A graphene far-infrared thermal therapy device

Abstract

The present invention discloses a graphene far-infrared thermotherapy device, characterized in that it includes a graphene far-infrared cabin, a graphene back pad, a graphene foot pad and a microcirculation monitoring and regulating device, the graphene far-infrared cabin is arched as a whole, and the graphene far-infrared cabin is composed of a heat-resistant film, a support frame, a graphene heating film, and a PE insulating film from outside to inside, the PE insulating film wraps the graphene heating film, the graphene heating film is attached to the bottom of the support frame, and the heat-resistant film is bonded to the top of the support frame, the graphene back pad is composed of a lining cloth, a graphene heating film, and a polyester fiber from top to bottom, the polyester fiber wraps the graphene heating film, and the lining cloth wraps the polyester fiber, and the microcirculation monitoring and regulating device includes a microcirculation monitoring ring, a temperature control regulator and a main controller. The present invention adjusts the thermotherapy temperature from time to time by monitoring the microcirculation of the human body, and uses the characteristics of the low-temperature radiation of the graphene heating film to form a progressive surround thermal radiation, which is suitable for thermal treatment of the human body.

Description

Technical Field

[0001] The invention relates to the field of thermal therapy devices, and in particular to a graphene far-infrared thermal therapy device. Background Art

[0002] Hyperthermia is a type of physical therapy. It uses various heat sources as media to transfer heat to the body to achieve the purpose of treatment. Hyperthermia can use the medium to transfer the heat of the heat source to the body through conduction, convection, radiation and other transfer methods, and can also use the electromagnetic principle to make the body absorb the energy of the electromagnetic field and turn it into heat 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 human 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. Among them, radiation hyperthermia relies on far-infrared radiation, which is also the mainstream trend of hyperthermia equipment.

[0003] The current far-infrared thermotherapy equipment has the following drawbacks when used: First, due to the inconsistent requirements of various joints of the human body for thermotherapy temperature, traditional thermotherapy equipment uses overall thermal radiation to perform thermotherapy during the thermotherapy process, which will result in insignificant thermotherapy effects on some joints of the human body; second, most of the current thermotherapy equipment raises the temperature in the thermotherapy cabin to the set temperature in a short period of time, which will cause burning pain to the human body; third, the current thermotherapy equipment does not have equipment to monitor the thermotherapy status of the human body, which often leads to excessive thermotherapy, resulting in reduced sensitivity of the human body and causing secondary pain; fourth, due to the short-term heating method used in current thermotherapy equipment, it is difficult to form a uniform temperature in three-dimensional space, which will result in inconsistent thermotherapy effects on parts of the human body. In view of the above problems, the present invention provides a graphene far-infrared thermotherapy device. Summary of the invention

[0004] The purpose of the present invention is to provide a graphene far-infrared thermal therapy device to solve the problems mentioned in the above background technology.

[0005] To achieve the above purpose, the technical solution adopted by the present invention is as follows:

[0006] A graphene far-infrared hyperthermia device, characterized in that it comprises a graphene far-infrared cabin, a graphene back pad, a graphene foot pad and a microcirculation monitoring and regulating device, the graphene far-infrared cabin is a three-section telescopic structure, the graphene far-infrared cabin of the three-section telescopic structure is composed of a heat-resistant film, a support frame, a graphene heating film, and a PE insulating film from the outside to the inside, the PE insulating film wraps the graphene heating film, the graphene heating film is attached to the bottom of the support frame, the heat-resistant film is bonded to the top of the support frame, the graphene back pad is composed of a lining cloth, a graphene heating film, and a polyester fiber from top to bottom, the polyester fiber wraps the graphene heating film, and the lining cloth wraps the polyester fiber The microcirculation monitoring and regulating device includes a microcirculation monitoring ring, a temperature control regulator and a main controller. The main controller controls the temperature control regulator through a wireless network or Bluetooth. The temperature control regulator is connected to the graphene far-infrared cabin and the graphene back pad through a wire. The temperature control regulator controls the thermal therapy temperature by adjusting the power of the graphene heating film in the graphene far-infrared cabin and the graphene back pad. There are two microcirculation monitoring rings, which are installed on the graphene foot pad. The main controller has a display screen and adjustment buttons. The display screen displays the microcirculation image monitored by the microcirculation monitoring ring, and the adjustment button can set the temperature of the graphene far-infrared cabin and the graphene back pad.

[0007] Preferably, the radius of the graphene far-infrared cabin of the three-section telescopic structure decreases from front to back, wherein the front end of the first section of the graphene far-infrared cabin is provided with a push-pull handle, and the rear of the third section of the graphene far-infrared cabin is connected to a graphene foot pad.

[0008] Preferably, the graphene foot pad comprises, from outside to inside, a heat-resistant film, a metal support plate, a PE insulating film, a graphene electric heating film, and a polyester fiber insulating pad, wherein the PE insulating film wraps the graphene electric heating film.

[0009] Preferably, the heat-resistant film on the graphene far-infrared cabin is divided into two layers, the outer layer of the heat-resistant film is carbon fiber cloth, and the lower layer of the heat-resistant film is a mirror reflection film.

[0010] Preferably, the graphene heating films in the graphene far-infrared cabin are arranged in zones, and the graphene heating films in each zone can be independently controlled by a temperature control regulator.

[0011] Preferably, the temperature control regulator uses room temperature as a reference temperature when adjusting the temperature. When the room temperature is lower than 18°C, the temperature control regulator adjusts the thermal therapy temperature to 18°C ​​to 43°C. When the room temperature is higher than 18°C, the temperature control regulator adjusts the thermal therapy temperature to 0°C to 43°C.

[0012] Compared with the prior art, the present invention has the following beneficial effects:

[0013] A graphene far-infrared thermotherapy device is formed by optimizing the design and combination of a graphene far-infrared cabin, a graphene back pad, a graphene foot pad and a microcirculation monitoring and regulating device. The low-temperature far-infrared radiation characteristics of graphene are used to solve the problem that most of the current thermotherapy equipment raises the temperature in the thermotherapy cabin to the set temperature in a short time, which will cause burning pain to the human body. At the same time, it solves the problem that the current thermotherapy equipment uses a short-time heating method, which makes it difficult to form a uniform temperature in three-dimensional space, resulting in inconsistent thermotherapy effects on human body parts. The graphene far-infrared cabin is placed on the front of the graphene The heating film is arranged in different areas, and the graphene heating film in each area can independently perform far-infrared thermal radiation, which solves the problem that the various joints of the human body have inconsistent requirements for thermal therapy temperature. Traditional thermal therapy equipment uses overall thermal radiation to perform thermal therapy during thermal therapy, which will lead to the problem that the thermal therapy effect of some joints of the human body is not obvious; a microcirculation monitoring and adjustment device is used to monitor the microcirculation of the human body, and the temperature of the graphene far-infrared cabin is controlled in real time, which solves the problem that the current thermal therapy equipment does not have equipment to monitor the thermal therapy status of the human body, which often leads to excessive thermal therapy, resulting in reduced sensitivity of the human body and causing secondary pain. The present invention monitors the microcirculation of the human body, adjusts the thermal therapy temperature from time to time, and uses the characteristics of low-temperature radiation of the graphene heating film to form a progressive surround thermal radiation, which is suitable for thermal therapy of the human body. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 It is a schematic diagram of the structure of the present invention;

[0015] Figure 2 This is a schematic diagram of the graphene far-infrared cabin structure;

[0016] Figure 3 This is a schematic diagram of the hierarchical structure of the graphene far-infrared cabin;

[0017] Figure 4 This is a schematic diagram of the graphene heating film structure in the graphene far-infrared cabin;

[0018] Figure 5 Schematic diagram of the heat-resistant film structure;

[0019] Figure 6 It is a rear view of the present invention;

[0020] Components marked with numbers in the figure correspond to: graphene far-infrared cabin (1), graphene back pad (2), graphene foot pad (4), microcirculation monitoring and regulating device (3), first section graphene far-infrared cabin (101), third section graphene far-infrared cabin (102), heat-resistant film (5), support frame (6), graphene heating film (7), PE insulating film (8), microcirculation monitoring ring (302), temperature control regulator (301), main controller (303), handle (4), carbon fiber cloth (501), and mirror reflection film (502). DETAILED DESCRIPTION

[0021] The technical solution of the present invention will be clearly described below in conjunction with the accompanying drawings of the specification. In conjunction with the accompanying drawings of the specification, the specific implementation of the present invention is as follows:

[0022] See attached Figures 1 to 6 A graphene far-infrared hyperthermia device, characterized in that it comprises a graphene far-infrared cabin (1), a graphene back pad (2), a graphene foot pad (4) and a microcirculation monitoring and regulating device (3), wherein the graphene far-infrared cabin (1) is a three-section telescopic structure, and the three-section telescopic structure of the graphene far-infrared cabin (1) is composed of a heat-resistant film (5), a support frame (6), a graphene heating film (7), and a PE insulating film (8) from the outside to the inside, wherein the PE insulating film (8) wraps the graphene heating film (7), the graphene heating film (7) is attached to the bottom of the support frame (6), and the heat-resistant film (5) is bonded to the top of the support frame (6), and the graphene back pad (2) is composed of a lining cloth, a graphene heating film, and a polyester fiber from top to bottom, wherein the polyester fiber wraps the graphene heating film, and the lining cloth wraps the polyester fiber, and the microcirculation monitoring and regulating device (3) The invention comprises a microcirculation monitoring ring (302), a temperature control regulator (301) and a main controller (303). The main controller (303) controls the temperature control regulator (301) via a wireless network or Bluetooth. The temperature control regulator (301) is connected to a graphene far-infrared cabin (1) and a graphene back pad (2) via a wire. The temperature control regulator (301) controls the temperature of the thermal therapy by adjusting the power of the graphene heating film (7) in the graphene far-infrared cabin (1) and the graphene back pad (2). There are two microcirculation monitoring rings (302) in total. The two microcirculation monitoring rings (302) are installed on a graphene foot pad (4). The main controller (303) is provided with a display screen and adjustment buttons. The display screen displays the microcirculation image monitored by the microcirculation monitoring ring (302). The adjustment buttons can set the temperature of the graphene far-infrared cabin (1) and the graphene back pad (2).

[0023] Preferably, the radius of the graphene far-infrared cabin (1) with three-section telescopic structure decreases from front to back, wherein the front end of the first section of the graphene far-infrared cabin (101) is provided with a push-pull handle (4), and the rear of the third section of the graphene far-infrared cabin (102) is connected to a graphene foot pad (4).

[0024] Preferably, the graphene foot pad (4) comprises, from outside to inside, a heat-resistant film (5), a metal support plate, a PE insulating film (8), a graphene electric heating film, and a polyester fiber insulating pad, wherein the PE insulating film (8) wraps the graphene electric heating film.

[0025] Preferably, the heat-resistant film (5) on the graphene far-infrared cabin (1) is divided into two layers, the outer layer of the heat-resistant film (5) is a carbon fiber cloth (501), and the lower layer of the heat-resistant film (5) is a mirror reflection film (502).

[0026] Preferably, the graphene heating film (7) in the graphene far-infrared cabin (1) is arranged in zones, and the graphene heating film (7) in each zone can be independently controlled by a temperature control regulator (301).

[0027] Preferably, the temperature control regulator (301) uses the room temperature as a reference temperature when adjusting the temperature. When the room temperature is lower than 18°C, the temperature control regulator (301) adjusts the thermal therapy temperature to 18°C ​​to 43°C. When the room temperature is higher than 18°C, the temperature control regulator (301) adjusts the thermal therapy temperature to 0°C to 43°C.

[0028] The present invention has a preset stage, a heat therapy stage and a cooling stage when in use:

[0029] During the preset stage: the human body needs to lie flat on the graphene back pad (2), and then wear two microcirculation monitoring rings (302) on the left and right feet respectively and contact the foot skin, and then start the main controller (303). At this time, the display screen on the main controller (303) displays the human body microcirculation detection image, and the most suitable thermal therapy temperature and time for the current human body are preset on the main controller (303) according to the human body microcirculation detection image. The main controller (303) transmits the information to the temperature control regulator (301) through a wireless network or Bluetooth, and the temperature control regulator (301) starts to control the graphene far-infrared cabin (1), the graphene back pad (2) and the graphene foot pad (4) to start radiating heat.

[0030] Thermal therapy stage: After the preset stage is completed, the operator holds the push-pull handle (4) at the front end of the first section of the graphene far-infrared cabin (101) with both hands and stretches the graphene far-infrared cabin (1) to cover the human body. At this time, the thermal therapy begins. After the thermal therapy is performed for 3 minutes to 5 minutes, the overall temperature in the cabin reaches the preset value. At this time, the operator analyzes the heating condition of the human body based on the human microcirculation detection image displayed on the main controller (303), and adjusts the radiation power of the graphene heating film (7) in each zone of the graphene far-infrared cabin (1) through the temperature control regulator (301) according to the analysis results.

[0031] Cooling stage: After the heat therapy stage is completed, since the human body temperature is higher than the room temperature, the temperature control regulator (301) adjusts the temperature of the graphene far-infrared cabin (1), the graphene back pad (2) and the graphene foot pad (4) according to the current room temperature. When the room temperature is lower than 18°C, the temperature control regulator (301) controls the graphene far-infrared cabin (1), the graphene back pad (2) and the graphene foot pad (4) to slowly cool down until the temperature reaches 18°C±1°C and the temperature is maintained. When the room temperature is higher than 18°C, the temperature control regulator (301) controls the graphene far-infrared cabin (1), the graphene back pad (2) and the graphene foot pad (4) to slowly cool down to the room temperature.

[0032] The above embodiments are merely illustrative of the principles and effects of the present invention, and are not intended to limit the present invention. Those familiar with the technology may modify or improve the above embodiments without violating the spirit and scope of the present invention. Therefore, all equivalent modifications or changes made by those with ordinary knowledge in the technical field without departing from the spirit and technical ideas disclosed by the present invention should still be covered by the claims of the present invention.

Claims

1. A graphene far-infrared hyperthermia device, characterized in that It includes a graphene far-infrared cabin, a graphene back pad, a graphene foot pad and a microcirculation monitoring and regulating device: the graphene far-infrared cabin is a three-section telescopic structure, and the three-section telescopic structure of the graphene far-infrared cabin is a heat-resistant film, a support frame, a graphene heating film, and a PE insulating film from the outside to the inside, the PE insulating film wraps the graphene heating film, the graphene heating film is attached to the bottom of the support frame, and the heat-resistant film is bonded to the top of the support frame. The graphene heating film in the graphene far-infrared cabin is arranged in zones, and the graphene heating film in each zone can be independently controlled by a temperature control regulator; the graphene back pad is a lining cloth, a graphene heating film, and a polyester fiber from top to bottom, the polyester fiber wraps the graphene heating film, and the lining cloth wraps the polyester fiber; the microcirculation monitoring and regulating device includes a microcirculation monitoring ring, a temperature control regulator The main controller controls the temperature control regulator through a wireless network or Bluetooth. The temperature control regulator is connected to the graphene far-infrared cabin and the graphene back pad through a wire. The temperature control regulator controls the thermal therapy temperature by adjusting the power of the graphene heating film in the graphene far-infrared cabin and the graphene back pad. There are two microcirculation monitoring rings, which are installed on the graphene foot pad. The main controller is provided with a display screen and adjustment buttons. The display screen displays the microcirculation image monitored by the microcirculation monitoring ring. The adjustment button can set the temperature of the graphene far-infrared cabin and the graphene back pad. The temperature control regulator uses room temperature as a reference temperature when adjusting the temperature. When the room temperature is lower than 18°C, the temperature control regulator adjusts the thermal therapy temperature to 18°C ​​to 43°C. When the room temperature is higher than 18°C, the temperature control regulator adjusts the thermal therapy temperature to 0°C to 43°C.

2. A graphene far-infrared hyperthermia device according to claim 1, characterized in that The radius of the graphene far-infrared cabin of the three-section telescopic structure decreases from front to back, wherein the front end of the first section of the graphene far-infrared cabin is provided with a push-pull handle, and the rear of the third section of the graphene far-infrared cabin is connected to a graphene foot pad.

3. A graphene far-infrared hyperthermia device according to claim 1 or 2, characterized in that The graphene foot pad comprises a heat-resistant film, a metal support plate, a PE insulating film, a graphene electric heating film, and a polyester fiber insulating pad from the outside to the inside, wherein the PE insulating film wraps the graphene electric heating film.

4. A graphene far-infrared hyperthermia device according to claim 1, characterized in that The heat-resistant film on the graphene far-infrared cabin is divided into two layers, the outer layer of the heat-resistant film is carbon fiber cloth, and the lower layer of the heat-resistant film is a mirror reflection film.

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