KR101937662B1 - Cooling adipolysis device and adipolysis method using the same - Google Patents

Abstract

The present invention relates to a massage device which comprises a suction part including a space in which a subject is sucked, a heat exchanger for cooling a target object sucked in the suction part, a suction device for sucking and relaxing the target within the suction part, And a controller for controlling the operation of the heat exchanging element, the suction unit, and the exhaust unit, and a method of cooling a fat using the same. It is possible to prevent the object from being damaged by implementing the massage function through the intake unit and the exhaust unit.

Description

BACKGROUND OF THE INVENTION 1. Field of the Invention [0001] The present invention relates to a cooling lipolysis apparatus,

The present invention relates to a cooling fat dissolving device and a fat decomposing method using the same. More particularly, the present invention relates to a cooling lipolysis apparatus in which skin damaging prevention functions are implemented, and a lipolysis method using the same.

Recently, the incidence of adult diseases such as hyperlipidemia and diabetes due to hypernutrition or lack of exercise is increasing, and obesity is reported to be the cause of such adult diseases. Therefore, various artificial methods for improving obesity have been attempted. For example, surgical procedures such as appetite suppressants, drugs such as digestion / absorption inhibitors, and liposuction are being tried. However, improvement of obesity by the above-mentioned drug and surgical treatment can cause serious side effects and aftereffects to the subject, and it is a reality that the financial burden is very large.

Thus, a lipolysis device has been recently developed that directly induces the death of adipocytes by applying directly to the target site of the body. For example, the cooling pad contained in the fat decomposition apparatus may be locally contacted to the skin, and the cooling treatment may be continued for a predetermined period of time to reduce or kill fat cells. However, if the cooling process is continued, the skin of the subject may be damaged or a frost may occur, and a method or apparatus for mitigating this may be required.

For example, Korean Patent Laid-Open Publication No. 10-2016-0071508 discloses a cooling fat dissolving device. However, a method for improving the skin damage, frost, etc. of the subject is not disclosed.

Korean Patent Publication No. 10-2016-0071508 (June 26, 2016)

An object of the present invention is to provide a cooling fat dissolving device in which the skin protection function of a person to be applied is improved.

An object of the present invention is to provide a lipolysis method improved in the skin protection function of the subject.

Claims 1. A suction device for a vacuum cleaner, comprising: a suction part including a space in which a target object is sucked; a heat exchanger for cooling the target object sucked in the suction part; a suction port for sucking and relaxing the target within the suction part, A suction portion and an exhaust portion that perform a massage function, and a control portion that controls an operation of the heat exchange portion, the suction portion, and the exhaust portion.

2. The apparatus of claim 1, wherein the suction unit includes a first suction hole for suctioning the object, and a second suction hole for performing the massage function, wherein the discharge unit includes a second exhaust hole for loosening the object, And a second exhaust hole for performing the massage function.

3. The cooling fat dissolving apparatus according to claim 1, wherein a first vacuum pressure for adsorption of the object and a second vacuum pressure for performing the massage function are generated through the suction unit.

4. The cooling fat dissolving apparatus of claim 3, wherein the second vacuum pressure is smaller than the first vacuum pressure.

5. The cooling fat dissolving device according to 1 above, further comprising an ion generating portion combined with the suction portion.

6. The cooling fat dissolving apparatus according to claim 5, further comprising an ion generating electrode attached to the suction section and connected to the ion generating section.

7. The cooling fat dissolving device according to 6 above, wherein a negative electric potential is applied to the ion generating electrode through the ion generating portion.

8. The cooling fat-disintegration device of Claim 1, further comprising a pad disposed on the inside of the suction portion and in contact with the subject.

9. The cooling fat dissolving device of claim 8, wherein the pad comprises at least one of an in-phase preventing pad or a nutrition pad.

10. The cooling fat dissolving device of claim 9, wherein the nutritional pad comprises a vitamin preparation.

11. A method for adsorbing a cold body, comprising the steps of adsorbing a target object through a first vacuum pressure to the suction part of a cooling fat dissolver, cooling the adsorption site of the object by operating a heat exchanger of the cooling fat dissolving device, Performing massaging by alternately repeating intake and exhaust to and from the target body, and releasing the object from the suction portion.

12. The method of claim 11, wherein the second vacuum pressure is less than the first vacuum pressure.

13. The cooling fat dissolving method of claim 11, further comprising the step of generating ions through the ion generating portion of the cooling fat dissolving device to the surface of the suction portion or the inside of the suction portion.

14. The method of claim 13, wherein generating the ions comprises applying a negative potential to the ion generating electrode coupled to the suction section through the ion generating section.

15. The method of claim 13, further comprising feeding a nutritional formulation to the subject through a nutrition pad disposed inside the suction section.

The cooling fat dissolving device according to embodiments of the present invention includes a suction part and an exhaust part capable of performing a massage function together with a cooling fat dissolving operation. Therefore, massaging to the skin can be implemented without or with separate massage means or massaging devices. Therefore, it is possible to efficiently achieve the light weight, miniaturization, and economical efficiency of the apparatus while preventing damage to the skin of the skin during lipolysis.

In addition, it is possible to combine the ion generating part with the cooling fat dissolving device and realize the cosmetic and health effect of the fat dissolving target part through interaction with the nutrition pad in contact with the skin.

BRIEF DESCRIPTION OF THE DRAWINGS Figure 1 is a schematic cross-sectional view illustrating a cooling fat dissolving device in accordance with some embodiments of the present invention.
Figure 2 is a schematic cross-sectional view illustrating a cooling fat dissolving device in accordance with some embodiments of the present invention.
Figure 3 is a schematic cross-sectional view illustrating a cooling fat dissolving device in accordance with some embodiments of the present invention.
4 is a flowchart for explaining a cooling fat dissolving method according to embodiments of the present invention.

According to the embodiments of the present invention, the cooling fat decomposition apparatus comprises a suction section including a space in which a subject is sucked, a heat exchange section for cooling the target body sucked into the suction section, A suction unit and an exhaust unit that perform a massage function on the object through alternating repetitions of intake and exhaust, and a controller for controlling operations of the heat exchanger, the suction unit, and the exhaust unit. Further, a fat dissolving method in which the massage function utilizing the cooling fat decomposition apparatus is integrated is provided.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS The present invention will now be described in detail with reference to the accompanying drawings. While the following preferred embodiments of the present invention have been shown and described, it will be understood by those of ordinary skill in the art that various changes in form and details may be made without departing from the spirit and scope of the present invention as defined by the following claims. It will be obvious to those skilled in the art that such modifications and variations are within the scope of the appended claims.

FIGS. 1 to 3 are schematic sectional views showing a cooling fat dissolving device according to embodiments of the present invention. FIG.

1, a cooling fat dissolving apparatus 100 according to embodiments of the present invention includes a suction unit 110, a suction unit 120, an exhaust unit 130, a heat exchange unit 160, and a controller 150 ).

The suction unit 110 may include a space in which the object 50 is sucked and accommodated. For example, the suction portion 110 may have a socket or funnel shape. The subject 50 may be a target skin requiring lipolysis. The suction portion 110 may include a metal material that is not harmful to the skin.

In one embodiment, an in-phase guard pad 170 may be provided within the suction portion 110. The frost protection pad 170 can prevent the object 50 from coming into direct contact with the cooling unit 165 included in the suction unit 110 or the heat exchange unit 160. [ Accordingly, when cooling is performed for fat decomposition, the frost on the surface of the object 50 can be suppressed. The anti-frost pad 170 includes a skin-friendly material, for example, a gel-type shape in which a polymeric resin is added with a moisturizing component.

The suction part 120 and the exhaust part 130 are disposed on the upper part of the suction part 110 and can communicate with the inside of the suction part 110 through the suction hole 125 and the exhaust hole 135. For example, the suction hole 125 and the exhaust hole 135 may be provided on the ceiling surface of the suction portion 110.

The suction unit 120 can suck the target object 50 into the suction space of the suction unit 110 through vacuum suction by generating the vacuum pressure through the suction hole 125. The exhaust unit 130 discharges the vacuum pressure through the exhaust hole 135 while the object body 50 adsorbed to the suction unit 110 or the anti-frost pad 170 50 can be relaxed.

According to the embodiments of the present invention, the massaging operation can be performed through the suction unit 120 and the exhaust unit 130 together with the fat dissolving through the cooling drive. According to exemplary embodiments, after the first vacuum pressure is generated in the suction unit 120 to adsorb the object 50, the suction and the exhaust by the second vacuum pressure smaller than the first vacuum pressure are transmitted to the suction unit 120 and the exhaust unit 130, as shown in FIG. Accordingly, a massage operation with respect to the object 50 can be realized while the adsorption of the object 50 by the first vacuum pressure is maintained.

For example, the heat exchanging unit 160 is coupled to the side surface of the lower end of the suction unit 110, so that the cooling operation for the object 50 can be performed. 1, in an embodiment of the present invention, the heat exchanging unit 160 may include a thermoelectric element 163. For example, the heat exchanging part 160 may include a cooling part 165, a thermoelectric element 163, and a heat radiating part 161.

The thermoelectric element 163 may have a structure in which, for example, an n-type semiconductor and a p-type semiconductor are connected to each other. When a predetermined voltage is applied to the thermoelectric element 163 through the driving unit 155, for example, a Peltier effect in which heat is generated in the n-type semiconductor and heat is generated in the p-type semiconductor can be induced have. The object 50 is cooled by changing the polarity of the voltage to induce auto-killing of the adipocyte, and heat can be released through the heat dissipation unit 161.

The cooling part 165 may have a plate shape attached to one surface of the thermoelectric element 163 to be heat-exchanged. As described above, the in-phase prevention pad 170 is interposed between the object 50 and the cooling part 165, so that the in-phase of the surface of the object 50 can be suppressed.

In one embodiment, the cooling portion 165 may be rotatably attached to the inner surface of the suction portion 110. Further, in some embodiments, the heat exchange portion 160 may include a cooling water circulation unit, a heat pipe, and the like.

The driving unit 155 may be coupled to the thermoelectric element 163 to control the operation of the thermoelectric element 163. For example, a voltage may be applied to the thermoelectric element 163 through the driving unit 155 to induce the cooling drive. In one embodiment, after the cooling drive is performed for a predetermined time, the thermal drive for the object 50 may be performed by changing the polarity of the thermoelectric element 163.

The driving unit 155 may be connected to the sensing unit 140 disposed on the upper side of the suction unit 110, for example. In one embodiment, the sensing unit 140 may include a pressure sensing unit 142 and a moisture sensing unit 144. For example, it is determined whether the object 50 is adsorbed through the pressure sensing unit 142 and the moisture sensing unit 144, and an operation signal of the thermoelectric element 163 may be applied through the driving unit 155.

The control unit 150 is connected to the suction unit 120 and the exhaust unit 130 to drive the suction of the object 50 by the first vacuum pressure and the massage function by the second vacuum pressure, And control. The controller 150 may also be connected to the driver 155 to generate a voltage application signal for the heat exchanger 160.

Referring to FIG. 2, in the cooling fat dissolving apparatus 200, the adsorption / relaxation action of the object 50 and the massage function for the object 50 can be driven through different vacuum holes. According to exemplary embodiments, the suction hole includes a first suction hole 125a and a second suction hole 125b, and the exhaust hole includes a first exhaust hole 135a and a second exhaust hole 135b can do. The first and second suction holes 125a and 125b may be connected to the suction unit 120 and the first and second exhaust holes 135a and 135b may be connected to the exhaust unit 130 together.

The adsorption / relaxation of the object 50 can be performed through the first suction hole 125a and the first exhaust hole 135a, for example, through the first vacuum pressure, and the second suction hole 125b and the second suction hole 125b, The massage operation through the intake / exhaust alternation repetition by the second vacuum pressure smaller than the first vacuum pressure can be performed through the second exhaust hole 135b, for example.

Referring to FIG. 3, the cooling fat dissolving apparatus 300 may further include an ion generating unit 180. According to exemplary embodiments, the ion generating unit 180 is connected to the control unit 150 through the driving unit 155, for example, the ion generating electrode 190 coupled to the lower end of the suction unit 110, .

When the ion generating drive is selected through the controller 150, the potential may be applied to the ion generating electrode 190 through the driving unit 155 and the ion generating unit 180. In some embodiments, a negative potential may be applied to the ion generating electrode 190. Therefore, a negative charge or an anion may be discharged to the surface of the suction portion 110 or the space inside the suction portion 110.

The waste material contained in the object body 50 generally has a positive electric potential, and thus the waste matter can be released from the object body 50 through attraction by the negative electric potential induced by the ion generating unit 180.

In one embodiment, nutrient pads 175 may be affixed to the bottom surface of the anti-frost pad 170. Nutritive pad 175 may be a gel-type pad that includes a nutritional formulation, such as, for example, a vitamin formulation.

Since the vitamin preparation generally has a negative charge, the vitamin preparation can more effectively penetrate the surface or inside of the object 50 through the repulsive force by the negative potential induced by the ion generating unit 180.

In one embodiment, the anti-frost pad 170 and the nutrition pads 175 may be provided as a substantially monolithic unitary member.

The cooling fat dissolving device according to the above embodiments can realize the massage function through the suction / exhaust operation without adding a separate massage device and motor driving. Therefore, it is possible to perform the massaging operation integrated with the fat dissolving operation while minimizing the impact applied to the target body 50. In addition, skin health and cosmetic effects of the object 50 can be obtained through interaction of ion generation and nutrition pads.

4 is a flowchart for explaining a cooling fat dissolving method according to embodiments of the present invention. Hereinafter, the cooling fat dissolving method shown in Fig. 3 will be exemplarily described with reference to the cooling fat dissolving apparatus, but the cooling fat dissolving apparatus shown in Figs. 1 and 2 may also be utilized.

Referring to Fig. 4, for example, in step S10, the suction portion 110 of the cooling fat-disassembling device 300 is disposed so as to be in contact with the target body 50. The object 50 may be in contact with the in-phase-preventing pad 170, and the bottom surface of the in-phase-preventing pad 170 may be attached with a nutrition pad 175 containing, for example, a vitamin preparation.

In step S20, the controller / driver can be set. For example, conditions for driving the suction unit 120, the exhaust unit 130, and the heat exchange unit 160 may be set in the control unit 150 and / or the driving unit 155. [ The conditions include target values of the pressure value in the suction part 110 measured through the pressure sensing part 142 and the humidity value in the suction part 110 measured through the water sensing part 144 can do. In addition, the time and temperature of the adsorption and cooling of the object 50 can be set in the controller 150.

For example, in step S30, whether or not the massage function is performed can be determined. When the massage function is selected as "OFF ", the target body 50 can be sucked by vacuum suction into the suction part 110 in step S40. For example, the object 50 can be sucked into the suction portion 110 in a state in which the object 50 is in contact with the in-phase-preventing pad 170 or the nutritive pad 175. In some embodiments, the suction drive of the object 50 may be performed by the first vacuum pressure through the suction portion 120. [

Then, in step S50, the cooling drive and the ion supply may be performed. According to exemplary embodiments, a voltage is applied to the thermoelectric element 163 included in the heat exchanging unit 160 through the driving unit 150, and the cooling operation for the object 50 is started through the cooling unit 165 . In addition, for example, a negative potential can be applied to the ion generating electrode 190 through the ion generating portion 180. [ As described above, the waste matter on the surface of the object 50 is discharged by the electric attraction, and the nutritional preparation (e.g., vitamin preparation) contained in the nutritious pad 175 is discharged into the object 50 Can be absorbed.

If the fat dissolving operation is performed for a predetermined period of time through the cooling drive, the object 50 may be relaxed through the evacuation of the exhaust through the evacuation unit 130 in step S60.

In one embodiment, when the massage function is selected as "ON" in step S30, the massaging operation may be performed together with the cooling drive in step S55 performed after the attraction drive in step S45.

For example, the massage driving can be performed by the suction / exhaust repetition of the second vacuum pressure smaller than the first vacuum pressure. In some embodiments, as described with reference to FIG. 2, a suction hole and an exhaust hole for massage driving may be separately provided.

100, 200, 300: cooling lipolysis device
110: Suction part 120: Suction part
125: suction hole 125a: first suction hole
125b: second suction hole 130: exhaust part
135: exhaust hole 135a: first exhaust hole
135b: second exhaust hole 140: sensing part
142: pressure sensing unit 144: water sensing unit
150: control unit 155:
160: heat exchanger 161:
163: thermoelectric element 165: cooling part
170: frostbite pad 175: nutrient pad
180: ion generating unit 190: ion generating electrode

Claims (15)

A suction part including a space in which the object is sucked;
A heat exchanger disposed on a side surface of the suction portion and cooling the object sucked into the suction portion;
A suction unit and an exhaust unit that performs lipolysis in a state in which the subject is sucked through absorption and relaxation of the object in the suction unit and alternately repeats intake and exhaust, and performs a massage function on the subject; And
And a control unit for controlling operations of the heat exchanging unit, the suction unit, and the exhaust unit,
Wherein the suction unit includes a first suction hole for suctioning the object and a second suction hole for performing the massage function,
Wherein the exhaust unit includes a first exhaust hole for loosening the object and a second exhaust hole for performing the massage function,
Wherein the first suction hole and the first exhaust hole generate a first vacuum pressure to perform adsorption and relaxation of the object, and the second suction hole and the second exhaust hole form a second vacuum pressure smaller than the first vacuum pressure And the massage operation is performed by alternately repeating the suction and the exhaust by the cooling oil decomposition device.
delete delete delete The cooling fat dissolving device according to claim 1, further comprising an ion generating portion coupled with the suction portion.
The cooling fat dissolving apparatus according to claim 5, further comprising an ion generating electrode attached to the suction section and connected to the ion generating section.
7. The cooling fat dissolving apparatus according to claim 6, wherein a negative potential is applied to the ion generating electrode through the ion generating section.
The cooling fat dissolving apparatus according to claim 1, further comprising a pad disposed inside the suction section and in contact with the object.
9. The cooling fat dissolution device of claim 8, wherein the pad comprises at least one of an in-phase protection pad or a nutrition pad.
The cooling lipolysis apparatus according to claim 9, wherein the nutrition pad comprises a vitamin preparation.
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