KR20200067031A - Combinational operating patch - Google Patents

Abstract

A composite treatment patch is disclosed. According to one aspect of the present invention, disclosed is a composite treatment patch which includes: a patch body in which a penetration hole is formed on a bottom surface opposite to a treatment site of a subject; a circuit board disposed inside the patch body; a light irradiation unit mounted on the circuit board to correspond to the position of the penetration hole to irradiate light to the treatment site through the penetration hole; and a heat transfer unit that is disposed on the bottom surface of the patch body and is made of a thermally conductive material to provide heat generated by the light irradiation unit to the treatment site.

Description

Complex procedure patch {COMBINATIONAL OPERATING PATCH}

The present invention relates to a composite treatment patch, and more particularly, to a light/heat composite treatment patch in which a light treatment and a heat treatment can be performed simultaneously.

In general, an external preparation called pars or a pain patch is a medicine that is attached to the human body and has the purpose of alleviating pain in the affected area. The parse is made in the form of a band coated with the parse liquid mixed with the adhesive liquid, and is used by attaching it to the affected area during use. The parsing agent includes warming or cold compressing according to the composition or type of the applied parsing liquid, and recently, a type in which a magnet or saliva is disposed in the center for a higher blood flow improvement effect is also available.

These pars cause side effects such as skin problems caused by insufficient adhesion of the applied adhesive or pars, air circulation when attached, large and small burns, and skin rashes and wrinkles. In particular, there is a problem in that it is difficult to use due to these side effects to people with congenital weak skin or children. In addition, general pars has only a limited effect, not a fundamental treatment, and most of them have to be used for disposable use, so there is a disadvantage in that they are not environmentally friendly with a cost burden during long-term use.

On the other hand, low level laser (LLL) has various effects such as pain relief, blood flow improvement, blood flow enhancement, skin regeneration, cell activation, fat breakdown, and cell stimulation according to a specific wavelength range. Is known through. Compared to high-power lasers used for the purpose of destruction, intentional damage or necrosis of skin tissues, low-power lasers over the 600nm wavelength band with a relatively low power of less than 100mW are relatively safe yet have the effect of promoting metabolism, activating cells, and boosting immunity. It has a function of restoring damaged cell tissue. In particular, it is known that selectively irradiating a low-power laser with a wavelength of 800 nm or more to acupuncture points exerts an effect such as acupuncture or moxibustion treatment, thereby alleviating pain in the skin and muscles and promoting the cure of the affected area.

Republic of Korea Patent Registration Publication No. 10-1107856 (2012. 01. 31. announcement)

The present invention is to provide a composite treatment patch that can be implemented simultaneously with light treatment using light and heat treatment using heat.

According to an aspect of the present invention, a patch body in which a transmission hole is formed on a bottom surface opposite to a treatment site of a person to be treated, a circuit board disposed inside the patch body, and mounted to correspond to the position of the transmission hole in the circuit board, through the transmission hole A composite treatment patch is provided that includes a light irradiation unit that irradiates light to the treatment site, and a heat transfer unit that is disposed on the bottom surface of the patch body and is made of a thermally conductive material to provide heat generated by the light irradiation unit to the treatment site.

The heat transfer unit may include a plate-shaped member disposed to face the treatment site.

A through-hole is formed in the heat transfer unit to correspond to the position of the through-hole, and the light irradiation unit may irradiate light to the treatment site through the through-hole and through-hole.

The light irradiation unit may be inserted into the through hole and through hole.

The light irradiation unit may be fitted to the through hole forcibly.

The end of the light irradiation unit may be located on the same side as the surface of the heat transfer unit.

The heat transfer unit is formed to be in contact with the light irradiation unit, and can directly receive heat generated by the light irradiation unit.

The heat transfer unit may be formed with a protrusion protruding toward the light irradiation unit and directly contacting the light irradiation unit.

The heat transfer unit can have a larger weight than the patch body.

The composite treatment patch may further include a heat dissipation unit installed inside the patch body for heat dissipation of the light irradiation unit.

The heat dissipation unit may include a plate-shaped member disposed between the circuit board and the heat transfer unit.

In the heat dissipation unit, an accommodation hole is formed to correspond to the position of the transmission hole, and the light irradiation unit may be inserted into the accommodation hole.

The light irradiation unit can be fitted to the receiving hole forcibly.

According to the present invention, there is provided a composite treatment patch capable of simultaneously implementing light treatment using light and heat treatment using heat.

1 is an exploded perspective view showing a composite surgical patch according to an embodiment of the present invention.
Figure 2 is a bottom view showing a composite treatment patch according to an embodiment of the present invention.
Figure 3 is a view showing a treatment type for each indication of the complex treatment patch according to an embodiment of the present invention.
Figure 4 is a cross-sectional view showing a composite treatment patch according to an embodiment of the present invention.
Figure 5 is a cross-sectional view showing a composite treatment patch according to another embodiment of the present invention.

The present invention can be applied to various transformations and may have various embodiments, and specific embodiments will be illustrated in the drawings and described in detail in the detailed description. However, this is not intended to limit the present invention to specific embodiments, and should be understood to include all conversions, equivalents, and substitutes included in the spirit and scope of the present invention. In the description of the present invention, if it is determined that a detailed description of known technologies related to the present invention may obscure the subject matter of the present invention, the detailed description will be omitted.

Terms such as first and second may be used to describe various components, but the components should not be limited by the terms. The terms are used only for the purpose of distinguishing one component from other components.

The terms used in this application are only used to describe specific embodiments, and are not intended to limit the present invention. Singular expressions include plural expressions unless the context clearly indicates otherwise. In this application, terms such as “include” or “have” are intended to indicate the presence of features, numbers, steps, actions, components, parts, or combinations thereof described in the specification, one or more other features. It should be understood that the existence or addition possibilities of fields or numbers, steps, operations, components, parts or combinations thereof are not excluded in advance.

Hereinafter, an embodiment of the composite procedure patch according to the present invention will be described in detail with reference to the accompanying drawings, and in describing with reference to the accompanying drawings, identical or corresponding components are assigned the same reference numbers and overlapped therewith. The description will be omitted.

According to this embodiment, as a complex treatment patch 100 for providing light and heat, such as a laser, to a treatment site of a person being supported by being adhered to and supported by a treatment site of a person to be treated, a patch body as shown in FIGS. 1 to 4 110, a circuit board 120, a light irradiation unit 130, a heat transfer unit 140, a heat dissipation unit 150, including a vibration unit 160, a battery 170, and an operation switch 190 Composite procedure patch 100 is presented.

According to the present exemplary embodiment, the composite treatment patch 100 is configured in a relatively small size plate shape so that the treatment can be performed on the topical region, and a plurality of composite treatment patches 100 are suited to the type of treatment required and the desired local region. Can be used in combination.

In addition, compared to existing pars and pain patches, treatments such as pain relief, blood flow improvement, blood flow strengthening, skin regeneration, cell activation, fat breakdown, and cell stimulation can be performed on light without skin problems such as skin rash, allergy, and burns. It can be performed more effectively, and compared to the existing pars or pain patches, self-treatment of the same effect is possible without additional cost for a long time.

Furthermore, in the case of the present embodiment, the heat transfer unit 140 is installed on the bottom surface of the patch body 110 to enable heat treatment using the heat of the light irradiation unit 130, thereby allowing light treatment and heat by the light irradiation unit 130. The thermal treatment by the delivery unit 140 can be made in a complex manner.

The complex procedure patch 100 according to the present embodiment may be configured with a charger and a set for charging.

The complex treatment patch 100 may irradiate a relatively low-power laser, that is, a low-level laser (LLL) to the treatment site. For example, the composite procedure patch 100 may irradiate a low power laser of about 100 mW, 80 mW, or 5 mW or less.

The composite procedure patch 100 may have a thin disk shape of a relatively small size. In addition, it may be made of a square plate shape, a disc shape, an oval, or the like.

A plurality of the complex procedure patch 100 is provided in a single package, and the person performing the procedure can perform various purposes by combining the plurality of complex procedure patches 100 in various ways.

The charger is a configuration for charging the composite procedure patch 100, it is possible to charge a number of composite procedure patch 100 at a time. The charger may be composed of a cradle provided with a seating groove and a charging terminal formed thereon.

A plurality of seating grooves having a shape corresponding to the shape of the composite treatment patch 100 may be formed on the upper surface so that the multiple treatment procedure patches 100 are at least partially inserted and mounted on the cradle.

A charging terminal is formed on each bottom surface of the seating groove to allow charging of the composite treatment patch 100. The charging terminal may be electrically connected to the battery 170 of the composite procedure patch 100 to supply external power to the battery 170.

On the other hand, such a composite procedure patch 100 may further include a smartphone app that can be used in conjunction with or linked thereto. The smartphone app may include various types of smartphones and user applications implemented in various mobile devices including the same. The smartphone app can provide user membership, product introduction, personalized procedure guidance, personal procedure history management, linkage and linkage with the product, control of the procedure, product promotion, and procedure cycle and appropriate usage guidance.

In addition, the complex treatment patch 100 may be adhered to and fixed to the skin of the patient through a separate fixing means. The composite procedure patch 100 may be supported on the treatment site of the person to be treated by an elastic band or the like. In this case, the elastic band is coupled to both ends of a separate support frame and can be wound around the human body of the subject, and the complex procedure patch 100 can be mounted on the support frame and fixed to the subject's procedure.

In addition, the composite treatment patch 100 may be attached to the skin of the patient by an adhesive tape. The adhesive tape may be provided in a form having adhesive properties on both surfaces such that one surface is attached to the light irradiation surface of the composite treatment patch 100 and the other surface is attached to the body. The adhesive tape may be made of a transparent material so as not to interfere with the transmission of the irradiated light of the composite treatment patch 100. Alternatively, the adhesive tape may be provided in a form in which a perforation is formed in a portion of an irradiation path of light.

Hereinafter, each configuration of the composite procedure patch 100 according to the present embodiment will be described in more detail with reference to FIGS. 1 to 4.

The complex treatment patch 100 includes a patch body 110, a circuit board 120, a light irradiation unit 130, a heat transfer unit 140, a heat dissipation unit 150, a vibration unit 160, a battery 170, And an operation switch 190.

The patch body 110 may be formed of an upper body 112 including a button portion 113 and a lower body 114 as shown in FIG. 1. The inner space divided by the combination of the upper body 112 and the lower body 114 includes a circuit board 120, a light irradiation unit 130, a heat dissipation unit 150, a vibration unit 160, a battery 170, And parts such as the operation switch 190 may be installed / placed. In addition, a heat transfer unit 140 may be installed on the bottom surface of the lower body 114.

A button portion 113 may be installed on the upper body 112 as shown in FIG. 1. The button unit 113 is movably installed with respect to the upper body 112 to enable operation of the operation switch 190 under the button unit 113.

The operation switch 190 may be mounted on the circuit board 120 coupled to the patch body 110 as shown in FIG. 1. The operation switch 190 may adjust the ON/OFF of the complex treatment patch 100 and the operation modes of the plurality of light irradiation units 130. That is, it is possible to control the power of the complex treatment patch 100 by using the operation switch 190, as well as to individually control the operation of each light irradiation unit 130, so that the operation mode can also be controlled.

Meanwhile, a lamp and a buzzer unit may be installed adjacent to the operation switch 190. As described above, the lamp and the buzzer unit generate different colors and sounds according to ON/OFF and control of the operation mode of the complex treatment patch 100 according to the operation of the operation switch 190 to generate a different color and sound, thereby providing the complex treatment patch ( 100).

The through hole 116 may be formed on the bottom surface of the patch body 110, more specifically, the lower body 114 that faces the operator's treatment site. Since the light irradiation units 130 may be disposed in the transmission holes 116, lasers may be irradiated toward the treatment site through the transmission holes 116.

As shown in FIG. 2, one through-hole 116 may be additionally formed in the center, and four radially symmetrical around the center. In addition, a heat transfer unit 140 may be installed on the bottom surface of the lower body 114.

The circuit board 120 may be disposed to face the bottom surface of the patch body 110 inside the patch body 110 as shown in FIG. 1. Each component such as a light irradiation unit 130, a vibration unit 160, an operation switch 190, a touch sensing sensor, a charging electrode, a buzzer unit, and a lamp may be mounted and electrically connected to the circuit board 120. In addition, a control unit (not shown) is mounted on the circuit board 120 to control the operation of each of the components.

The light irradiation unit 130 is mounted on the bottom surface of the circuit board 120 to correspond to the position of the transmission hole 116 as shown in FIGS. 1 and 2, such as a laser to the treatment site through the transmission hole 116 Light can be irradiated. Five light irradiation units 130 may be installed and may be mounted on the circuit board 120 by being positioned to correspond to the positions of the five transmission holes 116 as shown in FIG. 1.

The light irradiation unit 130 may include elements that emit low power light having a relatively low output value of 100 mW or less. As an example, the light irradiation unit 130 may use a plurality of low power laser diodes that generate a low level laser (LLL) of approximately 100 mW or less. As another example, the light irradiation unit 130 may be an LED (LED) device of approximately 100mW or less. These low-power optical devices may vary in the depth of penetration of the skin and the desired amount of penetration into the skin according to wavelength range or light output intensity and irradiation diameter conditions.

In particular, among low-power light, a low-power laser is a phototherapy technology called a cold laser, and has various effects such as pain relief, blood flow improvement, blood flow strengthening, cell activation, lymph node stimulation, edema relief, and skin irritation. It is known to exert, and this effect is exerted in a low power laser of a specific wavelength. For example, lasers in the wavelength range of approximately 630 nm to 680 nm exhibit pain relief, lymph node stimulation, edema relief, and cell activation, and lasers in the wavelength range of approximately 780 nm to 990 nm may exhibit blood flow improvement, blood flow enhancement, cell activation, and the like. .

In the case of the present embodiment, the light irradiation unit 130 disposed at the center mainly aims at pain relief, and for this purpose, a laser diode of a wavelength range of 630 nm to 680 nm is used, and radially at four corners around the central light irradiation unit 130. The arranged light irradiation unit 130 is mainly aimed at improving blood flow, and for this purpose, a laser diode having a wavelength of 780 nm to 990 nm is used.

As a more specific example, as shown in Figure 3 (a), when the indication (for example, the purpose of use) is the relief of pain in the wrist (or tendonitis) and elbow pain, the output of low power light is set to 40 mW, and a timer After setting to 30 minutes by manipulating, the complex procedure patch can be operated. Then, by using a plurality of complex treatment patch 100, it can be sequentially attached to the target skin position according to the treatment method and the procedure image guided through the smartphone app.

Here, the indications shown in FIG. 3(b) are knee pain and ankle sprains, the indications shown in FIG. 3(c) are shoulder pain and stiff shoulders, and the indications shown in FIG. 3(d) are stiff neck or stiff neck and sore throat Symptoms, indications shown in Figure 3 (e) may be sciatica and back pain. The smart phone app guides the user to FIGS. 3(a) to 3(e) and a picture, and the user can perform personalized self-treatment through the procedure guide. This treatment method is a technique that combines the technique of both low-power light with the moxibustion and acupuncture principles of oriental medicine, placing the complex treatment patch 100 on the blood spot for each of the major indications guided by the smartphone app, and conducting professional treatment by itself. It can be done.

Meanwhile, a lens for diffusion of irradiated light may be further provided in the transmission hole of the lower body. As an example, a lens may be provided to reduce the straightness of light that the laser usually has, and to diffusely irradiate a wider area into the human body. To this end, a convex lens may be used as the lens, and accordingly, light passing through the transmission hole may diffuse through the lens and penetrate into a relatively wide human body part. This may be suitable for the purpose of use, i.e., pain relief, lymph node irritation, edema relief, skin irritation, etc., where it is advantageous to irradiate light over a relatively large area.

As another example, a lens can be provided to maintain or enhance the straightness of light. To this end, a concave lens may be used as a lens or a general transmission plate may be used, and accordingly, light passing through the transmission hole may be concentrated or maintained after passing through the lens and penetrate into a relatively narrow human body part. This may be suitable for purposes such as improving blood flow, enhancing blood flow, and activating cells, where it is advantageous to focus light on a relatively narrow area.

Electricity for the operation of the light irradiation unit 130 described above may be supplied through the built-in battery 170. The battery 170 may be disposed inside the patch body 110, specifically, on the upper surface of the circuit board 120 as shown in FIG. 1 to supply electricity to the light irradiation unit 130.

As the battery 170, a rechargeable rechargeable battery may be used, and the battery 170 may be electrically connected to a charging electrode formed on the circuit board 120. When the composite treatment patch 100 is mounted on the charger, the charging terminal inside the seating groove is connected to the charging electrode of the composite treatment patch 100, so that the battery 170 can be charged from an external power source.

The light irradiation unit 130 as described above emits a lot of heat to the outside when generating a laser. In this way, the self-heat of the light irradiation unit 130, which is generated in a large amount, can be actively utilized to allow the heat treatment to be combined with the light treatment.

The heat transfer unit 140 is disposed on the bottom surface of the patch body 110 and is made of a thermally conductive material, as shown in FIGS. 1, 2 and 4, to be treated with the heat generated by the light irradiation unit 130 Can be provided as

The heat transfer unit 140 may be made of a thermally conductive material having excellent thermal conductivity and a greater weight than the patch body. The patch body 110 may be made of a plastic material that satisfies biocompatibility, whereas the heat transfer unit 140 has thermal conductivity, such as, for example, stainless steel, aluminum, copper, and the like, but is less than the patch body 110. It is made of a material having a large weight, for example, a metal material, so that the weight of the composite treatment patch 100 is increased as a whole, so that the composite treatment patch 100 is pressed against the skin to be more closely adhered to the skin.

The heat transfer unit 140 may be a plate-shaped member disposed to face the treatment site. More specifically, the heat transfer unit 140 may be formed to have a disk shape and be coupled to the bottom surface of the patch body 110.

As described above, the heat transfer unit 140 may be disposed in a flat shape on the bottom surface of the patch body 110 to directly contact the skin of the subject, and accordingly, the heat generated from the light irradiation unit 130 may be seen on the skin of the subject. Effectively delivered, it is possible to perform a thermal treatment simultaneously with a light treatment.

Here, the heat transfer unit 140 may be mechanically designed to generate heat within a predetermined temperature range due to heat generated from the light irradiation unit 130 without a separate control means. For example, the heat transfer unit 140 receives heat generated by the light irradiation unit 130 directly or indirectly to generate heat, and the heat generation temperature at this time may be approximately 30°C to 55°C. However, when a low-power laser procedure is to be performed along with heat generation using the heat transfer unit 140 above a temperature of 41° C., there is a risk of side effects such as some low-temperature burns. In contrast, temperature control with an automatic control system may be suitable.

More specifically, by using a separate temperature sensing sensor, it is possible to prevent an operator from being burned by a heat transfer unit during a thermal treatment using heat of the light irradiation unit 130.

The temperature sensor may sense the temperature of the heat transfer unit 140. The control unit receives the temperature detection signal from the temperature sensor, and when the temperature of the heat transfer unit 140 exceeds a preset temperature, the light irradiation unit 130 is turned off and the heat transfer unit 140 When the temperature satisfies a predetermined temperature, the light irradiation unit 130 may be turned on.

Here, the preset temperature range may be preferably a temperature range for proper heat treatment. For example, the predetermined temperature range may be approximately 30 ℃ to 55 ℃. When the heat transfer unit 140 is less than about 30 °C during the procedure, the effect of heat treatment may be extremely inadequate. On the other hand, when the heat transfer unit 140 exceeds approximately 55°C during the procedure, a user may be burned. Particularly, in the case of using a low power laser treatment for a long time, since some cases of low temperature burns have been reported at a temperature of about 41° C., when the heat transfer unit 140 is to be heated to a temperature of about 41° C. or higher, the temperature An automatic temperature control system using a sensing sensor and a control unit may be suitable.

On the other hand, although not shown in the drawing, a light transmitting plate may be additionally installed on the bottom surface of the heat transfer unit 140. The light-transmitting plate may be made of a transparent material so that the laser is transmitted, and may be painted in an opaque color except for an area adjacent to a transmission hole through which an actual laser is transmitted.

1, 2 and 4, the heat transfer unit 140 is formed with a through hole 142 to correspond to the position of the transmission hole 116 of the patch body 110, the light irradiation unit ( 130 may irradiate light to the treatment site through these transmission holes 116 and through holes 142.

In order to increase the heat transfer efficiency, the heat transfer unit 140 may be formed of a flat plate member that covers the entire area of the bottom surface of the patch body, and accordingly, only the area corresponding to the transmission hole 116 which is the minimum area for light transmission. It is to open through the through hole 142.

In addition, in this case, the light irradiation unit 130 may be inserted into the transmission hole 116 and the through hole 142. Since the light irradiation unit 130 is disposed to be inserted into the transmission hole 116 and the through hole 142 in this way, the light irradiation unit 130 can be disposed closer to the treatment site, so the efficacy of the light treatment for the person being treated Can be doubled.

More specifically, the end of the light irradiation unit 130 may be located on the same surface as the surface of the heat transfer unit 140. When the end of the light irradiation unit 130 protrudes from the surface of the heat transfer unit 140, the patch body 110 is hardly adhered to the skin of the subject, so the efficacy of the procedure may be halved, so that the patch body 110 is in close contact with the skin It is advantageous that the ends of the light irradiation unit 130 are disposed on the same surface as the surface of the heat transfer unit 140 so that the light irradiation unit 130 is as close as possible to the skin while maintaining the.

In addition, the light irradiation unit 130 may be forcibly fitted to the through hole 142 and coupled. Accordingly, since the light irradiation unit 130 can be more closely coupled with the heat transfer unit 140, heat of the light irradiation unit 130 can be more effectively transferred to the heat transfer unit 140.

As described above, even when the heat of the light irradiation unit 130 is actively utilized in a thermal procedure, excess heat energy may exist, and such excess heat energy may shorten the life of the device and degrade product reliability and safety, thereby irradiating light. Heat dissipation means for effectively discharging excess heat of the unit 130 may be further provided.

The heat dissipation unit 150 may be installed inside the patch body 110 for heat dissipation of the light irradiation unit 130 as shown in FIGS. 1 and 4. The heat dissipation unit 150 may be a plate-shaped member disposed between the circuit board 120 and the heat transfer unit 140.

In addition, in the heat dissipation unit 150, an accommodation hole 152 is formed to correspond to the position of the transmission hole 116, and the light irradiation unit 130 may be inserted into the accommodation hole 152. In this case, the light irradiation unit 130 may be fit and coupled to the receiving hole 152, and accordingly, the light irradiation unit 130 is in close contact with the heat dissipation unit 150 to heat the light irradiation unit 130. It can be more effectively transferred to the heat dissipation unit 150.

As shown in FIG. 1, the vibration unit 160 may be installed inside the patch body 110 to provide fine vibrations to the treatment site of the patient. An ultrasonic vibrator, an electromagnet motor vibrator, and the like may be used as the vibration unit 160.

The vibration unit 160 may transmit micro-vibrations to the treatment site to exhibit an effect of improving blood flow. The micro-vibration procedure performed by the vibration unit 160 may be performed simultaneously with the above-described laser treatment and thermal treatment, and in this case, the treatment effect such as blood flow improvement may be doubled.

The touch detection sensor (not shown) may detect whether the operator's treatment site is in contact with the patch body 110 when the complex treatment patch 100 is used. In this case, a pressure sensor, an impedance sensor, a magnetic sensor, or a capacitive touch sensor may be used as the touch sensing sensor (not shown).

The control unit receives a touch detection signal from a touch detection sensor (not shown), and turns on the light irradiation unit 130 when the patch body 110 is in contact with the human body during the procedure, and the patch body 110 When is not in contact with the human body, the light irradiation unit 130 may be turned off.

Next, with reference to Figure 5, it will be described with respect to the composite treatment patch according to another embodiment of the present invention.

According to this embodiment, the patch body 110, the circuit board 120, the light irradiation unit 130, the heat transfer unit 140, the vibration unit 160, the battery 170, and the operation switch 190 A composite procedure patch 100 is presented that includes.

In the case of this embodiment, the heat dissipation unit is omitted, and the structure and combination of the heat transfer unit 140 and the light irradiation unit 130, except that some modifications have been made to the composite procedure patch 100 and the structure according to one embodiment described above And since the functions are the same and similar, it will be described below with reference to the differences between the heat dissipation unit, the heat transfer unit 140 and the light irradiation unit 130.

5, the complex treatment patch 100 of this embodiment does not have a heat dissipation unit separately. By omitting the heat dissipation unit in this way, heat generated from the light irradiation unit 130 can be concentrated and transferred to the heat transfer unit 140, thereby enabling more effective warming procedures.

As in the above-described embodiment, the heat transfer unit 140 is formed to be in contact with the light irradiation unit, as shown in FIG. 5, and can directly receive heat generated by the light irradiation unit.

However, the protrusion 144 protruding upward may be formed in the heat transfer unit 140 to receive heat from the light irradiation unit 130. More specifically, a projection 144 protruding toward the light irradiation unit 130 and directly contacting the light irradiation unit 130 may be formed in the heat transfer unit 140.

Here, the projection 144 may have a cylindrical structure formed along the circumference of the through hole 142 of the heat transfer unit 140, and the light irradiation unit 130 is forcibly fitted to the projection 144 of the cylindrical shape. It can be combined to further improve the heat transfer efficiency with the heat transfer unit 140.

In this case, the light irradiation unit 130 may have a structure that is recessed inside the patch body 110, but nevertheless, the inner wall of the cylindrical protrusion 144 of the heat transfer unit 140 may function as a light reflector. Therefore, the light generated by the light irradiation unit 130 can be effectively transmitted to the treatment site of the subject without loss.

As described above, one embodiment of the present invention has been described, but those skilled in the art can add, change, delete, or add components within the scope of the present invention as described in the claims. It will be said that the present invention can be variously modified and changed by the like, and this is also included within the scope of the present invention.

100: complex treatment patch
110: patch body
112: upper body
113: button
114: lower body
116: transmission hole
120: circuit board
130: light irradiation unit
140: heat transfer unit
142: through hole
144: projection
150: heat dissipation unit
152: accommodation hall
160: vibration unit
170: battery
190: operation switch

Claims (8)

A patch body in which a transmission hole is formed on a bottom surface facing the treatment area of the person to be treated;
A circuit board disposed inside the patch body;
A light irradiation unit mounted on the circuit board to correspond to the position of the transmission hole and irradiating low power light of 100 mW or less to the treatment site through the transmission hole; And
A complex treatment patch comprising a heat transfer unit disposed on the bottom surface of the patch body and made of a thermally conductive material to provide heat generated by the light irradiation unit to the treatment site. According to claim 1,
The heat transfer unit comprises a plate-shaped member disposed to face the treatment site, the composite treatment patch. According to claim 1,
A through-hole is formed in the heat transfer unit so as to correspond to the position of the transmission hole, and the light irradiation unit irradiates light to the treatment site through the transmission hole and the through-hole. According to claim 1,
The light irradiation unit includes at least one low power optical element,
The low power optical element is inserted into the transmission hole, and is in contact with the heat transfer member between the complex treatment patch. According to claim 1,
The light irradiation unit includes at least one low power optical element,
A through-hole is formed in the heat transfer unit to correspond to the position of the through-hole,
The low-power optical element is a composite procedure patch that is coupled to the through-hole and the through-hole in a forced fit manner. According to claim 1,
The light irradiation unit includes at least one low power optical element,
The end of the low power optical element is located on the same surface as the surface of the heat transfer unit, a composite surgical patch. The method according to any one of claims 1 to 6,
The temperature of the heat transfer unit is a complex treatment patch mechanically designed to maintain a temperature in the range of 40°C to 55°C by heat generation of the light irradiation unit.
The method according to any one of claims 1 to 6,
A temperature sensor for sensing the temperature of the heat transfer unit; And
Further comprising a control unit for receiving the temperature signal sensed by the temperature sensing sensor and controlling the light irradiation unit so that the heat transfer unit maintains a predetermined temperature range,
The control unit turns off the light irradiation unit when the temperature of the heat transfer unit exceeds a preset temperature, and turns on the light irradiation unit when the temperature of the heat transfer unit satisfies a preset temperature. Prescribing complex procedure patch.

Images