan and the situations by checking the operating status of the fan (110) and the information acquired in real time from the fan (110) via a communication network, and to enable the manager to check, control and manage the operating status of the blower (110) arranged and fixed at the site in real time using the exclusive terminal not only at the site but regardless of the distance, thereby improving the operational reliability and ease of management of the blower (110).

Description

[0001] The present disclosure relates to a remotely controlled intelligent blower, and more particularly to a remotely controlled intelligent blower that improves the usability, proficiency, and safety of controlling a blower by providing both a housing for improving the usability of a blower installed at a site and a system that enables a manager to check the operating status of a blower and control the operating state of the blower in real time by using an exclusive terminal not only at a site but also regardless of distance.

[0002] A blower is a device for compressing a gas by the rotation of an impeller.

[0003] That is, the blower is a device that is installed at the industrial site and increases the pressure of the air sucked in from outside by a certain amount, whereby the compressed air is delivered to the industrial site.

[0004] Such turbomachinery has already been widely used in a variety of technologies, with many types of turbomachinery having suitable shape and specification suitable for the environment of the industrial site.

[0005] In addition, in order to increase the efficiency of the conventional blower, complex design changes for a shape or cooling method of the impeller and a cooling device, as well as techniques for improving the efficiency and cooling performance of the blower manufactured on this basis have been proposed in various ways.

[0006] But even if a blower with excellent efficiency and performance is installed in the field, the problem is that if maintenance is not carried out continuously, the efficiency and performance as well as safety will deteriorate.

[0007] Accordingly, it is an object of the present invention to provide a housing capable of stably operating the blower and including a control system that controls the blower and can solve the conventional problem.

[0008] The prior art for an intelligent remote-controlled fan is therefore disclosed as “a fan” from Korean patent application KR 10 0 781 298 B1.

[0009] It is a blower that compresses and expels a large amount of air. A fan comprises an intake part, a housing, a blower, an inverter, and a radiator. The housing has an air inlet for introducing air into the intake part. The blower is arranged in the intake part of the housing and has a motor and an impeller connected to the motor. It compresses the air flowing from the air inlet and blows the air to the outside of the intake part. The inverter is arranged in the intake part of the housing and is electrically connected to the blower to control the speed of the impeller. The radiator is connected to a cooling water duct in the blower to cool the blower. The radiator is arranged between the air inlet and the blower. The radiator transfers heat contained in the cooling water heated by the cooling water duct to the air flowing out of the air inlet.

[0010] Further prior art discloses “a wireless IoT-based remote diagnostic device” in Korean Patent Publication KR 10 2019 0 102 806 A.

[0011] It relates to an IoT-based remote diagnostic device comprising: a power supply unit that supplies or cuts off power to a refrigerator; a communication unit that communicates with an external management server; a power detection unit that detects a current or voltage of the refrigerator; and a control unit that obtains power information of the refrigerator at a preset schedule to transmit the power information to the management server via the communication unit, and receives a control signal from the management server to cut off the power of the refrigerator via the power supply unit when the power information is outside a predetermined range. Accordingly, the power amount of the refrigerator is monitored, and fault diagnosis can be performed quickly.

[0012] As described above, the disclosure of document KR 10 0 781 298 B1 concerns an invention for a fan, and the teaching known from document KR 10 2019 0 102 806 A concerns an invention for a device for controlling a refrigerator based on IoT technology. The two prior art inventions are similar and identical to the present invention in terms of technical idea and technical field. In contrast to the present invention, there are some similar and identical technical concepts in the inventive problems and solutions. However, the inventions that have a similar or identical technical idea must have crucial embodiments.

[0013] This means that the technologies related to a management system for controlling a fan and a refrigerator via a communication network must have an essential basic configuration.

[0014] However, the subject matters of the documents KR 10 0 781 298 B1 and KR 10 2019 0 102 806 A and the present invention differ with regard to a device, to a specific solution for controlling the device and to a specific subject matter and effect.

[0015] Accordingly, the present invention differs from conventional turbomachines with a conventional fan, including the structures and management systems known from documents KR 10 0 781 298 B1 and KR 10 2019 0 102 806 A, in terms of control technology. The present invention also attempts to achieve the technical features based on the problem posed by the invention (object of the invention), a solution (element) for solving the problem, and the effect exerted by the solution.

[0016] The following documents are also mentioned regarding the state of the art: Document KR 10 1 989 588 B1 discloses a turbo blower that can be operated in a pressure surge range.

[0017] Document DE 11 2016 004 029 T5 shows a turbo air blower that has various damp room functions and a water protection function to dehumidify the air flowing into the interior.

[0018] Document US 2019 / 0 264 700 A1 relates to systems for controlling a ceiling fan, comprising a sensor device and a remote device that can transmit an instruction to the fan based on the data received from the sensor device.

[0019] Document US 2012 / 0 219 399 A1 relates to a method for starting electrical devices in a low temperature environment.

[0020] Document US 2019 / 0 186 496 A1 discloses fan systems for circulating air in a room, comprising a canopy controller that controls the operation of a motor connected to the ceiling fan and has a communication interface for communicating using a first wireless communication protocol with a wall controller that includes an interface element for receiving user input.

[0021] The present disclosure was made in an effort to solve the problems of the related art. An object of the present disclosure is to provide a housing that protects a blower from the outside and improves the usability of the blower.

[0022] Another object of the present disclosure is to provide a housing with a remote control system that enables a manager to control and manage a blower installed at a site by checking the operating status of the blower in real time not only at the site but regardless of distance.

[0023] Another object of the present disclosure is to provide a housing with a blower remote control system, which enables a developer who designs, manufactures and sells a blower to process and analyze collected data to use the data as big data in the design of a new blower, housing and control system based on various information (performance, efficiency, fracture shape and service life) obtained and collected by the operation of a control room that can monitor the operating status of a supplied blower in real time.

[0024] Furthermore, it is possible to provide customer-specific services (maintenance, replacement of parts, etc.) by operating a control room.

[0025] According to one aspect of the invention to achieve the purpose described above, there is provided a remotely controllable intelligent blower of the present disclosure, comprising: a blower chamber which compresses the outside air flowing therein and releases the compressed air; and a blower control chamber, which forms a predetermined-height partition with the blower chamber and is capable of controlling and monitoring in real time the performance and operating status of a blower arranged and mounted in the blower chamber, whereby a manager can check the operating status of the blower installed and fixed at a site and control and manage the blower in real time using an exclusive terminal not only at the site but regardless of the distance due to the blower control chamber, thereby improving the operational reliability and ease of management of the blower.

[0026] At this point, the blower chamber includes: a fan that compresses the air flowing from outside to inside; a first outside air inlet formed on the rear surface and allowing outside air to flow into the blower chamber; a blower chamber filter formed on the rear surface and preventing foreign matter from flowing into the blower chamber through the first outside air inlet; a blower chamber shutter formed on one side of the rear surface and opening / closing the rear surface of the blower chamber so that the interior space can be handled; a compressed air outlet formed on one side of the top surface and discharging the air compressed by the blower; and an external circulation pump that prevents the interior temperature from rising by removing air and heat remaining inside to the outside in real time.

[0027] The external circulation pump protrudes at a predetermined height from one side at the top of the blower chamber and forms: an air-heat first contact path, where the air and heat remaining and rising in the blower chamber primarily collide and which lowers the temperature of the remaining air and heat before it is discharged to the outside; a first exit path for the exit of the air and heat which come into contact with and collide against the air-heat first contact path, towards the front surface of the blower chamber; and a second exhaust path for the air and heat that come into contact with and collide against the air-heat first contact path to the rear surface of the blower chamber, so that the inside of the blower chamber can be easily handled and the temperature of the inside of the blower chamber and the site is quickly lowered by the external circulation pump, thereby making the working environment comfortable.

[0028] The blower control chamber includes: a second outside air inlet formed on the front surface and allowing outside air to flow into the fan control chamber; a control chamber filter formed on the front surface and preventing foreign matter from flowing into the blower control chamber through the second outside air inlet; an operating status output bar formed on one side of the front surface and displaying the operating status of the fan; a blower control chamber shutter formed on one side of the front surface and opening / closing the front surface of the blower control chamber so that the interior space can be handled; a display panel formed on one side of the front surface, which displays the operating status and operating conditions of the fan in real time so that a manager can directly adjust them; a power input unit formed on one side of the front surface and supplying the necessary power to the blower control chamber and the blower chamber; a partition wall formed to have a predetermined height on the rear surface of an interior space and separating the blower control chamber and the blower chamber; a chamber connection connecting the fan control chamber and the fan chamber with the partition wall therebetween, thereby securing the amount of air flowing into the fan and reducing an increase in the internal temperature due to temperature exchange between the fan control chamber and the fan chamber; and a fan control system that allows a manager to set the operating state of the fan and manage and control the operating status of the fan via the display panel or an external exclusive terminal, so that it is possible to check and control the operating conditions and status of the fan.

[0029] The fan control system includes: a site control system that enables a supervisor to set the operating status of the blower directly via the display panel at the site where the blower is installed; and an intelligent control system that allows the manager to adjust the operating status of the blower installed at the site regardless of the distance and check the operating status in real time.

[0030] The intelligent control system includes: a communication unit for fan information exchange, which transmits the real-time operating status of the fan in operation and information detected by the sensor unit to a conductor and enables communication with the outside to be able to receive a specific signal transmitted by a conductor; and An IoT system controller that checks the operating status of the fan in operation in real time through the fan information exchange communication unit and enables the manager to remotely control the fan using an exclusive terminal regardless of distance, based on IoT (Internet of Things) technology, so that it is possible to enable a manager to check the operating status of the fan installed at a site using an exclusive terminal through the IoT system controller regardless of distance, and to manage the real-time operating status of the fan by resetting and controlling the operating state taking into account various information about the fan that has been checked and acquired.

[0031] Meanwhile, it should be understood that the terminology or words used in the claims should not be interpreted in the ordinary or lexical sense. They should be interpreted as meanings and concepts consistent with the technical idea of the present invention, based on the principle that the inventor can correctly define the concept of the term to best describe his invention.

[0032] Therefore, the embodiments described in the present specification and the configurations shown in the drawings are only the preferred embodiments of the present invention, and not all technical concepts of the present invention are described. Therefore, it is understood that various equivalents and modifications are possible.

[0033] The above and other objects, features and advantages of the present invention will become more apparent from the following detailed description taken in conjunction with the accompanying drawings in which: Fig. 1 is a conceptual diagram of a remotely controlled smart blower of the present disclosure; Fig. 2 is a configuration diagram of the remote-controlled intelligent blower of the present disclosure; Fig. 3 is a diagram showing an embodiment of the remote-controlled smart blower of the present disclosure; Fig. 4 is a cross-sectional view schematically showing the remote-controlled smart blower of the present disclosure; Fig. 5 shows an embodiment of a platform output to the display panel and the external exclusive connection of the components of the remotely controlled intelligent fan of the present disclosure; and

[0034] The function, configuration and operation of a remote-controlled intelligent fan (1) are described in detail below with reference to the attached drawings.

[0035] Fig. 1 is a conceptual diagram of a remote-controlled intelligent blower of the present disclosure, Fig. 2 is a configuration diagram of the remote-controlled intelligent blower of the present disclosure, Fig. 3 is a diagram showing an embodiment of the remote-controlled intelligent blower of the present disclosure, and Fig. 4 is a cross-sectional view schematically illustrating the remote-controlled smart blower of the present disclosure.

[0036] As in the Fig. 1 to 4, a remote-controlled intelligent blower of the present disclosure includes: a blower chamber (100) which compresses the outside air flowing inside and expels the compressed air; and a fan control chamber (200) forming a predetermined height partition with the fan chamber (100) and capable of controlling and monitoring in real time the energy status and operating status of a fan (110) arranged and mounted in the fan chamber (100), wherein a manager can check the operating status of the blower (110) installed and fixed at a site and control and manage the blower (110) in real time using an exclusive terminal not only at the site but regardless of distance due to the blower control chamber (200), thereby improving the operational reliability and ease of management of the blower (110).

[0037] That is, the present disclosure relates to an intelligent blower which can protect a blower (110) to be installed at a site from the outside and enables more professional use of the blower (110).

[0038] Furthermore, the present disclosure enables a manager to easily check, manage, and control the operating status and operating schedule of the blower (110) installed at a site, as well as the mechanical operations (switching on and off and controlling the operating state), not only directly at the site but also via a communication network (I).

[0039] In detail, the blower chamber (100), in which the blower (110) and various sensors (SS) are installed, initially comprises: a fan (110) which compresses air flowing from outside to inside; a first outside air inlet (120) formed on the rear surface and allowing outside air to flow into the blower chamber (100); a blower chamber filter (130) formed on the rear surface and preventing foreign matter from flowing into the blower chamber (100) through the first outside air inlet (120); a blower chamber shutter (140) formed on one side of the rear surface and opening / closing the rear surface of the blower chamber (100) so that the internal space can be managed; a compressed air outlet (150) formed on one side of the top surface and discharging the air compressed by the blower (110); and an external circulation pump (160) which prevents an increase in the temperature of the interior by discharging the air and heat remaining inside to the outside in real time.

[0040] The external circulation pump (160) protrudes at a predetermined height from one side at the top of the blower chamber (100), and forms: an air-heat first contact path (R1) against which the air and heat remaining and rising in the blower chamber (100) primarily impacts and which lowers the temperature of the remaining air and heat before it is discharged to the outside; a first outlet path (R2) for the outlet of the air and heat that come into contact with and collide with the air-heat first contact path (R1) toward the front surface of the blower chamber (100); and a second outlet path (R3) for the outlet of the air and heat which come into contact with and collide with the air-heat first contact path (R1) towards the rear surface of the blower chamber (100).

[0041] Accordingly, the interior of the blower chamber (100) is easy to handle. Furthermore, the temperature of the interior of the blower chamber (100) and the work site is quickly reduced by the external circulation pump (160), thus creating a comfortable working environment.

[0042] That is, the external circulation pump (160) allows the remaining air and heat discharged from the blower chamber (100) to maximally contact the external circulation pump (160) immediately before being completely discharged to the outside through the first exhaust path (R2) and the second exhaust path (R3), so that the remaining air and heat are discharged to the outside at a reduced temperature, thereby preventing the working environment from being affected by the remaining air and heat discharged from the blower chamber (100).

[0043] The external circulation pump (160) includes a residual air-heat contact module (161) formed by coaxially stacking a plurality of circular disks in multiple steps with regular intervals therebetween at both ends, so that the air and heat discharged from the blower chamber (100) are distributed and discharged into two branches through the first exhaust path (R2) and the second exhaust path (R3), and the air and heat discharged come into maximum contact with the air-heat first contact path (R1) and the residual air-heat contact module (161).

[0044] This is to quickly lower the temperature of the remaining air and heat being discharged to the outside by inducing maximum contact of the remaining air and heat being discharged to the outside by utilizing the characteristics of the shapes of the air-heat initial contact path (R1) and the remaining air-heat contact module (161).

[0045] Furthermore, the blower (110) may include a sensor unit (SS) which is arranged inside and outside the blower chamber (100) or the blower (110) and checks the operating state of the blower (110) in real time in order to be able to measure the state of the interior of the blower chamber (100) and the state of the blower (110) in real time.

[0046] The sensor unit (SS) includes: a fan sensor module (SS1) which checks and records information about various operating states of the fan (110); and a fan sensor data communication module (SS2) that transmits the real-time fan (110) information checked by the fan sensor module (SS1) to a fan control system (290).

[0047] The fan sensor module (SS1) includes, for example: an outlet pressure sensor element (SS1-1) which detects and measures the outlet pressure of the blower (110); a flow rate sensor element (SS1-2) which detects and measures the flow rate of the fan (110); an energy consumption sensor element (SS1-3) which detects and measures the energy consumption of the fan (110); a speed sensor element (SS1-4) which detects and measures the speed of the fan (110); a filter pressure difference sensor element (SS1-5) which detects and measures the filter pressure of the blower (110); an internal temperature sensor element (SS1-6) which detects and measures the temperature of the fan (110); an intake temperature sensor element (SS1-7) which detects and measures the temperature of the outside air sucked into the fan (110); an outlet temperature sensor element (SS1-8) which detects and measures the temperature of the compressed air discharged from the blower (110); and a valve state sensor element (SS1-9) which detects and measures the opening / closing and the opening / closing degree of various valves formed in the blower (110).

[0048] Accordingly, various information acquired from the blower (110) is detected, measured and collected in real time and transmitted to the blower control system (290) via the blower sensor data communication module (SS2) (the blower control chamber (200) transmits various information about the blower (110), which is transmitted to the blower control system (290) via a blower information exchange communication unit (292a), to a conductor).

[0049] The blower control chamber (200), in which a system for operating the blower (110) and for controlling and managing the sensor unit (SS) is installed, now includes: a second outside air inlet (210) formed on the front surface and allowing outside air to flow into the blower control chamber (200); a control chamber filter (220) formed on the front surface and preventing foreign matter from flowing into the blower control chamber (200) through the second outside air inlet (210); an operation status output bar (230) formed on one side of the front surface and indicating the operation status of the fan (110); a blower control chamber shutter (240) formed on one side of the front surface and opening / closing the front surface of the blower control chamber (200) so that the interior space can be managed; a display panel (250) formed on one side of the front surface and outputting the operating status and operating state of the fan (110) in real time so that a manager can directly set them; a power input unit (260) formed on one side of the front surface and supplying the required power to the blower control chamber (200) and the blower chamber (100); a partition wall (270) formed to have a predetermined height on the rear surface of an interior space and separating the blower control chamber (200) and the blower chamber (100); a chamber connection (280) connecting the fan control chamber (200) and the fan chamber (100) with the partition wall (270) therebetween, thereby securing the amount of air flowing into the fan (110) and reducing an increase in the internal temperature due to temperature exchange between the fan control chamber (200) and the fan chamber (100); and a fan control system (290) which enables a manager to set the operating state of the fan (110) and to manage and control the operating status of the fan (110) via the display panel (250) or an external exclusive terminal.

[0050] Accordingly, it is possible to check and control the operating state and status of the fan (110).

[0051] The display field (250) includes: an outlet pressure output module (251) for outputting real-time information about the outlet pressure of the blower (110); a flow rate output module (252) for outputting real-time information about the flow rate of the blower (110); an energy consumption output module (253) for outputting real-time information about the energy consumption of the fan (110); a speed output module (254) for outputting real-time information about the speed of the fan (110); a filter pressure difference output module (255) for outputting real-time information about the filter pressure difference of the blower (110); an internal temperature output module (256) for outputting real-time information about the temperature of the fan (110); an intake temperature output module (257) for outputting real-time information on the temperature of the outside air drawn in by the fan (110); an outlet temperature output module (258) for outputting real-time information about the temperature of the compressed air output by the blower (110); a valve information output module (A) for outputting information on the opening / closing and the opening / closing degree of various valves formed in the blower (110); and a manager-specific condition output module (259) for outputting information about specific operating conditions of the blower (110) set by a manager.

[0052] Accordingly, a manager can easily check the operating status and operating plan of the blower (110) even on site.

[0053] The blower control system (290) also includes: a site control system (291) which enables a manager to directly adjust the operating state of the blower (110) via the display panel (250) at the site where the blower (110) is installed; and an intelligent control system (292) which enables the manager to adjust the operating state of the blower (110) installed at the site regardless of the distance and to check the operating status in real time.

[0054] The site control system (291) contains: a fan operating status data storage module (291a) that stores real-time information about the fan (110) transmitted by the fan sensor data communication module (SS2); and a mechanical system setting element (291b) which sets the operating state of the fan (110) based on the real-time information about the fan (110) transmitted by the fan sensor data communication module (SS2) or selects the pre-stored operating state of the fan (110) in accordance with the intended use, so that the fan (110) is operated under a specific operating state set and selected by a manager.

[0055] Accordingly, it is possible to safely manage the blower (110) by checking the operating status of the blower (110) in real time, thereby making the blower (110) operate stably.

[0056] The fan sensor data communication module (SS2) may be configured to communicate with the fan control system (290) in a wired or wireless manner (the communication may be performed in any manner as long as the information sensed by the fan sensor module (SS2) is transmitted to the fan control system (290) by the fan sensor data communication module (SS2).

[0057] Furthermore, the adjustment element for the mechanical system (291b) comprises, for example: an outlet pressure adjusting element (291b-1) which enables a conductor to freely adjust the outlet pressure of the blower (110); a flow rate adjustment element (291b-2) which enables a conductor to freely adjust the flow rate of the blower (110); an energy consumption adjustment element (291b-3) which enables a conductor to freely adjust the energy consumption of the fan (110); a speed adjustment element (291b-4) which enables a conductor to freely adjust the speed of the fan (110); and a valve control adjustment element (291b-5) which enables a conductor to freely adjust the opening / closing and the opening / closing degree of various valves formed in the blower (110).

[0058] Accordingly, a manager can set and control the operating state of the blower (110) at one location or regardless of distance.

[0059] That is, a manager controls, for example, the discharge pressure adjusting element (291b-1), the flow rate adjusting element (291b-2), the energy consumption adjusting element (291b-3), the speed adjusting element (291b-4), or the valve control adjusting element (291b-5) at one location or based on various information about the fan (110) transmitted from an external exclusive terminal via the fan information exchange communication unit (292a), thereby being able to control and adjust the operating condition of the fan (110) (of course, the manager can set the operating condition in advance through the mechanical system adjusting element (291b) so that the fan (110) operates in accordance with the set operating condition).

[0060] Furthermore, the intelligent control system (292) includes: a fan information exchange communication unit (292a) which transmits the real-time operating status of the fan (110) in operation and information detected by the sensor unit (SS) to a conductor and enables communication with the outside to be able to receive a specific signal transmitted by a conductor; and an IoT system controller (292b) that checks in real time the operating status of the fan (110) in operation via the fan information exchange communication unit (292a) and enables the manager to remotely control the fan (110) using an exclusive terminal regardless of distance based on IoT (Internet of Things) technology.

[0061] Accordingly, it is possible to enable a manager to check the operating status of the blower (110) installed at a site using an exclusive terminal through the IoT system controller (292b) regardless of distance, and to manage the real-time operating status of the blower (110) by resetting and controlling the operating state taking into account various information about the blower (110) that has been checked and acquired.

[0062] In detail, the IoT system control (292b) includes: an IoT blower mechanical controller (292b-1) that monitors the mechanical operation of the blower (110) and controls and manages the mechanical operation depending on the situation; and an IoT blower data storage unit (292b-2) that collects and manages various information so that the IoT blower mechanism controller (292b-1) can be controlled and managed by a manager based on various information acquired from the blower (110).

[0063] The IoT Blower Mechanism Control (292b-1) includes: a control module for the sensor unit (292b-1a), which detects the operation of various sensors (SS) installed on one side inside and outside the blower chamber (100) and the blower (110) and checks whether the sensors (SS) are in operation; a blower outlet control module (292b-1b) which detects, monitors, and controls the outlet pressure, flow rate, energy consumption, and speed of the blower (110), as well as the opening / closing of a valve; and a main power supply control module (292b-1c) which controls the switching on and off of the main power supplied to the blower chamber (100) and the blower control chamber (200) (ie, one manager can control all elements controlled by the site control system (291) via the communication network (I) using an exclusive terminal).

[0064] The IoT Fan Data Storage Unit (292b-2) includes: a normal operating data collection module (292b-2a) which stores information on the normal operating status according to the operating schedule of the fan (110); an abnormal operation history collection module (292b-2b) which stores information about an abnormal operation condition generated during operation according to the operation plan of the fan (110); and a maintenance history collection module (292b-2c) which stores information on measures taken by a manager for abnormal operation, such as changing and setting a specific operating condition, replacing parts, etc., according to an abnormal operating state of the blower (110).

[0065] Accordingly, the manager can control and manage the blower (110) so that the blower (110) can operate under optimal conditions in accordance with the operation plan and situations by checking the operation status of the blower (110) and various information acquired in real time from the blower (110) via the communication network (I).

[0066] That is, the IoT mechanical blower mechanism controller (292b-1) is a component that generally controls the mechanical operation of the blower (110) by controlling the operating status of the blower (110), ie, the discharge pressure, flow rate, energy consumption and rotational speed of the blower (110) and opening / closing of the valve, as well as detecting the operation of various detection units (SS) formed inside and outside the blower chamber (100) and the blower (110), and checking whether the detection units (SS) are operating.

[0067] For example, the IoT blower mechanical controller (292b-1) can enable off-load operation or on-load operation depending on the situation by controlling the opening / closing of the valve. Furthermore, the IoT blower mechanical controller (292b-1) can operate the blower (110) according to the operation schedule, while automatically changing off-load operation and on-load operation depending on the situation by presetting the opening / closing and the opening / closing degree of the valve when a specific operating condition is met, in cooperation with the blower output control module (292b-1b).

[0068] Furthermore, the IoT fan data storage unit (292b-2) is a component that collects and manages various information acquired by the fan (110) so that a manager can control the fan (110) under the optimal conditions through the IoT fan mechanism controller (292b-1).

[0069] The IoT system control (292b), for example, is described in more detail.

[0070] The sensor unit control module (292b-1a) includes: a discharge pressure sensor function control element (292b-1a-1) which detects the operation of a discharge pressure sensor formed in the blower (110) and checks whether the discharge pressure sensor is operating; a flow rate measuring sensor function control element (292b-1a-2) which detects the operation of a flow rate measuring sensor formed in the blower (110) and checks whether the flow rate measuring sensor is operated; a function control element for the energy consumption measuring sensor (292b-1a-3), which detects the operation of an energy consumption measuring sensor formed in the fan (110) and checks whether the energy consumption measuring sensor is operated; a speed sensor function control element (292b-1a-4) which detects the operation of a speed sensor formed in the fan (110) and checks whether the speed sensor is operating; a function control element for the internal pressure measuring sensor (292b-1a-5), which detects the operation of a temperature measuring sensor that measures the temperature of the fan (110) and checks whether the temperature measuring sensor is in operation; a function control element for the intake temperature measuring sensor (292b-1a-6), which detects the operation of a temperature measuring sensor that measures the temperature of the outside air sucked into the fan (110) and checks whether the temperature measuring sensor is in operation; a function control element for the outlet temperature measuring sensor (292b-1a-7), which detects the operation of a temperature measuring sensor that measures the temperature of compressed air discharged from the blower (110) and checks whether the temperature measuring sensor is operating; and a function control element for the operation of a valve opening / closing measuring sensor (292b-1a-8), which detects and checks the operation of a sensor that measures the opening / closing and the opening / closing degree of various valves formed in the blower (110), and whether the sensor is operated.

[0071] Accordingly, it is possible to detect, measure, and collect the operating state of the fan (110) and various information detected by the fan (110) in real time, and to check whether the sensor unit (SS) responds correctly.

[0072] The control module for a fan outlet (292b-1b) also contains: a discharge pressure adjustment control element (292b-1b-1) which detects and regulates the discharge pressure of the blower (110); a flow rate adjustment control element (292b-1b-2) which detects and controls the flow rate of the blower (110); an energy consumption adjustment control element (292b-1b-3) which detects and controls the energy consumption of the fan (110); a speed adjustment control element (292b-1b-4) which detects and controls the speed of the fan (110); and a valve opening / closing adjustment control element (292b-1b-5) which detects and controls the opening / closing of various valves formed in the blower (110).

[0073] Accordingly, it is possible to operate the blower (110) under optimal conditions by controlling not only the output values of discharge pressure, flow rate, energy consumption and rotation speed, but also the opening / closing of the valve in accordance with the intended use of the location where the blower (110) is installed and the real-time operating status of the blower (110).

[0074] Furthermore, the present disclosure includes an abnormal condition alarm unit (170) that notifies a manager of problem information by an alarm, which can be immediately checked at a site, and the communication network (I) when a problem is generated in the blower (110) and a problem is detected, so that the manager can immediately deal with the problem.

[0075] Accordingly, the safety of the blower (110) can be improved and the blower (110) can be operated stably.

[0076] As described above, the present disclosure provides a control and management system that protects the blower (110) from the outside, improves its usability, manages and controls the operating status of the blower (110) regardless of distance using the communication network (I), and enables a manager to operate the blower (110) under the optimal conditions in accordance with the purpose of use of each site where the blower (110) is installed.

[0077] For illustration purposes, Fig. 5 illustrates an embodiment of a platform output to the display panel and the external exclusive terminal of the components of the remotely controlled smart blower of the present disclosure.

[0078] Furthermore, the "leader" mentioned in the present disclosure is an example of a worker and a leader at a site, wherein an exclusive terminal is equipped with a display that can output various information and can be carried by a worker and a leader at a site, or a control room, which can be defined in its meaning and generally refers to an object that can be supplied with information in real time from the blower (110) or can control and manage the blower by transmitting information.

[0079] That is, it can be defined, for example, as a person or entity that can control the blower (110), such as a worker on a construction site, a supervisor, a maintenance company, a manufacturer, and a developer.

[0080] Furthermore, the blower chamber filter (130) and the control chamber filter (220) can be replaced at an appropriate time by a manager based on the information obtained from the filter pressure difference sensor element (SS1-5).

[0081] Further, the operation status output bar (230) outputs, for example, blue when it is operating, white when it is stopped, and red when there is a problem, using an LED so that a manager on site can immediately recognize the status of the fan (110).

[0082] In addition, the site control system (291) enables the management of the operation of the blower (110) at a site.

[0083] The intelligent control system (292) transmits operation information of the fan (110) to the outside and manages the operation of the fan (110) based on an instruction for operating the fan (110) received from an external exclusive terminal.

[0084] In the above-described configuration and operation according to the present invention, 1. The usability of the blower is improved. The purpose of the blower is to prevent foreign matter other than air from entering the blower by means of the blower chamber filter and the control chamber filter, to quickly reduce the temperature rise of the interior by discharging the air and heat in the interior where the blower is installed through the external circulation pump, To enable a manager to easily and completely manage the interior through the blower chamber lock and the blower control chamber lock (stabilization and maintenance of the blower control system, maintenance of the blower, replacement of the blower chamber filter, replacement of the control chamber filter, etc.) enable a manager and a worker on site to intuitively know the operation and stop of the blower through the operation status output bar, to induce air and heat circulation in the interior in such a way that the temperature of the interior drops quickly, while the amount of outside air flowing into the fan through the chamber connection is sufficiently ensured, and Check and adjust the discharge pressure, flow rate, energy consumption, speed, pressure difference, intake temperature, discharge temperature, blower pressure-volume flow ratio performance, etc. in real time via the display panel, so that safe and stable operation is achieved. 2. In addition, a manager can control and manage the blower by checking the operating status of the blower installed at a site not only at the site but regardless of the distance. That is to say, a manager can operate the blower safely and stably by checking the current operating information such as discharge pressure, flow rate, energy consumption, rotational speed, pressure difference, suction temperature, discharge temperature, performance of the blower's overpressure-volume flow ratio in real time through an exclusive terminal regardless of distance. 3. In addition, since a manager can easily check the running status of the blower in real time, it is possible to operate the blower under optimal operating conditions by changing the running status appropriately at any time according to the situation and purpose. 4. Since the operating status of the blower is checked in real time, so that the operating range can be maintained stably, the blower is protected in advance from a shock or a problem, and the backup of a temporary suspension not scheduled in the operation plan is minimized, thereby improving the consistency of a line and productivity. 5. In order to enable a developer who designs, manufactures and sells a blower to process and analyze the collected data to use the data as big data in the development of a new blower, casing and control system based on various information (performance, efficiency, breakage type and service life) obtained and collected through the operation of a control room that can monitor the operating status of a supplied blower in real time, it is possible to store, accumulate and provide various data such as operation data and problem data (operation data, problem data, maintenance data, etc.) of all supplied blowers.

[0085] That is, since a manager is able to easily manage the blower, check the real-time operating status using a communication network anywhere regardless of distance, and control and manage the control based on the operating status, the manager is able to monitor all delivered blowers in a control room, thereby making it possible to collect various information about the blower. Furthermore, it is possible to improve satisfaction and reliability through post-management by promptly handling customer problems. Thus, the present disclosure can be considered a very effective invention.

[0086] It will be apparent to those skilled in the art that various modifications and variations can be made in the present invention without departing from the spirit or scope of the invention as defined in the appended claims.

[0087] The present invention may be implemented in many different forms without departing from technical aspects or essential features. Therefore, the embodiments of the present invention are in all respects merely simple examples and are not to be interpreted in a limiting sense.

[0088] The present invention relates to a remotely controlled intelligent fan, it can be applied to a manufacturing method for manufacturing a casing that protects the fan from the outside and a marketing method thereof, and it can contribute to improvement in various industrial fields such as a software field that includes a function of managing and controlling operating conditions and operating schedules regardless of distance and providing a stabilized platform capable of manufacturing and building a system that controls and manages the fan, general machinery related to fans, and a fan and information technology industry in which ICT and IoT technologies are being developed. LIST OF REFERENCE SYMBOLS 1 remote-controlled intelligent fan 100 blower chamber 110 blowers 120 first outside air inlet 130 blower chamber filters 140 blower chamber closure 150 compressed air outlet 160 external circulation pump 161 Residual air-heat contact module 170 Alarm unit for an abnormal condition 200 Blower control chamber 210 second outside air inlet 220 control chamber filter 230 Operating status output bar 240 Blower control chamber closure 250 display field 251 Output module for the outlet pressure 252 Flow rate output module 253 Output module for energy consumption 254 Output module for the speed 255 Output module for the filter pressure difference 256 Output module for the indoor temperature 257 Output module for the intake temperature 258 Output module for the outlet temperature 260 Energy Input Unit 270 partition wall 280 Chamber connection 290 Fan Control System 291 Site Control System 291a Data storage module for the fan operating status 291b Adjustment element for the mechanical system 291b-1 Adjustment element for the outlet pressure 291b-2 Flow rate adjustment element 291b-3 Setting element for energy consumption 291b-4 Adjustment element for the speed 291b-5 Adjustment element for valve control 292 intelligent control system 292a Communication unit for fan information exchange 292b IoT Control Panel 292b-1 IoT blower mechanism control 292b-1 a Control module for the sensor unit 292b-1 a-1 Function control element for an outlet pressure measuring sensor 292b-1 a-2 Function control element for a flow rate measuring sensor 292b-1 a-3 Function control element for an energy consumption measuring sensor 292b-1 a-4 Function control element for a speed measuring sensor 292b-1 a-5 Function control element for an internal pressure measuring sensor 292b-1 a-6 Function control element for an intake temperature measuring sensor 292b-1 a-7 Function control element for an outlet temperature measuring sensor 292b-1 a-8 Function control element for a valve opening / closing measuring sensor 292b-1b Fan Outlet Control Module 292b-1b-1 Control element for setting the outlet pressure 292b-1b-2 Control element for setting the flow rate 292b-1b-3 Control element for setting energy consumption 292b-1b-4 Control element for setting the speed 292b-1b-5 Control element for adjusting the valve opening / closing 292b-1 c Control module for a main power supply 292b-2 IoT fan data storage unit 292b-2a Collection module for normal operating data 292b-2b Abnormal Operation Collection Module 292b-2c Maintenance history summary module A valve information output module R1 Air-heat first contact path R2 first exit route R3 second exit route SS sensor unit SS1 fan sensor module SS1-1 outlet pressure sensor element SS1-2 flow rate sensor element SS1-3 Energy consumption sensor element SS1-4 speed sensor element SS1-5 filter pressure difference sensor element SS1-6 Indoor temperature sensor element SS1-7 Intake temperature sensor element SS1-8 outlet temperature sensor element SS1-9 Valve condition sensor element SS2 communication module for fan sensor data

Claims

[1] Remote-controlled intelligent fan (1), comprising: a blower chamber (100) for compressing outside air flowing into the interior thereof and discharging the compressed air; and a fan control chamber (200) forming a partition wall of a predetermined height with the fan chamber (100) and capable of operating and monitoring in real time the energy consumption status and the operating status of a fan (110) arranged and fixed in the fan chamber (100), wherein the blower control chamber (200) comprises: a blower control system (290) which enables a manager to set an operating state of the blower (110) arranged and fixed in the blower chamber (100) and to manage and control an operating status of the blower (110) via a display panel (250) or an external exclusive terminal in order to be able to check and control the operating state and status of the blower (110), wherein the fan control system (290) comprises: a site control system (291) which enables the manager to directly set the operating state of the blower (110) via the display panel (250) at a site where the blower (110) is installed; and an intelligent control system (292) which enables the manager to set the operating state of the blower (110) installed at the site regardless of the distance and to check the operating state in real time, the intelligent control system (292) comprising: a communication unit for fan information exchange (292a) which transmits the real-time operating state of the fan (110) in operation and information detected by a sensor unit (SS) to the conductor and enables communication with the outside to be able to receive a specific signal transmitted by the conductor; and an IoT system controller (292b) that checks the operating status of the fan (110) in real time via the fan information exchange communication unit (292a) and enables the manager to remotely control the fan (110) using the exclusive terminal regardless of distance based on IoT (Internet of Things) technology, to enable the manager to check the operating status of the fan (110) installed at the site using the exclusive terminal via the IoT system controller (292b) regardless of distance, and to manage the real-time operating status of the fan (110) by resetting and controlling the operating status taking into account information about the fan (110) that has been checked and acquired, wherein the IoT system control (292b) comprises: an IoT blower mechanical controller (292b-1) which monitors the mechanical operation of the blower (110) and controls and manages the mechanical operation depending on the situation; and an IoT blower data storage unit (292b-2) which collects and manages information so that the IoT blower mechanism controller (292b-1) can be controlled and managed based on information about a discharge pressure, a flow rate, a power consumption, a rotational speed, a temperature, an outside air temperature, a compressed air temperature, an opening / closing, and an opening / closing degree of a valve detected by the blower, wherein the IoT blower mechanism control (292b-1) comprises: a control module for the sensor unit (292b-1a) which detects the operation of sensors (SS) installed on one side inside and outside the blower chamber (100) and the blower (110) and checks whether the sensors (SS) are in operation; a blower outlet control module (292b-1b) that detects, monitors, and controls the blower outlet pressure, flow rate, energy consumption, and speed, as well as the opening / closing of a valve; and a main power supply control module (292b-1c) which controls the switching on / off of the main power supplied to the blower chamber (100) and the blower control chamber (200), wherein the control module for the sensor unit (292b-1a) comprises: a discharge pressure sensor function control element (292b-1a-1) which detects the operation of a discharge pressure sensor formed in the blower (110) and checks whether the discharge pressure sensor is operating; a flow rate measuring sensor function control element (292b-1a-2) which detects the operation of a flow rate measuring sensor formed in the blower (110) and checks whether the flow rate measuring sensor is operated; a function control element for an energy consumption measuring sensor (292b-1a-3), which detects the operation of an energy consumption measuring sensor formed in the fan (110) and checks whether the energy consumption measuring sensor is operated; a speed sensor function control element (292b-1a-4) which detects the operation of a speed sensor formed in the fan (110) and checks whether the speed sensor is operating; a function control element for an internal pressure measuring sensor (292b-1a-5), which detects the operation of a temperature measuring sensor that measures the temperature of the fan (110) and checks whether the temperature measuring sensor is in operation; an intake temperature sensor function control element (292b-1a-6) which detects the operation of a temperature sensor that measures the temperature of the outside air sucked into the fan (110) and checks whether the temperature sensor is operating; a function control element for an outlet temperature measuring sensor (292b-1a-7), which detects the operation of a temperature measuring sensor that measures the temperature of compressed air discharged from the blower (110) and checks whether the temperature measuring sensor is operating; and a valve opening / closing measuring sensor function control element (292b-1a-8) which detects the operation of a sensor that measures the opening / closing and the degree of opening / closing of valves formed in the blower (110) and checks whether the sensor is in operation, to detect, measure and collect in real time the outlet pressure, flow rate, energy consumption and speed of the blower, the operating status of the opening / closing of the valves and information acquired from the blower (110), as well as to check whether the sensor unit (SS) responds correctly by detecting the operation of the sensor unit (SS) formed inside and outside the blower chamber (100) and the blower (110) and checking whether the sensor unit is working, wherein the fan outlet control module (292b-1b) comprises: a discharge pressure adjustment control element (292b-1b-1) which detects and controls the discharge pressure of the blower (110); a flow rate adjustment control element (292b-1b-2) which detects and controls the flow rate of the blower (110); an energy consumption adjustment control element (292b-1b-3) which detects and controls the energy consumption of the fan (110); a speed control element (292b-1b-4) which detects and controls the speed of the fan; and a control element for adjusting the opening / closing of the valves (292b-1b-5), which detects and controls the opening / closing of the valves formed in the blower (110), to operate the blower (110) under the optimal condition by controlling not only the output values for the discharge pressure, flow rate, energy consumption and speed, but also the opening / closing of the valve in accordance with the intended use of the location where the blower (110) is installed, as well as the real-time operating status of the blower (110), wherein the IoT fan data storage unit (292b-2) comprises: a normal operating data collection module (292b-2a) which stores information on the normal operating status according to the operating schedule of the blower (110); an abnormal operation history collection module (292b-2b) which stores information about an abnormal operation condition generated during operation according to the operation plan of the blower (110); and a maintenance history collection module (292b-2c) which stores information on measures taken by the manager for abnormal operation, such as changing and setting a specific operating condition, replacing parts, etc., according to an abnormal operating status of the blower (110), to enable the manager to control and manage the fan (110) so that the fan can operate under the optimal condition in accordance with the operating plan and the situations by checking the operating status of the fan (110) and the information acquired in real time from the fan (110) via a communication network, and to enable the manager to check, control and manage the operating status of the blower (110) arranged and fixed at the site in real time using the exclusive terminal not only at the site but regardless of the distance, thereby improving the operational reliability and ease of management of the blower (110). [2] A remotely controlled intelligent blower according to claim 1, wherein the turbo blower chamber comprises: a fan (110) which compresses air flowing from outside to inside; a first outside air inlet (120) formed on the rear surface and allowing outside air to flow into the blower chamber (100); a blower chamber filter (130) formed on the rear surface and preventing foreign matter from flowing into the blower chamber (100) through the first outside air inlet (120); a blower chamber shutter (140) formed on one side of the rear surface and opening / closing the rear surface of the blower chamber (100) so that the internal space can be managed; a compressed air outlet (150) formed on one side of the top surface and expelling the air compressed by the blower (110); and an external circulation pump (160) which prevents an increase in the temperature of the interior by discharging air and heat remaining inside to the outside in real time, wherein the external circulation pump (160) protrudes by a predetermined height from one side at the top of the blower chamber (100) and forms: an air-heat first contact path (R1) onto which the air and heat remaining and rising in the blower chamber (100) mainly impinge and which lowers the temperature of the remaining air and heat before they are discharged to the outside; a first outlet path (R2) for discharging the air and heat which come into contact with and impinge on the air-heat first contact path (R1) towards the front surface of the blower chamber (100); and a second outlet path (R3) for discharging the air and heat which come into contact with and meet the air-heat first contact path (R1) towards the rear surface of the blower chamber (100), so that the interior of the blower chamber (100) is easily managed and the temperature of the interior of the blower chamber (100) and the site is quickly lowered by the external circulation pump (160), thereby making the working environment comfortable. [3] A remotely controlled intelligent blower according to claim 1, wherein the blower control chamber (200) comprises: a second outside air inlet (210) formed on the front surface and allowing outside air to flow into the blower control chamber (200); a control chamber filter (220) formed on the front surface and preventing foreign matter from flowing into the blower control chamber (200) through the second outside air inlet (210); an operating status output bar (230) formed on one side of the front surface and indicating the operating status of the fan (110); a blower control chamber shutter (240) formed on one side of the front surface and opening / closing the front surface of the blower control chamber (200) so that the interior space can be managed; a display panel (250) formed on one side of the front surface and outputting the operating status and operating state of the fan (110) in real time so that the manager can directly set them; a power input unit (260) formed on one side of the front surface and supplying the required power consumption to the blower control chamber (200) and the blower chamber (100); a partition wall (270) formed to have a predetermined height on the rear surface of an interior space and separating the blower control chamber (200) and the blower chamber (100); a chamber connection (280) which connects the fan control chamber (200) and the fan chamber (100) with the partition wall therebetween, thereby securing the amount of air flowing into the fan (110) and reducing an increase in the internal temperature due to temperature exchange between the fan control chamber (200) and the fan chamber (100); and a fan control system (290) which enables the manager to set the operating state of the fan (110) and to manage and control the operating status of the fan (110) via the display panel (250) or the external exclusive terminal, to check and control the operating state and status of the fan (110).

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