Near-infrared body care device

Abstract

The invention relates to a near-infrared body care device. The near-infrared body care device comprises a supporting shell supported on the ground; one end of the connecting frame is connected to the supporting shell and can extend towards the upper part of the supporting shell; and an active frame connected to the other end of the connecting frame and having a near-infrared lamp assembly mounted thereon, in which the near-infrared lamp assembly comprises a plurality of double-tube lamps arranged on the active frame, each of the double-tube lamps comprising: a central tube accommodating a lamp unit; a light conducting tube surrounding the central tube in a spaced state; and a liquid flowing between the central tube and the light conducting tube.

Description

TECHNICAL FIELD

[0001] The present invention relates to a near-infrared body care device using a near-infrared lamp assembly, and more particularly, to a near-infrared body care device including a support housing supported on the ground, a connection frame connected to the support housing at one end and extendable upward of the support housing, and an action frame connected to the other end of the connection frame and installed with a near-infrared lamp assembly, wherein the near-infrared lamp assembly includes a plurality of double-tube lamps arranged on the action frame, each of the double-tube lamps including a central tube accommodating a lamp unit, a light transmission tube surrounding the central tube in a spaced state, and a liquid flowing between the central tube and the light transmission tube, the support housing including a cooling portion for receiving the liquid from the near-infrared lamp assembly and cooling the same, a liquid tank accommodating the liquid cooled by the cooling portion, and a pump receiving the liquid from the liquid tank and pressure-feeding the same to the near-infrared lamp assembly. BACKGROUND

[0002] Generally, far-infrared rays and near-infrared rays are infrared rays close to the heat of the sun's radiation, which do not heat the air but only heat short-wavelength light rays harmful to the human body, which have a longer wavelength than visible light and lower energy, and have the property of being converted into heat when absorbed by an object.

[0003] When such infrared rays are irradiated to the human body, the near-infrared rays irradiated by the infrared lamp are used to treat the affected area such as muscles or wounds by using the property of penetrating deep into the human body and being converted into heat, and have been widely used in infrared therapy devices.

[0004] Such infrared rays, as representative radiant energy that can directly transfer the energy of a high-temperature object to a low-temperature object without a medium, have been used a lot for medical purposes to transfer energy to the skin or deep parts of the human body, and in order to maximize the therapeutic effect of the infrared rays, wIRA (water filtered infrared-A) of a 760~1,400 nm band is generally generated using a halogen lamp and irradiated.

[0005] A conventional near-infrared lamp assembly, since it mainly uses asbestos to block the high heat generated around the heating body when heated, has a problem in that the asbestos powder is detached over a long period of use, which is not only harmful to the human body but also causes environmental pollution.

[0006] In addition, the conventional near-infrared health care device, since the energy density transferred to the user is sharply reduced as the distance between the lamp and the user increases due to the characteristics of near-infrared rays, the lamp far from the user among the plurality of lamps can not be able to transfer sufficient near-infrared rays to the user. The use of such a lamp with low irradiation efficiency, although the amount of near-infrared rays transferred to the user is small, has the same power consumption as other lamps, and becomes one of the reasons for reducing the overall energy efficiency of the device.

[0007] In addition, Korean Patent Publication No. 10-2010-0039317 discloses a far infrared ray irradiation warm therapy device including a housing formed with an open portion having one side open, an infrared lamp installed inside the open portion of the housing to emit infrared rays, a TDP panel inside the infrared lamp to radiate a specific electric wave toward the open portion, and a radiating plate installed inside the open portion to form a curved surface inside the TDP panel to diffuse the infrared rays emitted from the infrared lamp toward the open portion.

[0008] In addition, Korean Registered Patent No. 10-1441811 discloses a warm therapy device technology that irradiates a treatment target with a halogen lamp having an infrared wavelength while removing light in a long wavelength band that increases the body temperature of the skin of the treatment target, thereby concentrating on increasing the deep body temperature of the treatment target.

[0009] In addition, Korean Registered Patent No. 10-1558790 discloses an infrared lamp tube technology including a housing formed of a tube body and having a space portion formed inside, an infrared light emitting portion formed of a plurality of halogen lamps arranged in a length direction with a space inside the housing, a cover respectively fitted to both sides of the housing, and a filter solution filled with water in the space portion of the housing.

[0010] According to the above prior art documents, wIRA is generated using the wavelength characteristics of a halogen lamp, and the body is irradiated by increasing the power of the divergent energy of the halogen lamp.

[0011] When treatment is performed using the halogen lamp, there is a problem that the light diverging from the halogen lamp contacts the face of the user, particularly the eyes of the user, and causes eye damage. SUMMARY

[0012] TECHNICAL PROBLEM

[0013] The present application was invented to improve the above problems, and the technical problem to be solved by the present application is to provide a near-infrared lamp assembly in which a lamp unit emitting infrared rays is accommodated inside, a central tube and a light guide tube are formed with a certain gap (gap) maintained between the inner and outer periphery, a refrigerant liquid (e.g., water) is filled and flowed in the gap between the central tube and the light guide tube, a double tube lamp having double tube covers installed at both end portions is adopted, a filtering method using water as a medium, i.e., a water filtering method, is used, far infrared rays and mid-infrared rays among the infrared rays emitted from the lamp unit are blocked, and only near-infrared rays are emitted from the outside of the double tube lamp, thereby allowing the near-infrared rays to deeply penetrate into subcutaneous tissue when the near-infrared rays are irradiated on the skin, and achieving various health effects on the body.

[0014] The present invention is to solve the technical problem of providing a near-infrared lamp assembly and a near-infrared body care system using the same, which can adjust a brightness ratio of a near-infrared emitting lamp and supply and circulate cooling water according to a cooling water level, so as to be able to constantly control high-temperature heat emitted from the lamp, and can perform temperature adjustment control according to an installation position of the near-infrared emitting lamp.

[0015] The present invention is to solve the technical problem of providing a near-infrared health care device with high energy efficiency, in which, among a plurality of double tube lamps irradiating near-infrared rays, only a double tube lamp capable of providing near-infrared rays to a user's body with high efficiency is used to irradiate near-infrared rays to the user, thereby reducing power consumption while maintaining a near-infrared health care effect, as compared with using all of the double tube lamps.

[0016] The technical problem of the present invention is not limited to the above-mentioned content, and other technical problems not mentioned can be clearly understood by those skilled in the art from the following description.

[0017]

Means for solving the technical problem

[0018] According to an embodiment of the present invention, a near-infrared body care device includes a support housing supported on the ground, a connection frame connected to one end of the support housing and extendable upward of the support housing, and an action frame connected to the other end of the connection frame and installed with a near-infrared lamp assembly, wherein the near-infrared lamp assembly includes a plurality of double tube lamps arranged on the action frame, each of the double tube lamps includes a central tube accommodating a lamp unit, a light transmission tube surrounding the central tube in a spaced state, and a liquid flowing between the central tube and the light transmission tube, the support housing includes a cooling portion for receiving and cooling the liquid from the near-infrared lamp assembly, a liquid storage tank for storing the liquid cooled by the cooling portion, and a pump for receiving the liquid from the liquid storage tank and pressure-feeding the liquid to the near-infrared lamp assembly.

[0019] According to an embodiment of the present invention, the action frame has a shape bent to the opposite side with respect to the connection frame position when viewed from the planar or side surface, a plurality of double tube lamps are installed on the side of the action frame opposite to the connection frame position, and a bent lamp installation reflection bracket is installed along the bent shape on the side of the action frame opposite to the connection frame position, so that the plurality of double tube lamps are installed side by side.

[0020] According to an embodiment of the present application, the lamp mounting reflection bracket has a container shape open to a lamp inlet / outlet portion of the double tube lamp for accommodating the double tube lamp, mounting grooves for inserting first liquid flow tubes extending from both ends of the double tube lamp are formed on flanges on opposite sides of the lamp mounting reflection bracket, and elastic support pieces for supporting the double tube lamp near both ends thereof are mounted on a bottom of the lamp mounting reflection bracket.

[0021] According to an embodiment of the present application, when viewed from the side, one side of the double tube lamp provided on the action frame is mounted with a bent distribution tube along the bent shape, and when viewed from the front, the distribution tube is mounted on both left and right sides of the double tube lamp, and inner sides of the distribution tubes are formed with a plurality of second liquid flow tubes extending toward the first liquid flow tubes, and flexible tubes are connected between the first and second liquid flow tubes at intervals.

[0022] According to an embodiment of the present application, a compressor and a condenser are mounted on a bottom of the support housing, a heat dissipation fan is mounted on a side of the support housing, and the liquid storage tank and a pump for pumping liquid are mounted in the support housing.

[0023] According to an embodiment of the present application, the compressor and the condenser are arranged in order from the front to the back in a state of being surrounded by a protection frame having a groove-shaped cross section, the heat dissipation fan is arranged opposite to the condenser at a back of the support housing, and the liquid storage tank and the pump are placed at an upper end of the protection frame.

[0024] According to an embodiment of the present application, an evaporator constituting the cooling portion is mounted in the liquid storage tank.

[0025] According to an embodiment of the present application, the pump sucks low-temperature liquid from the liquid storage tank and supplies it to the double tube lamp, and high-temperature liquid discharged from the double tube lamp is supplied to the liquid storage tank and cooled by the evaporator.

[0026] According to an embodiment of the present application, a connection frame connected to the support housing and an action frame connected to the other end of the connection frame are configured to be horizontally rotatable and vertically rotatable.

[0027] According to an embodiment of the present application, first and second connection tubes having one end connected to the distribution tube are respectively extended on both left and right sides of the action frame with the connection frame as a center, and the other ends of the first and second connection tubes are respectively connected to the support housing and the liquid storage tank.

[0028] According to an embodiment of the present application, the connection frame and the action frame are mounted to be detachable, and the first and second connection tubes are mounted to be detachable from the action frame.

[0029] According to an embodiment of the present application, the smart band or smart watch worn by the user after detecting the health degree, and the mobile communication terminal installed with the application program, and configured to confirm the health degree improved by the near-infrared body care device by naked eye.

[0030] According to an embodiment of the present application, a camera is installed on the action frame towards the head of the user.

[0031]

Effects of the Invention

[0032] As described above, the present application has the following effects.

[0033] The lamp unit emitting infrared rays is accommodated inside, the inner and outer periphery is kept a certain interval (gap) formed by the central tube and the light transmission tube, the interval between the central tube and the light transmission tube is filled with and flows the liquid for refrigerant (such as water), the double tube lamp with double tube cover is installed at both ends, the filter mode using water as medium, i.e. water filter mode, is adopted, the far infrared rays and the medium infrared rays in the infrared rays emitted by the lamp unit are blocked, only the near infrared rays are emitted from the outside of the double tube lamp, so that when the near infrared rays are irradiated on the skin, they can penetrate into the subcutaneous tissue, so as to achieve various health effects on the body.

[0034] In addition, the lamp unit is surrounded by the double tube lamp outside, the liquid for refrigerant is filled in the interval (gap) and flows, when the near infrared rays are treated, the high temperature heat emitted by the lamp unit is cooled, the high temperature heat emitted by the lamp unit directly contacts the skin of the user, so as to prevent the skin from being scalded.

[0035] In addition, the present application can adjust the brightness ratio of the near infrared ray emitting lamp, and supply and circulate according to the water level of the cooling water, so as to be able to control the high temperature heat emitted by the lamp constantly, and has the effect of adjusting the temperature according to the installation position of the near infrared ray emitting lamp.

[0036] In addition, when the near infrared rays are treated, the proliferation, metastasis and recurrence of cancer cells can be inhibited and eliminated. The NK cell secretes perforin protein to punch on the cancer cells, and injects granzyme to eliminate the cancer cells. The NK cell has active receptors and inhibitory receptors, which can distinguish normal cells and abnormal cells for attack. In addition, it also has the effect of secreting IFN-γ (interferon-γ) substance to activate T cells and B cells.

[0037] In addition, when the near infrared rays are irradiated on the user by using a plurality of double tube lamps, according to the distance between each distance sensing sensor and the body of the user sensed by the plurality of distance sensing sensors, the double tube lamp capable of irradiating the near infrared rays on the user with higher efficiency is determined, the near infrared rays are irradiated on the user by using the determined double tube lamp, so as to have high power efficiency.

[0038] Effects of the present application are not limited to the above-mentioned effects, and other effects not mentioned can be clearly understood from the description of the claims by those skilled in the art. BRIEF DESCRIPTION OF DRAWINGS

[0039] Figure 1 A configuration diagram of a near-infrared lamp assembly according to the present application is shown.

[0040] Figure 2 A block diagram of a near-infrared body care system embodiment using a near-infrared lamp assembly according to the present application is shown.

[0041] Figure 3 A front perspective view of a portable near-infrared body care device according to the present application is shown.

[0042] Figure 4 A rear perspective view of a portable near-infrared body care device according to an embodiment of the present application with a support housing portion removed is shown.

[0043] Figure 5 A bottom perspective view of a combination structure of an action frame and a near-infrared lamp assembly in a portable near-infrared body care device according to an embodiment of the present application is shown.

[0044] Figure 6 A top rear perspective view of an arrangement structure and a liquid pipe connection structure in a support housing of a portable near-infrared body care device according to an embodiment of the present application is shown.

[0045] Figure 7 A front bottom perspective view of an arrangement structure and a liquid pipe connection structure in a support housing of a portable near-infrared body care device according to an embodiment of the present application is shown.

[0046] Figure 8 A front view of an arrangement structure in a support housing of a portable near-infrared body care device according to an embodiment of the present application is shown.

[0047] Figure 9 A front perspective view of an evaporator structure disposed in a liquid storage tank in a portable near-infrared body care device according to an embodiment of the present application is shown.

[0048] Figure 10 A view of a blower installed at a lower side of a support housing in a portable near-infrared body care device according to an embodiment of the present application is shown.

[0049] Figure 11 A block diagram of a cooling module structure in a portable near-infrared body care device according to an embodiment of the present application is shown.

[0050] Figure 12 This is a system diagram illustrating the liquid conduit, refrigerant conduit, communication, and electrical transmission structure in a portable near-infrared body care device according to an embodiment of the present invention.

[0051] Figure 13 This is a block diagram illustrating a portable near-infrared body care device according to an embodiment of the present invention, in which a biosensor unit detects user health information, receives the user health information detected by the biosensor unit through a smart bracelet or smartwatch to check the user's health, and visually confirms the improved health status due to near-infrared treatment by the near-infrared body care device through a wireless communication terminal.

[0052] Figure 14 and Figure 15 The diagram illustrates the operation of a plurality of dual-tube lamps according to an embodiment of the present invention.

[0053] Figure 16 A perspective view and a side view are provided to illustrate a lamp assembly including a circular lamp unit according to an embodiment of the present invention.

[0054] Figure 17 A perspective view of a linear action frame and lamp assembly according to an embodiment of the present invention is provided.

[0055] Figure 18 A perspective view of a portable near-infrared body care device with a cooling fan disposed at the lower part according to an embodiment of the present invention.

[0056] Figure 19 A perspective view of a cavity-type near-infrared body care device according to another embodiment of the present invention is provided.

[0057] Figure 20 for Figure 19 Side view.

[0058] Figure 21 This is a product photograph of a bed-type near-infrared body care device according to another embodiment of the present invention.

[0059] Figure 22 and Figure 23 This is a perspective view of a bed-type near-infrared body care device according to another embodiment of the present invention.

[0060] Figure 24 This is a side view of a bed-type near-infrared body care device according to another embodiment of the present invention.

[0061] Figure 25 This is a front view of a bed-type near-infrared body care device according to another embodiment of the present invention.

[0062] Figure 26A plan view of an operation control section in a bed-type near-infrared body treatment device according to a further embodiment of the present application.

[0063] Figure 27 An exploded perspective view of a bed-type near-infrared body treatment device according to a further embodiment of the present application.

[0064] Figure 28 A plan view of a lamp unit mounting structure in a bed-type near-infrared body treatment device according to a further embodiment of the present application.

[0065] Figure 29 An exploded perspective view of a lamp unit mounting structure in a bed-type near-infrared body treatment device according to a further embodiment of the present application.

[0066] Figure 30 A perspective view of a main frame in a bed-type near-infrared body treatment device according to a further embodiment of the present application.

[0067] Figure 31 and Figure 32 A graph showing the penetration rate into subcutaneous tissue when near-infrared rays are irradiated to the skin during near-infrared treatment and the treatment effect on various diseases in a near-infrared body treatment system according to the present application. DETAILED DESCRIPTION

[0068] A near-infrared lamp assembly according to a preferred embodiment of the present application and a near-infrared body treatment system using the same will be described in detail below with reference to the accompanying drawings.

[0069] Figure 1 A configuration diagram of a near-infrared lamp assembly according to the present application.

[0070] As Figure 1 shown, a near-infrared lamp assembly (400) according to the present application includes a lamp unit (411) that emits infrared rays, and a double-tube lamp (410) that houses the lamp unit (411) inside, with a gap (G) maintained between the inner and outer periphery by a central tube (412) and a light transmission tube (413), a refrigerant liquid (414) being filled in and flowing in the gap (G) between the central tube (412) and the light transmission tube (413), and a double-tube cover (417) being installed at both end portions.

[0071] The lamp unit (411) has a filament (not shown) installed inside a glass body (411a), and an inert gas (e.g., nitrogen) is enclosed inside the lamp unit (411).

[0072] The near-infrared lamp assembly (400) according to the present application is configured to block far-infrared rays and mid-infrared rays among the infrared rays emitted from the lamp unit (411) by the double-tube lamp structure, and to emit only near-infrared rays from the outside of the double-tube lamp (410), thereby having a technical feature of allowing the near-infrared rays to deeply penetrate into subcutaneous tissues when the near-infrared rays are irradiated to the skin.

[0073] In the near-infrared lamp assembly (400) according to the present application, the lamp unit (411) is surrounded by the double-tube lamp (410) outside, a refrigerant liquid is filled in and flowed in the gap (G), and the high-temperature heat emitted from the lamp unit (411) is cooled at the time of near-infrared treatment, so that the high-temperature heat emitted from the lamp unit (411) does not directly contact the skin of a user, thereby preventing the skin from being scalded while sufficiently exerting the near-infrared treatment effect.

[0074] Further, Figure 2 A block diagram of an embodiment of a near-infrared body care system using the near-infrared lamp assembly according to the present application is shown.

[0075] As Figure 2 shown, the near-infrared body care system (1) using the near-infrared lamp assembly according to the present application performs near-infrared treatment using the near-infrared lamp assembly (400) and has a technical feature of including any one of a portable near-infrared body care device (1000), a cavity-type near-infrared body care device (2000), or a bed-type near-infrared body care device (3000).

[0076] That is, the near-infrared body care system (1) can be the portable near-infrared body care device (1000), or can be the cavity-type near-infrared body care device (2000) or the bed-type near-infrared body care device (3000).

[0077] For convenience of explanation, the "portable" is omitted for the portable near-infrared body care device (1000), and the near-infrared body care device (1000) can also be referred to. Hereinafter, the (portable) near-infrared body care device (1000) according to the present application is described.

[0078] As Figures 3 to 12 shown, the near-infrared body care device (1000) according to the present application includes a support housing (100) supported on the ground, a connection frame (200) connected to one end of the support housing (100) and extendable upward of the support housing (100), and a function frame (300) connected to the other end of the connection frame (200) and provided with the near-infrared lamp assembly (400).

[0079] The near-infrared lamp assembly (400) includes: a lamp unit (411) that emits infrared rays; and a double-tube lamp (410) that internally houses the lamp unit (411) to maintain a gap (G) between the inner and outer periphery, is formed by a central tube (412) and a light transmission tube (413), a refrigerant liquid (414) is filled in and flows in the gap (G) between the central tube (412) and the light transmission tube (413), and double-tube covers (417) are installed at both ends.

[0080] That is, the near-infrared lamp assembly (400) includes a plurality of double-tube lamps (410) arranged on the action frame (300), each of the double-tube lamps (410) includes a central tube (412) that houses a lamp unit (411), a light transmission tube (413) that surrounds the central tube (412) in a spaced apart state, and a liquid (414) that flows between the central tube (412) and the light transmission tube (413), and the support housing (100) can include: a cooling portion (110) for receiving the liquid (414) from the near-infrared lamp assembly (400) and cooling it, a liquid tank (120) that houses the liquid cooled by the cooling portion (110), and a pump (130) that receives the liquid (414) from the liquid tank (120) and pressurizes and supplies it to the near-infrared lamp assembly (400).

[0081] The lamp unit (411) has a filament installed inside a glass body (411a), inert gas (for example, nitrogen) is sealed inside the lamp unit (411), far infrared rays and mid infrared rays among the infrared rays emitted by the lamp unit (411) are blocked, and only near-infrared rays are emitted from the outside of the double-tube lamp (410), so that when the near-infrared rays are irradiated to the skin, a technical feature is configured to penetrate deeply into the subcutaneous tissue.

[0082] The double-tube lamp (410) is configured to surround the outside of the lamp unit (411), a refrigerant liquid is filled in and flows in the gap (G), the high-temperature heat emitted by the lamp unit (411) is cooled, and the high-temperature heat emitted by the lamp unit (411) is prevented from directly contacting the user's skin, so that skin scalding is effectively prevented.

[0083] The support housing (100) includes a cooling module for a refrigerant liquid circulation and cooling method for cooling the heat generated by the lamp unit (411), and the cooling module adopts a non-tap water direct connection method (a refrigerant liquid self-circulation method), so that the movement and carrying of the near-infrared body care device are more convenient.

[0084] As Figure 11As shown, the cooling module includes: a cooling unit (110) for receiving liquid from the near-infrared lamp assembly (400) and cooling; a liquid storage tank (120) containing the refrigerant liquid cooled by the cooling unit (110); and a pump (130) receiving liquid from the liquid storage tank (120) and sending it to the near-infrared lamp assembly (400) side.

[0085] The cooling module prevents contamination inside the refrigerant liquid using a water filtration method.

[0086] For reference, the present application adopts a filtration method using water as a medium, i.e. a water filtration method, to filter unnecessary or harmful light in the wavelength band of sunlight, thereby extracting near-infrared light (700~1400nm) wavelengths to effectively increase deep body temperature without causing skin heat damage.

[0087] In addition, in the (portable) near-infrared body care device (1000) of the present application, the action frame (300) has a shape bent to the opposite side with respect to the connection frame (200) position when viewed from the plane or side, and a plurality of double tube lamps (410) are installed on the side of the action frame (300) opposite the connection frame (200) position.

[0088] On the action frame (300), the side opposite the connection frame (200) position is installed along the bent shape with a bent lamp mounting reflection bracket (310), allowing the plurality of double tube lamps (410) to be installed side by side.

[0089] In addition, the lamp mounting reflection bracket (310) has a container shape with a lamp access portion (311) open toward the double tube lamps (410) for accommodating the plurality of double tube lamps (410), and mounting grooves for inserting first liquid flow tubes (440) extending from both ends of the double tube lamps (410) are formed on both side flanges (312) of the lamp mounting reflection bracket (310), respectively, and elastic support pieces (415) supporting the vicinity of both ends of the double tube lamps (410) are installed on the bottom of the lamp mounting reflection bracket (310), respectively.

[0090] The elastic support pieces (415) are disposed on both sides with the double tube lamps (410) in the middle, extend in the direction of the lamp access portion (311), and have a waist portion in a bent shape concave inward, allowing the double tube lamps (410) to be easily and elastically coupled to the elastic support pieces (415) in a one-touch manner through the lamp access portion (311), and also easily separated.

[0091] Further, in the near-infrared body care device (1000) of the present application, one side of the action frame (300) on which the double-tube lamp (410) is arranged is installed with a bent distribution pipe (320) in a bent shape when viewed from the side, and the distribution pipe (320) is installed on the left and right sides of the double-tube lamp (410) when viewed from the front, respectively, the inner side of each distribution pipe (320) is formed with a plurality of second liquid flow pipes (321) extending in the direction of the first liquid flow pipe (440), and a flexible pipe (330) is connected between the first liquid flow pipe (440) and the second liquid flow pipe (321) at intervals. The flexible pipe (330) can be made of rubber, silicone or other soft and durable materials.

[0092] According to this structure, even if the first liquid flow pipe (440) and the second liquid flow pipe (321) are not accurately arranged in a straight line, a firm connection without leakage can be achieved through the flexible pipe (330).

[0093] The distribution pipe (320) can be installed on a suitable support (370) fixed on the action frame (300).

[0094] The support housing (100) includes a cooling part (110) for receiving and cooling the liquid (414) from the near-infrared lamp assembly (400), a liquid storage tank (120) for containing the liquid (414) cooled by the cooling part (110), and a pump (130) for receiving the liquid (414) from the liquid storage tank (120) and pressurizing it to the near-infrared lamp assembly (400).

[0095] The cooling part (110) is a part that prevents the liquid (414) heated from the near-infrared lamp assembly (400) from continuously warming up, allowing the liquid (414) to properly play a near-infrared filtering role and maintain the durability of the double-tube, and is composed of the constituent elements of a general cooling cycle, such as a compressor (111), a condenser (112), an expansion valve (not shown, built-in structure), and an evaporator (113).

[0096] Further, the compressor (111) and the condenser (112) are installed at the bottom of the support housing (100), and the heat dissipation fan (114) is installed on the side or bottom of the support housing (100) to quickly dissipate the heat generated by the condenser (112), and the liquid storage tank (120) and the pump (130) for pressurizing the liquid (414) can be installed inside the support housing (100).

[0097] Further, the compressor (111) and the condenser (112) are arranged in order from the front to the back in a state of being surrounded by a protection frame (150) having a groove-shaped cross section, the heat radiating fan (114) is disposed opposite the condenser (112) at the back of the support housing (100), and the liquid storage tank (120) and the pump (130) are disposed at the upper end of the protection frame (150).

[0098] Further, an evaporator (113) constituting the cooling portion (110) is installed inside the liquid storage tank (120). The evaporator (113) can be in a coil form wound upward in a state of being supported at the bottom of the liquid storage tank (120), and thus the evaporator (113) does not need to be additionally installed outside, and the planar cross-sectional area occupied by the support housing (100) can be further reduced. Of course, a thermoelectric element can also be used as the cooling portion (110) to block the noise generated by the compressor (111).

[0099] Further, the pump (130) sucks low-temperature liquid from the liquid storage tank (120) and supplies it to the double-tube lamp (410), and high-temperature liquid discharged from the double-tube lamp (410) is supplied to the liquid storage tank (120) and cooled by the evaporator (113). That is, the liquid in the liquid storage tank (120) can be directly cooled by the evaporator (113) in a structured design.

[0100] In this case, it is preferable to maximize the distance between the point at which the liquid in the liquid storage tank (120) is returned and the point at which low-temperature liquid is discharged, so that the liquid sufficiently cooled by the evaporator (113) flows to the pump (130).

[0101] For example, as shown in the drawing, the evaporator (113) can be installed vertically in the liquid storage tank (120), the liquid inflow point can be disposed inside the evaporator (113) at the bottom of the liquid storage tank (120), and the discharge point can be disposed at the upper side of the liquid storage tank (120).

[0102] Further, the high-temperature liquid flowing in from the bottom of the liquid storage tank (120) rises by the spiral (vortex) flow generated by the evaporator (113) and is uniformly cooled, and can be discharged through the upper side of the liquid storage tank (120) and flow to the pump (130).

[0103] Further, a connection frame (200) connected to the support housing (100) and an action frame (300) connected to the other end of the connection frame (200) are configured to be horizontally rotatable and vertically rotatable, and can freely irradiate near-infrared rays to any part of the user's head, face, abdomen, etc.

[0104] Furthermore, a first connecting pipe (610) and a second connecting pipe (620) are respectively extended on the left and right sides of the action frame (300) with the connecting frame (200) as the center, and one end of each of the first connecting pipe (610) and the second connecting pipe (620) is connected to the distribution pipe (320), and the other end of each of the first connecting pipe (610) and the second connecting pipe (620) is connected to the support housing (100) and to the liquid storage tank (120), respectively.

[0105] Furthermore, the connecting frame (200) and the action frame (300) are detachably installed, and the first connecting pipe (610) and the second connecting pipe (620) are detachably installed with the action frame (300), so that various action frames (300) can be replaced according to the irradiated body part to achieve multi-purpose use.

[0106] Furthermore, a water level sensor (121) is installed to sense the liquid level in the liquid storage tank (120), and a warning message is issued when the liquid level is below or exceeds an appropriate range, and emergency shutdown can be performed.

[0107] Furthermore, a temperature sensor (122) is installed on the liquid storage tank (120) to sense the internal liquid temperature, so that the liquid temperature is maintained within an appropriate temperature range.

[0108] A touch screen (160) is installed on one side of the upper surface of the support housing (100), and device start or emergency shutdown, irradiation temperature adjustment, and the like can be performed, and information such as the liquid temperature, the water level, the compressor temperature, and the irradiation temperature of the liquid storage tank (120) can be displayed.

[0109] Furthermore, a main controller (PCB, 170) is preferably installed on the inner surface of the support housing (100) opposite the touch screen (160) to improve space utilization efficiency. In particular, the touch screen (160) and the main controller (170) are preferably installed on the back of the support housing (100) on the side of the heat dissipation fan (114) to avoid exposure to high temperatures.

[0110] The above-mentioned reference numeral 180 is a check valve, and 190 represents a flow switch. Through the flow switch (190), when no flow is detected during operation, it is determined that the device is abnormal, and an emergency shutdown function is performed for maintenance.

[0111] Furthermore, reference numeral 800 represents a liquid connecting pipe connecting the pump (130), the near-infrared light assembly (400), and the liquid storage tank (120). A wheel (140) is preferably installed at the lower end of the support housing (100) to facilitate transportation and movement.

[0112] Although the above embodiments are described primarily with respect to the user's head and face, they are equally applicable to various parts of the body, such as the abdomen, chest, or pelvis, of a user in a supine position.

[0113] Figure 12 Examples of the components, liquid lines, refrigerant lines, communication and electrical connection structures of the near-infrared body care device (1000) are shown. First, after the near-infrared body care device (1000) is started via the touch screen (160), the pump (130) delivers the liquid in the reservoir (120) to the near-infrared lamp assembly (400).

[0114] Then, the lamp unit (411) in the dual-tube lamp (410) constituting the near-infrared lamp assembly (400) is lit to provide illumination. Through the liquid flowing inside the dual-tube lamp (410), mid-infrared and far-infrared rays are filtered out, and only near-infrared rays are transmitted.

[0115] The liquid heated by the lamp unit (411) is discharged from the double-tube lamp (410) and flows to the liquid storage tank (120) for cooling. At this time, a coil-type evaporator (113) constituting the cooling section (110) is installed inside the liquid storage tank (120), and the liquid is rapidly cooled. The cooled liquid then flows back to the double-tube lamp (410) through the pump (130).

[0116] This cyclical method allows for continuous near-infrared irradiation of various parts of the user's body, such as the head, abdomen, or pelvis.

[0117] Furthermore, such as Figure 13 As shown, the portable near-infrared body care device (1000) of the present invention further includes: a biosensor unit (S) for detecting user health information; a smart bracelet or smartwatch (W) for receiving user health information detected by the biosensor unit so that the user can check their health status after wearing it; and a mobile communication terminal (T) with an application installed and configured to allow visual confirmation of the improved health status due to near-infrared treatment by the near-infrared body care device.

[0118] The biosensor unit (S) is installed inside the action frame (300) to capture images of the user's body (e.g., head) and can accurately confirm the user's health status based on artificial intelligence.

[0119] Figure 14 and Figure 15 The diagram illustrates the operation of a plurality of dual-tube lamps according to an embodiment of the present invention.

[0120] The near-infrared body care device (1000) according to the embodiment of the present application can irradiate near-infrared rays to a user using only at least one double-tube lamp (410) having excellent near-infrared ray transmission effect when irradiating near-infrared rays to the user using a plurality of double-tube lamps (410), thereby saving energy. To this end, the head frame (300) according to an embodiment of the present application can be provided with a plurality of distance sensing sensors (S). Each distance sensing sensor (S) is configured to sense the position of an object located in front of the front of the head frame (300), thereby sensing the distance between the distance sensing sensor (S) and the user's body and transmitting the same to the main controller (170). The main controller (170) determines the double-tube lamp (410) capable of irradiating near-infrared rays to the user with relatively high efficiency among the plurality of double-tube lamps (410) based on the distance information received from each distance sensing sensor (S), and improves power efficiency by turning on the determined double-tube lamp (410).

[0121] In the present embodiment, the distance sensing sensor (S) can be an ultrasonic sensor, but is not limited thereto. The operation of the plurality of double-tube lamps (410) in the embodiment in which the head frame (300) is formed in a bent shape will be examined below with reference to the operation of the main controller (170). Figure 14 and the operation of the plurality of double-tube lamps (410) in the embodiment in which the head frame (300) is formed in a flat shape will be examined below with reference to the operation of the main controller (170). Figure 15 , come.

[0122] Figure 14 (a) shows a state in which each distance sensing sensor (SV1, SV2, SV3, SH1, SH2, SH3) and each double-tube lamp (V1, V2, V3, H1, H2, H3) are installed on the same straight line. More specifically, Figure 14 (a) shows a state in which each distance sensing sensor (SV1, SV2, SV3, SH1, SH2, SH3) is installed on a plane perpendicular to the front of the head frame (300) and passing through the center line of each double-tube lamp (410). In an embodiment of the present application, each distance sensing sensor (SV1, SV2, SV3, SH1, SH2, SH3) is installed on the surface of the light transmission tube (413) of each double-tube lamp (410) and can sense the distance in the direction perpendicular to the front of the head frame (300). At this time, in consideration of the fact that the user generally positions the body near the center of the width of the head frame (300), each distance sensing sensor (SV1, SV2, SV3, SH1, SH2, SH3) is preferably installed at the middle point of the length of each double-tube lamp (410) for more accurate sensing of the user's position.

[0123] In another embodiment, the distance sensing sensors (SV1, SV2, SV3, SH1, SH2, SH3) can also be installed on one or both sides of the length direction of each double tube lamp (410). At this time, the distance sensing sensors (SV1, SV2, SV3, SH1, SH2, SH3) are installed on the area in front of the head frame (300) where the reflection bracket (310) is not installed, so that the heat transferred from the reflection bracket (310) can be minimized.

[0124] The distance sensing sensors (SV1, SV2, SV3, SH1, SH2, SH3) sense the distance between the distance sensing sensors (SV1, SV2, SV3, SH1, SH2, SH3) and the object located in front of the front of the head frame (300), and transmit to the main controller (170). The main controller (170) compares the distance value between the distance sensing sensors (SV1, SV2, SV3, SH1, SH2, SH3) and the object received from the distance sensing sensors (SV1, SV2, SV3, SH1, SH2, SH3) and the preset threshold distance. As a result of the comparison, the double tube lamp (410) matched with the distance sensing sensor (SV1, SV2, SV3, SH1, SH2, SH3) measuring a distance below the threshold distance is turned on to emit near-infrared rays.

[0125] Thus, the main controller (170) turns on and off the double tube lamp (410) by comparing the threshold distance value with the distance value actually sensed by the distance sensing sensors (SV1, SV2, SV3, SH1, SH2, SH3), so that the main controller (170) can be prevented from erroneously controlling the on / off of the double tube lamp (410) because the distance sensing sensors (SV1, SV2, SV3, SH1, SH2, SH3) sense the floor or the side wall of the space where the user is located, or other objects other than the user's body, as the user's body.

[0126] In an embodiment of the present application, the distance sensing sensors (SV1, SV2, SV3, SH1, SH2, SH3) can be matched one-to-one with the double tube lamps (410). For example, the distance sensing sensors (SV1, SV2, SV3, SH1, SH2, SH3) can be matched one-to-one with the double tube lamps (410) located on the same straight line. Therefore, the distance sensing sensor (SV1) is matched with the double tube lamp (V1), the distance sensing sensor (SV2) is matched with the double tube lamp (V2), the distance sensing sensor (SV3) is matched with the double tube lamp (V3), the distance sensing sensor (SH1) is matched with the double tube lamp (H1), the distance sensing sensor (SH2) is matched with the double tube lamp (H2), and the distance sensing sensor (SH3) is matched with the double tube lamp (H3), respectively.

[0127] Therefore, as Figure 14(a) As shown, among the plurality of distance sensing sensors (SV1, SV2, SV3, SH1, SH2, SH3), when the distance sensing sensors (SV1, SV2, SH1, SH2, SH3) sense a distance from the user's body to be below a threshold distance and the distance sensing sensor (SV3) senses a distance from the user's body to be above the threshold distance, the main controller (170) causes only the double-tube lamp (V1, V2, H1, H2, H3) to emit near-infrared rays, and the double-tube lamp (V3) does not emit near-infrared rays. This is because the double-tube lamp (V3) is relatively far from the user's body and cannot irradiate a sufficient degree of near-infrared rays to the user, and thus by keeping this double-tube lamp (410) which is relatively less efficient in terms of power consumption for the user to obtain near-infrared rays in an off state, power efficiency can be improved.

[0128] In another embodiment of the present application, each distance sensing sensor (SV1, SV2, SV3, SH1, SH2, SH3) can be matched one-to-many with double-tube lamps (410). For example, each distance sensing sensor (SV1, SV2, SV3, SH1, SH2, SH3) can be matched with double-tube lamps (410) located on the same line and adjacent double-tube lamps (410). Thus, the distance sensing sensor (SV1) is matched with the double-tube lamp (V1) and the double-tube lamp (V2), the distance sensing sensor (SV2) is matched with the double-tube lamp (V2), the double-tube lamp (V1), and the double-tube lamp (V3), the distance sensing sensor (SV3) is matched with the double-tube lamp (V3) and the double-tube lamp (V2), the distance sensing sensor (SH1) is matched with the double-tube lamp (H1) and the double-tube lamp (H2), the distance sensing sensor (SH2) is matched with the double-tube lamp (H2), the double-tube lamp (H1), and the double-tube lamp (H3), and the distance sensing sensor (SH3) is matched with the double-tube lamp (H3) and the double-tube lamp (H2), respectively.

[0129] Thus, as Figure 14As shown in (a), among multiple distance sensors (SV1, SV2, SV3, SH1, SH2, SH3), when the distance sensors (SV1, SV2, SH1, SH2, SH3) sense a distance below the threshold distance from the user's body, and when the distance sensor (SV3) senses a distance exceeding the threshold distance from the user's body, the main controller (170) can turn on the dual-tube lights (V1, V2, V3, H1, H2, H3) to make them emit near-infrared rays. That is, the main controller (170) causes all dual-tube lights (410) to illuminate the user with near-infrared rays. Thus, when each distance sensor (SV1, SV2, SV3, SH1, SH2, SH3) is matched with the dual-tube lamp (410) in a one-to-many manner, although the power efficiency may decrease slightly, compared with the case where each distance sensor (SV1, SV2, SV3, SH1, SH2, SH3) is matched with the dual-tube lamp (410) in a one-to-one manner, more near-infrared rays can be irradiated to the user, thereby enhancing the user's sense of touch.

[0130] In one embodiment of the present invention, the threshold distance used as the basis for determining the switching of each dual-tube lamp (410) can be set differently depending on the installation position of each distance sensing sensor (S). For example Figure 14 As shown in (a), when the head frame (300) is formed into a bent shape, the multiple distance sensing sensors (SV1, SV2, SV3, SH1, SH2, SH3) can be divided into vertical distance sensing sensors (SV1, SV2, SV3) that sense objects below with the front of the head frame (300) as a reference, and horizontal distance sensing sensors (SH1, SH2, SH3) that sense objects to the side. At this time, when the vertical distance sensed by the vertical distance sensing sensors (SV1, SV2, SV3) is below the vertical threshold distance, the main controller (170) turns on the dual-tube lights (410) matched with each vertical distance sensing sensor (SV1, SV2, SV3), and when the horizontal distance sensed by the horizontal distance sensing sensors (SH1, SH2, SH3) is below the horizontal threshold distance, it turns on the dual-tube lights (410) matched with each horizontal distance sensing sensor (SH1, SH2, SH3). In this embodiment, the vertical threshold distance and the horizontal threshold distance can be set to be different.

[0131] In the present embodiment, the vertical threshold distance can be equal to the distance between a plane parallel to the front face of the head frame (300) passing through the lowermost end of the head frame (300) and each vertical distance sensing sensor (SV1, SV2, SV3) installed on the head frame (300). On the other hand, the horizontal threshold distance can be equal to the distance between a plane parallel to the front face of the head frame (300) passing through the side end of the head frame (300) and each horizontal distance sensing sensor (SH1, SH2, SH3) installed on the head frame (300). That is, the main controller (170) can turn on at least one double tube lamp (410) only when the user's body is located in a space defined by the two faces of the front face of the bent head frame (300). Thus, the threshold distances of the vertical distance sensing sensors (SV1, SV2, SV3) and the horizontal distance sensing sensors (SH1, SH2, SH3) are set to be different from each other in order to correspond to various shapes of the head frame (300).

[0132] Figure 14 (b) shows a state in which each distance sensing sensor (SV1, SV2, SV3, SH1, SH2, SH3) and each double tube lamp (V1, V2, V3, H1, H2, H3) are alternately arranged according to another embodiment of the present application. Each distance sensing sensor (SV1, SV2, SV3, SH1, SH2, SH3) can be arranged to be spaced apart from each double tube lamp (410) in the circumferential direction of each double tube lamp (410). The sensing of an object by each distance sensing sensor (SV1, SV2, SV3, SH1, SH2, SH3) and the switching operation of the double tube lamp (410) according to the present embodiment are the same as those described with reference to Figure 14 (a) There are many similarities in the contents to be considered, and thus the following is described mainly with respect to the differences in order to avoid complicated description.

[0133] In an embodiment of the present application, each distance sensing sensor (SV1, SV2, SV3, SH1, SH2, SH3) is arranged on the front face of the reflection support (310) in the circumferential direction of each double tube lamp (410) and can sense a distance perpendicular to the direction of the front face of the head frame (300). At this time, in order to more accurately sense the position of the user, each distance sensing sensor (SV1, SV2, SV3, SH1, SH2, SH3) is preferably mounted on the reflection support (310) at the middle point of the width of the head frame (300), considering that the user generally arranges his or her body near the center of the width of the head frame (300). Of course, each distance sensing sensor (SV1, SV2, SV3, SH1, SH2, SH3) can be mounted on the outside of the reflection support (310) to minimally receive heat from the reflection support (310).

[0134] In an embodiment of the present application, each distance sensing sensor (SV1, SV2, SV3, SH1, SH2, SH3) is matched with one double tube lamp (410) one-to-one. For example, distance sensing sensor (SV1) is matched with double tube lamp (V1), distance sensing sensor (SV2) is matched with double tube lamp (V2), and distance sensing sensor (SV3) is matched with double tube lamp (V3) one-to-one. Distance sensing sensor (SH1) is matched with double tube lamp (H1), distance sensing sensor (SH2) is matched with double tube lamp (H2), and distance sensing sensor (SH3) is matched with double tube lamp (H3) one-to-one, respectively.

[0135] Therefore, as shown in FIG. 8, Figure 14 (b), when distance sensing sensor (SV1, SV2, SH1, SH2, SH3) senses a distance from the user's body to be below the threshold distance and distance sensing sensor (SV3) senses a distance from the user's body to be above the threshold distance among the plurality of distance sensing sensors (SV1, SV2, SV3, SH1, SH2, SH3), the main controller (170) causes only double tube lamps (V1, V2, H1, H2, H3) to emit near infrared rays, and double tube lamp (V3) does not emit near infrared rays. This is because double tube lamp (V3) is relatively far from the user's body and cannot irradiate a sufficient degree of near infrared rays to the user, and thus power efficiency can be improved by keeping such a double tube lamp (410) that is relatively inefficient in terms of power consumption for the user to obtain near infrared rays in a closed state.

[0136] In another embodiment of the present application, some of the plurality of distance sensing sensors (SV1, SV2, SV3, SH1, SH2, SH3) are matched with one double tube lamp (410) one-to-one, and the remaining are matched with two double tube lamps (410) one-to-two. For example, among the plurality of distance sensing sensors (SV1, SV2, SV3, SH1, SH2, SH3), distance sensing sensor (S) not disposed between two double tube lamps (410), i.e., distance sensing sensor (SV1) and distance sensing sensor (SH3), are matched with double tube lamp (V1) and double tube lamp (H3) one-to-one, respectively. However, the remaining distance sensing sensors (S) disposed between two double tube lamps (410), i.e., distance sensing sensor (SV2), distance sensing sensor (SV3), distance sensing sensor (SH1), and distance sensing sensor (SH2), are matched with two adjacent double tube lamps (410), respectively. In other words, distance sensing sensor (SV2) is matched with double tube lamp (V1) and double tube lamp (V2), distance sensing sensor (SV3) is matched with double tube lamp (V2) and double tube lamp (V3), distance sensing sensor (SH1) is matched with double tube lamp (H1) and double tube lamp (H2), and distance sensing sensor (SH2) is matched with double tube lamp (H2) and double tube lamp (H3).

[0137] Therefore, as shown in FIG. 8, Figure 14(b) As shown, when the distance sensing sensors (SV1, SV2, SV3, SH1, SH2, SH3) sense that the distance to the user's body is below the threshold distance, and the distance sensing sensor (SV3) senses that the distance to the user's body exceeds the threshold distance, the main controller (170) causes only the double-tube lamps (V1, V2, H1, H2, H3) to emit near-infrared rays, and the double-tube lamp (V3) does not emit near-infrared rays. This is because the double-tube lamp (V3) is relatively far from the user's body, and thus cannot irradiate the user with near-infrared rays to a sufficient degree, and thus by keeping this double-tube lamp (410) that is relatively inefficient in terms of the power consumed by the user in obtaining near-infrared rays turned off, power efficiency can be improved.

[0138] On the other hand, the user can also change his or her position relative to the head frame (300) during the irradiation of near-infrared rays from the head frame (300). For example, the user can move forward toward the head frame (300) to receive near-infrared rays at a closer distance, or can move backward away from the head frame (300) because of a feeling of heat on the skin. In order to more effectively use the plurality of double-tube lamps (410) in response to such movement of the user, the main controller (170) can control the on / off of each double-tube lamp (410) in response to changes in the distance sensing state of each distance sensing sensor (S).

[0139] The main controller (170) monitors the distance sensed by each distance sensing sensor (S) in real time during the operation of the near-infrared device (1000). Based on the monitoring results, when the distance sensing state of a certain distance sensing sensor (S) changes and is maintained for more than a first threshold time, the main controller (170) changes the on / off state of at least one double-tube lamp (410) matched to the distance sensing sensor. For example, when a distance sensing sensor (S) that originally sensed a distance of less than the threshold distance to the user senses a distance of more than the threshold distance to the user, and this sensing state is maintained for more than the first threshold time, the main controller (170) can turn off the double-tube lamp (410) matched to the distance sensing sensor (S).

[0140] Conversely, when a distance sensing sensor (S) that originally sensed a distance of more than the threshold distance to the user senses a distance of less than the threshold distance to the user, and this sensing state is maintained for more than the first threshold time, the main controller (170) can turn on the double-tube lamp (410) matched to the distance sensing sensor (S). In this way, by automatically controlling the actions of the plurality of double-tube lamps (410) in response to the movement of the user, the effectiveness of the near-infrared rays can be improved, and the satisfaction of the user can also be increased.

[0141] On the other hand, when the near-infrared device (1000) starts running, the main controller (170) can identify the user's initial position and efficiently switch multiple dual-tube lights (410). According to this embodiment, after the near-infrared device (1000) is powered on, the main controller (170) turns on the dual-tube lights (410) mapped by the distance sensing sensor (S) that senses a distance below a threshold distance for a period of time exceeding a second threshold time within a measurement reference time.

[0142] For example, when the measurement reference time is 3 seconds and the second threshold time is 2 seconds, the main controller (170) turns on the dual-tube lamp (410) matched by the distance sensing sensor (S) that has sensed a distance below the threshold distance for more than 2 seconds within 3 seconds after the power is turned on. At this time, the second threshold time does not need to be a continuous time, but is calculated based on the total time. The measurement reference time is set in this way when the near-infrared device (1000) starts running, and the threshold time is calculated in a discontinuous manner, i.e., discrete time, for measurement. This is because when the near-infrared device (1000) is initially running, the user often moves the device by touching it to adjust their posture or to operate the near-infrared device (1000), and continuous time measurement may not reflect the user's intention.

[0143] Figure 15 This diagram illustrates the operation of multiple dual-tube lights (410) in an embodiment where the head frame (300) is formed in a flat plate shape. In this embodiment, the diagram shows the matching of each distance sensor (S) with the dual-tube lights (410), the distance sensing of each distance sensor (S), and the switching and reference of the dual-tube lights (410) based thereon. Figure 14 Since the content described is the same, the following explanation will focus on the differences.

[0144] like Figure 15 As shown, the head frame (300) can be formed into a flat shape without bending. When the head frame (300) is formed into a flat shape, each of the multiple distance sensing sensors (S) senses the same direction, i.e., the user located in front of the head frame (300). When all distance sensing sensors (S) sense an object in the same direction, the main controller (170) can set the same threshold distance for all distance sensing sensors (S).

[0145] Thus, by having all distance sensing sensors (S) have the same threshold distance, the main controller (170) can efficiently irradiate near-infrared light onto the user's body located in a plane parallel to the front of the head frame (300) and separated from the front of the head frame (300) by a threshold distance, thereby enabling the execution of actions that are more in line with the user's intentions.

[0146] According to the near-infrared device (1000) of the embodiment, when multiple double-tube lamps (410) are used to irradiate near-infrared rays to a user, the double-tube lamp (410) capable of irradiating near-infrared rays to the user with higher efficiency is determined according to the distance between each distance sensing sensor and the user's body sensed by the multiple distance sensing sensors (S), and the determined double-tube lamp (410) is used to irradiate near-infrared rays to the user, thereby achieving the technical effect of improving power efficiency.

[0147] On the other hand, the lamp units (411) installed on the near-infrared body care device (1000) of the present application are usually arranged on the action frame (300) in multiple numbers, but in some cases, only one lamp unit (411) can be installed. In addition, as described above, the lamp unit (411) is usually tubular (double-tube), but can also be circular. The circular lamp unit will be described below. Figure 16 The circular lamp unit will be described below.

[0148] Figure 16 To show the perspective view and side view of the lamp assembly containing the circular lamp unit according to an embodiment of the present application.

[0149] According to an embodiment of the present application, the lamp assembly (400) can be a plate-type lamp (410-1) containing a circular lamp unit (411-1). In Figure 16 In the plate-type lamp (410-1), multiple lamp units (411-1) are contained, but in some cases, only one lamp unit (411-1) can be contained in the plate-type lamp (410-1) or the lamp assembly (400).

[0150] The lamp assembly (400) can include the circular lamp unit (411-1) and a filter. The filter can include a film (416) surrounding all the multiple lamp units (411-1) and a fluid (414-1) flowing around each of the multiple lamp units (411-1) between the action frame (300) and the film (416). Here, the fluid (414-1) can be a liquid or a gas.

[0151] Specifically, at least one or more lamp units (411-1) are arranged on the action frame (300) to cool the heat of the lamp units (411-1) and emit only a certain range of energy (near-infrared rays), and a fluid (414-1) can be disposed around the lamp units (411-1).

[0152] In addition, to guide the flow of the fluid (414-1) and prevent it from escaping, a film (416) can be installed on the action frame (300). As Figure 14 As shown in (b), the lamp unit (411-1) is installed on the action frame (300), and the fluid (414-1) can be located between the action frame (300) and the film (416).

[0153] The remaining systems (cooling system, etc.) of the plate lamp (410-1) containing the circular lamp unit (411-1) are identical in structure, so the description of the common parts is omitted.

[0154] Figure 17 To illustrate a perspective view of the linear action frame and lamp assembly according to an embodiment of the present invention, Figure 18 A perspective view of a portable near-infrared body care device with a cooling fan disposed at the lower part according to an embodiment of the present invention.

[0155] On the other hand, although the above-mentioned functional framework (300) is illustrated in an L-shaped bending form, it is not limited to this and can be formed by bending in various other forms.

[0156] like Figure 17 As shown, the near-infrared body care device (1000) of the present invention may also include a straight, non-bending action frame (300). It differs only in shape, but functions identically to the L-shaped bending form.

[0157] Furthermore, when viewed from a planar perspective, it is also possible to bend into a wide U-shape on the opposite side relative to the position of the connecting frame (200).

[0158] Furthermore, the aforementioned cooling fan (114) does not necessarily have to be located at the rear, such as Figure 18 The structure shown can also be located at the lower end of the support housing (100). In this case, it may be more advantageous in terms of cooling performance or space utilization.

[0159] The cavity-type near-infrared body care device (2000) of the present invention will be described below.

[0160] Figure 19 To illustrate a perspective view of a cavity-type near-infrared body care device according to another embodiment of the present invention, Figure 20 for Figure 19 Side view.

[0161] Reference Figure 19 and Figure 20 The cavity-type near-infrared body care device (2000) of the present invention has the technical features of including the following components: a base body (2100) supported on the ground and having a space for the user to lie down; a cover (2200) for opening and closing the base body (2100); and a near-infrared lamp assembly (400) installed inside the base body (2100) (e.g. Figure 1 As shown in the figure, it is configured to block far-infrared and mid-infrared rays in the emitted infrared rays and emit only near-infrared rays, which are then allowed to penetrate deeply into the subcutaneous tissue when the near-infrared rays are irradiated onto the skin.

[0162] The cover (2200) can be opened and closed stably by a damper (2201).

[0163] The base body (2100) includes a cooling module for circulating and cooling a liquid coolant for cooling the heat generated by the lamp unit (411), and the cooling module can selectively adopt a direct connection mode with tap water or a non-direct connection mode with tap water.

[0164] The bed-type near-infrared body care device (3000) according to the present application is described below.

[0165] Figure 21 A product photo of the bed-type near-infrared body care device according to another embodiment of the present application.

[0166] Figure 22 And Figure 23 A perspective view of the bed-type near-infrared body care device according to another embodiment of the present application.

[0167] Figure 24 A side view of the bed-type near-infrared body care device according to another embodiment of the present application, Figure 25 A front view of the bed-type near-infrared body care device according to another embodiment of the present application, Figure 26 A plan view of the operation control part in the bed-type near-infrared body care device according to another embodiment of the present application, Figure 27 An exploded perspective view of the bed-type near-infrared body care device according to another embodiment of the present application.

[0168] Figure 28 A plan view of the lamp unit mounting structure in the bed-type near-infrared body care device according to another embodiment of the present application, Figure 29 An exploded perspective view of the lamp unit mounting structure in the bed-type near-infrared body care device according to another embodiment of the present application. Figure 30 A perspective view of the main frame in the bed-type near-infrared body care device according to another embodiment of the present application.

[0169] Referring Figures 21 to 30 , the bed-type near-infrared body care device (3000) according to the present application has the technical features of including a bed body (3100) supported on the ground and on which a user can lie down, and a near-infrared lamp assembly (400) installed inside the bed body (3100) and configured to block far-infrared rays and medium-infrared rays in emitted infrared rays and emit only near-infrared rays, which deeply penetrate into subcutaneous tissue when the near-infrared rays are irradiated onto the skin.

[0170] The base body (3100) includes a cooling module for cooling the refrigerant used to generate heat in the lamp unit (411) by circulating and cooling the liquid. The cooling module can selectively adopt a direct connection to tap water or a non-direct connection to tap water.

[0171] The base body (3100) has front and rear frames (3102) installed in front and behind the main frame (3101), left and right frames (3103) installed on the left and right sides of the main frame (3101), and an upper side frame (3104) installed on the upper part.

[0172] An arc-shaped groove (3105) is formed on the upper frame (3104) to allow the user to lie stably. An operation control panel (3106) for switching on and off and controlling near-infrared therapy is installed on one side of the upper frame (3104).

[0173] The near-infrared lamp assembly (400) of the present invention is fixed by a lower fixing bracket (401) and arranged and stably positioned by an upper retainer (402).

[0174] The near-infrared lamp assembly (400) of the present invention has an internal dual-tube structure as follows: Figure 1 As shown, a double-tube lamp (410) is formed by an infrared emitting lamp unit (411) and a central tube (412) and a light transmission tube (413) that house the lamp unit (411) with a certain gap (G) between the inner and outer circumferences. The gap (G) between the central tube (412) and the light transmission tube (413) is filled with a refrigerant liquid (414) and allowed to flow. Double tube caps (417) are installed at both ends.

[0175] The effects of the near-infrared body care system according to the preferred embodiment of the present invention, as described above, are explained below.

[0176] Sunlight is called radiation, arranged by wavelength from long to short as infrared, visible light, ultraviolet, X-ray, etc. The influence of such radiation on the human body is related to the length of the wavelength. According to the simple energy law, the E=hv formula proposed by Planck has been widely used. h is Planck's constant, v is frequency, and λ is wavelength. The wavelength and frequency are inversely proportional. According to the formula v=1 / λ, the longer the wavelength, the smaller the frequency value. Conversely, the shorter the wavelength, the greater the frequency value. Therefore, the energy value of the radiation with a wavelength longer than the visible light intensity is correspondingly reduced, and the influence on the human body is also smaller. Visible light is the light that makes the things around us visible, and ultraviolet, X-ray and γ-ray, etc. release a large amount of energy due to short wavelength, which penetrates the human body and causes harm. For example, ultraviolet light cannot penetrate the skin due to its short wavelength and is mainly used for skin treatment, with a wavelength range of 200-400 nm. The wavelength of visible light (400-800 nm) is longer than that of ultraviolet light, allowing us to distinguish seven colors by wavelength. It can be said that the wavelength existing around us is completely harmless.

[0177] Infrared is divided into near-infrared with a wavelength of 0.76-1.5 microns, mid-infrared with a wavelength of 1.5-5.6 microns, and far-infrared with a wavelength of 5.6-1,000 microns. Among them, far-infrared with a wavelength of 6-16 microns is considered to be the most beneficial to our life. When the light emitted by the sun or a heat source is dispersed by a spectrometer, the infrared light is located outside the red spectrum at the end of the spectrum, and the shortest wavelength is near-infrared. Compared with ultraviolet, X-ray and γ-ray, infrared has a much longer wavelength, so it is completely harmless to the human body. Therefore, in recent years, infrared has been widely used in industrial and medical fields due to its stronger heat effect than visible light and ultraviolet.

[0178] In addition to the heat effect, near-infrared also has photographic, photoelectric, fluorescent effects, and uses photographic plates, photocells, phototubes, thermocouples, phosphors, etc. in detectors, and is also used for disinfection, sterilization, joint and muscle treatment.

[0179] In this way, all substances with heat will emit infrared, among which solar radiation is the most important natural source of infrared light, and about 60% of the amount of solar radiation is composed of infrared. The shorter wavelength of infrared is near-infrared, and the longer wavelength is far-infrared. Far-infrared penetrates the skin by about 2 mm, and near-infrared penetrates more than 10 mm to 40 mm, activating our life cells, which can be said to be the light of life.

[0180] In the past, natural therapy has been performed using such sunlight and light, but modern people have difficulty in accompanying nature in their busy lives, and thus it is difficult to obtain such effects. In particular, in a harmful environment of polluted air, water, various convenience food intake, stress, and the like, health is gradually lost. People also try to find a method of treating diseases and maintaining a healthy life from nature, and one of the methods is near-infrared rays as a natural light source of sunlight.

[0181] After light emitted from sunlight or a heating body is dispersed by a spectrum, outside the red spectrum end is infrared rays, and the shortest electromagnetic wave is near-infrared rays. In terms of wavelength, generally, 0.75 to 3 μm is near-infrared rays (NIR: IRA), 3 to 25 μm is infrared rays (IRB), and 25 μm or more is far-infrared rays (FIR: IRC).

[0182] Infrared rays are widely used in medical and industrial fields because of their stronger heat effect than visible light and ultraviolet rays, and are mainly used for disinfection, sterilization, joint and muscle treatment. In particular, near-infrared rays can penetrate 6 mm into the subcutaneous layer of the skin, have excellent heat transfer, can generate ATP and nitric oxide, and make a great contribution to disease treatment.

[0183] It is known that near-infrared rays have no side effects and are easy to use. Near-infrared rays can obtain skin beautifying effects, massage effects, neuralgia prevention effects, fatigue recovery effects, and contribute to health even if they are irradiated for only 10 minutes a day. In addition, NIR sunlight rays are mainly used for the treatment of wounds, burns, scars, and especially inflammation, and are also used for the treatment of bones, joints, muscles, and the like.

[0184] When absorbed by tissues, nitric oxide (NO) is released from vascular endothelial cells and red blood cells, and increases blood flow to tissues and relieves pain through oxidation. In addition, there are reports that it helps antibacterial and the like in tissues, and finally has excellent effects in accelerating wound healing.

[0185] In addition, the near-infrared rays emitted from the existing LED cannot extract a light amount sufficient to increase deep body temperature in a short time, and since the LED itself does not generate heat but artificially generates near-infrared rays wavelengths using other components, it cannot be actively used for treatment, and is only applied to simple skin improvement or muscle care, and the like.

[0186] Other existing products using halogen lamps have a disadvantage that light cannot be directly irradiated to the eyes during near-infrared ray treatment, particularly because blue light and light heat can cause serious problems to the eyes, but the near-infrared body care system of the present application uses a tungsten lamp, and has obtained the IEC (global safety certification agency) international safety standard IEC6271 certification for photobiology, and is particularly safe for the eyes and the human body.

[0187] On the other hand, Figure 31 and the like.Figure 32 To explain the penetration rate of near-infrared rays penetrating into subcutaneous tissue when the near-infrared rays are irradiated on the skin and the therapeutic effect on various diseases when the near-infrared rays are treated in the near-infrared ray body care system according to the present application.

[0188] In the near-infrared ray body care system according to the present application, a lamp unit emitting infrared rays is accommodated in the inside, a double tube lamp having a double tube cover installed at both end portions is formed with a gap between the inner and outer periphery by a central tube and a light transmission tube, a liquid (for example, water) for a refrigerant is filled in the gap between the central tube and the light transmission tube and is made to flow, and a filtering method using water as a medium, that is, a water filtering method is adopted to block far-infrared rays and mid-infrared rays among the infrared rays emitted from the lamp unit, so that only near-infrared rays are emitted from the outside of the double tube lamp, thereby making the near-infrared rays penetrate into subcutaneous tissue when the near-infrared rays are irradiated on the skin to achieve various health effects on the body.

[0189] Referring to Figure 31 and Figure 32 , the skin penetration rate of near-infrared rays is more than 12 times higher than that of far-infrared rays, and a very high intensity of heat can be applied to various diseases (for example, liver, diabetes, blood vessels, skin problems, cell activation, brain diseases, etc.) to achieve various health effects on the body.

[0190] The near-infrared ray body care system according to the present application has the following effects:

[0191] ① High-frequency cancer treatment combined treatment for various cancer and tumor patients

[0192] ② Immune-related treatment for chronic skin diseases and various allergies, etc.

[0193] ③ Blood circulation improvement treatment for spinal cord / brain damage, stroke, heart attack, etc.

[0194] ④ Detoxification (waste discharge), skin and hair management, and weight loss, etc. for beauty care

[0195] ⑤ Immune and heat treatment required for various disease treatment due to aging

[0196] ⑥ Treatment for male and female genital related diseases (prostate, menstrual diseases, etc.)

[0197] ⑦ Related treatment for muscle pain, inflammation, joints, and peripheral nerves, etc.

[0198] ⑧ Prenatal and postnatal (edema, depression, obesity, etc.) disease prevention and management for pregnant women

[0199] ⑨ Health care for various disease prevention due to insufficient immunity

[0200] On the other hand, the present application can have the following features.

[0201] The near-infrared lamp assembly (400) according to the present application includes: a lamp unit (411) emitting infrared rays; and a double-tube lamp (410) having a double-tube cover (417) installed at both end portions, in which the lamp unit (411) has a filament installed inside a glass body (411a), and an inert gas (e.g., nitrogen) is enclosed inside the lamp unit (411), and far-infrared rays and mid-infrared rays among the infrared rays emitted from the lamp unit (411) are blocked, and only near-infrared rays are emitted from the outside of the double-tube lamp (410), thereby being configured to penetrate deeply into subcutaneous tissue when the near-infrared rays are irradiated to the skin.

[0202] The near-infrared lamp assembly (400) according to the present application includes: a lamp unit (411) emitting infrared rays; and a double-tube lamp (410) having a double-tube cover (417) installed at both end portions, in which the lamp unit (411) has a filament installed inside a glass body (411a), and an inert gas (e.g., nitrogen) is enclosed inside the lamp unit (411), and far-infrared rays and mid-infrared rays among the infrared rays emitted from the lamp unit (411) are blocked, and only near-infrared rays are emitted from the outside of the double-tube lamp (410), thereby being configured to penetrate deeply into subcutaneous tissue when the near-infrared rays are irradiated to the skin.

[0203] On the other hand, a near-infrared body care system using the near-infrared lamp assembly according to the present application performs near-infrared treatment using the near-infrared lamp assembly (400), and has any one of technical features of a portable near-infrared body care device (1000), a cavity-type near-infrared body care device (2000), or a bed-type near-infrared body care device (3000).

[0204] First, the portable near-infrared body care device (1000) according to the present application includes: a support housing (100) supported on the ground; a connection frame (200) connected to one end of the support housing (100) and extendable upward of the support housing (100); and an action frame (300) connected to the other end of the connection frame (200) and having a function of the near-infrared lamp assembly (400).

[0205] The near-infrared lamp assembly (400) according to the present application includes: a lamp unit (411) emitting infrared rays; and a double-tube lamp (410) having a double-tube cover (417) installed at both end portions, in which the lamp unit (411) has a filament installed inside a glass body (411a), and an inert gas (e.g., nitrogen) is enclosed inside the lamp unit (411), and far-infrared rays and mid-infrared rays among the infrared rays emitted from the lamp unit (411) are blocked, and only near-infrared rays are emitted from the outside of the double-tube lamp (410), thereby being configured to penetrate deeply into subcutaneous tissue when the near-infrared rays are irradiated to the skin.

[0206] The lamp unit (411) has a filament installed inside a glass body (411a), is sealed with an inert gas (e.g. nitrogen), and emits only near infrared rays from the outside of the double-tube lamp (410) while blocking far infrared rays and mid infrared rays, thereby having a technical feature of deeply penetrating into subcutaneous tissue when the near infrared rays are irradiated to the skin.

[0207] The double-tube lamp (410) is configured to surround the outside of the lamp unit (411), to fill and flow a coolant liquid in a gap (G), and to cool the high-temperature heat emitted from the lamp unit (411), thereby effectively preventing skin scalding by preventing the high-temperature heat emitted from the lamp unit (411) from directly contacting the user's skin.

[0208] The support housing (100) includes a cooling module for circulating and cooling a coolant liquid for heat generated from the lamp unit (411) in a non-tap water direct connection manner (coolant liquid self-circulation manner), thereby making the movement and transportation of the near infrared ray body care device more convenient.

[0209] The cooling module includes a cooling portion (110) for receiving and cooling a liquid from the near infrared ray lamp assembly (400), a liquid storage tank (120) for storing the coolant liquid cooled by the cooling portion (110), and a pump (130) for receiving the liquid from the liquid storage tank (120) and pressure-feeding the liquid to the near infrared ray lamp assembly (400).

[0210] The cooling module prevents contamination inside the coolant liquid using a water filter.

[0211] In the portable near infrared ray body care device (1000) of the present application, the action frame (300) has a shape bent to the opposite side with respect to the position of the connection frame (200) when viewed from the planar or side surface, and a plurality of double-tube lamps (410) are installed on the side of the action frame (300) opposite to the position of the connection frame (200).

[0212] The bent lamp installation reflection support (310) is installed along the bent shape on the side of the action frame (300) opposite to the position of the connection frame (200), and the plurality of double-tube lamps (410) are installed side by side.

[0213] The lamp mounting reflection bracket (310) has a container shape open to a lamp in-out part (311) of the double tube lamp (410) for accommodating a plurality of the double tube lamps (410), flanges (312) are respectively formed on opposite sides of the lamp mounting reflection bracket (310) for inserting first liquid flow tubes (440) extending from both ends of the double tube lamp (410), and elastic support pieces (415) are respectively mounted on the bottom of the lamp mounting reflection bracket (310) for supporting near both ends of the double tube lamp (410).

[0214] In addition, in the portable near-infrared body care device (1000) of the present application, one side of the double tube lamp (410) is provided with a bending-shaped distribution tube (320) mounted along the bending shape when viewed from the side, and the distribution tube (320) is respectively mounted on the left and right sides of the double tube lamp (410) when viewed from the front, the inner side of each distribution tube (320) is formed with a plurality of second liquid flow tubes (321) extending in the direction of the first liquid flow tube (440), and a flexible tube (330) is connected between the first liquid flow tube (440) and the second liquid flow tube (321) at intervals.

[0215] A compressor (111) and a condenser (112) are mounted on the bottom of the support housing (100), a heat dissipation fan (114) is mounted on the side or bottom of the support housing (100), and the liquid storage tank (120) and a pump (130) for pressurizing the refrigerant liquid are mounted inside the support housing (100).

[0216] The compressor (111) and the condenser (112) are arranged in sequence from front to back in a state of being surrounded by a protection frame (150) having a slot-shaped cross section, the heat dissipation fan (114) is arranged opposite to the condenser (112) at the back of the support housing (100), and the liquid storage tank (120) and the pump (130) are placed at the upper end of the protection frame (150).

[0217] An evaporator (113) constituting the cooling part (110) is mounted inside the liquid storage tank (120).

[0218] The pump (130) sucks low-temperature liquid from the liquid storage tank (120) and supplies it to the double tube lamp (410), high-temperature liquid discharged from the double tube lamp (410) is supplied to the liquid storage tank (120) again, and is cooled by the evaporator (113).

[0219] A connection frame (200) connected to the support housing (100) and an action frame (300) connected to the other end of the connection frame (200) are configured to be horizontally rotatable and vertically rotatable.

[0220] First and second connection pipes (610) and (620) connected to the distribution pipe (320) are respectively extended on the left and right sides of the action frame (300) with the connection frame (200) as the center, and the other ends of the first and second connection pipes (610) and (620) are respectively connected to the support housing (100) and the liquid storage tank (120).

[0221] The connection frame (200) and the action frame (300) are detachably installed, and the first and second connection pipes (610) and (620) are detachably installed with the action frame (300).

[0222] Further, in the portable near-infrared body care device (1000) of the present application, a biosensor part (S) for detecting user health information, a smart bracelet or smart watch (W) for receiving the user health information detected by the biosensor part and allowing the user to check the health degree after wearing, and a mobile communication terminal (T) installed with an application program and configured to allow the health status improved by the near-infrared treatment of the near-infrared body care device to be confirmed by the naked eye are further included.

[0223] The biosensor part (S) is installed inside the action frame (300), photographs the user's body (for example, the head), and can accurately confirm the user's health status based on artificial intelligence.

[0224] The following describes the cavity type near-infrared body care device (2000) of the present application.

[0225] The cavity type near-infrared body care device (2000) of the present application has the technical features of including a base body (2100) supported on the ground and having a space part where the user can lie down, a cover (2200) for opening and closing the base body (2100), and a near-infrared lamp assembly (400) installed inside the base body (2100) and configured to block far-infrared rays and medium-infrared rays and emit only near-infrared rays in the emitted infrared rays, and to allow the near-infrared rays to deeply penetrate into the subcutaneous tissue when the near-infrared rays are irradiated on the skin.

[0226] The base body (2100) includes a cooling module for circulating and cooling the liquid coolant for cooling the heat generated by the lamp unit (411), and the cooling module can selectively adopt a direct connection mode with tap water or a non-direct connection mode with tap water.

[0227] The following describes a bed-type near-infrared body care device (3000) of the present application.

[0228] The bed-type near-infrared body care device (3000) has the technical features of comprising a bed body (3100) supported on the ground and on which a user can lie down, and a near-infrared lamp assembly (400) installed inside the bed body (3100) and configured to block far-infrared rays and mid-infrared rays in emitted infrared rays and emit only near-infrared rays, and to allow the near-infrared rays to penetrate deeply into subcutaneous tissue when the near-infrared rays are irradiated on the skin.

[0229] The base body (3100) includes a cooling module for circulating and cooling a liquid coolant to cool the heat generated by the lamp unit (411), and the cooling module can selectively use a tap water direct connection method or a non-tap water direct connection method.

[0230] The preferred embodiments of the present application are disclosed in the specification and drawings, although specific terms are used, but this is only for the convenience of describing the technical content of the present application and helping to understand the invention, and is not intended to limit the scope of the present application.

[0231] In addition to the embodiments disclosed herein, other modifications based on the technical idea of the present application can also be implemented, which is obvious to those skilled in the art to which the present application belongs.

Claims

1. A near-infrared body care device, comprising: A supporting shell that rests on the ground; A connecting frame that is connected at one end to the supporting housing and can extend upwards from the supporting housing; as well as A functional frame connected to the other end of the connecting frame and equipped with a near-infrared lamp assembly; in, The near-infrared lamp assembly includes multiple dual-tube lamps arranged on the working frame. Each of the aforementioned dual-tube lamps includes: The central tube that houses the lamp unit; The optical transmission tubes surrounding the central tube in a spaced-out manner; and The liquid flowing between the central tube and the light transmission tube; The supporting housing includes: A cooling section for receiving and cooling the liquid from the near-infrared lamp assembly; A liquid storage tank for containing the liquid cooled by the cooling unit; and A pump that receives liquid from the storage tank and pumps it to the near-infrared lamp assembly.

2. The near-infrared body care device according to claim 1, characterized in that, When viewed from a plane or side, the functional frame has a shape that bends to the opposite side relative to the position of the connecting frame, and multiple double-tube lights are mounted on the side of the functional frame opposite to the position of the connecting frame. A bent lamp mounting reflector is installed on the side of the functional frame opposite to the position of the connecting frame, along the bent shape, so that multiple dual-tube lamps are installed side by side.

3. The near-infrared body care device according to claim 2, characterized in that, The lamp mounting reflector has a container shape with an open lamp inlet / outlet portion facing the lamps for accommodating the plurality of dual-tube lamps. Mounting grooves for inserting first liquid flow pipes extending from both ends of the dual-tube lamps are formed on the flanges on opposite sides of the lamp mounting reflector. Elastic support plates supporting the vicinity of both ends of the dual-tube lamps are installed at the bottom of the lamp mounting reflector.

4. The near-infrared body care device according to claim 3, characterized in that, When viewed from the side, a distribution tube formed by bending is installed along the bending shape on the side of the functional frame where the double tube lamp is arranged. When viewed from the front, the distribution tubes are respectively installed on the left and right sides of the double tube lamp. Multiple second liquid flow tubes extending towards the first liquid flow tube are formed on the inner side of each distribution tube. A flexible tube is connected between the first liquid flow tubes and the second liquid flow tubes that are spaced apart from each other.

5. The near-infrared body care device according to claim 1, characterized in that, A compressor and a condenser are installed at the bottom of the support housing, a cooling fan is installed on the side of the support housing, and the liquid storage tank and a pump for pressurizing the liquid are installed inside the support housing.

6. The near-infrared body care device according to claim 5, characterized in that, The compressor and condenser are arranged sequentially from front to back, surrounded by a protective frame with a groove-shaped cross-section. Behind the supporting housing, the cooling fan is positioned opposite the condenser, and the liquid storage tank and pump are placed at the upper end of the protective frame.

7. The near-infrared body care device according to claim 5, characterized in that, An evaporator constituting the cooling section is installed inside the liquid storage tank.

8. The near-infrared body care device according to claim 7, characterized in that, The pump draws in cryogenic liquid from the storage tank and supplies it to the dual-tube lamp, while the high-temperature liquid discharged from the dual-tube lamp is supplied to the storage tank and cooled by the evaporator.

9. The near-infrared body care device according to claim 5, characterized in that, The connecting frame connected to the supporting shell and the function frame connected to the other end of the connecting frame are configured to be able to rotate horizontally and vertically.

10. The near-infrared body care device according to claim 9, characterized in that, On the functional frame, a first connecting pipe and a second connecting pipe extend from the left and right sides of the connecting frame, respectively, with one end connected to the distribution pipe. The other ends of the first connecting pipe and the second connecting pipe are respectively connected to the support shell and to the liquid storage tank.

11. The near-infrared body care device according to claim 10, characterized in that, The connecting frame and the functional frame are detachable, and the first connecting pipe and the second connecting pipe are detachable from the functional frame.

12. The near-infrared body care device according to claim 5, characterized in that, Also includes: A smart bracelet or smartwatch that can detect a user's health status after being worn; as well as A mobile communication terminal equipped with an application that allows for visual confirmation of improved health through the near-infrared body care device.

13. The near-infrared body care device according to claim 5, characterized in that, A camera is mounted on the functional frame facing the user's head.

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