KR20200126758A - remote control system for heater - Google Patents

Abstract

In order to improve ease of use and control precision, the present invention provides a remote control system for a heater. According to the present invention, the remote control system for a heater comprises: a portable terminal equipped with a first communication module for selectively performing bidirectional wireless communication on a first operation signal generated by a smart control application for remote control through any one of Wi-Fi and Bluetooth; a smart remote control equipped with a second communication module for selectively performing bidirectional wireless communication on a second operation signal generated by a command signal generator provided for remote control through radio frequency (RF) communication; a far-infrared smart heater equipped with a main communication module for bidirectional wireless communication of the first and second operation signals by selectively switching to any one of Wi-Fi, Bluetooth, and RF communication based on a preset priority; and a control unit for controlling a bidirectional communication connection between the main communication module and the first communication module and the second communication module.

Description

Remote control system for heater

The present invention relates to a remote control system for a heater, and more particularly, to a remote control system for a heater with improved usability and control precision.

In general, a far-infrared ray heater is a device that performs heating by radiation of far-infrared rays, and it is heated by the combustion in the combustion furnace by ignition of the burner and the emission of far-infrared rays from the tube itself by heating the tube that transfers heat generated during combustion. It is a device that does.

1 is a perspective view showing a conventional far infrared tube heater.

As shown in Fig. 1, the exterior of the conventional far-infrared tube heater 1 forms a front panel 1a forming a part of the front exterior, and an exterior exterior of the front panel excluding the front panel 1a, and enhances user safety. It is composed of a front grill (1b) for, a side panel (1c) forming the exterior of the left and right sides, an upper panel (1d) forming the exterior of the upper surface, and a rear panel (not shown) forming the exterior of the rear surface. . In addition, casters 1h are attached to each corner of the bottom of the far-infrared tube heater 1 to facilitate the movement of the far-infrared tube heater 1.

Here, a control unit 2 is formed on the front panel 1a for convenience in operation of the far-infrared tube heater. At this time, the control unit 2 is provided with various operation buttons 2a for controlling the operation of the far-infrared tube heater, and a display 2b that displays information necessary for the operation of the far-infrared tube heater, such as an operating state and indoor temperature. Is equipped.

Further, a remote control holder 2c is formed under the operation button 2a. At this time, the remote control holder 2c accommodates a remote control 2d capable of remotely controlling the operation of the far-infrared tube heater into a substantially rectangular groove having a predetermined depth.

Here, the remote control 2d enables operation at a distance where the far-infrared tube heater cannot be controlled by operating the operation button 2a of the control unit 2, and the remote control 2d is not used. When it is accommodated in the remote control holder (2c).

However, the conventional remote controller has a problem in that it is provided to be able to control only within a distance of 5 to 6m in a one-way control method, so that the usability is deteriorated. Moreover, in order to check the operating state of the conventional far-infrared tube heater, the user must move to the display and check it directly, so there is a problem in that the usability is deteriorated.

In particular, even though the far-infrared tube heater continues to operate, if the user operates the remote control to quit the far-infrared tube heater and is neglected, it may cause a fire, and the user is exposed to a serious problem.

Korean Patent Registration No. 10-0539830

In order to solve the above problems, the present invention has as a solution to provide a remote control system for a heater with improved ease of use and control precision.

In order to solve the above problems, the present invention provides a portable terminal equipped with a first communication module for selectively bidirectional wireless communication of a first operation signal generated by a smart control application for remote control through any one of Wi-Fi and Bluetooth; A smart remote control equipped with a second communication module for selectively performing two-way wireless communication with a second operation signal generated by a command signal generator provided for remote control through RF communication; A far-infrared smart heater equipped with a main communication module for two-way wireless communication of the first and second operation signals by selectively switching to any one of Wi-Fi, Bluetooth, and RF communication based on a preset priority; And a control unit for controlling a two-way communication connection between the main communication module and the first communication module and the second communication module.

Here, the control unit controls the main communication module to be selectively connected to any one of the first communication module and the second communication module, and the main communication module is configured to communicate with one of Wi-Fi and Bluetooth. Controls to be selectively connected in bidirectional communication with the first communication module, and the main communication module is controlled to be selectively connected in bidirectional communication with the second communication module through RF communication, and another of the first communication module and the second communication module It is desirable to cut off the communication connection so that one enters the sleep mode.

In this case, the control unit is configured to prevent overlapping between the first manipulation signal and the second manipulation signal, based on a preset priority, and the main communication module and the first communication module and the second communication module in both directions. The wireless communication connection is controlled in real time, but the priority is preferably set in the order of WiFi, Bluetooth, and RF communication.

In addition, the first communication module and the main communication module, and a smart repeater that relays the two-way wireless communication between the second communication module and the main communication module, and the far-infrared ray It is preferable to further include a communication relay network for mediating a communication connection between the portable terminal and the smart repeater to relay to a smart heater.

In addition, it is preferable that the second communication module generates a call signal for wireless connection with the main communication module at preset time intervals to perform bidirectional communication with the main communication module.

In addition, the housing portion of the far-infrared smart heater is formed with a slide holder portion formed with a receiving portion that is recessed to be rounded down in a concave shape in the front and rear direction, and the smart remote control is provided to be selectively attached and detached to the receiving portion, one side of which It is preferably provided to slide along the front-rear direction of the accommodating part, and the other side integrally formed with the one side slides to rotate and roll up in the upward direction.

Through the above solution means, the present invention provides the following effects.

First, it is possible to manipulate and view the heating operation status of a far-infrared smart heater that can be used in places other than the actual residential area such as living areas, camping grounds, and work sites. In the actual residential area, a portable terminal with IoT grafted, and a smart remote control in places other than the actual residential area. As it is freely communicated in both directions through the device, the usability can be remarkably improved.

Second, the far-infrared smart heater communicates in both directions with the portable terminal through Wi-Fi or Bluetooth, and it communicates with the smart remote control through RF communication in both directions, but the communication connection is sequentially controlled based on a preset priority, so that the overlap between different operation signals is achieved. Therefore, the control precision can be remarkably improved.

Third, it is possible to selectively manipulate and view the heating operation state of the far-infrared smart heater through either a portable terminal using any one of Wi-Fi and Bluetooth communication methods and a smart remote control using RF communication, so the usability is significantly improved. Can be.

1 is a perspective view showing a conventional far infrared tube heater.
2 is a block diagram showing a remote control system for a heater according to an embodiment of the present invention.
3 is a flow chart showing a method of controlling a heater in the remote control system for a heater according to an embodiment of the present invention.
4A and 4B are perspective views showing a far-infrared smart heater in a remote control system for a heater according to an embodiment of the present invention.
5 is a perspective view showing a control panel in the remote control system for a heater according to an embodiment of the present invention.
6 is a rear view showing an operation panel of a control panel in the remote control system for a heater according to an embodiment of the present invention.
7 and 8 are perspective views showing the slide holder of the control panel in the remote control system for a heater according to an embodiment of the present invention.
9A and 9B and 9C are side cross-sectional views showing a state of use of a control panel in the remote control system for a heater according to an embodiment of the present invention.

Hereinafter, a remote control system for a heater according to a preferred embodiment of the present invention will be described in detail with reference to the accompanying drawings.

2 is a block diagram showing a remote control system for a heater according to an embodiment of the present invention. As shown in Figure 2, the remote control system 1000 for a heater according to an embodiment of the present invention includes a portable terminal 101, a smart remote control 102, a far-infrared smart heater 100, and a control unit 80 It is desirable to do it.

Here, the portable terminal 101 has a first communication module 101a for selectively performing two-way wireless communication via any one of WiFi and Bluetooth with the first operation signal generated by the smart control application for remote control. ) Is preferably provided.

in detail, The first communication module (101a) is preferably provided to the portable terminal 101 to wirelessly communicate the first operation signal generated by the smart control app program processing unit for remote control of the far-infrared smart heater (100). . At this time, the portable terminal 101 may preferably be configured as a commercially available smartphone.

Further, the first communication module 101a preferably includes a WiFi communication module for WiFi communication and a Bluetooth communication module for Bluetooth communication. That is, the first operation signal generated by the smart control app program processing unit is the main communication module 100a of the far-infrared smart heater 100 through any one of a WiFi communication module and a Bluetooth communication module provided in the portable terminal 101. ) Can be delivered.

At this time, the smart control app program processing unit processes the operation for remote control of the far-infrared smart heater 100 through an input unit such as a touch panel according to an application program coded in Android language, etc. as a communication signal. It is preferable to convert and output the first manipulation signal for transmission. The first manipulation signal output in this way may be transmitted to the main communication module 100a of the far-infrared smart heater 100 through the first communication module 101a.

In addition, the first operation signal may include operation status data regarding a heating operation state transmitted from the main communication module 100a of the far-infrared smart heater 100 to the first communication module 101a. That is, when the first manipulation signal is transmitted from the main communication module 100a to the first communication module 101a as bidirectional communication, and from the first communication module 101a to the main communication module 100a. It can cover the case of being transmitted.

Accordingly, the user can control the far-infrared smart heater 100 through the portable terminal 101 and at the same time view the current status of the heating operation status of the far-infrared smart heater 100 in real time, improving usability. Can be.

Moreover, the smart control app program may generate a first operation signal including a unique identifier of the far-infrared smart heater 100. For example, one far-infrared smart heater 100 is distinguished from another heater by a unique identifier combined with a sign and a letter, and the first operation signal generated by the smart control app program processor corresponds to the far-infrared smart heater 100 Can be distinguished to be used only for the control of. Here, the unique identifier may be generated including a password designated by a user or a security password preset by a manufacturer in order to prevent hacking by others.

And, the first communication module (101a), when the main communication module (100a) is connected to the second communication module (102a) to be described later, the communication connection between the main communication module (100a) is switched to the sleep mode. It can be blocked by the control unit 80.

Here, the sleep mode means that any one of the first communication module 101a and the second communication module 102a is driven with a preliminary minimum power required for communication connection with the main communication module 100a. It means the state of being. To this end, each control circuit connected to the first communication module 101a and the second communication module 102a is applied from each power supply to the first communication module 101a and the second communication module 102a. Each amount of power can be controlled.

On the other hand, the smart remote control 102 is preferably provided with the second communication module (102a) for selectively two-way wireless communication via RF communication the second operation signal generated by the command signal generator provided for remote control. Do.

In detail, the second communication module (102a) is provided to the smart remote control 102 to wirelessly communicate a second operation signal generated by the command signal generator for remote control of the far-infrared smart heater (100). desirable. In this case, it is preferable that the second communication module 102a includes the command signal generator.

Here, the smart remote control 102 includes a display unit provided on one side to display the heating operation state of the far-infrared smart heater 100 in real time, and a control unit for manipulating the heating operation state of the far-infrared smart heater 100 I can. In this case, the operation unit may be provided with a button, a lever, a touch panel, or the like.

In addition, the second communication module 102a is preferably provided as an RF communication module for RF (Radio Frequency) communication. That is, the second operation signal generated by the command signal generation unit may be transmitted to the main communication module 100a through the RF communication module provided in the smart remote control 102.

In this case, the second manipulation signal is a communication signal input through the manipulation unit and may be transmitted from the second communication module 102a to the main communication module 100a through the command signal generation unit. In addition, the second operation signal may include operation status data for a heating operation state transmitted from the main communication module 100a to the second communication module 102a. That is, the second manipulation signal is transmitted from the main communication module 100a to the second communication module 102a as a two-way communication, and from the second communication module 102a to the main communication module 100a. It can cover the case of being transmitted.

Accordingly, the user can control the far-infrared smart heater 100 through the smart remote control 102 and at the same time view the status of the heating operation status of the far-infrared smart heater 100 in real time, improving usability. Can be.

In addition, the second communication module 102a generates a call signal for wireless connection with the main communication module 100a and an operation status signal for a heating operation state at preset time intervals, and the main communication module 100a It is preferable to communicate in both directions.

For example, the second communication module 102a may transmit the call signal at an interval of 0.5 to 1.5 seconds so as to perform two-way wireless communication with the main communication module 100a through RF communication. In addition, the second communication module 102a may transmit the operation status signal in a period of 0.5 to 1.5 seconds so that the heating operation state is read by the smart remote control 102 through RF communication with the main communication module 100a.

Here, the second communication module 102a is the control unit so that the communication connection between the main communication modules 100a is switched to the sleep mode when the main communication module 100a is connected to the first communication module 101a. Can be blocked by 80. At this time, even when the communication connection between the second communication module 102a and the main communication module 100a is switched to the sleep mode, the second communication module 102a is configured to receive the call signal and the operation status at a preset time interval. A signal can be communicated to the main communication module 100a.

On the other hand, the far-infrared smart heater 100 selectively switches to any one of Wi-Fi, Bluetooth, and RF communication based on a preset priority so that overlapping between different manipulation signals is prevented, and the first manipulation signal and the first manipulation signal It is preferable to include the main communication module (100a) for two-way wireless communication of the two operation signals.

In addition, it is preferable that the far infrared ray smart heater 100 includes a control panel 90 including a slide holder unit 91 and an operation panel unit 92. In this case, a case in which the control panel 90 is provided in the far-infrared smart heater 100 is illustrated and described as an example in an embodiment of the present invention.

Here, the slide holder part 91 is provided in the housing part 10 of the far-infrared smart heater 100, and a receiving part 91b that is recessed to be rounded in a concave downward shape along the front and rear directions inside the outer rim Can be formed. In addition, the operation panel unit 92 is selectively inserted into the receiving unit 91b, the lower end 92a slides along the front and rear directions of the receiving unit 91b, and the control panel unit 92 The upper end 92b of the operation panel unit 92 formed integrally with the lower end 92a may be provided to be slid and rolled up in the upward direction of the slide holder unit 91.

In addition, the control unit 80 may be disposed inside the far-infrared smart heater 100 to be connected to the operation panel unit 92 of the control panel 90 and the main communication module 100a.

Here, it is preferable that the main communication module 100a communicates selectively with the first communication module 101a through Wi-Fi and Bluetooth to communicate the first manipulation signal in both directions. In addition, it is preferable that the main communication module 100a communicates selectively with the second communication module 102a through RF communication to communicate the second manipulation signal in both directions.

And, the main communication module (100a) is a switching to selectively switch to any one of Wi-Fi, Bluetooth, RF communication based on a preset priority for bidirectional wireless communication of the first manipulation signal and the second manipulation signal. It may further include a switching unit. In addition, the main communication module 100a may be selectively communicated with one of the first communication module 101a and the second communication module 102a through the switching switch.

Accordingly, the far-infrared smart heater 100 selectively selects the heating operation state through any one of the portable terminal 101 using any one of Wi-Fi and Bluetooth communication methods and the smart remote control 102 using RF communication. Since it can be operated and checked, the user's usability can be remarkably improved.

On the other hand, the remote control system for the heater 1000 is a two-way wireless communication between the first communication module (101a) and the main communication module (100a), and the second communication module (102a) and the main communication module (100a) It is preferable to further include a smart repeater 103 that relays each. Here, the smart repeater 103 mediates a two-way communication connection between the first communication module 101a and the main communication module 100a, and the second communication module 102a and the main communication module 100a. It is preferable to include a third communication module (103a).

In addition, the remote control system for the heater 1000 is a communication between the portable terminal 101 and the smart repeater 103 to relay the first operation signal communicated via Wi-Fi in both directions to the far-infrared smart heater 100 It is preferable to further include a communication relay network 104 that mediates the connection. In this case, the communication relay network 104 may preferably be provided as an Internet network.

In detail, when the first manipulation signal is communicated through Wi-Fi, the first manipulation signal is the communication relay network 104 connected to wireless communication between the main communication module 100a and the first communication module 101a, and It may be relayed through the third communication module 103a to perform bidirectional communication. That is, the first manipulation signal communicated through Wi-Fi is sequentially or reversed to the first communication module (101a), the communication relay network (104), the third communication module (103a), and the main communication module (100a). Can be sent to

In addition, in some cases, the remote control system 1000 for a heater may further include a router module for mediating a communication connection between the portable terminal 101 and the smart repeater 103. Here, when the first manipulation signal is communicated through Wi-Fi, the first manipulation signal is relayed through the router module wirelessly connected between the main communication module 100a and the first communication module 101a. Two-way communication may be possible. That is, the first manipulation signal communicated through Wi-Fi may be sequentially or reversely transmitted to the first communication module 101a, the router module, and the main communication module 100a.

Here, the communication distance between the first communication module 101a and the communication relay network 104 through Wi-Fi is substantially unlimited, and communication between the communication relay network 104 and the third communication module 103a through Wi-Fi is possible. It is desirable to understand that distance is practically unlimited. In addition, the possible communication distance through Wi-Fi between the main communication module (100a) and the third communication module (103a) is 1 ~ 10m, the communication distance between the main communication module (100a) and the router module through Wi-Fi is 1 ~ It is desirable to understand it as 10m.

On the other hand, when the first manipulation signal is communicated through Bluetooth, the first manipulation signal may be communicated in both directions between the main communication module 100a and the first communication module 101a that are directly communicatively connected. Here, it is preferable to understand that the possible communication distance through Bluetooth between the main communication module 100a and the first communication module 101a is 1 to 5m.

In addition, the second manipulation signal may be relayed through a third communication module 103a wirelessly connected between the main communication module 100a and the second communication module 102a to perform bidirectional communication. That is, the second manipulation signal communicated through RF communication may be sequentially or reversely transmitted to the second communication module 102a, the third communication module 103a, and the main communication module 100a.

Of course, the second manipulation signal may be directly wirelessly connected and transmitted between the main communication module 100a and the second communication module 102a. Here, it is preferable to understand that the possible communication distance through RF communication between the main communication module 100a and the second communication module 102a is 50 to 100m. In addition, it is preferable to understand that the communication distance between the main communication module 100a and the third communication module 103a through RF communication is 50 to 100m. Moreover, it is preferable to understand that the communication distance between the second communication module 102a and the third communication module 103a through RF communication is 50 to 100m.

Meanwhile, it is preferable that the control unit 80 controls a bidirectional communication connection between the main communication module 100a and the first communication module 101a and the second communication module 102a. That is, the controller 80 controls the two-way communication connection between the main communication module 100a and the first communication module 101a, and the main communication module 100a and the second communication module 102a, respectively. This is desirable.

In detail, the control unit 80 provides the main communication module 100a with one of the first communication module 101a and the second communication module 102a in any one of Wi-Fi, Bluetooth, and RF communication. It is desirable to control the two-way communication connection. At this time, the control unit 80 controls the main communication module 100a to be selectively connected in bidirectional communication with the first communication module 101a by any one of Wi-Fi and Bluetooth, and the main communication module 100a ) Is preferably controlled to be selectively connected to the second communication module 102a for bi-directional communication through RF communication.

Here, the control unit 80 controls the main communication module 100a, the first communication module 101a, and the second communication module 102a to be selectively connected to each other for communication, but the first communication module It is preferable that the other one of 101a and the second communication module 102a is controlled so that the sleep mode is also switched. That is, it is preferable that the control unit 80 blocks the communication connection so that the rest of the communication methods other than the connected communication methods among Wi-Fi, Bluetooth, and RF communication are switched to the sleep mode through the switching switch.

Accordingly, the main communication module (100a) is selectively connected to communication with any one of the first communication module (101a) and the second communication module (102a), the first communication module (101a) and the second Since the other one of the communication modules 102a is deactivated as it switches to the sleep mode, power consumption may be reduced, thereby improving economic efficiency.

In addition, the control unit 80 is based on a preset priority to prevent overlapping between different first and second manipulation signals, the main communication module 100a, the first communication module 101a, and the second It is preferable to control the two-way wireless communication connection with any one of the communication modules 102a in real time.

Here, the control unit 80 is based on the priority so that the main communication module 100a compactly and selectively communicates with any one of the first communication module 101a and the second communication module 102a. The communication connection is controlled in real time, but the priority is preferably set in the order of WiFi, Bluetooth, and RF communication.

3 is a flowchart showing a method of controlling a heater in the remote control system for a heater according to an embodiment of the present invention. As shown in FIG. 3, a remote control method for a heater according to an embodiment of the present invention will be described below.

First, as the far-infrared smart heater 100 and the portable terminal 101 are switched to the Wi-Fi activation mode through the switching switch, two-way communication is connected (s101). Here, it is preferable that the main communication module 100a of the far-infrared smart heater 100 and the first communication module 101a of the portable terminal 101 are connected to each other for bi-directional communication through Wi-Fi communication.

In addition, Bluetooth and RF communication are switched to a deactivated mode through the switching switch, and a communication connection between the far-infrared smart heater 100 and the smart remote control 102 is cut off (s102). Here, the deactivation mode means a state in which the communication connection is switched to a sleep mode for preventing overlap between Wi-Fi, Bluetooth, and RF communication and for minimum power consumption. At this time, it is preferable that the communication connection between the main communication module 100a of the far-infrared smart heater 100 and the second communication module 102a of the smart remote control 102 is cut off through the switching switch. In addition, it is preferable to understand that the communication connection between the main communication module 100a and the first communication module 101a is connected through Wi-Fi instead of Bluetooth.

Subsequently, the control unit 80 is switched to the Wi-Fi activation mode, so that the main communication module 100a of the far-infrared smart heater 100 and the first communication module 101a of the portable terminal 101 communicate with each other through Wi-Fi communication. It is determined whether it is connected (s103).

Here, when the Wi-Fi is switched to the active mode, that is, when the main communication module 100a and the first communication module 101a are connected in two-way communication through Wi-Fi communication, the algorithm is returned to the initial process and the algorithm can be re-executed. have.

On the other hand, when the Wi-Fi is not switched to the active mode, that is, when the main communication module 100a and the first communication module 101a are not connected for bidirectional communication through Wi-Fi communication, the Bluetooth is switched to the active mode and the far-infrared ray The smart heater 100 and the portable terminal 101 are connected in two-way communication with each other (s104).

Here, as the far-infrared smart heater 100 and the portable terminal 101 are switched to the Bluetooth activation mode through the switching unit, it is preferable that two-way communication is connected with each other. At this time, it is preferable that the main communication module 100a of the far-infrared smart heater 100 and the first communication module 101a of the portable terminal 101 are connected to each other for bidirectional communication through Bluetooth communication.

In addition, Wi-Fi and RF communication are switched to a deactivated mode through the switching switching unit, and a communication connection between the far-infrared smart heater 100 and the smart remote control 102 is blocked (s105). Here, it is preferable that the communication connection between the main communication module 100a of the far-infrared smart heater 100 and the second communication module 102a of the smart remote control 102 is cut off through the switching switch. In addition, it is preferable to understand that the communication connection between the main communication module 100a and the first communication module 101a is connected through Bluetooth, not Wi-Fi.

Subsequently, the control unit 80 is switched to the Bluetooth activation mode, so that the main communication module 100a of the far-infrared smart heater 100 and the first communication module 101a of the portable terminal 101 communicate with each other through Bluetooth communication. It is determined whether the connection has been made (s106).

Here, when the Bluetooth is switched to the activation mode, that is, when the main communication module 100a and the first communication module 101a are connected in two-way communication through Bluetooth communication, the algorithm is returned to the initial process of the algorithm and the algorithm can be re-executed. have.

On the other hand, when the Bluetooth is not switched to the activation mode, that is, when the main communication module 100a and the first communication module 101a are not connected for two-way communication through Bluetooth communication, the RF communication is switched to the activation mode and the The far-infrared smart heater 100 and the smart remote control 102 are connected in two-way communication with each other (s107).

Here, as the far-infrared smart heater 100 and the smart remote control 102 are switched to the RF communication activation mode through the switching unit, it is preferable that two-way communication is connected with each other. In this case, it is preferable that the main communication module 100a of the far-infrared smart heater 100 and the second communication module 102a of the smart remote control 102 are connected to each other for bi-directional communication through RF communication.

In addition, Wi-Fi and Bluetooth are switched to a deactivated mode through the switching switch, and a communication connection between the far-infrared smart heater 100 and the portable terminal 101 is cut off (s108). Here, it is preferable that the communication connection between the main communication module 100a of the far-infrared smart heater 100 and the first communication module 101a of the portable terminal 101 is cut off through the switching switch.

In addition, the controller 80 may check the communication sensitivity of each of Wi-Fi, Bluetooth, and RF communication, and transmit a connection state of the RF communication to the display unit 93a of the control panel 90 (S109). At this time, the control unit 80 determines the communication sensitivity between the main communication module 100a and the first communication module 101a, and the main communication module 100a and the second communication module 102a at a preset periodic interval. It can be measured by

Subsequently, the control unit 80 determines whether the communication connection between the main communication module 100a and the first communication module 101a, and the main communication module 100a and the second communication module 102a has been released. (s110). Here, the control unit 80 is an algorithm when the communication connection between the main communication module 100a and the first communication module 101a, and the main communication module 100a and the second communication module 102a is released. It is preferable to end.

In addition, the control unit 80 returns to the initial process of the algorithm when the main communication module 100a is connected to any one of the first communication module 101a and the second communication module 102a, and the algorithm is restarted. Can be done.

Accordingly, the far-infrared smart heater 100 communicates in both directions with the portable terminal 101 through Wi-Fi and Bluetooth, and communicates in both directions with the smart remote control 102 through RF communication. At this time, since the communication connection is sequentially controlled based on a preset priority, overlapping between different first and second operation signals is prevented, and thus control precision can be remarkably improved.

Through this, when the far-infrared smart heater 100 is used in a real residential area such as a house, the Internet of Things (IoT) is grafted, so that manipulation and reading of the heating operation state can be freely performed with the portable terminal 101. Do.

In addition, when the far-infrared smart heater 100 is used in a place other than an actual residence such as a camping site, a work site, a construction site, etc., manipulation and viewing of the heating operation state can be performed freely with the smart remote control 102 through RF communication. Because it is possible, it is easy to operate the product and the convenience of use can be remarkably improved.

Therefore, regardless of the location, the operation and reading of the heating operation state of the far-infrared smart heater can be freely communicated in both directions through the portable terminal 101 and the smart remote control 102, so that the usability of the product can be significantly improved.

4A and 4B are perspective views showing a far-infrared smart heater in the remote control system for a heater according to an embodiment of the present invention, and FIG. 5 is a perspective view showing a control panel in the remote control system for a heater according to an embodiment of the present invention. to be. And, Figure 6 is a rear view showing the operation panel of the control panel in the remote control system for a heater according to an embodiment of the present invention, Figures 7 and 8 are in the remote control system for a heater according to an embodiment of the present invention. It is a perspective view showing the slide holder part of the control panel. And, Figures 9a, 9b, and 9c are side cross-sectional views showing a state of use of a control panel in the remote control system for a heater according to an embodiment of the present invention.

As shown in FIGS. 4A to 9C, the control panel 90 according to an embodiment of the present invention preferably includes a slide holder unit 91 and an operation panel unit 92. Here, the control panel 90 is provided to control the far-infrared smart heater 100 including a housing portion 10 forming an exterior and a heating portion 40 providing thermal energy generated through combustion of fuel. It is desirable to understand it as a device to be used.

In detail, the housing unit 10 forms the exterior of the far-infrared smart heater 100, and the heat generating unit is recessed to the rear of the housing unit 10 in a predetermined area so that the heating unit 40 is disposed at the front part. A space 11 may be formed.

Here, the heating space 11 is preferably opened to the front of the housing unit 10 so that heat energy by the heating unit 40 is provided to the front, and the opened cross-sectional shape may be formed in a square shape. .

In addition, a safety grill 11a may be provided on the front side of the housing 10 to cover the heating space 11. Moreover, a discharge hole 43a communicating in the vertical direction may be formed at the upper portion of the housing 10 so that a discharge port 43 to be described later is disposed.

In addition, one side of the heating space 11 may be in communication with the accommodation space so that the burner unit and the combustion furnace 41 of the heating unit 40 to be described later are connected. In this case, the receiving space in which a fuel injection port, a fuel pump, a burner part, and a battery part are accommodated may be formed at one side of the housing part 10. At this time, the far-infrared smart heater 100 may be selectively connected to a power supply to any one of an AC power supply unit and a battery unit provided therein.

On the other hand, the heating unit 40 is disposed on the front of the housing unit 10, provided to provide thermal energy generated through combustion of fuel through the spark plug of the burner unit so that the far-infrared smart heater 100 is heated. It is desirable to be.

Here, the heating unit 40 is a hollow combustion furnace 41 disposed in the heating space 11 in either a longitudinal direction or a transverse direction so that the fuel injected through the supply nozzle is completely burned through the burner unit. It is preferable to include ).

In addition, the heating part 40 is in communication with at least one horizontal heating tube part 42a disposed in the horizontal direction in the heating space 11 and the horizontal heating tube part 42a to be vertically connected to the heating space 11. It is preferable to include the heating tube portion 42 including at least one vertical heating tube portion 42b disposed in the direction.

In addition, a discharge hole 43a communicating with the discharge port 43 may be formed through the upper portion of the housing 10 in the vertical direction, and a safety discharge grill 43b may be provided in the discharge hole 43a. I can. Through this, as the thermal energy generated through the combustion of fuel in the combustion furnace 41 is discharged to the outlet 43 after circulating the heating pipe part 42, the heating function of the far-infrared smart heater 100 will be provided. I can.

In addition, it is preferable that the far-infrared smart heater 100 includes a rotating means 12 including a driving unit provided on one side of the housing unit 10 so that the housing unit 10 rotates. Here, the rotating means 12 may include a plurality of wheel parts provided under the housing part 10 so that the far-infrared smart heater 100 is moved. Here, the driving part and the wheel part of the rotating means 12 may be connected to each other.

Meanwhile, the control panel 90 may be provided on one side of the housing unit 10, preferably on the upper portion of the housing unit 10. Here, it is preferable that the control panel 90 according to an embodiment of the present invention includes a slide holder unit 91 and an operation panel unit 92.

In detail, the slide holder part 91 is provided in the housing part 10, and a receiving part 91b which is recessed to be rounded in a concave shape downward along the front-rear direction is preferably formed inside the outer rim.

Here, the slide holder unit 91 may be provided in a shape such as a hexahedron, and may be disposed above the housing unit 10. In this case, a receiving hole may be formed in the upper portion of the housing unit 10 so that the housing unit may be inserted in a vertical direction so that the receiving space of the housing unit and the outside communicate with each other. Alternatively, in some cases, the slide holder unit 91 and the housing unit 10 may be integrally provided.

In addition, an edge portion 91a may be formed on an upper portion of the slide holder portion 91 along an outer periphery. In this case, the edge portion 91a may be disposed to protrude from the outer surface of the housing portion 10.

In addition, it is preferable that the receiving part 91b is formed on the upper surface of the slide holder part 91 to the inside of the rim part 91a so that the operation panel part 92 is selectively accommodated. Here, the receiving portion (91b) is formed on the inside of the edge portion (91a), it is preferably formed to be rounded in a concave shape downward toward the center from both ends in the front and rear direction of the slide holder portion (91).

In addition, the inner profile of the inner wall surface of the receiving portion 91b and the rim portion 91a is completely accommodated when the operation panel portion 92 is accommodated in the receiving portion 91b. It is preferable that it is formed corresponding to the outer profile. In detail, it is preferable that the receiving portion 91b is formed in an inner profile that is concavely rounded downward along the front-rear direction of the slide holder portion 91. That is, when viewed from the side of the housing part 10, the cross-sectional shape of the slide holder part 91 may be formed in a'U' shape.

In addition, the inner profile of the receiving portion 91b may have an arc shape in cross section so that a rotation radius is minimized when the operation panel portion 92 rotates. Here, the front and rear sides of the receiving part 91b may be formed as a substantially continuous surface with the rim part 91a, and inner wall surfaces of the rim part 91a are formed on both sides of the slide holder part 91 in the width direction. Can be. In this case, the front and rear directions of the slide holder 91 are preferably understood as directions corresponding to the front and rear portions of the housing unit 10.

Further, when the operation panel part 92 is completely inserted into the receiving part 91b, one side 92c of the operation panel part 92 and the edge part 91a may be formed in a substantially continuous outer profile. In addition, it is preferable that the other side 92d of the operation panel part 92 is formed of an outer profile corresponding to the inner profile of the receiving part 91b. Here, the other side 92d of the operation panel part 92 may correspond to the inner profile of the receiving part 91b so that the cross-sectional shape may be formed in an arc shape.

Accordingly, for easy checking of the operating state of the heater, the inner surface of the receiving part 91b formed in an arc-shaped cross section and the other side 92d of the operation panel part 92 are held in a state in which they are in surface contact with each other during rotation roll-up. Therefore, even when vibration occurs due to the driving of the heater, the rotational roll-up state of the operation panel unit 92 can be firmly maintained.

Moreover, for easy operation of the heater through the operation button part 93b, the operation panel part 92 is in face contact with the receiving part 91b, and the operation of the heater can be operated in a fully accommodated state, which significantly improves the usability. Can be.

In addition, since the cross-sectional shape of the receiving part 91b and the other side 92d of the operation panel part 92 is formed in an arc shape, the rotation radius is minimized when the operation panel part 92 is rotated. It is provided so that the aesthetic feeling can be improved.

Meanwhile, a holding means, which will be described later, is inserted into the receiving part 91b so that the operation panel part 92 is selectively constrained and held when the operation panel part 92 is rotated and rolled up in the front and rear direction of the slide holder part 91 It is preferable that a plurality of holder grooves 91c, 91d, and 91e are formed recessed at a predetermined interval along the line.

In detail, the holder grooves 91c, 91d and 91e include a first holder groove 91c disposed at a front end of the receiving portion 91b, and a third holder disposed at a rear end of the receiving unit 91b. It is preferable to include the groove portion 91e. In addition, the holder groove (91c, 91d, 91e) is spaced from the third holder groove (91e) at a predetermined interval in the front direction of the slide holder (91) so that the operation panel portion (92) is rolled up in multi-stage rotation. It is preferable to include a second holder groove (91d) to be disposed.

And, the ratio between the distance between the first holder groove (91c) and the second holder groove (91d) and the distance between the second holder groove (91d) and the third holder groove (91e) is 1-4:1 Can be set to At this time, in an embodiment of the present invention, a case where the ratio is set to 3:1 is illustrated and described as an example. That is, the second holder groove (91d) is disposed between the first holder groove (91c) and the third holder groove (91e) along the front and rear direction of the slide holder (91), the second holder groove (91d) may be arranged to be biased toward the rear side of the receiving portion 91b by a predetermined distance.

Here, it is preferable that at least one of the first holder groove portion 91c, the second holder groove portion 91d, and the third holder groove portion 91e is provided. For example, the first holder grooves 91c may be provided in a pair and disposed at the front end of the receiving portion 91b, and may be disposed on both sides of the receiving portion 91b in the width direction. In addition, the second holder groove (91d) and the third holder groove (91e) are the receiving portions (91) aligned in a straight line along the front and rear directions of the first holder groove (91c) and the slide holder (91). 91b) may be disposed on the rear end side, respectively. In addition, the operation panel unit 92, which is rotated up, is optional in each of the holder grooves 91c, 91d, 91e and the fixing grooves 92fa, 92fb, 92fc, 92fd, and 92fe of the operation panel unit 92 to be described later. It is preferable that each of the holding means for providing frictional force to be held in multiple stages is provided. Here, the holding means may be provided with rubber, magnet, etc., but is not limited thereto. In addition, it is preferable to understand that constrained holding is a concept encompassing a case where it is held as it is frictionally fixed through a friction material such as rubber and a case where it is magnetically adsorbed and held through magnetic adsorption force of a magnet.

On the other hand, it is preferable that the slide hole 91f is formed through the central portion of the receiving portion 91b in the vertical direction along the front-rear direction of the receiving portion 91b formed in a rounded inner profile. Here, the width of the slide hole (91f) is preferably formed less than the width of the receiving portion (91b). In addition, it is preferable that the length of the slide hole 91f in the front-rear direction corresponds to the length of the receiving portion 91b in the front-rear direction.

In addition, it is preferable that rail portions 91g disposed along the front and rear directions of the slide holder 91 are formed on both sides of the slide holder 91f in the width direction under the slide holder 91. In detail, the rail portion 91g is provided under the slide holder portion 91, and may be provided in a pair on both sides in the width direction with respect to the slide hole 91f. In addition, the rail part 91g may protrude in a downward direction of the slide holder part 91 along the front-rear direction of the slide holder part 91.

In addition, a guide groove may be recessed upwardly on a lower surface of the central portion in the width direction of the rail portion 91g formed along the front and rear directions of the slide holder portion 91. At this time, the guide groove is preferably extended along the front and rear direction of the slide holder (91). Further, a bent groove may be formed in the inner surface portion of the guide groove to be bent to both sides in the width direction so as to prevent separation of the rail carriage unit 94.

Meanwhile, the control panel 90 is selectively connected to the other side 92d of the operation panel unit 92 so that the operation panel unit 92 is selectively moved along the slide hole 91f. It is preferable to further include a rail car unit 94 disposed below the rail unit 91b and connected to the rail unit 91g.

In addition, the rail car portion 94 is formed to have a width corresponding to the width between the pair of rail portions 91g, and it is preferable that rail connection portions are formed to be connected to the rail portions 91g on both sides in the width direction. Here, the rail connecting portion protrudes upward from both sides in the width direction of the rail bogie 94 corresponding to the slide groove so as to prevent separation by being inserted into the slide groove and the bent groove, and the protruding end extending upward is a width It can be further extended to be bent in both directions. Alternatively, in some cases, the slide groove and the bent groove are not formed in the rail part 91g, and the slide groove and the bent groove are recessed in the rail connection part, so that the rail part 91g and the rail connection part are mutually connected. May be.

In addition, the rail carriage portion 94 may be formed in a hexahedral shape, etc., and is preferably formed to have a width corresponding to the width between the pair of rail portions 91g exceeding the width of the slide hole (91f).

In addition, at least one detachable hole 94a may be formed through the rail carriage unit 94 so that the operation panel unit 92 is selectively attached and detached from the rail carriage unit 94. For example, the detachable hole 94a may be formed through two places at a predetermined distance from each other along the width direction of the rail carriage unit 94.

Here, a detachable protrusion 92h to be described later may be selectively fitted into the detachable hole 94a. Of course, in some cases, a detachable groove may be formed in the rail carriage unit 94 to be recessed rather than the detachable hole 94a.

In addition, a first through hole 94b may be formed through the rail car portion 94 so that an electric wire connected between the inside of the housing portion 10 and the operation panel portion 92 passes. In this case, the first through hole 94b may communicate with a second through hole 92j to be described later.

Through this, the operation is selectively connected to the other side 92d of the operation panel unit 92, but is disposed under the receiving unit 91b and is connected to the rail unit 91g. The panel portion 92 may be selectively slide-moved along the front-rear direction of the slide holder portion 91. Accordingly, the operation panel unit 92 provided with the display unit 93a and the operation button unit 93b on one side 92c is connected to the rail carriage unit 94 disposed under the slide holder unit 91, It can be selectively slide-moved along the direction. Accordingly, since the operation panel unit 92 is selectively rotated and rolled up, the operating state of the far-infrared smart heater 100 and the power on/off state can be easily checked with the naked eye, thereby preventing a fire caused by the user's carelessness. And safety can be improved.

Meanwhile, the operation panel unit 92 is selectively inserted into the receiving unit 91b, and is provided to selectively slide along the front and rear directions of the slide holder unit 91 when inserted into the receiving unit 91b. desirable. Here, the operation panel unit 92 is provided in a hollow shape so that the control board and the auxiliary power supply unit may be disposed therein, and one side 92c of the operation panel unit 92 is a display unit 93a and an operation button unit. It may be provided in a flat plate shape so that (93b) is disposed.

And, the display unit (93a) is provided on one side (92c) of the operation panel unit 92, the operation state of the power on/off, temperature, heating intensity, timer, fuel amount, etc. of the far-infrared smart heater 100 Is preferably displayed. In addition, the operation button unit (93b) is provided on one side (92c) of the operation panel unit (92), such as power on/off, temperature control, heating intensity control, timer control, etc. of the far-infrared smart heater 100 It may be provided with a plurality of buttons or levers that manipulate the operating state.

Meanwhile, it is preferable that the other side 92d of the operation panel part 92 is formed of an outer profile corresponding to the inner profile of the receiving part 92b. That is, it is preferable that the other side 92d of the operation panel unit 92 is formed to be rounded in a concave shape downward from both ends in the front and rear direction of the operation panel unit 92 to the center.

Accordingly, when the operation panel part 92 slides along the front-rear direction to the receiving part 92b, the inner surface of the receiving part 92b and the other side 92d of the operation panel part 92 may be in surface contact with each other. I can. Of course, a depression portion 92e that is recessed in a flat plate shape from an outer surface formed corresponding to the inner profile of the receiving portion 92b may be formed at the center of the other side 92d of the operation panel portion 92.

Meanwhile, the operation panel unit 92 has a display unit 93a on one side 92c, and the other side of the operation panel unit 92 integrally formed with one side 92c of the operation panel unit 92 92d) is preferably provided so as to be slid and rolled up in the upward direction of the slide holder unit 91.

In addition, it is preferable that one side 92c of the operation panel unit 92 faces the upper side of the slide holder unit 91 when completely inserted into the receiving unit 91b. At this time, when the operation panel part 92 is completely inserted into the receiving part 91b, one side 92c of the operation panel part 92 and the edge part 91a of the slide holder part 91 are substantially continuous. It can be formed with an external profile.

In addition, it is preferable that one side 92c of the operation panel unit 92 is disposed so as to face the front side of the housing unit 10 when rolling up from the receiving unit 91b. At this time, that the operation panel unit 92 is rotated and rolled up means that the lower end 92a of the operation panel unit 92 slides from the front end to the rear end of the slide holder unit 91, and thus the operation panel unit 92 It means that the upper end 92b of) is moved in the upward direction of the slide holder part 91.

In addition, it is preferable that the other side 92d of the operation panel unit 92 is provided with a slide connection unit 92g formed at a position corresponding to the slide hole 91f to be selectively attached to and detached from the rail carriage unit 94. Do. Here, the slide connection part 92g is the other side 92d of the operation panel part 92 so that when the operation panel part 92 is completely inserted into the receiving part 91b, it is disposed as a front end of the slide holder part 91 ) It is preferably formed on the lower side. At this time, the slide connecting portion 92g may be selectively moved along the front and rear directions of the slide holder 91 along the slide hole 91f.

In addition, the slide connection portion 92g is preferably disposed as a front end of the receiving portion 91b when the operation panel portion 92 is completely inserted into the receiving portion 91b. In addition, it is preferable that the slide connection part 92g is disposed at the rear end of the receiving part 91b when the operation panel part 92 is rotated and rolled up from the receiving part 91b.

In addition, the slide connection portion 92g has at least one or more in a position corresponding to the attachment/detachment hole 94a of the rail bogie 94 so that the operation panel portion 92 is selectively attached to and detached from the rail bogie 94. The detachable protrusion 92h may be extended. For example, the detachable protrusion 92h may be formed in two locations at a position corresponding to the detachable hole 94a at a predetermined distance from each other along the width direction. Of course, in some cases, a detachable hole may be formed in the slide connection part, and a detachable protrusion may be formed in the rail carriage part.

In addition, a second through hole 92j may be formed through the slide connecting part 92g at a position corresponding to the first through hole 94b of the rail car part 94. Through this, the wires connected between the inside of the housing unit 10 and the operation panel unit 92 are disposed to pass through the first through hole 94b and the second through hole 92j in communication with each other. I can.

Accordingly, the operation is selectively connected to the other side 92d of the operation panel unit 92, but is disposed under the receiving unit 91b and is connected to the rail unit 91g. The panel portion 92 may be selectively slide-moved along the front-rear direction of the slide holder portion 91. Accordingly, since the operation panel unit 92 is selectively rotated and rolled up from the slide holder unit 91, the operating state of the far-infrared smart heater 100 can be easily checked with the naked eye, so that the usability can be significantly improved.

On the other hand, the operation panel unit 92 has a front and rear position corresponding to the holder grooves 91c, 91d, and 91e so that the operation panel unit 92 is selectively constrained and held when the operation panel unit 92 is rotated and rolled up. It is preferable that the fixing grooves 92fa, 92fb, 92fc, 92fd, and 92fe are recessed at predetermined intervals along the direction.

Here, it is preferable that the holding means are respectively inserted into the fixing grooves 92fa, 92fb, 92fc, 92fd, and 92fe so that the operation panel unit 92 is constrained and held. At this time, the holding means may be provided with rubber, magnet, etc., but is not limited thereto.

In addition, the fixing groove (92fa, 92fb, 92fc, 92fd, 92fe) is selectively with at least one of the holder groove (91c, 91d, 91e) so that the rotationally rolled up operation panel portion 92 is held constrained in multiple stages. It is preferred to contact. At this time, multi-stage holding means that one side 92c of the operation panel unit 92 rotated and rolled up from the receiving unit 91b of the slide holder unit 91 is fixed in a state in which it is inclined at various angles. .

Here, the fixing groove (92fa, 92fb, 92fc, 92fd, 92fe) is a first fixing groove that is sequentially formed from the lower end (92a) to the upper end (92b) on the other side (92d) of the operation panel unit 92 ( 92fa), the second fixing groove (92fb), the third fixing groove (92fc), the fourth fixing groove (92fd), it is preferable to include a fifth fixing groove (92fe). At this time, the first fixing groove (92fa), the second fixing groove (92fb), the third fixing groove (92fc), the fourth fixing groove (92fd), and the fifth fixing groove (92fe) are mutually preset. It is desirable to be spaced apart at intervals. In addition, the first fixing groove (92fa), the second fixing groove (92fb), the third fixing groove (92fc), the fourth fixing groove (92fd), the fifth fixing groove (92fe) is at least one, respectively. It is preferable to be provided above. For example, the first fixing groove portion 92fa may be provided as a pair and disposed on the other side 92d of the operation panel portion 92 in both sides in the width direction.

In detail, when the operation panel part 92 is completely inserted into the receiving part 91b of the slide holder part 91, the first holder groove part 91c and the first fixing groove part 92fa may be disposed to face each other. have. At the same time, the second holder groove (91d) and the fourth fixing groove (92fd) are disposed to face each other, the third holder groove (91e) and the fifth fixing groove (92fe) may be disposed to face each other. . Here, it is preferable to understand that the holding means is inserted into the fixing grooves 92fa, 92fb, 92fc, 92fd, and 92fe and the holder grooves 91c, 91d, and 91e, respectively. Through this, the operation panel unit 92 may be temporarily fixed by each of the holding means while the operation panel unit 92 is completely inserted into the slide holder unit 91.

On the other hand, the second holder groove (91d) and the fixing groove (92fa, 92fb, 92fc, 92fd, 92fe) when the operation panel portion 92 is rotated and rolled up from the receiving portion 91b of the slide holder portion 91 Either of them may be disposed oppositely. At the same time, the third holder groove 91e and the other one adjacent to one of the fixing grooves 92fa, 92fb, 92fc, 92fd, and 92fe may be disposed to face each other. In this case, it is preferable to understand that the first holder groove 91c is exposed to the outside. For example, the second holder groove portion 91d and the second fixing groove portion 92fb may be disposed to face each other, and the third holder groove portion 91e and the third fixing groove portion 92fc may be disposed to face each other.

In this case, the operation panel unit 92 may be manually slide-moved along the front and rear directions of the receiving unit 91b by an external force of the user. Of course, in some cases, it may be configured to automatically slide in response to an operation signal from the operation panel unit 92. To this end, the control panel 90 may further include a driving means for providing a driving force so that the operation panel unit 92 slides.

On the other hand, when the operation panel part 92 rolls up completely from the receiving part 91b of the slide holder part 91, the third holder groove 91e and the first fixing groove 92fa may be disposed opposite to each other. I can. In this case, it is preferable to understand that the first holder groove portion 91c and the second holder groove portion 91d are exposed to the outside.

Therefore, after the operation panel unit 92 is rotated and rolled up, the holder grooves 91c, 91d and 91e of the slide holder unit 91 and the operation panel unit 92 are disposed at predetermined intervals along the front and rear direction. Holding means such as rubber and magnets inserted into the fixing grooves 92fa, 92fb, 92fc, 92fd, and 92fe, respectively, may be disposed to face each other. Accordingly, since the operation panel unit 92 is constrained and held in multiple stages at an inclination suitable for the user's convenience, the usability can be remarkably improved.

Meanwhile, although not shown in the drawings, as a modified example of an embodiment of the present invention, a smart remote control may be provided to be selectively attached to and detached from the far-infrared smart far-infrared smart heater by replacing the operation panel of the control panel. At this time, in this modified example, the basic configuration except for the configuration in which the smart remote control replaces the control panel is the same as in the above-described exemplary embodiment, and thus a detailed description of the same configuration is omitted.

Here, the housing portion of the far-infrared smart heater may be formed with a slide holder portion having a receiving portion recessed in a concave shape downward in the front-rear direction.

In addition, the smart remote control may be provided to be selectively attached or detached to the receiving unit, and a display unit may be provided on one side thereof, and the other side may be provided to slide along the front and rear directions of the receiving unit to selectively rotate and roll up upward.

Here, a detachable protrusion may be formed on the other side of the smart remote control corresponding to the detachable hole of the rail carriage. Accordingly, the smart remote control may be detachably connected to the rail cart and slide along the front-rear direction of the accommodating part to rotate and roll up.

Therefore, the smart remote control 102, which is connected in bidirectional communication to the main communication module 100a of the far-infrared smart heater 100 through RF communication, is selectively attached to and detached from the far-infrared smart heater 100 for easy storage. This can be improved. In addition, since the smart remote control 102 slides along the front and rear directions of the receiving unit and rolls up rotation, it is possible to easily check the operating state of the heater and the power on/off state with the naked eye, thereby preventing a fire due to user carelessness. And safety can be improved.

At this time, the terms such as "include", "comprise" or "have" described above mean that the corresponding component may be present unless otherwise stated, excluding other components. It should not be construed as being able to include other components. All terms, including technical or scientific terms, have the same meaning as commonly understood by a person of ordinary skill in the art, unless otherwise defined. Terms generally used, such as terms defined in the dictionary, should be interpreted as being consistent with the meaning of the context of the related technology, and are not interpreted as ideal or excessively formal meanings unless explicitly defined in the present invention.

As described above, the present invention is not limited to each of the above-described embodiments, and it is possible to be modified and implemented by those of ordinary skill in the art without departing from the scope of the claims of the present invention. And, these modifications are within the scope of the present invention.

1000: remote control system for heater 80: control unit
90: control panel 100: far infrared smart heater
100a: main communication module 101: portable terminal
101a: first communication module 102: smart remote control
102a: second communication module 103: smart repeater
103: third communication module 104: communication relay network

Claims (6)

A portable terminal equipped with a first communication module for selectively bidirectional wireless communication of a first operation signal generated by a smart control application for remote control via any one of Wi-Fi and Bluetooth;
A smart remote control equipped with a second communication module for selectively performing two-way wireless communication with a second operation signal generated by a command signal generator provided for remote control through RF communication;
A far-infrared smart heater equipped with a main communication module for two-way wireless communication of the first and second operation signals by selectively switching to any one of Wi-Fi, Bluetooth, and RF communication based on a preset priority; And
A remote control system for a heater comprising a control unit for controlling a two-way communication connection between the main communication module and the first communication module and the second communication module. The method of claim 1,
The control unit,
Controlling the main communication module, the first communication module, and any one of the second communication module to be selectively connected to each other for communication,
The main communication module is controlled to be selectively connected in bidirectional communication with the first communication module through any one of Wi-Fi and Bluetooth communication methods, and the main communication module is selectively connected to the second communication module through RF communication. Control,
A remote control system for a heater, characterized in that the communication connection is cut off so that the other one of the first communication module and the second communication module switches to a sleep mode. The method of claim 2,
The control unit is a two-way wireless communication between the main communication module and any one of the first communication module and the second communication module based on a preset priority so as to prevent overlap between the first manipulation signal and the second manipulation signal. Control the connection in real time,
The priority is a remote control system for a heater, characterized in that set in the order of WiFi, Bluetooth, and RF communication. The method of claim 1,
A smart repeater for relaying two-way wireless communication between the first communication module and the main communication module, and the second communication module and the main communication module,
A remote control system for a heater, further comprising a communication relay network for mediating a communication connection between the portable terminal and the smart repeater so that the first operation signal communicated via Wi-Fi is communicated in both directions and relayed to the far-infrared smart heater. The method of claim 1,
And the second communication module generates a call signal for wireless connection with the main communication module at preset time intervals and communicates with the main communication module in both directions. The method of claim 1,
The housing of the far-infrared smart heater is formed with a slide holder portion having a receiving portion recessed in a concave shape downward along the front and rear direction,
The smart remote control is provided to be selectively attached or detached to the receiving unit, and a display unit is provided on one side, and the other side is provided to slide along the front and rear directions of the receiving unit to selectively rotate and roll up in the upward direction. Control system.

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