Graphene far infrared spectrum treatment cabin

Abstract

The invention discloses a graphene far infrared spectrum treatment cabin, and relates to the technical field of physiotherapy equipment, the graphene far infrared spectrum treatment cabin comprises a treatment cabin body, the treatment cabin body is internally provided with a graphene material radiator, a red light generator, an intermediate frequency electric pulse generator, a control module and at least one seat; the graphene material radiator is formed by mutually splicing a plurality of groups of graphene flexible heating sheets, and temperature control units are arranged at the upper ends of the graphene flexible heating sheets; a first reflecting mechanism and a second reflecting mechanism are arranged on the two side surfaces in the treatment cabin body, and the first reflecting mechanism comprises a plurality of groups of reflecting mirror units rotationally arranged with the treatment cabin body and a driving assembly for driving the reflecting mirror units to deflect; the upper end of the seat is a thermosensitive monitoring belt, the thermosensitive monitoring belt feeds back temperature data of the upper end of the seat to the control module in real time, and the control module adjusts the deflection angle of the reflector unit and heat distribution of the graphene material radiator; static heat sources are prevented from being concentrated in a certain fixed area, and use is facilitated.

Description

Technical Field

[0001] The present invention relates to the technical field related to physical therapy equipment, and in particular to a graphene far-infrared spectrum treatment cabin. Background Art

[0002] Hyperthermia is a type of physical therapy that uses various heat sources as media to transfer heat to the body in order to achieve the purpose of treatment. Hyperthermia can use the medium to transfer the heat from the heat source to the body through conduction, convection, radiation and other transfer methods, and can also use electromagnetic principles to allow the body to absorb the energy of the electromagnetic field and convert it into thermal energy. Clinical trials have shown that hyperthermia has a significant delaying effect on some geriatric diseases, and hyperthermia can expel toxins from the human body, accelerate microcirculation, reduce swelling, relieve pain and relieve adhesions. Today's hyperthermia equipment is mainly divided into magnetic electric hyperthermia, fumigation hyperthermia, radiation hyperthermia and conduction hyperthermia. Radiation hyperthermia relies on far-infrared radiation and is also the mainstream trend of hyperthermia equipment.

[0003] Patent document with publication number CN115444695A discloses a far-infrared therapy cabin, including a body, the body is provided with a cavity for a user to place a treatment part, the body is provided with an entrance part connected to the cavity, the body includes a shell, a heating device and a mesh plate, the shell, the heating device and the mesh plate are arranged in sequence from the outside to the inside, the mesh plate is provided with a plurality of mesh holes, the heating device is graphene, the heating device emits far-infrared light after heating, the light passes through the mesh holes and irradiates the treated part, the present invention, through the design of the above structure, enables the user to place the treatment part in the cavity, through the far-infrared light wave action of the heating device and the heat dissipation effect of the mesh plate, so as to achieve a better far-infrared therapy effect on the treatment part.

[0004] However, during actual use, the inventors found that traditional far-infrared thermal therapy equipment mostly uses a fixed heating structure and lacks the ability to control local zoning. This may cause local skin burns due to energy concentration and affect the thermal penetration effect of deep tissues. Summary of the invention

[0005] In order to solve the defects of the prior art, the present invention provides a graphene far-infrared spectrum treatment cabin.

[0006] In order to solve the above technical problems, the present invention provides the following technical solutions:

[0007] The present invention provides a graphene far-infrared spectrum treatment cabin, comprising:

[0008] A treatment cabin, wherein a graphene material radiator, a red light generator, a medium frequency electric pulse generator, a control module and at least one set of seats are arranged inside the treatment cabin;

[0009] The graphene material radiator is fixedly arranged at the top of the treatment cabin, and is composed of a plurality of groups of graphene flexible heating sheets spliced ​​together, and a temperature control unit is arranged at the upper end of each group of graphene flexible heating sheets;

[0010] The two sides of the interior of the treatment cabin are provided with a first reflecting mechanism and a second reflecting mechanism arranged opposite to each other, wherein the first reflecting mechanism comprises a plurality of reflecting mirror units rotatably arranged with the treatment cabin and a driving assembly for driving the reflecting mirror units to deflect;

[0011] The upper end of the seat is a thermal monitoring belt, which feeds back the temperature data of the upper end of the seat to the control module in real time. The control module adjusts the deflection angle of the reflector unit and the heat distribution of the graphene material radiator.

[0012] As a preferred technical solution of the present invention, the cross-section of the graphene flexible heating sheet is a regular hexagon.

[0013] As a preferred technical solution of the present invention, the reflector unit is provided with three groups, which include a first reflector arranged corresponding to the lower end of the seat, a second reflector coaxially connected to the first reflector, and a third reflector located on one side of the second reflector.

[0014] As a preferred technical solution of the present invention, the driving assembly includes:

[0015] A first rotating rod, which is fixedly connected to the first reflector and the second reflector respectively and has a first gear fixedly connected to the upper end;

[0016] A second rotating rod, fixedly connected to the third reflecting mirror and having a second gear connected to an upper end thereof;

[0017] A rack unit is slidably disposed inside the treatment cabin and is respectively transmission-connected to the first gear and the second gear;

[0018] A driving unit, drivingly connected to the rack unit and fixedly disposed inside the treatment cabin;

[0019] The protective cover is fixedly arranged inside the treatment cabin and is arranged outside the driving unit, the rack unit, the first gear and the second gear.

[0020] As a preferred technical solution of the present invention, the rack unit is provided with a first rack portion at a position corresponding to the first gear and a second rack portion at a position corresponding to the second gear, the first rack portion and the second rack portion are fixedly connected by a connecting rod, a protrusion is fixedly provided at the middle position of the connecting rod, and the driving unit is transmission-connected to the protrusion.

[0021] As a preferred technical solution of the present invention, the first reflector comprises:

[0022] Reflector body;

[0023] A bracket, disposed on the back of the reflector body and connected to the reflector body through a spherical hinge;

[0024] The connecting block is connected to the bracket through a plurality of groups of buffer springs, and the connecting block is fixedly connected to the first rotating rod.

[0025] As a preferred technical solution of the present invention, at least one set of limiting blocks is arranged inside the treatment cabin at positions corresponding to the bracket.

[0026] As a preferred technical solution of the present invention, the elevation angle of the reflector body is greater than 15°, the radius of curvature is greater than 300 mm, and the surface is silver-plated.

[0027] As a preferred technical solution of the present invention, a plurality of groups of thermal sensors are arranged inside the thermal monitoring belt, and the thermal sensors are arranged on the seat.

[0028] As a preferred technical solution of the present invention, the graphene material radiator, the red light generator, and the intermediate frequency electric pulse generator are electrically connected to the control module respectively;

[0029] The control module is also used to adjust the current of the graphene flexible heating sheet and adjust the heating value of the graphene material radiator in real time.

[0030] The beneficial effects of the present invention are:

[0031] 1. The present invention adopts a honeycomb partition array design of graphene flexible heating sheets, and each heating unit is independently equipped with a temperature sensor, which not only avoids the risk of local skin burns caused by traditional concentrated heat sources, but also can monitor and adjust the temperature of each heating unit in real time to ensure the heat penetration effect of deep tissues.

[0032] 2. In the present invention, multiple groups of reflector units are installed inside the treatment cabin. The design of the reflector units can scatter far-infrared energy to form dynamic light spot coverage, avoid static heat sources from being concentrated in a fixed area, thereby reducing skin discomfort and improving treatment effects.

[0033] 3. In the present invention, a thermal monitoring belt is provided, which can feed back the temperature data of the upper end of the seat to the control module in real time. By adjusting the deflection angle of the reflector unit and the heat distribution of the graphene material radiator, it is ensured that each user can get the most suitable treatment plan. BRIEF DESCRIPTION OF THE DRAWINGS

[0034] The accompanying drawings are used to provide further understanding of the present invention and constitute a part of the specification. They are used to explain the present invention together with the embodiments of the present invention and do not constitute a limitation of the present invention.

[0035] In the attached picture:

[0036] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0037] Figure 2 It is a schematic diagram of the overall structure of the present invention.

[0038] Figure 3 It is a schematic diagram of the internal structure of the present invention when viewed from above.

[0039] Figure 4 Schematic diagram of the structure of a graphene material radiator.

[0040] Figure 5 It is another schematic diagram of the overall structure inside the present invention.

[0041] Figure 6 It is a schematic structural diagram of the first reflection mechanism.

[0042] Figure 7 Schematic diagram of the structure of the first reflector.

[0043] Figure 8 for Figure 6 A local enlarged schematic diagram of point A in the middle.

[0044] Fig. 9 for Figure 6 A local enlarged schematic diagram of point B in the middle.

[0045] Fig.10 It is a plan view schematically showing the connection between the first reflector and the first rotating rod.

[0046] In the figure: 1. treatment cabin; 11. limit block; 2. graphene material radiator; 21. graphene flexible heating sheet; 22. temperature control unit; 3. red light generator; 4. intermediate frequency electric pulse generator; 5. control module; 6. seat; 7. first reflection mechanism; 71. reflector unit; 711. first reflector; 7111. reflector body; 7112. bracket; 7113. spherical hinge; 7114. connecting block; 7115. buffer spring; 712, second reflector; 713, third reflector; 72, drive assembly; 721, first rotating rod; 722, first gear; 723, second rotating rod; 724, second gear; 725, rack unit; 7251, first rack portion; 7252, second rack portion; 7253, connecting rod; 7254, bump; 726, drive unit; 727, protective cover; 8, second reflecting mechanism; 9, thermal monitoring belt; 91, thermal sensor. DETAILED DESCRIPTION

[0047] The preferred embodiments of the present invention are described below in conjunction with the accompanying drawings. It should be understood that the preferred embodiments described herein are only used to illustrate and explain the present invention, and are not used to limit the present invention.

[0048] like Figure 1-Figure 6 As shown, a graphene far-infrared spectrum treatment cabin includes a treatment cabin body 1, a graphene material radiator 2, a red light generator 3, a medium-frequency electric pulse generator 4, a control module 5 and a seat 6. The interior of the treatment cabin body 1 is provided with a graphene material radiator 2, a red light generator 3, a medium-frequency electric pulse generator 4, a control module 5 and at least one group of seats 6. In this embodiment, there are two seats 6; the graphene material radiator 2 is fixedly arranged at the top of the treatment cabin body 1, and it includes a plurality of groups of graphene flexible heating sheets 21 spliced ​​together, and the upper end of each group of the graphene flexible heating sheets 21 is provided with There is a temperature control unit 22; the first reflecting mechanism 7 and the second reflecting mechanism 8 are arranged oppositely on the two side surfaces inside the treatment cabin 1, and the structures of the first reflecting mechanism 7 and the second reflecting mechanism 8 are the same. The first reflecting mechanism 7 includes a plurality of groups of reflecting mirror units 71 rotatably arranged with the treatment cabin 1 and a driving component 72 for driving the reflecting mirror units 71 to deflect; the upper end of the seat 6 is a thermal monitoring belt 9, and the thermal monitoring belt 9 feeds back the temperature data of the upper end of the seat 6 to the control module 5 in real time, and the control module 5 adjusts the deflection angle of the reflecting mirror unit 71 and the heat distribution of the graphene material radiator 2.

[0049] Among them, by adopting the honeycomb partition array design of the graphene flexible heating sheet 21, each heating unit is independently equipped with a temperature sensor, which not only avoids the risk of local skin burns caused by the concentration of traditional heat sources, but also can monitor and adjust the temperature of each heating unit in real time to ensure the heat penetration effect of deep tissues. Graphene is a two-dimensional carbon material with excellent electrical conductivity, which can effectively convert energy and has very high thermal conductivity and electrical conductivity. The graphene material radiator 2 is usually used for efficient energy conversion and transmission, especially in the field of thermal radiation;

[0050] A plurality of reflector units 71 are installed inside the treatment cabin 1. The reflector units 71 are designed to scatter far-infrared energy to form dynamic light spot coverage, thereby avoiding static heat sources from being concentrated in a fixed area, thereby reducing skin discomfort and improving treatment effects;

[0051] By setting up a thermal monitoring belt 9, the thermal monitoring belt 9 can feed back the temperature data of the upper end of the seat 6 to the control module 5 in real time. By adjusting the deflection angle of the reflector unit 71 and the heat distribution of the graphene material radiator 2, it is ensured that each user can get the most suitable treatment plan.

[0052] In summary, through the combination of components such as the graphene material radiator 2, the red light generator 3, the medium frequency electric pulse generator 4, and the control module 5, the temperature control unit 22 independently controls the heat distribution of the graphene flexible heating sheet 21 to ensure the effectiveness and safety of each treatment unit. The innovation of the reflector system makes the reflection angle adjustable, thereby optimizing the distribution of far-infrared energy. Through this design, the treatment cabin has higher thermal control accuracy and a personalized thermal therapy experience for users.

[0053] It should be noted that the main function of the red light generator 3 is to generate a light source in the red light band (usually with a wavelength between 620-750 nanometers). Red light has certain penetrating and biostimulating effects and is often used for treatment and promotion of tissue repair.

[0054] The medium frequency electric pulse generator 4 generates electric pulse signals in a certain frequency range (usually 1-100kHz) to treat and regulate the bioelectric activity of the human body. Medium frequency pulses usually have stronger penetrating power than low frequency currents, and can stimulate deep muscles and tissues to produce certain physiological effects.

[0055] Further, if Figure 4 As shown, the cross-section of the graphene flexible heating sheet 21 is a regular hexagon, therefore, multiple groups of graphene flexible heating sheets 21 are designed in a honeycomb partitioned array, the honeycomb structure not only has a high space utilization rate, but also can provide more heating units in a limited space, the honeycomb structure has a high symmetry, which can ensure that the heat is evenly distributed in the entire heating area, compared with the traditional rectangular or linear arrangement, the honeycomb structure can more effectively transfer heat to the entire area, avoiding local overheating or heat concentration, in addition, as a material with extremely high thermal conductivity, the arrangement of graphene in a honeycomb array can maximize its thermal conductivity, and the honeycomb shape helps to promote faster diffusion of heat, ensuring that the temperature change of the heating sheet can quickly and evenly cover the entire honeycomb layer, this design effectively improves the thermal efficiency of the graphene heating sheet and reduces energy waste.

[0056] Further, if Figure 5 As shown, the reflector unit 71 is provided with three groups, which include a first reflector 711 arranged corresponding to the lower end of the seat 6, a second reflector 712 coaxially connected to the first reflector 711, and a third reflector 713 located on one side of the second reflector 712.

[0057] The three groups of reflector units 71 are arranged at specific angles and positions to ensure optimal reflection and uniform distribution of far-infrared energy.

[0058] The first reflector 711 is arranged at the lower end of the seat 6. When the user sits on the seat 6, the red light reflected by the first reflector 711 is mainly concentrated near the user's legs. Similarly, the red light reflected by the third reflector 713 is mainly concentrated on the upper body of the user. The second reflector 712 is mainly used to cooperate with the first reflector 711 and the third reflector 713 to ensure that the red light covers the area not covered by the red light reflected by the first reflector 711 and the third reflector 713. In this way, through the mutual linkage of the three groups of reflector units 71, it is ensured that there is no waste in the process of energy transfer and a wide irradiation range can be achieved.

[0059] Further, if Figure 6-Figure 9 As shown, the driving assembly 72 includes a first rotating rod 721, a first gear 722, a second rotating rod 723, a second gear 724, a rack unit 725, a driving unit 726 and a protective cover 727. The first rotating rod 721 is fixedly connected to the first reflector 711 and the second reflector 712 respectively, and the upper end is fixedly connected with the first gear 722; the second rotating rod 723 is fixedly connected to the third reflector 713, and the upper end is connected with the second gear 724; the rack unit 725 is slidably arranged inside the treatment cabin 1 and is transmission-connected with the first gear 722 and the second gear 724 respectively; the driving unit 726 is transmission-connected with the rack unit 725 and is fixedly arranged inside the treatment cabin 1; the protective cover 727 is fixedly arranged inside the treatment cabin 1 and covers the outside of the driving unit 726, the rack unit 725, the first gear 722 and the second gear 724;

[0060] The rack unit 725 is provided with a first rack portion 7251 at a position corresponding to the first gear 722, and a second rack portion 7252 at a position corresponding to the second gear 724. The first rack portion 7251 and the second rack portion 7252 are fixedly connected via a connecting rod 7253. A protrusion 7254 is fixedly provided at the middle position of the connecting rod 7253. The driving unit 726 is transmission-connected to the protrusion 7254.

[0061] Among them, the driving component 72 can synchronously drive multiple groups of mirror units 71 to deflect, thereby changing the projection direction of far-infrared energy. The precise design of the driving component 72 enables the mirror unit 71 to adapt to the changes in the body shape of different users, improve comfort and ensure treatment effects.

[0062] In detail, when working, the driving unit 726 in the driving assembly 72 works and then drives the rack unit 725 to translate through the protrusion 7254. When the rack unit 725 translates, the first rack portion 7251 will drive the first gear 722 to rotate, and the second rack portion 7252 will drive the second gear 724 to rotate, and then respectively drive the first rotating rod 721 and the second rotating rod 723 to rotate, the first rotating rod 721 will drive the first reflector 711 and the second reflector 712 to deflect, and the second rotating rod 723 will drive the third reflector 713 to deflect.

[0063] The setting of the protective cover 727 can protect the driving unit 726, the rack unit 725, the first gear 722 and the second gear 724 inside the protective cover 727, avoiding long-term exposure of each structure to the inside of the treatment cabin 1, thereby ensuring the service life of the driving assembly 72.

[0064] Further, if Figure 7 As shown, the structures of the three groups of reflector units 71 are the same. The first reflector 711 includes a reflector body 7111, a bracket 7112, a spherical hinge 7113, a connecting block 7114 and a buffer spring 7115. The bracket 7112 is arranged on the back of the reflector body 7111 and is connected to the reflector body 7111 through the spherical hinge 7113; the connecting block 7114 is connected to the bracket 7112 through a plurality of groups of buffer springs 7115, the connecting block 7114 is fixedly connected to the first rotating rod 721, and the connecting block 7114 in the third reflector 713 is fixedly connected to the second rotating rod 723;

[0065] At least one set of limiting blocks 11 is arranged inside the treatment cabin 1 at positions corresponding to the bracket 7112 .

[0066] The design of the first reflector 711 enables the reflector to be flexibly adjusted through the connection structure of the spherical hinge 7113 and the buffer spring 7115, thereby reducing the vibration impact caused by mechanical movement and improving stability.

[0067] In addition, the setting of the limit block 11 is, on the one hand, to prevent the interference between the reflector unit 71 and the interior of the treatment cabin 1. On the other hand, in some usage scenarios, the driving unit 726 in the driving assembly 72 can drive the rack unit 725 to move back and forth, and then drive the three groups of reflector units 71 to rotate back and forth through the first rotating rod 721 and the second rotating rod 723 respectively. In the process of reciprocating rotation of the three groups of reflector units 71, the bracket 7112 on the back of the reflector unit 71 will touch the limit block 11, and under the action of the buffer spring 7115, the reflector body 7111 will be driven to oscillate at high frequency. After the reflector body 7111 oscillates at high frequency, the Doppler effect will be used to broaden the far-infrared spectrum distribution, thereby enhancing the penetration of the far-infrared and improving the thermal therapy effect.

[0068] Further, if Fig.10 As shown, the elevation angle of the reflector body 7111 (the angle between the reflector body 7111 and the vertical plane, ensuring that the reflector body 7111 is set obliquely upward) is greater than 15°, the radius of curvature is greater than 300 mm, and the surface is silver-plated.

[0069] Preferably, the radius of curvature of the reflector body 7111 is between 450 mm and 500 mm. These parameters can ensure that the effect of the reflector can cover the entire area of ​​the treatment cabin, while also ensuring the accuracy and stability of the reflector. The silver plating process greatly improves the light reflection efficiency of the reflector surface, further improving the utilization rate of far-infrared energy.

[0070] In addition, the elevation angle of the reflector body 7111 can be manually adjusted via the spherical hinge 7113, further ensuring that the effect of the reflector can cover the entire area of ​​the treatment cabin.

[0071] Further, if Figure 2 As shown, several groups of thermal sensors 91 (such as infrared temperature sensors) are arranged inside the thermal monitoring belt 9, and the thermal sensors 91 are arranged on the seat 6.

[0072] By arranging multiple thermistors 91 in the thermistor monitoring belt 9, real-time monitoring of the temperature on the seat 6 can be achieved to ensure that the temperature does not exceed the human body's tolerance range during treatment. The arrangement of thermistors 91 and the data feedback mechanism enable the control module 5 to adjust the working status of each heating unit in real time according to the temperature.

[0073] Further, if Figure 3 As shown, the graphene material radiator 2, the red light generator 3, and the medium frequency electric pulse generator 4 are electrically connected to the control module 5 respectively; the control module 5 is also used to adjust the current of the graphene flexible heating sheet 21 and adjust the heating value of the graphene material radiator 2 in real time.

[0074] The current of the graphene flexible heating sheet 21 is adjusted through the control module 5, and the heating value of the graphene material radiator 2 is adjusted in real time. This adjustment mechanism can finely control the temperature distribution and energy output of each heating unit, so as to make dynamic adjustments according to user needs and actual treatment effects, thereby ensuring the optimization of treatment effects.

[0075] Working process:

[0076] Entering the treatment cabin:

[0077] The user opens the cabin door, enters the treatment cabin and sits on the seat 6. The upper end of the seat 6 is provided with a thermal monitoring belt 9, which has multiple thermal sensors 91 built in, and can monitor the temperature near the seat 6 in real time. This information will be transmitted to the control module 5 through the thermal monitoring belt 9.

[0078] Temperature monitoring and feedback:

[0079] The thermistor monitoring belt 9 will continuously feed back the temperature data of the upper end of the seat 6 to the control module 5, and the control module 5 will monitor this data in real time to ensure that the temperature remains within an appropriate range during treatment to avoid overheating or discomfort. If the temperature exceeds the preset range, the control module 5 will immediately adjust the output of the corresponding heating unit to ensure the comfort and safety of the treatment.

[0080] Graphene radiator heating:

[0081] The graphene material radiator 2 in the treatment cabin 1 starts working, and the graphene flexible heating sheet 21 generates heat through current regulation. Each graphene flexible heating sheet 21 is equipped with a temperature control unit 22, which can accurately control the temperature and avoid local overheating. The excellent thermal conductivity of graphene enables it to evenly distribute heat during the heating process and effectively penetrate into deep tissues.

[0082] Red light and medium frequency electrical pulse therapy:

[0083] The red light generator 3 starts to work, releasing a light source in the red light band, the wavelength of which is usually between 620-750 nanometers. Red light has strong penetrating and biostimulating effects, which helps to promote tissue repair. At the same time, the medium frequency electric pulse generator 4 works, emitting electric pulses with a frequency range of 1-100kHz, stimulating deep muscles and tissues, and regulating the body's bioelectric activities. Through these signals, the deep tissues of the human body can be fully stimulated and regulated, improving blood circulation and cell repair.

[0084] Dynamic adjustment of the reflector unit 71:

[0085] The reflector unit 71 inside the treatment cabin 1 is controlled by a driving component 72. The angle of the reflector unit 71 can be adjusted according to the body shape and treatment needs of the user on the seat 6. The control module 5 accurately adjusts the deflection angle of the reflector unit 71 through the driving component 72 so that the energy of the far-infrared ray is evenly distributed in the treatment area. The design of the reflector ensures that the red light and far-infrared ray can cover the user's entire body to avoid discomfort caused by heat concentration in a certain part.

[0086] High-frequency micro-oscillation of the mirror:

[0087] By controlling the micro-oscillation of the reflector unit 71, the reflector body 7111 will generate high-frequency micro-oscillations under the action of the bracket 7112 and the limit block 11. This micro-oscillation broadens the far-infrared spectrum distribution through the Doppler effect, thereby enhancing the penetration of far-infrared rays and further improving the treatment effect. This technology ensures that the energy of red light and far-infrared rays can quickly penetrate into deep tissues during treatment, thereby enhancing the effect of thermal therapy.

[0088] Continuous Adjustment and Optimization:

[0089] During the treatment process, the control module 5 continuously adjusts the working states of the graphene material radiator 2, the red light generator 3 and the medium frequency electric pulse generator 4 according to real-time feedback data (such as temperature, human body reaction, etc.). By adjusting the current, heat distribution and energy output, the system can ensure the personalization of the treatment process and meet the needs of different users.

[0090] Treatment Completion and Withdrawal:

[0091] When the treatment reaches the preset time or effect, the control module 5 will automatically stop the operation of each treatment component. The user can choose to end the treatment according to his or her comfort and treatment effect. When exiting, the treatment cabin will automatically adjust to a suitable state according to temperature, humidity and other conditions to ensure that the user can exit the cabin safely and comfortably.

[0092] Finally, it should be noted that the above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art can still modify the technical solutions described in the aforementioned embodiments or replace some of the technical features therein by equivalents. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. A graphene far-infrared spectrum treatment cabin, characterized in that: include: A treatment cabin (1), wherein a graphene material radiator (2), a red light generator (3), a medium frequency electric pulse generator (4), a control module (5) and at least one set of seats (6) are arranged inside the treatment cabin (1); The graphene material radiator (2) is fixedly arranged at the top of the treatment cabin (1), and comprises a plurality of groups of graphene flexible heating sheets (21) spliced ​​together, and a temperature control unit (22) is arranged at the upper end of each group of graphene flexible heating sheets (21); The two inner side surfaces of the treatment cabin (1) are provided with a first reflecting mechanism (7) and a second reflecting mechanism (8) arranged opposite to each other, the first reflecting mechanism (7) comprising a plurality of groups of reflecting mirror units (71) rotatably arranged with the treatment cabin (1) and a driving assembly (72) for driving the reflecting mirror units (71) to deflect; The upper end of the seat (6) is provided with a thermal monitoring belt (9), which feeds back temperature data of the upper end of the seat (6) to the control module (5) in real time, and the control module (5) adjusts the deflection angle of the reflector unit (71) and the heat distribution of the graphene material radiator (2).

2. A graphene far-infrared spectrum treatment cabin according to claim 1, characterized in that: The cross section of the graphene flexible heating sheet (21) is a regular hexagon.

3. A graphene far-infrared spectrum treatment cabin according to claim 1, characterized in that: The reflector unit (71) is provided with three groups, which include a first reflector (711) arranged corresponding to the lower end of the seat (6), a second reflector (712) coaxially connected to the first reflector (711), and a third reflector (713) located on one side of the second reflector (712).

4. A graphene far-infrared spectrum treatment cabin according to claim 3, characterized in that: The drive assembly (72) comprises: A first rotating rod (721) is fixedly connected to the first reflecting mirror (711) and the second reflecting mirror (712) respectively, and a first gear (722) is fixedly connected to the upper end thereof; A second rotating rod (723) is fixedly connected to the third reflecting mirror (713) and has a second gear (724) connected to its upper end; A rack unit (725) is slidably disposed inside the treatment cabin (1) and is respectively transmission-connected to the first gear (722) and the second gear (724); A driving unit (726) is drivingly connected to the rack unit (725) and is fixedly arranged inside the treatment cabin (1); The protective cover (727) is fixedly arranged inside the treatment cabin (1) and is arranged on the outside of the driving unit (726), the rack unit (725), the first gear (722) and the second gear (724).

5. A graphene far-infrared spectrum treatment cabin according to claim 4, characterized in that: The rack unit (725) is provided with a first rack portion (7251) at a position corresponding to the first gear (722), and a second rack portion (7252) at a position corresponding to the second gear (724); the first rack portion (7251) and the second rack portion (7252) are fixedly connected via a connecting rod (7253); a protrusion (7254) is fixedly provided at a middle position of the connecting rod (7253); and the driving unit (726) is transmission-connected to the protrusion (7254).

6. The graphene far-infrared spectrum treatment cabin according to claim 3, characterized in that: The first reflector (711) comprises: Reflector body (7111); A bracket (7112) is arranged on the back of the reflector body (7111) and is connected to the reflector body (7111) via a spherical hinge (7113); The connecting block (7114) is connected to the bracket (7112) via a plurality of groups of buffer springs (7115), and the connecting block (7114) is fixedly connected to the first rotating rod (721).

7. A graphene far-infrared spectrum treatment cabin according to claim 6, characterized in that: At least one set of limiting blocks (11) is arranged inside the treatment cabin (1) at a position corresponding to the support (7112).

8. The graphene far-infrared spectrum treatment cabin according to claim 6, characterized in that: The elevation angle of the reflector body (7111) is greater than 15°, the radius of curvature is greater than 300 mm, and the surface is silver-plated.

9. The graphene far-infrared spectrum treatment cabin according to claim 1, characterized in that: A plurality of groups of thermal sensors (91) are arranged inside the thermal monitoring belt (9), and the thermal sensors (91) are arranged on the seat (6).

10. The graphene far-infrared spectrum treatment cabin according to claim 1, characterized in that: The graphene material radiator (2), the red light generator (3), and the intermediate frequency electric pulse generator (4) are electrically connected to the control module (5) respectively; The control module (5) is also used to adjust the current of the graphene flexible heating sheet (21) and to adjust the heat generation of the graphene material radiator (2) in real time.

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