KR102246763B1 - High-end information communication integration control system of apartment house - Google Patents

Abstract

The present invention relates to a high-tech information and communication integrated control system of an apartment house and, more specifically, to a high-tech information and communication integrated control system of an apartment house for controlling an IoT device placed in the household of an apartment house by automatically recognizing the behavior of a user while protecting an IoT server from the indoor moisture or dust to maintain a stable operating state.

Description

High-end information communication integrated control system of apartment houses {HIGH-END INFORMATION COMMUNICATION INTEGRATION CONTROL SYSTEM OF APARTMENT HOUSE}

The present invention relates to a state-of-the-art information and communication integrated control system of an apartment house among the field of communication technology, and more specifically, it controls an Internet of Things (IoT) device disposed within a household of an apartment house by automatically recognizing a user's behavior. , It relates to a state-of-the-art information and communication integrated control system for apartment houses to maintain a stable operating state by protecting an IoT server from indoor moisture or dust.

In general, the Internet is a global system of interconnected computers and computer networks that use standard Internet protocol suites (e.g., transmission control protocol (TCP) and Internet protocol (IP)) to communicate with each other. .

Internet of things (IoT) is a computer and non-computer network, everyday objects can be read, recognizable, positionable, addressable and controlled through an IoT communication network (e.g., ad-hoc system or Internet). It is based on the idea that it is possible. In other words, the Internet of Things (IoT) is a new information and communication foundation that enables people to communicate with objects, objects and objects anytime, anywhere by connecting existing objects through the Internet.

Conventionally, an Internet of Things (IoT) device was controlled through a mobile terminal such as a smart phone or a smart pad or an application of a personal computer (PC). For example, the user can activate various Internet of Things (IoT) devices such as controlling the boiler temperature by activating the mobile terminal application from the outside, locking the gas valve, setting the completion time of the washing machine, or turning on the electric rice cooker. Controlled.

However, since such an input method has to involve a step in which the user activates the application of the mobile terminal, there is a problem in that it is difficult to control such Internet of Things (IoT) devices when the user does not recognize that the mobile terminal is to be activated.

Korean Patent Registration No. 10-2086499 (2020.03.09.)'Power control system based on the Internet of things'

The present invention was invented to solve the above-described problems, and an object of the present invention is to automatically recognize the behavior of a user to control an Internet of Things (IoT) device disposed in a household of an apartment house, while controlling indoor moisture or dust. It is to provide a state-of-the-art information and communication integrated control system for apartment houses to maintain a stable operating state by protecting the IoT server from the back.

The problem to be solved of the present invention is not limited to those mentioned above, and other problems that are not mentioned will be clearly understood by those skilled in the art from the following description.

In order to achieve the above object, the present invention provides a plurality of Internet of Things (IoT) devices 4 disposed within a household of an apartment house; A wearable that is worn by the user on a predetermined part of the body, and when the user wears it on the body, recognizes a motion signal corresponding to the user's movement to determine the user's behavior, and transmits the corresponding behavior data to the server 1 Device 23; In response to the behavioral data, the server (1) for generating and transmitting control data for controlling at least one IoT device (4), the wearable device (23), the user is the wearable device (23) A sensor unit 231 that detects a motion signal including data on acceleration, angular velocity, and heart rate of a predetermined part of the body wearing the wearer; And recognizing a motion signal corresponding to the user's motion from the motion signal of the user sensed by the sensor unit 231 to determine the user's behavior according to the behavior pattern stored in the storage unit 234 to generate the behavior data. In the state-of-the-art information and communication integrated control system of an apartment house consisting of an analysis unit 232, further comprising an operation holding unit 100 to maintain a stable operating state while protecting the server 1 from moisture within the household, the hydraulic oil Branch 100, the front is opened to the inside of the server (1) is accommodated a protective cover (110); A door 120 for opening and closing the front surface of the protective cover 110; A suction pipe 130 connected to one end to communicate with the protective cover 110; An inlet fan 140 provided in the suction pipe 130 and configured to allow external air to flow into the protective cover 110 when driven; The inner bottom of the protective cover 110, including a support plate 201 on which the server 1 is seated and a plurality of ventilation holes 201 are formed, and a support bar 202 supporting both sides of the support plate 201 A support means (200) for supporting the server (1) from the surface; And it provides a state-of-the-art information communication integrated control system of an apartment house, characterized in that it comprises a desiccant 210 provided on the inside of the support means (200).

According to the present invention, since the control data of the IoT device corresponding to the user's operation signal is automatically transmitted without the user having to input the control data of the IoT device to the terminal, the user's convenience can be improved.

In addition, there is an effect of maintaining a stable operating state by protecting the IoT server from indoor moisture or dust.

The effects of the present invention are not limited to those mentioned above, and other problems that are not mentioned will be clearly understood by those skilled in the art from the following description.

1 is a block diagram schematically showing a state-of-the-art information and communication integrated control system of an apartment house according to the present invention.
2 is a schematic diagram of a wearable device in the state-of-the-art information communication integrated control system of an apartment house according to the present invention.
3 is a side view showing the support in the state-of-the-art information communication integrated control system of the apartment house according to the present invention.
4 is a partially enlarged cross-sectional view showing the support in FIG. 3.
And
5 is a partially exploded perspective view showing the support in FIG. 3.

Hereinafter, preferred embodiments of the present invention will be described in more detail with reference to the accompanying drawings.

Referring to FIG. 1, the state-of-the-art information and communication integrated control system of an apartment house according to the present invention includes an Internet of Things (IoT) server 1, a user terminal 2, an access point (AP) 3, and an object. Internet (IoT) devices 4.

The IoT device 4 is configured to communicate with the AP 3 through an air interface, and the air interface may comply with, for example, a wireless Internet protocol such as IEEE 802.11.

In the present invention, the IoT device 4 exemplarily shows that the IoT device 4 communicates with the AP 3 through an air interface, but each IoT device 4 can communicate through wired or wireless one or both. There will be.

The IoT device 4 may include an air conditioner 41, a temperature controller 42 of a boiler, a refrigerator 43, an electric rice cooker 44, and a TV 45. However, this is only an example and may include various objects within the household of other apartment houses.

Although not shown, the Internet may include multiple routing agents and processing agents. The Internet is a global system of interconnected computers and computer networks that use standard Internet protocol suites (e.g., Transmission Control Protocol (TCP) and Internet Protocol (IP)) for communicating between disparate devices/networks. TCP/IP can provide end-to-end connectivity that specifies how data should be formatted, addressed, sent, routed and received at the destination.

The user terminal 2 may include a wired terminal 21, a mobile terminal 22, and a wearable device 23 worn by the user on a predetermined part in the user's premises. As an example of the wired terminal 21, a personal computer (PC) in the form of a desktop is shown, but the present invention is not limited thereto. The wired terminal 21 is included as the user terminal 2, but may also be included in the IoT device 4.

The mobile terminal 22 is a terminal carried by a user and may be implemented in the form of, for example, a smart phone or a smart pad.

The wearable device 23 is worn by the user on a predetermined portion, and may be worn on a wrist in the form of a watch, for example.

In the present invention, the wearable device 23 may transmit to the IoT server 1 or to the mobile terminal 22 through the Internet while automatically recognizing the user's behavior including a predetermined sensor and a communication unit.

Referring to FIG. 1, the wearable device 23 is shown to communicate with the IoT server 1 through the Internet, but is not limited thereto and may communicate with the mobile terminal 22.

The AP 3 may be connected to the Internet through, for example, an optical communication system modem, a cable modem, a digital subscriber line (DSL) modem, or the like.

The AP 3 may also communicate with the IoT device 4 and the Internet using standard Internet protocols (eg TCP/IP).

The IoT server 1 may be implemented as a plurality of structurally separate servers, or may correspond to a single server.

Hereinafter, after describing the operation of the conventional IoT system, the operation of the system of the present invention will be described.

Conventionally, when a user wants to control the temperature controller 42 of the boiler from the outside, when the application of the mobile terminal 22 is controlled and the temperature is controlled through the application, the mobile terminal 22 is connected to the IoT server 1. Transmit the data.

When the IoT server 1 transmits the corresponding control data to the AP 3 through the Internet, the temperature controller 42 receiving the control data from the AP 3 operates in a form controlled by the control data. Alternatively, it can be controlled by the wired terminal 21 instead of the mobile terminal 22.

That is, when a user inputs data into the wired terminal 21 or the mobile terminal 23 in order to control the IoT device 4, the IoT server 1 transmits control data corresponding to the data to the AP ( The IoT device 4 transmitted to 3) and received control data from the AP 3 is controlled according to the corresponding control data.

As described above, in the conventional IoT system, the user can control the IoT device 4 by using the wired terminal 21 or the mobile terminal 23.

According to the present invention, it is possible to control the IoT device 4 by a user's action without intervening the wired terminal 21 or the mobile terminal 22.

That is, when the behavior pattern of the user wearing the wearable device 23 is recognized and predetermined behavior data corresponding to the behavior pattern is transmitted to the IoT server 1, control data corresponding to the behavior is transmitted to the IoT server 1 The IoT device 4 transmitted to the AP 3 through the Internet and received control data from the AP 3 may be controlled according to the corresponding control data.

At this time, the behavioral data recognized by the wearable device 23 may be directly transmitted to the IoT server 1 through the Internet or may be transmitted to the IoT server 1 through the mobile terminal 22.

For example, when a user wakes up in the morning, the wearable device 23 transmits data related to the user's behavior to the IoT server 1, and the IoT server 1 recognizes that the user has woke up, and the electric rice cooker 44 ) Can be turned on or the air conditioner 41 can be operated.

Referring to FIG. 2, the wearable device 23 includes a sensor unit 231, an analysis unit 232, and a communication unit 233.

The sensor unit 231 may measure the acceleration, angular velocity, and heart rate of the user's arm (when the wrist is covered). As an example, the sensor unit 231 includes an acceleration sensor 231a that measures the acceleration of the arm, a gyro sensor 231b that measures the position and direction by detecting the rotational inertia of the arm, and a pulse sensor that measures the user's heart rate. (231c) may be included.

The acceleration sensor 231a may provide information such as an increase/decrease ratio of a speed relative to a linear motion or the intensity of an applied impact, and the gyro sensor 231b detects the angular velocity at which the object rotates in a unit time to detect the rotational motion of the body, Information such as directions can be provided.

The acceleration sensor 231a and the gyro sensor 231b may be provided in the form of a 6-axis sensor (three-axis acceleration sensor and three-axis gyro sensor) that measures the acceleration of the x, y, and z axes in order to distinguish various actions to be performed. have.

Data of rotation, direction, and acceleration of the user's body (arm) measured by the sensor unit 231 and the pulse rate may be transmitted to the analysis unit 232. Hereinafter, in the present specification, data obtained by measuring an operation currently being performed by the sensor unit 231 will be referred to as a'motion signal'. That is, in the present invention, the motion signal may include data on the acceleration of the user's body, the angular velocity, and the user's heart rate.

The analysis unit 232 may determine the user's behavior from the motion signal measured by the sensor unit 231. For example, the analysis unit 232 may determine that the user has woke up when movement is recognized while the user is sleeping. The behavior pattern corresponding to the user's motion signal may be stored in the storage unit 234.

The communication unit 233 may transmit the user's behavior data determined by the analysis unit 232 to the IoT server 1 through the Internet.

The IoT server 1 receiving the user's behavior data may transmit control data for controlling one or more of the IoT devices 4 to the AP 3 through the Internet in response to the corresponding behavior data, and the AP ( Any one of the IoT devices 4 that received the control data through 3) may be controlled by the corresponding control data.

That is, for example, when the analysis unit 232 determines that the user is awakened by an operation signal recognized by the sensor unit 231, the IoT server 1 controls the rice cooker 44 and the air conditioner 41 The control data for this may be transmitted to the AP 3, and the rice cooker 44 and the air conditioner 41 may be turned on respectively by the corresponding control data.

Alternatively, for example, the analysis unit 232 may determine that the user is leaving the office based on an operation signal recognized by the sensor unit 231. That is, when the user moves to use public transportation for leaving work after sitting at a desk, the analysis unit 232 may recognize that the user is leaving the office by such an operation signal. In this case, the IoT server 1 receiving that the user's action is'going home' from the analysis unit 232 may transmit control data for raising the temperature of the house to the AP 3, and the temperature controller 42 The room temperature can be adjusted by the corresponding control data.

Alternatively, for example, the analysis unit 232 may determine that the user is in a dangerous situation when leaving the office based on an operation signal recognized by the sensor unit 231. That is, in the case of a user moving at a normal speed in peace and suddenly running, the analysis unit 232 may recognize that the user is in danger from the corresponding operation signal. In this case, the IoT server 1 receiving that the user is in'risk' from the analysis unit 232 through the wired terminal 21 (in this case, the wired terminal 21 corresponds to the IoT device 4) Control data may be transmitted to the AP 3 to contact the nearby police station, and the wired terminal 21 may transmit a message to the nearby police station by the corresponding control data.

However, what has been described above is exemplary, and the present invention is not limited to this example, and the IoT device 4 may be controlled by recognizing actions from a user's motion signal in various ways.

In the above example, the wearable device 23 has been described as an example of recognizing the user's behavior, but the wearable device 23 transmits the user's motion signal to the IoT server 1 and receives the motion signal. The server 1 may be aware of the user's actions.

As described above, in the present invention, when a user's motion signal is detected from the sensor unit 231 of the wearable device 23, a behavior pattern corresponding to the user's motion signal is determined, and the IoT You can control the device.

That is, according to the present invention, the control data of the IoT device corresponding to the user's operation signal is transmitted without the need for the user to input the control data of the IoT device through the wired terminal 21 or the mobile terminal 22. Can improve the convenience of customers.

The state-of-the-art information communication integrated control system of an apartment house according to the present invention is an operation maintenance unit that protects the server 1 provided in each household of the apartment house from moisture or dust and maintains a stable operating state as shown in FIG. It further includes (100).

The operation holding unit 100 has a protective cover 110 in which the front side is opened to accommodate the server 1 inward, a door 120 that opens and closes the front of the protective cover 110, and one end communicates with the protective cover 110. It is provided in the suction pipe 130 and the suction pipe 130 to be connected, and includes an inlet fan 140 to allow external air to flow into the protective cover 110 according to the driving.

The protective cover 110 has a square shape in which an empty space 110a is formed inward while the front surface is opened.

The door 120 is connected to the front of the protective cover 110 so as to be openable and closed by a hinge or the like so that the server 1 can be inspected according to the opening.

It is preferable that the door 120 is provided with a visible window 120a so that moisture existing in the empty space 110a can be naturally dried by sunlight or the like as well as visual confirmation of the interior.

The suction pipe 130 is provided with an inlet fan 140 inside the rear end while the front end passes through the protection cover 110 and is located in the empty space 110a, and the rear end extends from the protection cover 110 to the rear.

The suction pipe 130 allows the air introduced from the outside to be introduced into the empty space 110a according to the driving of the inlet fan 140, so that moisture existing in the empty space 110a through ventilation of the protective cover 110 So that it can be removed.

It is preferable that the suction pipe 130 has a spiral protrusion 130a formed on the inner circumferential surface along the longitudinal direction so that the air introduced from the outside rotates and flows into the empty space 110a.

This is to allow the air passing through the suction pipe 130 to rotate and to be introduced into the empty space 110a so that moisture can be effectively removed with smooth ventilation through the rotation of the air.

The operation holding unit 100 may further include a filter 170 provided inside the rear end of the suction pipe 130 so as to be located at the rear of the inlet fan 140.

The filter 170 filters foreign substances such as dust contained in the outside air as the inlet fan 140 is driven, so that the air is drawn into the inside of the protective cover 110.

Accordingly, it goes without saying that it is possible to prevent a malfunction of the server 1 due to foreign substances or the like and a malfunction.

An exhaust hole 110b communicating with the empty space 110a is formed in the protective cover 110.

The exhaust hole (110b) is formed in the lower rear of the protective cover (110), the air introduced through the suction pipe (130) by the drive of the inlet fan (140) can be discharged to the outside while circulating through the empty space (110a). To be there.

The operation holding unit 100 may further include a re-inlet pipe 131 having one end connected to the exhaust hole 110b and the other end adjacent to the rear end of the suction pipe 130.

The rear end of the re-inflow pipe 131 is adjacent to the rear end of the suction pipe 130, and a part of the air discharged through the exhaust hole 110b according to the driving of the inlet fan 140 is re-inflowed into the inside of the protective cover 110 Make it possible.

This is, as the air from which moisture and foreign substances are removed from the protective cover 110 is re-introduced into the interior of the protective cover 110 through the suction pipe 130, along with the purification of the air flowing into the protective cover 110, and moisture. This is to make the removal of the material more effective.

The operation holding unit 100 may further include a heating wire 150 for heating air introduced through the inlet fan 140.

The heating wire 150 is preferably provided outside the front end of the suction pipe 130 while forming a coil shape.

The heating wire 150 may be heated by receiving power from the outside, but may be heated while heat generated according to the operation of the server 1 is transferred.

To this end, the heating wire 150 may have one end connected to the server 1 and the other end wound around the suction pipe 130.

The heating wire 150 heats the air introduced into the empty space 110a through the suction pipe 130 and allows the moisture present in the empty space 110a to be heated and dried.

The operation holding unit 100 further includes a sensing sensor 160 for sensing moisture in the empty space 110a, and a control means 180 for controlling the inflow fan 140 to operate according to the moisture sensing signal of the sensing sensor 160. Includes.

Here, when the heating wire 150 is heated by receiving power from the outside, the control means 180 can control the heating wire 150 together with the inlet fan according to a detection signal of the detection sensor 160.

The detection sensor 160 is preferably provided in the empty space (110a).

The control means 180 may control the inlet fan 140 to be driven according to the detection of moisture by the detection sensor 160 or the inlet fan 140 and the heater 150 to be driven together.

The protective cover 110 has an opening 10c formed thereon, and the operation holding part 100 may further include a transparent plate 190 blocking the opening 110c.

The transparent plate 190 allows moisture existing in the empty space 110a to be naturally dried by sunlight or the like.

The operation holding unit 100 further includes a support means 200 for supporting the server 1 from the inner bottom surface of the protective cover 110.

The support means 200 allows the server 1 to be spaced apart from the inner bottom surface of the protective cover 110 so that air circulation to the lower portion of the server 1 can be smoothly performed.

The support means 200 is a support plate 201 on which a protective cover 110 is seated and a plurality of ventilation holes 201a is formed, and a support bar for supporting both sides of the support plate 201 from the inner bottom surface of the protective cover 110 ( 202).

The operation holding unit 100 may further include a desiccant 210 provided inside the support means 200.

The desiccant 210 may be made of silica gel or the like, and is disposed under the support plate 201 to remove moisture existing inside the protective cover 110.

This is to facilitate the removal of moisture due to internal air circulation while the desiccant 210 is provided inside the support means 200.

For this reason, the operation maintenance unit 100 can protect the server 1 provided in each household of the apartment house from moisture and the like while maintaining a stable operating state.

What has been described above is merely an embodiment for implementing the state-of-the-art information and communication integrated control system for an apartment house according to the present invention, and the present invention is not limited to the above-described embodiment, as claimed in the claims below. Without departing from the gist of the present invention, anyone of ordinary skill in the field to which the present invention pertains will have the technical spirit of the present invention to the extent that various changes can be implemented.

1: IoT server 2: User terminal
3: AP 4: IoT device
21: wired terminal 22: mobile terminal
23: wearable device 100: operation holding unit
110: protective cover 120: door
130: suction pipe 140: inlet fan
150: heating wire 160: detection sensor
170: filter 180: control means
190: transparent plate 200: support means
210: desiccant

Claims (1)

A plurality of Internet of Things (IoT) devices 4 disposed within a household of an apartment house; A wearable device 23 that is worn by a user to determine a user's behavior by recognizing a motion signal corresponding to the user's movement, and transmits behavior data corresponding thereto to the server 1; In response to the behavioral data, in the state-of-the-art information communication integrated control system of an apartment house comprising the server (1) that generates and transmits control data for controlling at least one IoT device (4),
It further includes an operation holding unit 100 to maintain a stable operating state while protecting the server 1 from moisture within the household,
The operation holding unit 100,
A protective cover 110 having an open front side to form an empty space 110a in which the server 1 is accommodated and an exhaust hole 110b formed at a lower rear portion thereof;
A door 120 for opening and closing the front surface of the protective cover 110;
The front end is disposed inside the protective cover 110, and the rear end passes through the rear surface of the protective cover 110, and a helical protrusion 130a is formed along the longitudinal direction on the inner circumferential surface, so that the air introduced from the outside is rotated A suction pipe 130 to be introduced into (110a);
An inlet fan 140 provided in the suction pipe 130 and configured to allow external air to flow into the protective cover 110 when driven;
A filter 170 provided inside the rear end of the suction pipe 130 so as to be located at the rear of the inlet fan 140 to filter foreign substances contained in the external air;
Part of the air discharged through the exhaust hole 110b re-inflows into the inside of the protective cover 110 while one end is connected to the exhaust hole 110b and the other end is adjacent to the rear end of the suction pipe 130 A re-inflow pipe 131 to be used;
A heating wire 150 provided outside the front end of the suction pipe 130 and heating air introduced into the protective cover 110; And
State-of-the-art information and communication integrated control system of an apartment house, characterized in that it comprises a transparent plate 190 installed on the upper part of the protective cover 110 and allowing moisture present in the empty space 110a to be naturally dried by sunlight. .

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