Automatic temperature control system using space usage information

Abstract

The present invention relates to an automatic temperature control system using usage space information, and more specifically includes a measurement module and a control unit.

Description

Technology Field

[0001] The present invention relates to an automatic temperature control system using usage space information, and more specifically, to an automatic temperature control system using usage space information capable of automatically controlling a temperature control device according to the surrounding environment. Background Technology

[0003] Temperature control devices are used to regulate the temperature in spaces such as indoors, inside tents, or inside cars.

[0004] Examples of the above-mentioned temperature control devices include heating mats, which have a heating element embedded inside the mat; typically, an electric resistor is used as the heating element.

[0005] The principle is that when power is supplied to the above-mentioned electric resistor, the electric resistor supplies heat through resistance heating to heat the mat.

[0006] Meanwhile, the prior art, Registered Utility Model No. 20-0409950 (hereinafter referred to as the prior art), is an electric heating pad with a multi-divided heating zone that utilizes the principle of the aforementioned heating mat.

[0007] More specifically, the electric heating pad comprises a heating pad body made of fiber or synthetic resin in a flat or sheet form and having a heat transfer medium formed of a planar heating element or a heating wire embedded therein, and a power supply control switch that supplies and controls power to the heat transfer medium embedded in the heating pad body. The arrangement position of the heat transfer medium embedded in the heating pad body is divided into at least two areas based on the surface area of ​​the heating pad body to form divided individual heating zones, and the heating pad is configured with an opening / closing switch that controls the individual heating zones so as to supply power independently to each individual heating zone. By dividing the heating zones so that only the desired part of the heating pad can be heated, power consumption control, body part heat transfer control, and a hot compress effect can be provided.

[0008] However, the aforementioned prior art had problems such as not including a configuration for controlling the temperature control device according to the surrounding environment. Prior art literature

[0010] Korean Registered Utility Model Publication No. 20-0409950 The problem to be solved

[0011] The problem to be solved by the present invention is to have the purpose of controlling a temperature control device in response to the surrounding environment.

[0012] The problems of the present invention are not limited to those mentioned above, and other unmentioned technical problems will be clearly understood by those skilled in the art from the description below. means of solving the problem

[0014] The present invention for solving the above problem comprises: a measurement module that measures the temperature of a space in which a temperature control device is placed and generates temperature data; a control unit that includes a comparison unit that receives the temperature data from the measurement module and generates comparison data by comparing the measured temperature of the temperature data with a reference temperature, and a temperature control unit that generates a control signal of the temperature control device using the comparison data.

[0015] Additionally, the control unit may further include a storage unit that receives and stores a set temperature from an input module, and a setting unit that receives the set temperature from the storage unit, sets the set temperature as the reference temperature, and transmits it to the comparison unit.

[0016] Additionally, the control unit may further include a timer unit that receives data regarding a target time from an input module and counts down the target time from the moment the target time is received and generates a arrival signal when it reaches 0; and an alarm unit that generates an alarm signal when it receives the arrival signal from the timer unit.

[0017] Additionally, the control unit may further include a timer unit that receives a target time from an input module and counts down the target time from the moment the target time is received, and generates an arrival signal when it reaches '0'; and a switch unit that generates a drive control signal to control the operation of the temperature measuring device when it receives the arrival signal from the timer.

[0018] In addition, the control unit may further include a feedback unit that generates a feedback signal when receiving the control signal, the set temperature, the arrival signal, the alarm signal, or the drive control signal.

[0019] In addition, the comparison unit may generate an excess signal when the measured temperature exceeds the reference temperature and generate a less than signal when the measured temperature is less than the reference temperature, and the temperature control unit may generate a decrease signal to cause the temperature control device to decrease the heat output when receiving the excess signal and generate an increase signal to cause the temperature control device to increase the heat output when receiving the less than signal.

[0020] Additionally, it may further include an output module that receives and outputs measurement data from the measurement module and receives and outputs the set temperature and the target time from the input module. Effects of the invention

[0022] According to an embodiment of the present invention, the temperature control device can be controlled in response to the surrounding environment. Brief explanation of the drawing

[0024] FIG. 1 is a schematic block diagram illustrating a temperature control system according to one embodiment of the present invention. Figure 2 is a schematic block diagram for explaining the control unit. Figure 3 is a schematic diagram illustrating how a control unit controls a temperature control device. Specific details for implementing the invention

[0025] The advantages and features of the present invention and the methods for achieving them will become clear by referring to the embodiments described below in detail together with the accompanying drawings. However, the present invention is not limited to the embodiments disclosed below but may be implemented in various different forms. These embodiments are provided merely to ensure that the disclosure of the present invention is complete and to fully inform those skilled in the art of the scope of the invention, and the present invention is defined only by the scope of the claims.

[0026] Throughout the entire specification, when a part is described as being "connected" to another part, this includes not only cases where they are "directly connected (including electrical connections enabling communication)" but also cases where they are "indirectly connected (including electrical connections enabling communication)" with other elements interposed between them.

[0027] FIG. 1 is a schematic block diagram for explaining a temperature control system according to an embodiment of the present invention. FIG. 2 is a schematic block diagram for explaining a control unit. FIG. 3 is a schematic diagram for explaining that the control unit controls a temperature control device.

[0028] A temperature control system (S) according to one embodiment of the present invention is an automatic temperature control system that controls a temperature control device using space information, and for convenience of explanation, it will be referred to as the ‘this system’ below.

[0029] Referring to FIG. 1, the present system (temperature control system (S)) may include a measurement module (1) and a control unit (2).

[0030] The measurement module (1) can generate temperature data by measuring the temperature of the usage space where the temperature control device (5) is placed. The temperature data may include the measured temperature of the usage space.

[0031] The above measurement module (1) may include a conventional temperature sensor, etc.

[0032] The above temperature control device (5) is placed in the usage space and may include, for example, a heating wire (for example, a copper wire as an electric resistor). The present system may include the above temperature control device (5).

[0033] The above-mentioned usage space may be an indoor space, inside a tent, inside a car, etc., where a temperature control device (5) is placed.

[0034] Referring to FIG. 2, the control unit (2) may include a comparison unit that receives temperature data generated by the measurement module (1) and generates comparison data by comparing the measured temperature of the temperature data with a reference temperature.

[0035] The control unit (2) may be configured with various control configurations or computing devices known to a person skilled in the art (e.g., various electronic devices or electronic modules such as computers, processors, etc.). For example, the control unit (2) may be configured to transmit signals or commands generated according to a program or algorithm included therein to a temperature control device (5) or an output module (4) described later. For example, the control unit (2) may be an independent configuration provided separately from the temperature control device (5) and connected via wired or wireless connection to the measurement module (1), input module (3), output module (4), and temperature control device (5).

[0036] The control unit (2) may include a temperature control unit that generates a control signal for the temperature control device (5) using the comparison data.

[0037] With reference to FIGS. 2 and 3, to be explained more specifically, the comparison unit may generate an excess signal when the measured temperature exceeds the reference temperature, and generate a less than signal when the measured temperature is less than the reference temperature. The comparison data may include the excess signal or the less than signal.

[0038] The above reference temperature may be a specific temperature (e.g., 23℃) or a temperature range (22℃ to 24℃).

[0039] When the above reference temperature is within a temperature range, the above reference temperature may include a reference upper limit temperature and a reference lower limit temperature. In this case, the comparison unit may generate an excess signal if the measured temperature exceeds the reference upper limit temperature and generate a less than signal if it is less than the reference lower limit temperature.

[0040] The above comparison unit can generate the same signal and transmit it to the temperature control device (5) when the above measured temperature is at a specific temperature or within a temperature range.

[0041] Comparison data may include an excess signal, a less than signal, or an identical signal.

[0042] At this time, the temperature control unit receives the comparison data. When the excess signal is received, the temperature control device (5) can generate a decrease signal to reduce the heat output and transmit it to the temperature control device (5), and when the less signal is received, the temperature control device (5) can generate an increase signal to increase the heat output and transmit it to the temperature control device (5).

[0043] When the above temperature control unit receives the same signal, it can generate a maintenance signal to maintain the heat output of the temperature control device (5) and transmit it to the temperature control device (5).

[0044] The above control signal may include a decrease signal, an increase signal, or a maintenance signal.

[0045] The above control signal can be transmitted to the supply unit of the temperature control device (5) described later, and may be a signal capable of increasing, maintaining, or decreasing the amount of power supplied by the supply unit to the electric resistor.

[0046] That is, the temperature control device (5) may include the electric resistor, and the supply unit may increase the amount of power supplied to the electric resistor when receiving an increase signal and decrease the amount of power supplied to the electric resistor when receiving a decrease signal.

[0047] In this way, the present system has the advantage of being able to control the temperature control device (5) using usage space information such as the measured temperature, and to control the amount of heat generated by the temperature control device (5) according to the temperature of the usage space.

[0048] That is, if it is difficult for the user to directly control the temperature control device (5) while in a state such as sleeping in the usage space, the above-described system can control the amount of heat generated by the temperature control device (5) by using information about the usage space.

[0049] Referring to FIGS. 1 and 2, the control unit (2) may include a storage unit that receives and stores a set temperature from an input module (3), and a setting unit that receives the set temperature from the storage unit, sets the set temperature to the reference temperature, and transmits it to the comparison unit.

[0050] The above input module (3) may include a conventional data input device such as a mouse, keyboard, touchscreen, dial, button, switch, etc. If the above input module (3) includes a mouse, keyboard, touchscreen, etc., it may include a user interface (UI) that outputs through a display device, etc.

[0051] The input module (3) is a known technology, so a more detailed description will be omitted.

[0052] The set temperature (data) can be input by the input module (3) and transmitted to the storage unit.

[0053] The system may include the above input module (3).

[0054] The user can change and set the reference temperature as needed by inputting the set temperature through the input module (3).

[0055] Referring to FIGS. 1 and 2, the control unit (3) may include a timer unit that receives data regarding a target time from the input module (3) and counts down the target time from the moment the target time is received, and generates a arrival signal when it reaches '0'.

[0056] The above timer unit may include a conventional timer program, and a more detailed description is omitted.

[0057] At this time, the control unit (2) may include an alarm unit that generates an alarm signal when it receives the arrival signal from the timer unit.

[0058] The system may include an alarm device that receives and outputs the alarm signal. The alarm device (e.g., a speaker, a warning light) may receive the alarm signal and output the alarm signal in the form of voice or light.

[0059] The above control unit (2) may include a switch unit that generates a drive control signal to control the operation of the temperature control device (5) when it receives the arrival signal from the timer unit.

[0060] The above temperature control device (5) may include, as described above, an exemplary heating wire (electric resistor) and a supply unit that supplies power to the heating wire.

[0061] At this time, the above drive control signal may be a signal that controls the drive of the supply unit, and the drive control signal may include an on signal or an off signal.

[0062] When the above supply unit receives an ON signal, the supply unit can supply power to the heating wire, and when it receives an OFF signal, it can stop supplying power to the heating wire.

[0063] Therefore, in situations where the user cannot directly control the supply unit, such as during sleep, the user can control the temperature control device (5) using the timer unit and switch unit, etc.

[0064] Referring to FIGS. 1 and FIGS. 2, the control unit (2) may include a feedback unit that generates a feedback signal when it receives the control signal, the set temperature, the arrival signal, the alarm signal, or the driving control signal.

[0065] The above feedback unit can receive a control signal from the temperature control unit, receive a set temperature from the input module (3), receive an arrival signal from the timer unit, receive an alarm signal from the alarm unit, and receive a drive control signal from the switch.

[0066] The above feedback unit can generate the feedback signal and transmit it to a feedback device, and the present system may include the feedback device.

[0067] The above feedback device may include a speaker or a conventional vibration generating device (vibrator, vibration motor), etc., and may receive the feedback signal and output it in the form of voice or vibration.

[0068] The system may include an output module (4) that receives and outputs measurement data (temperature data) from the measurement module (1) and outputs the set temperature and the target time from the input module (3). The output module (4) may include a conventional display device, and the display device may output the temperature data, set temperature, target time, etc., as a visual image. Since this is a known technology, a more detailed description will be omitted.

[0069] The above temperature control unit can generate a control signal so that the temperature control device (5) reaches the target temperature.

[0070] The above target temperature may be, for example, the above reference temperature.

[0071] Meanwhile, the control unit may include a time-corresponding unit that sets a first temperature as the target temperature when the time received from the clock program is between 9:00 AM and 6:00 PM, and sets a second temperature higher (greater) than the first temperature as the target temperature when the time received from the clock program is between 9:00 PM and 6:00 AM, and transmits it to the temperature control unit and the comparison unit.

[0072] The above control unit (2) may include a normal clock program, and the time correspondence unit may receive the current time from the clock program.

[0073] The control unit (2) sets the first temperature as the target temperature when the current time is between 9:00 AM and 6:00 PM, thereby allowing the heat output of the temperature control device (5) to be lower during the day when the sun rises, and sets the second temperature, which is higher than the first temperature, as the target temperature when the current time is between 9:00 PM and 6:00 AM, thereby allowing the heat output of the temperature control device (5) to be higher during the night.

[0074] Additionally, the control unit (2) may include a gender correspondence unit that receives gender data input from the input module (3). The gender data may include male or female, and if the gender correspondence unit receives gender data including male from the input module (3), it may set a third temperature as the target temperature, and if the gender data is female, it may set a fourth temperature higher than the third temperature as the target temperature and transmit it to the temperature control unit.

[0075] This allows the amount of heat generated by the temperature control device (5) to be reduced when the user is male, and the amount of heat generated by the temperature control device (5) to be increased when the user is female.

[0076] Additionally, the control unit (2) may include a state-corresponding unit that receives state data input from the input module (3) and includes rest state information, sleep state information, or activity state information.

[0077] The state response unit can set a fifth temperature as the target temperature if the state data includes rest state information, set a sixth temperature lower than the fifth temperature as the target temperature if the state data includes sleep state information, and set a seventh temperature lower than the sixth temperature as the target temperature if the state data includes activity state information, and transmit it to the temperature control unit.

[0078] Additionally, the control unit (2) may include an infant response unit that sets the target temperature to 20~22℃ (infant optimal temperature) when it receives data regarding infant mode from the input module (3).

[0080] Meanwhile, the feedback device may include a vibration motor that vibrates upon receiving a feedback signal from the feedback unit. Since the vibration motor is a known technology, a more detailed description will be omitted.

[0081] A temperature control device (5) may include a heating wire (an electric resistor, exemplified by a copper wire) and a mat in which the heating wire is embedded, although the device is not shown.

[0082] Therefore, the above temperature control device (5) may be a heating mat.

[0083] At this time, the temperature control device (5) may include a soft magnetic fiber comprising one or more of iron, cobalt, and nickel. The soft magnetic fiber may include one or more of ferrite, permalloy, supermalloy, isoperm, finemet, and sendust and may wrap the heating wire.

[0084] Permalloy and Supermalloy include Fe-Ni, Fe-Si-B, Fe-Si-B-Cu-Nb, Fe-Zr-B, and Co-Fe-Si-B alloys. In addition, Fe(Co,Ni)-Si-B, Fe(Co,Ni)-BC, Fe(Co,Ni)-Si-BC, Fe(Co,Ni)-Si-BP, Fe(Co,Ni)-BP, Fe(Co,Ni)-B-Cr, Fe(Co,Ni)-Si-B-Cr, Fe(Co,Ni)-B, Fe(Co,Ni)-Si-B-Cu-Nb, Fe(Co,Ni)-Zr-B, Fe-Zr-Cu-B, Fe-Co-Zr-B-Cu, Fe-Al-Ga-PCB, Fe-Al-Ga-PCB-Nb, Fe-Al-Ga-PCB-Mo, Fe-Al-Ga-PCB-Cr, Fe-Al-Ga-P-CB-Co, Fe-Al-Ga-PCB-Si, Fe-Al-Ga-PB-Si, Fe-Al-PCB, Fe-PCB, Fe-Ga-PC-B, Soft magnetic materials such as Fe-Co-Ni-Zr-Nb-B, Fe-CoNi-Zr-Ta-B, Fe-Co-Ni-Zr-B, Fe-Co-Zr-Mo-WB, and Fe-Si-BP-Cu can be applied.

[0085] The above soft magnetic fiber may be formed into a fibrous shape by various known methods of a soft magnetic material.

[0086] Conventionally, electromagnetic shielding methods were used to suppress electromagnetic interference (EMI) by wrapping an object (such as a heating wire) with a conductive material such as copper to reflect the electromagnetic waves or allow them to flow to ground. However, in such cases, there was a problem that the reflected electromagnetic waves caused malfunctions in electronic devices and increased noise.

[0087] As described above, the supply unit of the temperature control device (5) supplies power to the heating wire, and thus electromagnetic waves may be generated from the heating wire. Since the soft magnetic fiber wraps around the heating wire and absorbs electromagnetic wave energy and converts it into thermal energy due to the characteristics of complex permeability, it can absorb electromagnetic waves rather than reflecting or scattering them like conventional electromagnetic shielding methods.

[0088] Through this, even when using this system in the aforementioned usage space, it is possible to suppress the malfunction of electronic devices caused by electromagnetic waves generated from wires and protect the human body.

[0089] In addition, as described above, the heating wire is used as a means to generate heat as a heating element, and since the soft magnetic fiber mentioned above absorbs electromagnetic waves and converts them into thermal energy, the amount of heat generated relative to the amount of power supplied increases, thereby improving efficiency.

[0090] Meanwhile, the temperature control device (5) may include a main body in which the case of the vibration motor is accommodated, and a receiving member including a cover that covers the upper opening of the main body and is detachably coupled to the main body.

[0091] Generally, the above vibration motor may have a coil, wave spring, FLEX PCB, etc. embedded in the case, and a cable may be connected to the PCB, and the cable may penetrate the case.

[0092] A case and components embedded in the case may be embedded inside the main body, and a hole may be formed in the main body through which the cable of a vibration motor passes.

[0093] The above cover can be detachably connected to the main body by various conventional methods (bolting, threading, etc.).

[0094] The temperature control device (5) may include an insertion groove formed by being recessed inward (inward receiving space side) from the outer surface of the main body and formed in a coil shape, into which a heating wire wound with the soft magnetic fiber is inserted.

[0095] The heating wire can be arranged in a zigzag shape in the mat, and the heating wire can be inserted into the insertion groove by winding the main body into a coil shape.

[0096] Through this, when the vibration motor generates vibration, the heating wires evenly distributed in the mat vibrate together, allowing the vibration force to be effectively transmitted.

[0097] The above insertion groove may be configured to improve the contact area between the heating wire and the main body and to prevent the heating wire from coming out of the main body.

[0098] Meanwhile, the main body and the cover may have a soft magnetic material embedded therein, and through this, can absorb electromagnetic waves generated from the vibration motor and convert them into thermal energy.

[0099] Additionally, the temperature control device (5) may include a first rope connected to the upper side of the main body and a second rope connected to the lower side of the main body.

[0100] More specifically, the temperature control device (5) may include an upper connecting part comprising an upper protrusion protruding laterally from the upper side of the main body and an upper ring part provided at the end of the upper protrusion.

[0101] The first rope can be secured to the upper loop by being knotted while penetrating the upper loop.

[0102] In addition, the temperature control device (5) may include a lower connecting part comprising a lower protrusion protruding laterally from the lower side of the main body and a lower ring part provided at the end of the lower protrusion.

[0103] The second rope can be secured to the lower loop by being knotted while penetrating the lower loop.

[0104] The above temperature control device (5) includes a tightening means, and the tightening means will be described below.

[0105] The insertion means may include a tubular body, a sealing part that blocks an opening on one side of the tubular body, an insertion part that is inserted through an opening on the other side of the tubular body, and an elastic body that is inserted into the tubular body, with one end supported by the sealing part and the other end supported by the insertion part.

[0106] For example, the above-mentioned tubular body and insertion part may have a length parallel to the left-right direction, and the above-mentioned one side (one end, etc.) refers to the left side (left end, etc.), and the other side (other end, etc.) may refer to the other side (other end, etc.). This shall be applied identically in the following description.

[0107] The tightening means may include a lower pipe hole formed in the lower part of the pipe body through which the first rope and the second rope pass, and an upper pipe hole formed in the upper part of the pipe body through which the first rope and the second rope pass.

[0108] That is, the first rope and the second rope can pass through the upper part hole and the lower part hole and penetrate the pipe body.

[0109] The above tightening means may include a through hole formed in the insertion part that communicates with the upper tubular hole and the lower tubular hole when the elastic body is compressed (when the insertion part is moved to one side relative to the tubular body so as to be inserted into the tubular body), and does not communicate with the upper tubular hole when the elastic deformation of the elastic body is restored (when the insertion part is moved to the other side relative to the tubular body so as to be removed from the tubular body).

[0110] That is, when the insertion part is pressed and moved to one side, the elastic body undergoes compressive deformation, and the first rope and the second rope pass through the lower pipe hole, the through hole, and the upper pipe hole, and the size of the hole (hereinafter referred to as the first hole) formed by the ropes and the side of the main body may decrease or increase.

[0111] Afterward, when the pressure on the insertion part is released, the insertion part moves to the other side due to the restoring force of the elastic body, and the ropes are interlocked so that the through hole does not communicate with the upper hole, and the ropes are inserted and fixed between the insertion part and the tube.

[0112] When the first hole is reduced, the heating wires inserted into the insertion groove can be fixed by applying pressure toward the main body, and when the first hole is increased, the heating wires can be pulled out of the insertion groove.

[0114] Although embodiments of the present invention have been described above with reference to the attached drawings, those skilled in the art will understand that the present invention may be implemented in other specific forms without changing the technical concept or essential features thereof. Therefore, the embodiments described above should be understood as illustrative in all respects and not restrictive. Explanation of the symbols

[0116] S: Temperature control system 1: Measurement module 2: Control unit 3: Input Module 4: Output module 5: Temperature control device

Claims

Claim 1 A measurement module that measures the temperature of a usage space where a temperature control device is placed and generates temperature data; and a control unit including a comparison unit that receives the temperature data from the measurement module and generates comparison data by comparing the measured temperature of the temperature data with a reference temperature, and a temperature control unit that generates a control signal for the temperature control device using the comparison data; wherein the control unit further includes a storage unit that receives and stores a set temperature from an input module, and a setting unit that receives the set temperature from the storage unit, sets the set temperature as the reference temperature, and transmits it to the comparison unit; wherein the control unit further includes a timer unit that receives data regarding a target time from an input module and generates an arrival signal when the target time reaches 0 by counting down from the moment the target time is received; and an alarm unit that generates an alarm signal when the arrival signal is received from the timer unit; wherein the control unit further includes a timer unit that receives the target time from the input module and generates an arrival signal when the target time reaches 0 by counting down from the moment the target time is received; and wherein, when the arrival signal is received from the timer, the temperature adjustment The device further includes a switch unit that generates a drive control signal for controlling the operation of the device, and the control unit further includes a feedback unit that generates a feedback signal when it receives the control signal, the set temperature, the arrival signal, the alarm signal, or the drive control signal. A temperature control system further comprising a feedback device that receives and outputs a feedback signal from the feedback unit, wherein the feedback device includes a vibration motor that vibrates upon receiving the feedback signal, wherein the comparison unit generates an excess signal when the measured temperature exceeds the reference temperature and generates a less than signal when the measured temperature is less than the reference temperature, wherein the temperature control unit generates a decrease signal to cause the temperature control unit to decrease the heat output when the excess signal is received and generates an increase signal to cause the temperature control unit to increase the heat output when the less than signal is received, and further comprising an output module that receives and outputs measurement data from the measurement module and receives and outputs a set temperature and a target time from the input module. Claim 2 delete Claim 3 delete Claim 4 delete Claim 5 delete Claim 6 delete Claim 7 delete Claim 8 Claim 1 In this, the temperature control unit generates a control signal to cause the temperature control device to reach the reference temperature, and the control unit includes a time-corresponding unit that sets a first temperature as the target temperature when the time received from the clock program is between 9:00 AM and 6:00 PM, and sets a second temperature higher than the first temperature as the target temperature and transmits it to the temperature control unit; a gender-corresponding unit that receives gender data input from the input module, sets a third temperature as the target temperature when the gender data is male, and sets a fourth temperature higher than the third temperature as the target temperature when the gender data is female, and transmits it to the temperature control unit; and a state data input from the input module that includes rest state information, sleep state information, or activity state information, sets a fifth temperature as the target temperature when the state data includes rest state information, sets a sixth temperature lower than the fifth temperature as the target temperature when the state data includes sleep state information, and sets a seventh temperature lower than the sixth temperature when the state data includes activity state information. A state response unit that sets a target temperature and transmits it to the temperature control unit; and further includes an infant response unit that sets the target temperature to 20~22℃ when receiving data regarding infant mode from the input module; further includes a temperature control device comprising a vibration motor that vibrates upon receiving a feedback signal from the feedback unit, a mat, and a heating wire embedded in the mat; wherein the temperature control device comprises one or more of ferrite, permalloy, supermalloy, isoperm, finemet, and sandus, and a soft magnetic fiber that wraps the heating wire; a receiving member comprising a main body in which the case of the vibration motor is accommodated, and a cover that covers an upper opening of the main body and is detachably coupled to the main body.An insertion groove formed by being recessed inwardly from the outer surface of the main body and formed in a coil shape, into which a heating wire wound with the soft magnetic fiber is inserted; a first rope connected to the upper part of the main body; and a second rope connected to the lower part of the main body. The device comprises a pipe body, a sealing part that blocks an opening on one side of the pipe body, an insertion part inserted through an opening on the other side of the pipe body, an elastic body inserted into the pipe body with one end supported by the sealing part and the other end supported by the insertion part, a lower pipe hole formed at the bottom of the pipe body through which the first rope and the second rope pass, an upper pipe hole formed at the top of the pipe body through which the first rope and the second rope pass, and a through hole formed at the insertion part that communicates with the upper pipe hole and the lower pipe hole when the elastic body is compressed, and does not communicate with the upper pipe hole when the elastic deformation of the elastic body is restored; wherein the main body and the cover each have a soft magnetic material embedded inside, and the temperature control device further comprises an upper connecting part including an upper protrusion provided protruding from the top of the main body and an upper ring part provided at the end of the upper protrusion; and a lower connecting part including a lower protrusion provided protruding from the bottom of the main body and a lower ring part provided at the end of the lower protrusion. Temperature control system.;

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