A heating device that emits far-infrared rays
The heating device with a graphene radiating film and disposable components addresses the limitations of existing heating devices by enabling continuous thermal energy generation and reuse, enhancing convenience and sustainability.
Patent Information
- Authority / Receiving Office
- JP · JP
- Patent Type
- Applications
- Current Assignee / Owner
- YOUMU TECHNOLOGY CO LTD
- Filing Date
- 2025-06-27
- Publication Date
- 2026-05-22
Smart Images
Figure 2026085222000001_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to a heating device having graphene, and particularly to a heating device that uses graphene to react with a disposable heating component to generate far-infrared rays.
Background Art
[0002] With the increasing trend of sports, people often get injured during exercise due to incorrect postures or careless use of sports equipment. In this case, a heating pad with a heating function is used to warm the injured part, pass through the meridians at a high temperature, and reduce swelling and pain.
[0003] Also, regardless of working hours or holidays, people often stare at 3C products (such as computers, mobile phones, tablet PCs, etc.) for a long time, which may cause eye fatigue and further damage to the eyes, leading to the onset of diseases. Therefore, it is necessary to warm the eyes with an eye mask having a heating function to improve blood circulation in the eyes and relieve tired eyes.
[0004] Both the heating pad having a heating function and the eye mask having a heating function are heating devices. Among them, ordinary heating devices can be divided into plug-in types and disposable types. The plug-in type heating device must insert the plug of the heating device into a socket, and the user is restricted by the position of the socket and cannot move freely, which is really inconvenient and troublesome. In addition, the disposable heating device is a product used only once, and the used disposable heating device must be discarded in its entirety and cannot be used repeatedly, which is a waste of resources and not environmentally friendly.
Summary of the Invention
Problems to be Solved by the Invention
[0005] The main objective of the present invention is to provide a heating device having a graphene material. The graphene material can receive thermal energy from disposable heating components and generate far-infrared rays, and furthermore, the temperature of the heating device can be continuously maintained by the far-infrared rays, thereby extending the service life of the heating device.
[0006] A secondary objective of the present invention is to provide a reusable heating device. By replacing different disposable heating components, one disposable heating component can be replaced with another, allowing it to continue to generate thermal energy by remaining in contact with air within the heating device. Furthermore, the heating device can be used repeatedly without using electricity.
[0007] A further object of the present invention is to improve the structural configuration of the member. The improved member is provided with holes for allowing air to enter the interior, so that the disposable heating component inside the member can continuously come into contact with the air and generate thermal energy, and furthermore, the heating device can continuously generate heat so that it can be used by the user.
[0008] A further object of the present invention is to provide a heating device having a sealed bag for housing three components: a component, a radiating film, and a disposable heating component. The three components provided in the sealed bag can avoid contact with air, the disposable heating component in the sealed bag can stop generating thermal energy, and the user can selectively control the contact time of the heating device with air by transferring the three components to the sealed bag. As a result, when the heating device is not needed, the three components can be temporarily stored in the sealed bag to extend its usage time. [Means for solving the problem]
[0009] To achieve the above objective, the far-infrared emitting heating device according to the present invention includes a component, a radiating film, and a disposable heating component.
[0010] The member comprises a member body and a flexible object, with an exposed opening formed in the center of the member body in the direction of the normal, and multiple sides of the member body connected to the outer edge of the flexible object, thereby forming a gap space between the member body and the flexible object, and a side gap adjacent to the gap space.
[0011] In a first preferred embodiment, the member body has an outer fabric insulation layer and an inner thermoplastic polyurethane layer, the fabric insulation layer having a skin-friendly surface for contact with the user, and the thermoplastic polyurethane layer having one side connected to the flexible object and the other side in contact with the disposable heating component.
[0012] In particular, the radiation film is connected to the exposed opening by being connected to the main body of the member, and has a transparent layer located on the outside and a graphite layer located on the inside. The graphite layer is composed of a graphene layer whose area is equal to or less than the area of the transparent layer.
[0013] However, if the exposed opening has an exposed opening area and the radiating film has a reaction area, and the exposed opening area is smaller than the reaction area, then a portion of the transparent layer may be directly contacted by the user, and the remaining portion may be placed between the member body and the flexible object.
[0014] The disposable heating component comprises a breathable bag and a heating material provided inside the breathable bag that generates thermal energy after contact with air. The graphite layer receives the thermal energy generated from the disposable heating component, and then far-infrared rays are generated by the graphite layer and penetrate the transparent layer. The flexible object has at least one hole that allows air to enter the gap space.
[0015] In particular, since the central regions of both the member body and the flexible object can be separated from each other, the side gap is changed into a side opening, the disposable heating component can be inserted into the gap space through the side opening, and can also be removed from the gap space through the side opening and replaced.
[0016] In a second preferred embodiment, the heating device further comprises a sealed bag having a bag body and a sealing assembly attached to one side of the bag body, wherein the bag body is used to jointly house the three components, the radiating film, and the disposable heating component, and the sealing assembly can block the entry of air into the bag body, so that the disposable heating component provided in the bag body cannot come into contact with the air and furthermore, the bag body cannot generate thermal energy. As a result, the user can selectively control the contact time of the heating device with the air by transferring the three components, the radiating film, and the disposable heating component to the sealed bag. As a result, when the heating device is not needed, the three components, the radiating film, and the disposable heating component can be temporarily stored in the sealed bag to extend the usage time.
[0017] In a third preferred embodiment, the member further has a connecting portion having a male connector provided on the member body and a female connector provided on the flexible object, and the disposable heat-generating component can be confined in the gap space by the male connector being detachably connected to the female connector.
[0018] In a fourth preferred embodiment, the member body further comprises an adjustment section, the first and second adjustment members of the adjustment section being provided on opposite sides of the exposed opening, and when the first and second adjustment members are assembled together and attached to the user's body part, the radiating film can come into contact with the body part, thereby allowing the body part to be heated by the disposable heating component.
[0019] In a fifth preferred embodiment, a breathable fabric is formed on the flexible object, the breathable fabric is connected to the main body of the member, and the user's body part can come into contact with the radiating membrane of the heating device, so that the main body of the member and the disposable heating component are jointly provided between the breathable fabric and the body part.
[0020] In a sixth preferred embodiment, the member has a first side in which an exposed opening is formed, and a second side opposite to the first side having an inwardly recessed groove, and the disposable heating element can be engaged with the groove by entering the groove from the second side of the member, and can be selectively inserted into and removed from the groove, so that the disposable heating element can be removed from the groove and replaced. Furthermore, the radiating film is provided on the first side of the member by being connected above the member, and the disposable heating element is provided on the second side of the member.
[0021] The present invention is characterized in that a heating device that emits far-infrared rays comprises a member and a disposable heating component assembled inside the member. An exposed opening is formed in the center of the member body in the direction of the normal, and the exposed opening is coupled to a radiating film, thereby connecting the radiating film to the member body and having a transparent layer located on the outside and a graphite layer located on the inside. In particular, the heating material of the disposable heating component generates thermal energy after coming into contact with air, and after the graphite layer receives the thermal energy, far-infrared rays are emitted from the graphite layer and can penetrate the transparent layer, thereby continuously maintaining the temperature of the heating device and extending the service life of the heating device. Furthermore, by replacing it with a different disposable heating component, the disposable heating component can be replaced with another disposable heating component, which continues to come into contact with air inside the heating device, generates thermal energy, and the heating device can be reused repeatedly. [Brief explanation of the drawing]
[0022] [Figure 1] This is a schematic diagram of a heating device that emits far-infrared rays in a first preferred embodiment of the present invention. [Figure 2] Exploded view of a heat generating device that emits far infrared rays in the first preferred embodiment of the present invention. [Figure 3] Cross-sectional view of a member in the first preferred embodiment of the present invention. [Figure 4] Exploded view of a member in the first preferred embodiment of the present invention. [Figure 5] Cross-sectional view of a disposable heat generating component in the first preferred embodiment of the present invention. [Figure 6] Schematic diagram showing air entering a heat generating device that emits far infrared rays in the first preferred embodiment of the present invention. [Figure 7] Schematic diagram showing a heating material generating heat energy by contacting air in the first preferred embodiment of the present invention. [Figure 8] Schematic diagram showing a graphite layer receiving heat energy and generating far infrared rays in the first preferred embodiment of the present invention. [Figure 9] Schematic diagram of a heat generating device that emits far infrared rays in the second preferred embodiment of the present invention. [Figure 10A] Schematic diagram of a heat generating device that emits far infrared rays in the third preferred embodiment of the present invention. [Figure 10B] Schematic diagram of a heat generating device that emits far infrared rays in the third preferred embodiment of the present invention. [Figure 11A] Schematic diagram of a heat generating device that emits far infrared rays in the fourth preferred embodiment of the present invention. [Figure 11B] Schematic diagram of a heat generating device that emits far infrared rays in the fourth preferred embodiment of the present invention. [Figure 11C] Schematic diagram of a heat generating device that emits far infrared rays in the fourth preferred embodiment of the present invention. [Figure 12A] Schematic diagram of a heat generating device that emits far infrared rays in the fifth preferred embodiment of the present invention. [Figure 12B] Schematic diagram of a heat generating device that emits far infrared rays in the fifth preferred embodiment of the present invention. [Figure 12C]This is a schematic diagram of a heating device that emits far-infrared rays in a fifth preferred embodiment of the present invention. [Figure 12D] This is a schematic diagram of a heating device that emits far-infrared rays in a fifth preferred embodiment of the present invention. [Figure 13A] This is a schematic diagram of a heating device that emits far-infrared rays in a sixth preferred embodiment of the present invention. [Figure 13B] This is a schematic diagram of a heating device that emits far-infrared rays in a sixth preferred embodiment of the present invention. [Modes for carrying out the invention]
[0023] To provide a clearer and more detailed understanding of the structure, use, and features of the present invention, preferred embodiments will be described in detail below with reference to the drawings.
[0024] Refer to Figures 1 and 2. The far-infrared emitting heating device 1 according to the present invention mainly consists of a member 10, a radiating film 20, and a disposable heating component 30.
[0025] Refer to Figures 1, 2, 3, 4, and 6. The member 10 comprises a member body 11 and a flexible object 12. In a first preferred embodiment, the member body 11 comprises an outer fabric insulation layer 111 and an inner thermoplastic polyurethane layer 112. The fabric insulation layer 111 has a skin-friendly surface for contact with the user, allowing the user to contact the member 10 of the heating device 1 for an extended period, and the thermoplastic polyurethane layer 112 comprises thermoplastic polyurethane 13 (TPU). In particular, the member body 11 further comprises an exposed opening 14 formed in the center of the member body 11 toward the normal direction D1 and having an exposed opening area, and a plurality of side edges 15 provided on the outer circumference of the exposed opening 14. The constituent materials of the fabric insulation layer 111 and the thermoplastic polyurethane layer 112 are not limited.
[0026] Please continue to refer to Figures 1, 2, 3, 4, and 6. In a first preferred embodiment, the flexible body 12 also has a fabric insulation layer 121 located on the outside and a thermoplastic polyurethane layer 122 located on the inside, similar to the fabric insulation layer 111 and thermoplastic polyurethane layer 112 of the member body 11. The flexible body 12 has a hole area smaller than the area of the exposed opening and further has at least one hole 123 that allows the air 40 to enter the interior of the member 10 from the outer periphery of the member 10. However, in this embodiment, the thermoplastic polyurethane 13 of the thermoplastic polyurethane layer 112 is heated to change the heated thermoplastic polyurethane 13 from a solid state to a liquid state, and the flexible object 12 can be bonded with the liquid thermoplastic polyurethane 13, thereby bonding the thermoplastic polyurethane layer 112 to the fabric heat retention layer 121, and the plurality of side edges 15 of the member body 11 are connected to the outer edge 124 of the flexible object 12, and furthermore, a gap space 16 and a side gap 17 adjacent to the gap space 16 are formed between the member body 11 and the flexible object 12. The gap space 16 is in communication with the side gap 17. In particular, the central region 18 between the member body 11 and the flexible object 12 can be separated from each other, thereby changing the side gap 17 into a side opening 19. The exposed opening 14 and the hole 123 are not limited in shape, and the exposed opening 14 or the hole 123 may be rectangular, circular, trapezoidal, or rhombic in shape.
[0027] Refer to Figures 1, 2, 3, and 6. In the first embodiment, the radiation film 20 has an outer transparent layer 21 and an inner graphite layer 22, and the radiation film 20 is connected to the member body 11 of the member 10 and has a reaction area larger than the exposed opening area. In particular, by connecting the radiation film 20 to the member body 11 of the member 10, the exposed opening 14 is coupled to the radiation film 20, and furthermore, a part of the transparent layer 21 can be directly contacted by the user, and the remaining part can be installed between the member body 11 and the flexible object 12. As a result, when the user uses the heating device 1, the user can simultaneously contact the main body 11, the flexible object 12, and the radiation film 20. However, the constituent material of the transparent layer 21 is not limited and may be made of any material. In this embodiment, the graphite layer 22 is composed of a graphene layer 23 having graphene material. However, the area of the graphene layer 23 is not limited and may be less than or equal to the area of the transparent layer 21.
[0028] Refer to Figures 2, 4, 5, 6, and 7. The disposable heating component 30 comprises a breathable bag 31 and a heating element 32 provided inside the breathable bag 31. In the first preferred embodiment, the disposable heating component 30 can enter the central region 18 from the side gap 17 of the member 10, allowing the disposable heating component 30 to be inserted into the gap space 16 from the side opening 19 of the member 10, and also to be removed from the gap space 16 through the side opening 19 for replacement. Furthermore, the breathable bag 31 of the disposable heating component 30 is in contact with the thermoplastic polyurethane layer 112 of the member body 11 and the thermoplastic polyurethane layer 122 of the flexible object 12, respectively, and the breathable bag 31 is made of a nonwoven fabric material. Therefore, when the user uses the heating device 1 continuously, only the disposable heating component 30 needs to be replaced, and there is no need to replace the member 10 and the radiation film 20. In other words, the heating device 1 can be reused. The disposable heating component 30 is not limited in its form and may be a warming pad.
[0029] Refer to Figures 2, 3, 4, 5, 6, 7, and 8. In the first preferred embodiment, the air 40 enters the gap space 16 from the outer circumference of the member 10 through the holes 123 of the flexible object 12, and then enters the interior of the breathable bag 31 through the multiple ventilation holes of the breathable bag 31, so that the heating material 32 provided inside the breathable bag 31 can generate thermal energy 50 after coming into contact with the air 40. Furthermore, the thermal energy 50 diffuses into the gap space 16 through the multiple ventilation holes of the disposable heating component 30, and the air 40 located in the gap space 16 comes into contact with the graphite layer 22 of the radiation film 20, so that the graphite layer 22 receives the thermal energy 50 generated by the disposable heating component 30, and then far-infrared rays 60 are generated by the graphene material of the graphite layer 22. Since the far-infrared rays 60 can also pass through the transparent layer 21 of the radiation film 20 and move out of the gap space 16, the user can increase the operating temperature of the heating device 1 and increase the heating time of the heating device 1 when using it.
[0030] Refer to Figure 9. In a second preferred embodiment, the difference from the first preferred embodiment is that the heating device 1 often has a sealed bag 70. The three structural configurations of the member 10, the radiating film 20, and the disposable heating component 30 are the same as in the first preferred embodiment, and furthermore, in this embodiment, the description of the three structural configurations of the member 10, the radiating film 20, and the disposable heating component 30 will not be repeated. As shown in the figure, the sealed bag 70 has a bag body 71 and a sealed assembly 72 assembled to the side of the bag body 71. The bag body 71 has a bag opening 73 and a housing space 74 connected to the bag opening 73. The three members 10, the radiating film 20, and the disposable heating component 30 can enter the housing space 74 from the bag opening 73 and are therefore housed together in the bag body 71. Furthermore, the sealing assembly 72, by being held in place by the opening 73 of the bag, can block the entry of the air 40 into the bag 71, preventing the disposable heating element 30, which is located inside the bag 71, from coming into contact with the air 40, and thus preventing the generation of thermal energy 50 in the containment space 74 of the bag 71. As a result, the user can simply place the heating device 1 in the bag 71 to block the air 40 from entering the outer periphery of the bag 71, thereby preventing the heating element 32 in the heating device 1 from coming into contact with the air 40, and thus preventing the heating device 1 from generating thermal energy 50. Moreover, the user can temporarily stop heating by placing the heating device 1 in the sealed bag 70, thereby changing the usage time of the heating device 1 and extending its service life. The sealing assembly 72 is not limited in its structural configuration and may be of any configuration.
[0031] Refer to Figures 10A and 10B. In a third preferred embodiment, the difference from the first preferred embodiment is that the member 10 often has a connecting portion 80. The structural configurations of both the radiating film 20 and the disposable heat-generating component 30 are the same as in the first preferred embodiment, and furthermore, in this embodiment, the descriptions of the structural configurations of both the radiating film 20 and the disposable heat-generating component 30 will not be repeated. As shown in the figure, the connecting portion 80 is provided in the side opening 19 along the side gap 17 (see Figure 2) and has a male connector 81 provided on the member body 11 and a female connector 82 provided on the flexible object 12. Furthermore, the side opening 19 can be opened and closed by detachably connecting the male connector 81 to the female connector 82. Furthermore, the member body 11 can be separated from or connected to the flexible object 12, and the disposable heat-generating component 30 can be confined in the gap space 16. Note that the structural configuration of the connecting portion 80 is not limited and may be any configuration.
[0032] Refer to Figures 11A, 11B, and 11C. In the fourth preferred embodiment, the difference from the first preferred embodiment is the configuration of the member 10. The structural configurations of both the radiating film 20 and the disposable heating component 30 are the same as in the first preferred embodiment, and furthermore, in this embodiment, the description of the structural configurations of both the radiating film 20 and the disposable heating component 30 will not be repeated. As shown in the figure, the member 10 further has an adjustment section 83 having a first adjustment member 84 and a second adjustment member 85, the first adjustment member 84 and the second adjustment member 85 being provided on opposite sides of the exposed opening 14. In particular, by providing the heating device 1 on the side of the user's body part 90, assembling the first adjustment member 84 and the second adjustment member 85 together, and adjusting the position of the first adjustment member 84 relative to the second adjustment member 85 so that the first adjustment member 84 and the second adjustment member 85 can be combined with each other, the radiating film 20 of the heating device 1 can come into contact with the user's body part 90. Furthermore, the heating device 1 is attached to the body part 90 to heat the body part 90. In particular, the member 10 is not limited in its form and may be any form. In particular, as shown in Figure 11A, an eye mask 101 is formed on the member 10, and the disposable heating component 30 of the eye mask 101 can generate thermal energy 50 (see Figure 8) after coming into contact with the air 40, and the thermal energy 50 heats the eyes of the body part 90, warming the eyes, further reducing stress on the eyes, and promoting relaxation. As shown in Figure 11B, a heating pad 102 is formed on the member 10, and the disposable heating element 30 of the heating pad 102 can generate thermal energy 50 (see Figure 8) after coming into contact with the air 40, and the thermal energy 50 heats at least one of the body parts 90, such as the hands, waist, thighs, and feet, thereby warming the hands, waist, thighs, and feet, and further promoting blood circulation to relieve pain. The adjustment part 83 is not limited in its structural form and may be a hook, button, hook-and-loop fastener, or band.
[0033] Refer to Figures 12A, 12B, 12C, and 12D. In the fifth preferred embodiment, the difference from the first preferred embodiment is the configuration of the flexible body 12 of the member 10. The structural configurations of both the radiating film 20 and the disposable heating component 30 are the same as in the first preferred embodiment, and furthermore, in this embodiment, the description of the structural configurations of both the radiating film 20 and the disposable heating component 30 will not be repeated. As shown in the figure, the flexible body 12 has a breathable fabric 125 that is connected to the member body 11, and the user's body part 90 can come into contact with the radiating film 20 of the heating device 1, such that the member body 11 and the disposable heating component 30 are jointly provided between the breathable fabric 125 and the body part 90. In particular, as shown in Figure 12A, the breathable fabric 125 may be a garment 126. The radiation film 20 and the disposable heating element 30 are jointly provided inside the garment 126, and when the user wears the garment 126, the disposable heating element 30 generates thermal energy to heat the body part 90, thereby making the user feel warm. However, as shown in Figure 12B, the breathable fabric 125 may be a glove 127. By providing the radiant film 20 and the disposable heating element 30 together inside the glove 127, when the user wears the glove 127, the disposable heating element 30 generates thermal energy to heat the hand of the body part 90, further reducing the chance of the fingers freezing. Furthermore, as shown in Figure 12C, the breathable fabric 125 may also be a sock 128. The sock 128 has an anti-slip material 129 on its outer circumference, and the radiating film 20 and the disposable heating element 30 are jointly provided inside the sock 128. When a user wears the sock 128, the disposable heating element 30 generates the thermal energy 50 (see Figure 8) to heat the foot of the body part 90, further warming the foot and promoting blood circulation. The breathable fabric 125 is not limited in form and may be a hat, scarf, coat, trousers, etc., made of cotton, wool, or leather.
[0034] Refer to Figures 13A and 13B. In the sixth preferred embodiment, the difference from the first preferred embodiment is the structural configuration of the member 10. The structural configurations of both the radiating film 20 and the disposable heating element 30 are the same as in the first preferred embodiment, and furthermore, in this embodiment, the description of the structural configurations of both the radiating film 20 and the disposable heating element 30 will not be repeated. As shown in the figure, the member 10 has a first side 103 in which the exposed opening 14 is formed, and a second side 104 on the opposite side of the first side 103 having an inwardly recessed groove 113, and the disposable heating element 30 can be inserted into the groove 113 from the bottom of the member 10 and engaged with the groove 113, and can also be selectively inserted into and removed from the groove 113 and replaced. Furthermore, the radiating film 20 is provided on the first side 103 of the member 10 by being connected above the member 10, and the disposable heat-generating component 30 is provided on the second side 104 of the member 10, so that the radiating film 20 and the disposable heat-generating component 30 are provided on opposite sides of the member 10. However, the structural configuration of the member 10 is not limited and may be any configuration. In particular, as shown in Figures 13A and 13B, the member 10 may be an insole 114. When the insole 114 is placed inside the shoe, the disposable heating component 30 is provided between the insole 114 and the shoe, and when the user wears the shoe, the user's foot comes into contact with the radiating film 20 on the insole 114, so that the foot of the body part 90 receives the thermal energy 50 (see Figure 8) generated by the disposable heating component 30, raising the temperature inside the shoe and further promoting blood circulation in the foot. Note that the number of grooves 113 is not limited and may be one, two, three, etc. [Explanation of Symbols]
[0035] 1. Heating device 10 components 101 Eye Mask 102 Heating Pads 103 1st side 104 Second side 11 Main component 111 Fabric heat retention layer 112 Thermoplastic polyurethane layer 113 grooved holes 114 Insoles 12 Flexible objects 121 Fabric insulation layer 122 Thermoplastic polyurethane layer 123 holes 124 Outer edge 125 Breathable fabric 126 Clothes 127 Gloves 128 socks 129 Anti-slip material 13 Thermoplastic Polyurethane 14 Exposure opening 15 side 16 Gap Space 17 Side gap 18 Central area 19 Side opening 20. Emission membrane 21 Transparent layer 22 Graphite layer 23 Graphene layer 30 Disposable heating components 31 Breathable bags 32 Heating material 40 Air 50 Thermal Energy 60 Far Infrared 70 sealed bag 71 Bag body 72 Sealed Assembly 73 Bag mouth 74 Containment space 80 Connection part 81 Male connector 82 Female connectors 83 Adjustment section 84 First Adjustment Member 85 Second Adjustment Member 90 body parts D1 Normal direction
Claims
1. A member having a main body and a flexible object, wherein an exposed opening is formed in the center of the main body toward the normal direction, and multiple sides of the main body are connected to the outer edge of the flexible object, thereby forming a gap space between the main body and the flexible object, and side gaps adjacent to the gap space, The member is connected to the member body and coupled to the exposed opening, and the radiation film has a transparent layer located on the outside and a graphite layer located on the inside, A disposable heating component comprising a breathable bag and a heating material provided inside the breathable bag that generates thermal energy after coming into contact with air, Since the central regions of both the member body and the flexible object can be separated from each other, the side gap is changed to a side opening, the disposable heating component can be inserted into the gap space through the side opening, and can also be removed from the gap space through the side opening and replaced. The graphite layer is characterized in that, after receiving the thermal energy generated from the disposable heating element, far-infrared rays are generated by the graphite layer and penetrate the transparent layer. A heating device that emits far-infrared rays.
2. The heating device that emits far-infrared rays according to claim 1, wherein the member body has a fabric heat-retaining layer located on the outside and a thermoplastic polyurethane layer located on the inside, the fabric heat-retaining layer has a skin-friendly surface for contact with the user, and the thermoplastic polyurethane layer is connected on one side to the flexible object and on the other side can contact the disposable heating component.
3. The heating device that emits far-infrared rays according to claim 1, characterized in that the flexible object has at least one hole that allows air to enter the gap space.
4. The heating device that emits far-infrared rays according to claim 2, characterized in that the exposed opening has an exposed opening area, the radiating film has a reaction area, and when the exposed opening area is smaller than the reaction area, a part of the transparent layer is in direct contact with the user, and the remaining part is installed between the member body and the flexible object.
5. The far-infrared emitting heating device according to claim 1, characterized in that the graphite layer has a graphene layer whose area is equal to or less than the area of the transparent layer.
6. The heating device further comprises a sealed bag having a bag body and a sealing assembly attached to one side of the bag body, wherein the bag body is used to jointly house the three components, the radiation film and the disposable heating component, and the sealing assembly can block the entry of air into the bag body, so that the disposable heating component provided in the bag body cannot come into contact with the air, and furthermore, the bag body cannot generate thermal energy, as described in claim 3.
7. The heating device that emits far-infrared rays according to claim 1, wherein the member further has a connecting portion having a male connector provided on the member body and a female connector provided on the flexible object, and the disposable heating component is enclosed in the gap space by the male connector being detachably connected to the female connector.
8. The heating device that emits far-infrared rays according to claim 2, wherein the member body further has an adjustment section, the first adjustment member and the second adjustment member of the adjustment section are each provided on opposite sides of the exposed opening, and when the first adjustment member and the second adjustment member are assembled together and attached to the user's body part, the radiation film can come into contact with the body part, so that the body part can be heated by the disposable heating component.
9. A member having a first side in which an exposed opening is formed, and a second side having an inwardly recessed groove and being opposite to the first side, A radiation film is connected to the first side of the member and coupled to the exposed opening, and has a transparent layer located on the outside and a graphite layer located on the inside, A disposable heating component comprising a breathable bag and a heating material provided inside the breathable bag that generates thermal energy after coming into contact with air, The disposable heating element can be inserted into the groove, and can also be removed from the groove and replaced. The graphite layer is characterized in that, after receiving the thermal energy generated from the disposable heating element, far-infrared rays are generated by the graphite layer and penetrate the transparent layer. A heating device that emits far-infrared rays.