KR20190019830A - IoT-based facilities management system capable of self-generation - Google Patents

Abstract

Disclosed is an IoT-based facility management system capable of nonutility generation. The IoT-based facility management system capable of nonutility generation can independently generate power using wind power and solar photovoltaic energy and manage IoT-based facilities using generated electricity. The facility management system (A) includes: a cylindrical supporter (10) vertically mounted on the ground; a wind power generator (20) mounted on the top of the supporter (10) to generate electric energy when blades (21) rotate by wind energy; a solar photovoltaic generator (30) mounted at one side of an upper portion of the supporter (10) to generate electricity by converting solar light into electric energy; a battery (40) mounted at one side of the supporter (10) to be charged with electricity generated from the wind power generator (20) and the solar photovoltaic generator (30) and supply electricity to each unit; an imaging unit (50) mounted at one side of the supporter (10) and having an LED lamp (51) and a camera (52); a wireless communication unit (60) mounted at one side of the supporter (10) and having an antenna for LTE and WiFi to perform wire and wireless communication; a data storing unit (70) for storing data transmitted or received through the wireless communication unit (60); and a controller (80) for controlling the units of the system.

Description

[0002] IoT-based facilities management system capable of self-

The present invention relates to a facility management system based on IoT capable of self-power generation, more specifically, self-power generation using wind energy and solar energy, electric power generated by wind power and solar energy, , An IoT-based facility management system capable of self-development that can easily manage overall facilities related to advertisement, farm management, and livestock management based on IoT.

Generally, there are wind power generation devices and photovoltaic power generation devices as typical systems that generate electric energy using natural energy. A wind power generator generates electric energy by rotating a blade and the like by the force of wind and converting the rotational force into electric energy. Photovoltaic devices generate electrical energy by using the principle that when a solar panel receives sunlight, it generates a photoelectron effect and electricity is generated. However, since the solar power generation apparatus can not generate electricity if the amount of sunshine is insufficient at night or rainy days, and the wind power generation apparatus has disadvantages that it can not be generated in a weather environment having low wind speed, A solar-wind power hybrid power generation device capable of generating and supplying stable electric power has been developed and used.

On the other hand, there are many ways to utilize electricity developed and developed using natural energy such as wind power and solar power.

As a representative example, a street light using a lamp-integrated solar light and a wind power generation (Korean Patent Registration No. 10-1249096) using electric power generated by wind power and solar light has been proposed.

The streetlight using the conventional lamp-integrated solar photovoltaic system and the wind power generator utilizes electric power generated by using natural energy such as wind power and sunlight as a means for lighting the street light.

Conventionally, a 'fiber optic light emitting display device using sunlight or wind power (Korean Patent Registration No. 10-0977876)' capable of self-power generation using natural energy such as sunlight and wind power has been proposed.

The conventional optical fiber light emitting display device using sunlight and wind power utilizes electricity generated by utilizing natural energy such as sunlight and wind power to operate a light emitting means for facilitating identification of a safety sign and the like.

That is, in the conventional case as described above, the electric energy produced from natural energy is often used only when the lamp of the street lamp is illuminated or illuminated by a sign, so that efficiency is low in terms of utilizing electricity produced from natural energy .

Korean Patent No. 10-1249096 Korea Patent No. 10-0977876

It is an object of the present invention to solve the above problems and to provide a solar power generation system and a solar power generation system capable of generating electricity by using wind power and solar energy and using electricity generated by wind power and solar energy, Provides IoT-based facility management system that can easily develop the related facilities by using IoT, and can utilize electric power generated by natural energy for various purposes, thereby expanding the range of utilization and function to improve efficiency. .

According to an aspect of the present invention, there is provided an IoT-based facility management system that is self-generating, self-generated using wind and solar energy, The facility management system (A) comprising: a cylindrical support (10) vertically installed on the ground; A wind power generator 20 installed at an upper end of the support 10 and rotating the blade 21 through wind energy to produce electric energy; A photovoltaic generator 30 installed at one side of the upper part of the support 10 for converting sunlight into electric energy to produce electricity; A battery 40 installed at one side of the support frame 10 and charged with electricity generated by the wind power generator 20 and the solar generator 30 and supplying power to each unit; A photographing unit 50 installed on one side of the support 10 and equipped with an LED lamp 51 and a camera 52; A wireless communication unit 60 installed at one side of the support base 10 and having a transmission / reception antenna for LTE and WiFi to perform wire / wireless communication; A data storage unit 70 for storing data transmitted and received through the wireless communication unit 60; And a controller 80 for collectively controlling the operation of each part of the system.

Further, the wind power generator 20 includes: a blade 21 rotated by wind; A reinforcing member 22 for firmly fixing the blade 21; A blade shaft 23 located at the center of the blade 21 and connected to the motor shaft; And a hybrid motor 24 for generating electric power by rotation of the blade 21. The hybrid motor 24 has a power generating function for converting rotational energy of the blade shaft 23 into electric energy And when the number of revolutions per unit time of the blade shaft 23 is lower than a predetermined value, the blade shaft 22 can be rotated by generating rotational kinetic energy using the power supplied from the battery 40.

A charging amount display device 41 for visually displaying the state of charge of the battery 40 may be installed at one side of the support table 10.

The controller 80 includes a controller power supply safety device 81 for controlling the amount of power supplied to the respective units to prevent the discharge of the battery 40 when the charged amount of the battery 40 drops below a predetermined level .

The facility management system A further includes an information providing unit 110 for providing various information including traffic information to a user, and the information providing unit 110 may include an information providing unit 110, An electric sign board 111 installed to face the straight ahead direction of the vehicle running on one side and visually indicating the speed limit and traffic related information of the current road to the driver of the road; And a speaker 112 installed at one side of the supporter 10 and outputting traffic related information to a driver of the road including audible and alarm sounds as auditory signals.

The facility management system A further includes a charging unit 120 provided with various charging means and the charging unit 120 is installed on one side of the support base 10 to charge the electric bicycle and the segment A possible moving means charging device 121; A smartphone charging device 122 installed at one side of the support table 10 and capable of charging the power of the smartphone; And an outlet 123 for supplying electricity.

In addition, a bicycle tire air injector 90 for increasing the air pressure of the bicycle tire may be installed at one side of the support stand 10.

The facility management system A includes a plurality of light emitting devices 31 arranged at a predetermined interval on one side of the blade 21 and has a visual afterimage effect on a human eye when the blades 21 are rotated And a light emitting unit 120 for outputting an image by displaying the image.

The facilities management system A includes a vibration head 141 which is in contact with one side of the blade 21 and one side of the support base 10 and uses vibration of the vibration head 141 And a vibrating speaker 140 connected to the controller 80 for outputting sound in accordance with the information transmitted from the controller 80, have.

The facility management system A may further include a seismometer 150 installed at one side of the support 10 to record a seismic wave to find the vibration of the earthquake.

The facility management system A further includes a farm management unit 160 for remotely controlling farm management and the farm management unit 160 automatically measures the temperature, humidity, carbon dioxide, and light amount of the farm A sensing unit 161 for sensing the position of the object; And a controlled automatic shading film 162 corresponding to the measured value of the sensing unit 161.

The facilities management system A further includes a livestock management unit 170 for remotely controlling the livestock management, and the livestock management unit 170 may be installed in livestock to grasp the movement and health status of the livestock An object management band 171; And a flight photographing unit 172 for detecting the position of each individual of the livestock to prevent departure of the barn.

The IoT-based facilities management system according to the present invention can automatically generate and use electricity generated by using wind and solar energy, and can use the electricity to generate electric power, It is possible to easily manage the overall facilities related to management and livestock management on the basis of IoT, so that it is possible to operate without restrictions on the place without installing a separate electric facility. Utilizing electricity generated by natural energy for various purposes It is possible to increase the utilization and the range of the function to improve the efficiency.

1 is a perspective view of a facility management system based on IoT capable of self-power generation according to an embodiment of the present invention;
FIG. 2 is a perspective view of a facility management system based on IoT capable of self-power generation of FIG. 1 in which a wind turbine generator of another embodiment is installed.
3 is a block diagram illustrating a configuration of a facility management system based on IoT capable of self-power generation according to an embodiment of the present invention.
FIG. 4 is a perspective view showing a state where an information providing unit and a charging unit are installed in a facility management system based on IoT capable of self-power generation according to another embodiment of the present invention. FIG.
5 is a perspective view showing a state where a light emitting unit and a vibrating speaker are installed in a facility management system based on IoT capable of self-power generation according to another embodiment of the present invention.
FIG. 6 is an operational state diagram showing the rotation of the blades of the facility management system based on IoT capable of self-power generation of FIG. 5;
FIG. 7 is a block diagram of a farm management section of an IOT-based facility management system capable of self-power generation according to the present invention. FIG.
8 is a use state diagram of the IoT-based facility management system of the present invention to which the farm management section is applied.
9 is a block diagram of an animal husbandry management section of a facility management system based on IoT capable of self-power generation according to the present invention.
10 is a use state diagram of a facility management system based on IoT, which is capable of self-power generation, according to the present invention to which an animal husbandry management section is applied.

Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings so that those skilled in the art can easily carry out the present invention. However, the description of the present invention is merely an example for structural or functional explanation, and the scope of the present invention should not be construed as being limited by the embodiments described in the text. That is, the embodiments are to be construed as being variously embodied, constructed in various forms, or capable of substituting parts and techniques, and thus the scope of the present invention should be understood to include equivalents capable of realizing technical ideas.

Also, it should be understood that the scope of the present invention is not limited by the specific embodiments, as it is not intended to be exhaustive or to limit the scope of the invention to the precise form disclosed. In the meantime, detailed descriptions of technical structures and functions that are widely known and applied among the functions shown by the technical structures and technical structures described in the present invention will be omitted.

In order to fully understand the present invention, operational advantages of the present invention, and objects achieved by the practice of the present invention, reference should be made to the accompanying drawings and the accompanying drawings which illustrate preferred embodiments of the present invention.

BEST MODE FOR CARRYING OUT THE INVENTION Hereinafter, the present invention will be described in detail with reference to the preferred embodiments of the present invention with reference to the accompanying drawings. Like reference symbols in the drawings denote like elements.

FIG. 1 is a perspective view of a facility management system based on IoT capable of self-power generation according to an embodiment of the present invention. FIG. 2 is a schematic view of a facility management system based on IoT, FIG. 3 is a block diagram illustrating a configuration of a facility management system based on IoT capable of self-power generation according to an embodiment of the present invention. Referring to FIG.

1 and 3, an IoT-based facility management system A (hereinafter referred to as a facility management system) capable of self-power generation according to an embodiment of the present invention includes a support 10, a wind turbine 20, A solar battery 30, a battery 40, a photographing unit 50, a wireless communication unit 60, a data storage unit 70, and a controller 80.

The facility management system A is basically provided with a wind turbine 20 and a solar generator 30 around a hollow cylindrical supporting stand 10 made of metal and installed vertically on the ground, , Electricity generated by wind power and solar energy is stored in the battery 40, and the entire facilities related to security, disaster, advertisement, farm management and livestock management are generated based on IoT using self-developed electricity It can be easily managed.

The wind turbine generator 20 is installed at the upper end of the support table 10 and generates electricity by rotating the blades 21 through wind energy. The wind turbine generator 20 includes a blade 21, A reinforcing member 22 for firmly fixing the blade 21 to the support base 10, a blade shaft 23 positioned at the center of the blade 21 and connected to the motor shaft, And a hybrid motor 24 that generates electric power by rotation.

' 형태를 지니고, 지지대(10)로부터 일정 간격이 이격된 상태에서 사선으로 형성된 보강부재(22)를 통해 지지대(10)에 설치될 수 있으며, 블레이드축(23)이 '

' 형태의 중앙 원형부분의 중심 하부로 수직 형성되어 블레이드(21)의 외곽면 일측이 회전할 시에 그리게 되는 회전곡선이 지면에 수평한 원으로 형성되는 2엽의 수직형 블레이드가 된다.The blade 21 is a wing portion for generating a rotational force due to wind resistance,

And the blade shaft 23 can be installed on the support base 10 through the reinforcing member 22 formed diagonally with a predetermined distance from the support base 10,

Shaped vertical blade which is formed vertically below the central portion of the central circular portion of the blade 21 and forms a horizontal circle on the ground when the one side of the blade 21 rotates.

As another example, the shape of the blade 21 may be a blade having various shapes such as a case of being composed of three leaves, four leaves, five leaves, six leaves, and more.

2, the blade 21 is formed in three leaves and the upper and lower portions are connected to the support shaft 10 or the blade shaft 23 so that the reinforcement member 22 is coupled to the center portion, And may be installed so as to be connected to the inside of the blade 21.

As another example, the shape of the blade 21 may be made of a horizontal type blade, not a vertical type. In the case of a vertical type blade, the central axis of the blade 21 is horizontally disposed on the ground, The blade 21 may be formed.

The hybrid motor 24 has a function of generating electricity to convert the rotational energy of the blade shaft 23 into electric energy and when the rotational speed per unit time of the blade shaft 23 is lower than a predetermined value, And generates rotational kinetic energy using the supplied power to rotate the blade shaft 22.

The hybrid motor 24 converts the kinetic energy of the rotating blade 21 into electric energy, and the generated electric energy is stored in the battery 40 (hereinafter referred to as a 'power generation mode'). The hybrid motor 23 may be a mode (hereinafter, referred to as 'driving mode') in which the hybrid motor 23 is supplied with the electric power stored in the battery 40 and is switched to a rotating driving motor to be operated, A blade capable of maintaining the output of a video image using an afterimage effect through a light emitting unit 130, which will be described later, to be capable of performing a function of a motor capable of rotating the blade 21 at a rotational speed higher than a predetermined value, So that the minimum number of revolutions of the motor 21 can be maintained.

A controller 850 to be described below which is connected to an electric wire passing through the inside of the support table 10 is formed on one side of the support table 10 so that the controller 21 can control the hybrid motor 23 It is possible to control the hybrid motor 24 to operate by converting it from the power generation mode to the drive mode when it has the number of revolutions, for example, 50 rpm or less.

Next, the photovoltaic generator 30 is installed on one side of the supporter 10 and converts sunlight into electric energy to produce electricity. The solar power generator 30 is capable of producing electricity for a period of one hour, and is similar to a conventional solar power generator, which is similar to a solar power generator that converts solar light directly into electric energy using a general solar cell The detailed description of the solar battery 30 will be omitted.

Next, the battery 40 is installed on one side of the support stand 10, and the electricity generated by the wind power generator 20 and the solar generator 30 is charged. Which supplies power to the battery.

The battery 40 basically functions to charge the generated electricity, and plays a role of supplying electricity to the configuration of each part described later. Therefore, the configuration of each part to be described later will be described in more detail.

The photographing unit 50 is provided on one side of the support frame 10 and is provided with an LED lamp 51 and a camera 52. The photographing unit 50 photographs the surrounding situation on the basis of the position where the support frame 10 is installed . The LED lamp 51 and the camera 52 are configured to be connected to a hot wire sensor (not shown) to detect a surrounding object Only the LED lamp 51 is turned on and the camera 52 can be operated in conjunction with the photographing. In addition, the camera 52 is preferably installed with a camera equipped with a wide-angle lens for photographing a wide area, and may be mounted as a zoom lens capable of photographing from a wide angle area to a telephoto area, if necessary. Further, the lens may be installed with a camera capable of rotating 360 degrees with respect to the support table 10.

Next, the wireless communication unit 60 is provided on one side of the support base 10 and is provided with a transmission / reception antenna for LTE and WiFi to perform wire / wireless communication.

The wireless communication unit 60 has a built-in transmission / reception antenna to support wired / wireless communication, receives a signal from the outside, or transmits a signal generated in the facility management system A to the outside.

For example, it is possible to transmit image information photographed by a camera of the photographing unit 50 to an external server (not shown), and to communicate with various devices installed in a place apart from the place where the support table 10 is installed, So that remote control can be made possible. The wireless communication unit 60 uses a Wi-Fi, a 5G network, an LTE network, or a Rola network when the present invention is installed in Korea, and uses a Wi-Fi or NB-IOT network when installed in the United States, Japan, and Southeast Asia. So that low-power wireless communication is possible.

In addition, the facility management system A may generate a WiFi signal within a certain range in which the support base 10 is installed as a wireless Internet AP itself, thereby providing a service for the user to use the free WiFi Internet. In addition, when the facility management system A is configured with a plurality of identical configurations, a network network is formed in cooperation with each facility management system A to share information of the facility management systems A so that more active operation .

Next, the data storage unit 70 is a unit for storing data transmitted and received through the wireless communication unit 60. [ The data storage unit 70 is a space temporarily stored for storing or receiving data generated or received in the facility management system A itself, and may be driven in a non-power state. The data storage unit 70 may be a general HDD And can be configured to facilitate external maintenance and easy maintenance.

Next, the controller 80 is installed inside the support frame 10 or installed at a position spaced apart from the support frame 10, and controls the operations of the components of the facility management system A, including the configurations described above. The controller 80 may further include a controller power source safety device 81 for controlling the amount of power supplied to the respective units to prevent discharging of the battery 40 when the charged amount of the battery 40 is lower than a predetermined level have. That is, when the charge amount of the battery 40 is lowered to a certain level or less, all of the power supplied to each function is blocked except the essential functions, thereby delaying the time until the facility management system A is completely discharged .

FIG. 4 is a perspective view showing a state where an information providing unit and a charging unit are installed in a facility management system based on IoT capable of self-power generation according to another embodiment of the present invention. FIG.

Referring to FIG. 4, the facility management system A is installed at one side of the road, and may further include an information providing unit 110 for providing various information including traffic information to a user.

The information providing unit 110 is installed on one side of the supporter 10 so as to face the direction of the straight running of the vehicle and visually displays the speed limit and traffic related information of the current road to the driver of the road A display board 111 and a speaker 112 installed at one side of the supporter 10 and outputting traffic related information to the driver of the road including audible and alarm sounds as auditory signals.

The electric signboard 111 may be operated by receiving power from the battery 40 and the speed limit may be divided into a display electric signboard 111a and a text display electric signboard 111b. That is, the limited speed display electric sign board 111a is installed to face the direction of the straight running of the vehicle running on one side of the support stand 10, and the text display electric sign board 111b is provided to the driver of the road on which the support stand 10 is installed The controller 80 may receive a control signal and information transmitted from the controller 80 to display various messages such as letters and figures.

The speaker 112 may be connected to the controller 80 and may be remotely received through the wireless communication unit 60, such as an emergency emergency broadcast or a road situation.

The controller 80 analyzes and determines the traffic related information collected in association with the wireless communication unit 60 to select the characters displayed on the electric board 111 and the voice output to the speaker 112, As shown in FIG.

In addition, when the information providing unit 110 is installed in the same place as a bus stop, a display (not shown) capable of outputting or inputting information of a bus stop and various traffic-related information and outputting advertisements is additionally installed .

In addition, an emergency bell (not shown) for reporting and calling in order to cope with a crime situation may be installed on one side of the support stand 10.

The facility management system A may further include a charging unit 120 having various charging means.

The charging unit 120 may include a mobile device charging device 121, a smartphone charging device 122, and an outlet 123.

The moving means charging device 121 is installed at one side of the support 10 and is capable of charging the electric bicycle and the segment. The smartphone charging device 122 is installed at one side of the support 10 And a power source of the smartphone. The socket 123 is a part for supplying electricity and connecting a general electric plug.

The charging unit 120 may be connected to the controller 80 so that the driver can charge the smartphone and maintain contact with the outside for a long time when an emergency such as a traffic accident occurs.

In addition, a bicycle tire air injector 90 for increasing the air pressure of the bicycle tire may be installed at one side of the support stand 10.

The bicycle tire air injector 90 can utilize the tire air injection service with high accessibility by the users who pass the road by bicycle.

That is, it is possible to enhance the safety that can cope with an emergency situation such as discharge of an electric bicycle and decrease of air pressure of a tire through the moving means charging device 121 and the bicycle tire air injector 90.

On the other hand, a charging amount display device 41 for visually displaying the charged state of the battery 40 may be installed on one side of the support stand 10.

The charged amount display device 41 is installed to connect the wind power generator 20 and the solar generator 30 and the controller 80 installed on one side of the support stand 10 to set the state of the charging voltage of the battery 40 in advance For example, the charging state of 80 ~ 100% is 5 lights of green, the charging state of 20 ~ 40% is 2 red So that the user can easily grasp the current power charging state of the facility management system A by the naked eye.

FIG. 5 is a perspective view illustrating a self-generating IOT-based facility management system according to another embodiment of the present invention, in which a light emitting unit and a vibrating speaker are installed. FIG. Fig. 3 is an operating state diagram showing a state in which the blades of the facility management system are rotated.

5, the facility management system A includes a plurality of light emitting devices 31 arranged at predetermined intervals on one side of the blade 21, And a light emitting unit 130 for displaying an image with a time-ghosting effect and outputting an image.

That is, the light emitting unit 130 may be applied to a two-blade vertical blade 21, which is formed as a circle having a rotation curve drawn when one side of the outer surface of the blade 21 rotates.

The light emitting part 130 is formed by vertically sloping the upper and lower ends inward at a predetermined angle so that a plurality of light emitting elements 131 such as LEDs are arranged at regular intervals from the upper side to the lower side on the outer surface of the blade 21 Lt; / RTI >

6, each of the light emitting devices 131 of the light emitting unit 130 leaves a residual image according to the blinking period and the color change, and the light emitting unit 131 The controller 80 arbitrarily controls the blink cycle and hue of the display unit 130 to display the entire image by the visual-after-image effect. The rotation curve drawn by the light emitting element 131 of the rotating blade 21 is gathered to be the rotational curved surface of the light emitting portion 130 and the visual retention appearing on the rotational curved surface of the light emitting portion 130 has a cylindrical shape The image appears to be displayed on the screen.

When the shape of the blade 21 is three, four, five, six, or more blades, the light emitting unit 130 that arranges a plurality of light emitting devices 131 on the outer surface of the blade 21 The controller 80 arbitrarily controls the blinking period and hue of the light emitting unit 130 by leaving each afterimage in accordance with the blinking cycle and color change of each light emitting element 131, The entire image can be displayed.

As another example, the shape of the blade 21 may be made of a horizontal type blade, not a vertical type. In the case of a vertical type blade, the central axis of the blade 21 is horizontally disposed on the ground, A light emitting portion 130 is formed on the outer surface of the blade 21 to arrange a plurality of light emitting elements 131. The light emitting elements 131 are arranged on the outer surface of the blade 21, The controller 80 can arbitrarily control the blinking period and hue of the light emitting unit 130 while leaving the respective afterimages, thereby displaying the entire image by the time afterimage effect. In the case of a vertical blade, the shape of the image due to the visual afterimage effect is shaped like a disc perpendicular to the ground.

The light emitting unit 130 may provide the driver of the vehicle traveling along the road when the present invention is installed, for example, around the road, with current traffic volume or sightseeing information on the entered area. The control signal and information transmitted from the control unit 80 are received, and various images, messages such as letters and figures are expressed by the visual-after-image effect.

In addition, the structure and operation of the controller 80 will be described in more detail. The controller 80 includes an MCU, a memory, and the like. In the image information to be outputted in the field of view of the user, The color and brightness information for each pixel constituting the line is selected and obtained and the position of the light emitting unit 130 according to the rotation speed of the blade 21 is predicted to determine the angle of the image, When the light emitting unit 130 reaches the pixel position, the light emitting unit 130 may be turned on with a hue and a brightness corresponding to the pixel.

The facility management system A includes a vibration head 141 which is in contact with one side of the blade 21 and one side of the support 10 and uses the vibration of the vibration head 141, And a vibrating speaker 140 connected to the controller 80 for outputting sound in accordance with information transmitted from the controller 80. The controller 80 may be a speaker .

5, the vibration speaker 140 may be installed in contact with one side of the blade 21 and one side of the support 10, respectively. The operating principle of the vibrating speaker 140 is to fix the vibrating head 141 of the vibrating loudspeaker 140 in contact with an object and to cause the vibrating head 141 to vibrate the object in contact therewith, The magnitude of the sound of the object is amplified, and the sound of the different tone is formed according to the contacted object. The vibration head 141 is attached to one side of the blade 21 and one side of the upper side of the support member 10 to generate sound. The vibration speaker 140 is connected to the controller 80 to reproduce sound according to the information transmitted from the controller 80. The video and sound signals are simultaneously output by being matched with the image realized by the light emitting unit 130. [

That is, the wireless communication unit 60 and the controller 80 are connected to communicate information and control signals. The wireless communication unit 60 remotely receives traffic-related information such as emergency disasters and changes in road conditions from outside, Image information and sound information such as characters, figures and figures to be outputted are stored in the memory of the controller 80 and sequentially or arbitrarily outputted by the lighting of the light emitting unit 130 and the vibration of the vibration speaker 140, The wireless signal is wirelessly transmitted through the communication unit 60 and stored in the memory of the controller 80 or deleted from the memory by the wireless control signal so that image information and image information such as characters and figures in the memory of the controller 80 and the sound signal are updated .

In this way, when a disaster signal is received through the wireless communication unit 70, a disaster signal is transmitted as an image having a time-persistence effect according to the rotation of the light emitting unit 130 of the blade 21, It is possible to transmit a disaster signal through the sound.

The facility management system A may further include a seismometer 150 installed at one side of the support platform 10 to record a seismic wave to determine vibration of the seismic system. That is, the vibration of the earthquake can be sensed through the seismometer 150, and the surrounding situation can be recognized through the camera 52 of the photographing unit 50.

FIG. 7 is a block diagram of a farm management section of the IoT-based facility management system capable of self-power generation according to the present invention, and FIG. 8 is a use state diagram of the IoT-based facility management system of the present invention to which the farm management section is applied.

Referring to FIGS. 7 and 8, the facility management system A may further include a farm management unit 160 for remotely controlling farm management.

The farm management unit 160 includes a sensing unit 161 for automatically measuring temperature, humidity, carbon dioxide, and light intensity of the farm, and a controlled automatic sunshield 162 corresponding to the measured value of the sensing unit 161 .

The sensing unit 161 automatically measures the temperature, humidity, carbon dioxide, and light amount of the farm, and matches the optimum conditions for cultivating the crop to match the precise conditions and determine the situation.

The automatic shading film 162 is an automatically opening and closing canopy for controlling conditions of a farm or a greenhouse in response to various situations sensed by the sensing unit 161. [

In addition, although not shown in the drawing, a water supply device (not shown) may be installed to automatically adjust the conditions of the farm and automatically control the cultivation of the crops.

That is, the facility management system A in which the farm management unit 160 is installed can remotely control the farm management through the farm management unit 160, and the user can control the farm management through the wireless communication unit 60 and the controller 80, (Smart phone, etc.) can be used to grasp and control the situation of the farm.

In addition, the facilities of the farm can be remotely controlled through the farm management unit 160, and the surroundings of the farm can be monitored through the photographing unit 50 to perform the continuous recording.

In addition, although the farm management unit 160 applied to a farm has been described as an embodiment of the present invention, it is needless to say that household appliances and the like can be controlled remotely even at home. That is, the sensing unit 161 can be replaced with home appliances and sensors installed in the home, and the automatic waving film 162 can be replaced with a sensing unit 161 or a home appliance or the like automatically operated by interlocking with a sensor installed in the home appliance Lt; / RTI >

Therefore, the facility management system (A) described above is not limited to the farm, and can be applied to any place where remote control such as home and public institutions is required.

FIG. 9 is a block diagram of an animal husbandry management unit of a facility management system based on IoT that can generate self-generated electricity according to the present invention, and FIG. 10 is a use state diagram of a facility management system based on IoT that can be self-generated by the present invention.

9 and 10, the facility management system A may further include an livestock management unit 170 for remotely controlling the livestock management.

The livestock management unit 170 includes an object management band 171 for grasping the movement and health state of livestock worn by livestock and a flight photographing unit 172 for detecting the position of each individual animal .

For example, the object management band 171 may be worn on a livestock for the purpose of managing growth, shipping management, and object lot management. For example, the object management band 171 may be formed in a necklace form and worn on the neck of a livestock. The health status of livestock can be grasped at all times.

The flight photographing unit 172 is a kind of drone that is a flying object capable of flying and steered by induction of radio waves and is operated by a user to grasp the situation of a place where a domestic animal such as a barn is located, And can be used to identify situations where an individual leaves the house. In addition, it is also possible to monitor the periphery of a barn using the photographing unit 50, and to continuously record the barn.

That is, the user can grasp and control the state of housing by using a mobile terminal (smart phone or the like).

The facility management system (A) according to the technical idea of the present invention can charge the battery (40) by using electricity generated by the self-generated and developed electricity by using wind power and solar energy, It is possible to easily manage all facilities related to security, disaster, advertisement, farm management and livestock management based on IoT, so that it is possible to operate without restrictions on places without installing separate electric facilities. By utilizing the developed electricity for various purposes, it is possible to expand the range of utilization and function, thereby improving the efficiency.

As described above, an optimal embodiment has been disclosed in the drawings and specification. Although specific terms are employed herein, they are used for purposes of describing the invention only and are not intended to limit the scope of the invention or limit the scope of the invention as set forth in the claims. Therefore, those skilled in the art will appreciate that various modifications and equivalent embodiments are possible without departing from the scope of the present invention. Accordingly, the true scope of the present invention should be determined by the technical idea of the appended claims.

A: Facility management system 10: Support
20: Wind power generator 21: Blade
22: reinforcing member 23: blade shaft
24: Hybrid motor 30: Solar generator
40: battery 41: charge amount display device
50: photographing part 51: LED lamp
52: camera 60: wireless communication unit
70: Data storage unit 80: Controller
81: Power source safety device 90: Air injector
110: Information provider 111: Display board
111a: speed limit display electric sign board 111b: text display electric sign board
112: Speaker 120:
121: moving means charging device 122: smartphone charging device
123: outlet 130:
131: light emitting element 140: vibrating speaker
141: Vibrating head 150: Seismometer
160: farm management section 161: sensing section
162: Automatic shoehorn 170: Livestock management section
171: object management band 172: flight shooting section

Claims (12)

A facility management system for self-generating using wind and solar energy and managing IoT-based facilities using developed electricity,
The facility management system (A)
A cylindrical support 10 mounted perpendicularly to the ground;
A wind power generator 20 installed at an upper end of the support 10 and rotating the blade 21 through wind energy to produce electric energy;
A photovoltaic generator 30 installed at one side of the upper part of the support 10 for converting sunlight into electric energy to produce electricity;
A battery 40 installed at one side of the support frame 10 and charged with electricity generated by the wind power generator 20 and the solar generator 30 and supplying power to each unit;
A photographing unit 50 installed on one side of the support 10 and equipped with an LED lamp 51 and a camera 52;
A wireless communication unit 60 installed at one side of the support base 10 and having a transmission / reception antenna for LTE and WiFi to perform wire / wireless communication;
A data storage unit 70 for storing data transmitted and received through the wireless communication unit 60; And
And a controller (80) for collectively controlling the operation of each part of the system. The method according to claim 1,
The wind turbine generator (20)
A blade 21 rotated by wind;
A reinforcing member 22 for firmly fixing the blade 21;
A blade shaft 23 located at the center of the blade 21 and connected to the motor shaft; And
And a hybrid motor (24) for generating electricity by rotation of the blade (21)
The hybrid motor (24)
When the number of revolutions per unit time of the blade shaft 23 is lower than a predetermined value, the rotation energy of the blade shaft 23 is converted into electric energy by using the electric power supplied from the battery 40, And rotates the blade shaft (22). The IoT-based facility management system is capable of self-power generation. The method according to claim 1,
On one side of the support base (10)
And a charged amount display device (41) for visually displaying the charged state of the battery (40) is installed. The method according to claim 1,
The controller (80)
And a controller power source safety device (81) for controlling the amount of electric power supplied to each part to prevent the discharge of the battery (40) when the charged amount of the battery (40) drops below a certain level. Based facility management system. The method according to claim 1,
The facility management system (A)
The information providing apparatus (110) for providing various information including traffic information to a user,
The information providing unit (110)
A display board 111 installed on one side of the support stand 10 so as to face the straight ahead direction of the vehicle running the road and visually displaying a current speed limit of the road and traffic related information to the driver of the road; And
And a speaker (112) installed at one side of the supporter (10) and outputting traffic related information to the driver of the road by auditory signals including voice and alarm sounds. Based facility management system. The method according to claim 1,
The facility management system (A)
Further comprising a charging unit (120) provided with various charging means,
The charging unit 120,
A moving means charging device 121 installed at one side of the support table 10 and capable of charging an electric bicycle and a segment;
A smartphone charging device 122 installed at one side of the support table 10 and capable of charging the power of the smartphone; And
And a socket (123) for supplying electric power to the IoT-based facility management system. The method according to claim 1,
On one side of the support base (10)
And a bicycle tire air injector (90) for raising the air pressure of the bicycle tire is installed. The method according to claim 1,
The facility management system (A)
A plurality of light emitting devices 31 are arranged at a predetermined interval on one side of the blade 21 and a light emitting unit 120 for outputting an image with a visual afterglow effect on a human eye when the blade 21 rotates Wherein the IoT-based facilities management system further comprises a self-generated IoT-based facility management system. The method according to claim 1,
The facility management system (A)
And a vibrating head 141 which is in contact with one side of the blade 21 and one side of the support 10. The vibrating head 141 vibrates the blade 21 and the support 10, And a vibration speaker (140) connected to the controller (80) for outputting sound according to information transmitted from the controller (80) Management system. The method according to claim 1,
The facility management system (A)
Further comprising a seismometer (150) installed at one side of the supporter (10) for detecting seismic vibrations and recording seismic waves. The method according to claim 1,
The facility management system (A)
Further comprising a farm management unit (160) for remotely controlling the farm management,
The farm management unit 160,
A sensing unit 161 for automatically measuring temperature, humidity, carbon dioxide, and light amount of the farm; And
And a controllable automatic shading film (162) corresponding to the measured value of the sensing unit (161). The method according to claim 1,
The facility management system (A)
Further comprising an livestock management unit (170) for remotely controlling the livestock management,
The livestock management unit 170,
An object management band 171 for grasping the movement and health state of the livestock worn on the livestock; And
And a flight photographing unit (172) for detecting the position of each individual of the livestock to prevent departure of the barn.

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