KR102225680B1 - Multiwavelength laser light operating patch having cell activation and blood flow improvement - Google Patents

Abstract

The present invention relates to an optical treatment patch, wherein the optical treatment patch according to an embodiment of the present invention includes a plate-shaped patch body having a transmission hole for transmitting light, and a circuit board disposed inside the patch body. , Built-in battery placed inside the patch body, it is electrically connected to the circuit board, and is a low power that irradiates a relatively low low level laser or low power LED (LED) of less than 100mW to the outside of the patch body as its own power from the built-in battery. An optical device (Low Level Light Device), and a charging terminal provided on the patch body for selectively supplying electricity from an external charger to the built-in battery may be included.

Description

Multi-wavelength laser light treatment patch for cell activation and blood flow improvement {MULTIWAVELENGTH LASER LIGHT OPERATING PATCH HAVING CELL ACTIVATION AND BLOOD FLOW IMPROVEMENT}

The present invention relates to an optical procedure patch and an optical procedure patch set having the same, and more specifically, it is provided with a built-in battery so that it can be reused through charging, and has a relatively small and thin plate shape that can be selectively used for a plurality of local areas. The present invention relates to an optical treatment patch configured to be capable of and an optical treatment patch set having the same.

In general, an external preparation called a parse or a pain patch is a medicine that is attached to the human body and aims to relieve pain in the affected area. The parse is made in the form of a band on which the parse solution mixed with an adhesive solution is applied, and when used, it is attached to the affected area to be used. Pars is for hot or cold compresses depending on the composition or type of the applied pars liquid, and recently, a magnet or acupuncture has been placed in the center for a higher blood flow improvement effect.

However, the above-described parsing causes side effects such as skin troubles, large and small burns, skin rashes, and sore rashes due to the applied adhesive liquid or the parsing liquid, and insufficient air circulation when attached. In particular, there is a problem that it is difficult to use for people with congenital weak skin or for people such as children due to these side effects. In addition, the general parse has a limited effect, not a fundamental treatment, and has a disadvantage in that it is not eco-friendly with a cost burden when using it for a long period of time because most of it has to be used and discarded for a single use.

On the other hand, light such as a low level laser (LLL) or LED (LED) is a variety of pain relief, blood flow improvement, blood flow enhancement, skin regeneration, cell activation, lipolysis, and cell stimulation, depending on a specific wavelength range. It is known through various clinical data that there are effects. In particular, low-power lasers or LEDs with a relatively low power of 100mW or less in the 600nm wavelength band or higher are used for destruction, intentional damage or necrosis of skin tissue, whereas low-power lasers are relatively safe, while promoting metabolism and activating cells. , And has the effect of increasing immunity, and has the function of restoring damaged tissues. In particular, it is known that selectively irradiating a low-power laser or LED with a wavelength of 800 nm or more to acupuncture points exerts the same effect as acupuncture or moxibustion treatment, thereby relieving skin or muscle pain and promoting cure of the affected area.

The problem to be solved by the present invention is to provide an optical treatment patch using a low-power laser or LED light source having a high treatment effect, and an optical treatment patch set having the same, without skin problems such as skin rash, allergy occurrence, and burns. have.

The problem to be solved by the present invention is an optical treatment patch that is constructed as plate-shaped patches of relatively small size to enable treatment on a local area, so that the user can select and combine patches according to the type of treatment required and the desired local area. And it is to provide an optical treatment patch set having the same.

The problem to be solved by the present invention is to provide optical treatment patches to which a built-in battery is applied so that it can be used repeatedly through electric charging, so that the user performs self-treatment with the same effect without additional cost for a long time, compared to conventional pars or pain patches. It is to provide an eco-friendly optical treatment patch and an optical treatment patch set having the same by preventing resource waste.

The problem to be solved by the present invention is that the general person can perform self-treatment safely and easily through optical treatment patches and a smartphone app that provides information on the use and treatment of these patches for simple pain relief procedures during daily or work life. It is to provide an optical procedure patch made to be performed and an optical procedure patch set having the same.

The optical treatment patch according to the present invention irradiates light having a wavelength range of 630nm to 680nm or 780nm to 990nm for use of at least any one of pain relief, blood flow improvement, cell activation, cell regeneration, lymph node stimulation, and edema relief. However, a plate-shaped patch body having a transmission hole for light transmission, a circuit board disposed inside the patch body, a built-in battery disposed inside the patch body, and electrically connected to the circuit board. And, a low-level light device that irradiates a relatively low low-level laser or low-power LED (LED) of 100mW or less outside the patch body as its own power of the built-in battery, and the built-in battery It may include a charging terminal provided in the patch body for selectively supplying electricity from an external charger.

The optical procedure patch set according to the present invention has a built-in battery capable of repeatedly charging, a plurality of optical treatment patches for irradiating low-power light of 100mW or less as its own power of the built-in battery, any one or a plurality of the optical treatment patches A patch band for fixing the skin to the skin, at least one of a cupping device and an adhesive tape, and a smartphone app used in connection with the optical treatment patches, wherein each of the optical treatment patches is transmitted for transmission of light. A patch body in a plate shape having a hole, a circuit board disposed inside the patch body, a built-in battery disposed inside the patch body, and the patch body electrically connected to the circuit board as its own power of the built-in battery. A low-level light device that irradiates a relatively low low-power laser or low-power LED (LED) of 80mW or less to the outside, and for selective electricity supply from an external charger for the built-in battery. It may include a charging terminal provided in the patch body.

The optical procedure patch and the optical procedure patch set provided with the same according to the present invention are composed of plate-shaped optical procedure patches of relatively small size so that the procedure can be performed on a local area, and the patches are combined according to the type of procedure required by the user and the desired local area. By using it, both optical medical technology can be applied as a principle of moxibustion and acupuncture treatment of oriental medicine.

The optical procedure patch and the optical procedure patch set having the same according to the embodiment of the present invention do not have problems caused by adhesives and paste agents such as skin troubles such as skin rash, allergy occurrence, burns, etc., compared to conventional pastes or pain patches, Treatments such as pain relief, blood flow improvement, blood flow enhancement, skin regeneration, cell activation, fat breakdown, and cell stimulation can be performed.

The optical procedure patch and the optical procedure patch set having the same according to the present invention are eco-friendly because the user can receive self-operation with the same effect without additional cost burden for a long time, compared to the conventional pars or pain relief patch, and prevents wasted resources. Can be

The optical procedure patch and the optical procedure patch set having the same according to the present invention include optical procedure patches and a smart phone app that provides information on the use and procedure of these patches for the general public to simply perform pain relief procedures during daily or work life. Through this, self-treatment can be performed safely and easily.

1 is a view showing an optical procedure patch and a charger of an optical procedure patch set according to the present invention.
2 is a view showing members for attaching the optical procedure patch according to the present invention to the human body.
3 is a perspective view showing an optical treatment patch according to an embodiment of the present invention.
4 is a cross-sectional view showing the internal configuration of the optical treatment patch shown in FIG. 3.
5 is a flowchart illustrating a method of using an optical treatment patch according to an embodiment of the present invention.
6 is a view showing a treatment type for each indication of an optical treatment patch according to an embodiment of the present invention.
7 is a view showing an optical treatment patch according to another embodiment of the present invention.
8 is an exploded perspective view of the optical procedure patch shown in FIG. 7.
9 is a view showing an optical procedure patch according to another embodiment of the present invention.

Advantages and features of the present invention, and a method of achieving them will become apparent with reference to the embodiments described below in detail together with the accompanying drawings. However, the present invention is not limited to the embodiments disclosed below, and may be implemented in various different forms. The present embodiments may be provided to complete the disclosure of the present invention and to fully inform the scope of the present invention to those of ordinary skill in the art to which the present invention pertains. The same reference numerals refer to the same components throughout the entire specification.

The terms used in the present specification are for describing exemplary embodiments and are not intended to limit the present invention. In this specification, the singular form also includes the plural form unless specifically stated in the phrase. As used in the specification,'comprise' and/or'comprising' refers to the presence of one or more other elements, steps, actions and/or elements, and/or elements, steps, actions and/or elements mentioned. Or does not preclude additions.

Further, the embodiments described in the present specification will be described with reference to sectional views and/or plan views, which are ideal exemplary diagrams of the present invention. In the drawings, detailed sizes, shapes, thicknesses, curvatures, etc. of each component are exaggerated or schematic for effective description of technical contents, and their shape may be modified due to tolerances.

Hereinafter, an optical procedure patch and an optical procedure patch set including the same according to an embodiment of the present invention will be described in detail with reference to the accompanying drawings.

1 is a view showing an optical procedure patch and a charger of an optical procedure patch set according to the present invention, and FIG. 2 is a view showing members for attaching the optical procedure patch according to the present invention to the human body.

1 and 2, an optical procedure patch set 10 according to an embodiment of the present invention includes a patch band 20, a charger 30, an optical procedure patch 100, and storage and storage of these components. It may include a packaging box (not shown) and the like. In addition, the optical procedure patch set 10 may further include a smartphone app 42 that can be used in conjunction with or in conjunction with the optical procedure patch 100. The smartphone app 42 may include various types of smartphones and user applications implemented in various mobile devices including the same. The smartphone app 42 can provide a user's membership registration, product introduction, personalized procedure guide, personal treatment history management, linkage with products and control of linked procedures, product promotion, and treatment cycle and appropriate use guide, etc. have.

The optical treatment patch 100 may be a device that irradiates a relatively low power laser, that is, a low level laser (LLL) to the skin. Alternatively, the light treatment patch 100 may be a device that irradiates an LED having a relatively low output to the skin. As an example, the optical treatment patch 100 may be a medical device for irradiating the body with a low-power laser of about 100mW or less or an LED.

The optical treatment patch 100 may have a relatively small and thin plate shape. The optical treatment patch 100 may have a flat surface of various shapes such as a disk shape, a square plate shape, and an oval shape. A plurality of optical treatment patches 100 may be provided in one packaging box 40 so that a user may use a plurality of optical treatment patches 10 in various combinations.

The patch band 20 may be for fixing the optical treatment patch 100 to a skin region desired by the user. As shown in FIG. 2(a), the patch band 20 according to an embodiment of the present invention includes a fixing part 22 and the fixing part 22 for fixing one optical treatment patch 100 It may be made of a connected band portion 24. The band part 24 may be for fixing to the human body while aligning the optical treatment patch 100 to a desired portion. In this case, as the fixing part 22, a single opening or groove formed in the band part 24, a mounting member for a separate seating, etc. may be used, and the user may attach the optical treatment patch 100 to the fixing part. After being inserted into, inserted into, or fastened to 22, the band part 24 may be wound around the human body to fix the optical treatment patch 100 to the human body.

As shown in Fig. 2(b), the patch band 20a according to another embodiment of the present invention is fitted to the optical treatment patch 100, and has a velcro-treated fixing part 22a on one surface thereof, and It may have a velcro of the fixing part 22a and a band part 24b treated with a detachable velcro. In this case, the optical treatment patch 100 to which the fixing part 22a is coupled may be used by attaching the fixing part 22a to the band part 24b at a desired position so that the optical treatment patch 100 corresponds to the desired part. I can.

As shown in Fig. 2(c), the patch band 20b according to another embodiment of the present invention includes a fixing part 22b that is inserted into the optical treatment patch 100, and the fixing part 22b ) May be coated with an adhesive material that can be adhered to or adhered to the skin to be fixed. In this case, the user may use the patch band 20b by attaching the patch band 20b to a desired region after the optical procedure patch 100 is in close contact with the patch band 20b.

As described above, the user may attach and use the optical treatment patch 100 to the body by using various types of patch bands 20, 20a, and 20b. However, members for attaching the optical procedure patch 100 according to the present invention to the body are not limited to these patch bands 20, 20a, and 20b, and various types of members may be used.

For example, as another example of a member for attaching to the human body of the optical treatment patch 100, a cupping device 20c made of a flexible material may be used as shown in FIG. 2(d). The cupping device 20c has an opening or groove formed in the central region through which the optical treatment patch 100 can be inserted or fastened, and the remaining wing portions may be provided so as to be in close contact with the human body using its own elasticity. have. This type of cupping device 20c is provided in the form of a so-called silicon cupping device, and may be provided to be fixedly used on the human body through fastening of the optical treatment patch 100. The combination of the optical procedure patch 100 and the cupping device 20c as described above is more effective pain relief by adding the cupping treatment of the cupping device 20c together with the optical and physical treatment by the optical procedure patch 100 And blood flow improvement treatment effect can be achieved.

In addition, as another example of a member for attaching to the human body of the optical treatment patch 100, an adhesive tape 20d as shown in FIG. 2(e) may be used. The adhesive tape 20d may be provided in a form having adhesiveness on both sides such that one side is attached to the light irradiation surface of the optical treatment patch 100 and the other side is attached to the body. In addition, the adhesive tape 20d may be made of a transparent material so as not to obstruct or minimize the transmission of the irradiated light from the optical treatment patch 100. In addition, the adhesive tate 20d may be provided in a form in which a perforation 20d' is formed in a portion of the light irradiation path. The adhesive tape 20d as described above may be provided as a consumable that can be used once or a limited number of times, so that a user can fix the optical procedure patch 100 to the human body by a simple taping attachment method.

The charger 30 may be for charging the optical treatment patch 100. The charger 30 may include a separate or integral charging gender 32 to simultaneously charge a plurality of optical treatment patches 10.

Subsequently, an optical treatment patch according to an embodiment of the present invention will be described in detail. Here, a redundant description of the above-described optical treatment patch 100 may be omitted or simplified.

3 is a perspective view showing an optical treatment patch according to an embodiment of the present invention, and FIG. 4 is a cross-sectional view illustrating an internal configuration of the optical treatment patch shown in FIG. 3.

1 to 4, the optical treatment patch 100 according to an embodiment of the present invention includes a patch body 110, a circuit board 120, a built-in battery 130, a low-power optical device 140, and a detector. 150, and may include a controller 160.

The patch body 110 has a generally thin plate shape, and may provide an inner space for protecting, arranging, and supporting the parts 120, 130, 140, 150, and 160. As an example, the patch body 110 has a first body 112a and a second body 112b that are assembled to each other to complete a thin plate-shaped body 112 having a small diameter of 60 mm or less and a thickness of 20 mm or less. I can. The first body 112a may have one surface that is in close contact with the human body during the procedure, and the second body 112b may have the other surface that is exposed during the procedure. A transmission hole 112c for transmitting light such as a low-power laser or LED may be provided on one surface of the first body 112a. The second body 112b may be provided with an operation lamp (not shown) that enables a user to recognize it when light is irradiated or when the optical treatment patch 100 is operated.

Meanwhile, a lens 113 for diffusion of irradiated light may be further provided in the transmission hole 112c of the first body 112a. As an example, the lens 113 may be provided to reduce the linearity of light that a laser has in general, and to diffusely irradiate a wider area into the human body. To this end, a convex lens may be used as the lens 113, and accordingly, light passing through the transmission hole 112c may be diffused after passing through the lens 113 to penetrate into a relatively large body part. . In this case, distributing light to a relatively large area may be advantageous for purposes such as pain relief, lymph node stimulation, edema relief, skin stimulation, and the like.

As another example, the lens 113 may be provided to maintain or enhance the straightness of light. To this end, as the lens 113, a concave lens or a general transmission plate may be used, and accordingly, the light passing through the transmission hole 112c is concentrated or maintained after passing through the lens 113, so that a relatively narrow body part Can penetrate inside. In this case, intensive irradiation of light to a relatively narrow area may be advantageous for purposes of improving blood flow, enhancing blood flow, and activating cells.

The patch body 110 may be provided with a charging unit 116 for connecting the charger 30 to charge the built-in battery 120. The charging unit 116 may include a charging terminal 116a and a first charging lamp 116b and a second charging lamp 116c for recognizing whether charging is completed or the remaining amount of the battery. The first charging lamp 116b may include a green LED element indicating completion of charging, and the second charging lamp 116c may include a red LED element indicating charging is in progress.

In addition, the patch body 110 may be provided with various control buttons 118 for setting the treatment conditions of the optical treatment patch 100. For example, the control buttons 118 are an on/off button 118a for on/off of the low-power optical element 140, and a laser output control button for adjusting the laser output intensity of the low-power optical element 140 (118b), and a timer button 118c for setting an operation time of the optical treatment patch 100. The user may set the control buttons 118 as described above to set the treatment conditions of the optical treatment patch 100. In this embodiment, a form in which the user operates the optical treatment patch 100 in a form consisting of three control buttons 118a to 118c has been described as an example, but the number and form of the control buttons can be variously modified and modified. I can.

The circuit board 120 may be disposed inside the patch body 110. The circuit board 120 may be disposed adjacent to and opposite to the first body 112a compared to the built-in battery 130. The circuit board 120 may include at least one printed circuit board.

The built-in battery 130 may be a battery that can be repeatedly charged. The built-in battery 130 is charged by the charger 30 and may supply power for laser irradiation of the low-power optical element 140 as internal power. The built-in battery 130 may use a lithium polymer battery to reduce the risk of explosion and ignition. The built-in battery 130 may enable the optical treatment patch 100 to operate only with its own power without additional external power.

The low-power optical device 140 may be provided on the circuit board 120 to irradiate low-power light to the outside through the transmission hole 112c. In general, low-level lasers (LLL) or LEDs are known to exert various effects such as pain relief, blood flow improvement, blood flow enhancement, cell activation, lymph node stimulation, edema relief, and skin stimulation. The effect is exerted in light of a specific wavelength range. For example, particularly in the case of a low-power laser, when irradiating the human body for more than 20 minutes with an output of 30 mW or more in a wavelength range of about 630 nm to 680 nm, it is known that the effects of pain relief, lymph node stimulation, edema relief, cell activation, etc. are high, and about 780 nm to When irradiated to the human body for more than 20 minutes with an output of 30mW or more at a wavelength of 990nm, it is known to have high effects such as improving blood flow, enhancing blood flow, and activating cells. Accordingly, the low-power optical device 140 may be a device in various wavelength bands according to the purpose of use as described above.

Here, the low-power light irradiation 140 as described above emits a lot of heat to the outside when the laser is generated. The heat generated by the low-power optical device 140 may shorten the life of the device, reduce product reliability and safety, and may cause a patient burn, especially during a procedure. Accordingly, there is a need for a means capable of effectively discharging heat from the low-power optical device 140. As such a means, a separate heat sink (141 in FIG. 8) may be disposed around the low-power optical element 140, but in this case, due to at least a protrusion on the circuit board 120, the optical treatment patch 100 The thickness is bound to increase. However, the optical treatment patch 100 according to the present invention may have a thickness as thin as possible for user convenience. That is, the thicker the optical treatment patch 100 is, the more it is derived on the skin, and thus the feeling of discomfort or discomfort in contact with the skin increases, and the appearance is not good.

In order to solve the above part, the optical treatment patch 100 according to the present invention comprises the patch body 110 made of a material having relatively high thermal conductivity, so that the heat of the low-power optical device 140 is transferred to the outside. It can be used as a heat dissipation plate to discharge or a heat transfer plate to transfer heat to the human body during a procedure. To this end, the entire patch body 110 is made of stainless steel, aluminum, copper, or other various metal materials, or the skin contact surface is made of a plastic material that satisfies biocompatibility, but the inner side is a heterogeneous material made of a metal material. It can also be composed of a multi-layered body. In this case, in the optical treatment patch 100, due to the heat generated from the low-power optical device 140, part or all of the patch body 110 is heated, and the appropriate heat of the patch body 110 is applied to the human body. By delivering to, it is possible to perform thermal treatment. That is, the optical treatment patch 100 as described above may be configured to simultaneously perform a thermal treatment due to the self-heating of the patch body 110 together with a basic low-power laser treatment.

The detector 150 may be provided for safety and appropriate treatment control of the optical treatment patch 100. For example, the sensor 150 may include a touch sensor 152 and a temperature sensor 154. When the optical procedure patch 100 is used, the touch detection sensor 152 may detect whether one surface of the optical procedure patch 100 contacts the user's skin. To this end, a pressure sensor, an impedance sensor, a magnetic sensor, and a capacitive sensor may be used as the atmospheric contact sensor 152. Alternatively, the contact detection sensor 152 may be a sensor that detects whether the skin is in contact with the skin through physical or mechanical means. For example, as the contact detection sensor 152, a physical sensor that is normally provided as a protruding pin may be used, which is inserted into the inside when contacting the skin to detect whether there is contact. Alternatively, the contact detection sensor 152 may be manufactured in a form that is printed and inserted into the package body 110 and is provided in a molded product as a completely or partially buried form.

The temperature detection sensor 154 may be for preventing a user's image during the procedure by heating the optical treatment patch 100 due to heat generated by the low-power optical element 140. As described above, the patch body 110 according to the present invention may be made of a material having a relatively high thermal conductivity, and may be configured to use the heat generated by the low-power optical device 140 for thermal treatment purposes. However, in this case, an image may be generated due to excessive heat generation of the optical treatment patch 110, and a safety technique for preventing this may be required. To this end, at least one temperature sensor 154 may be provided on the patch body 110 to detect the temperature of the patch body 110. As an example, the temperature detection sensor 154 may be provided on the first body 112 of the patch body 110 and may be provided to sense the temperature of the first body 112 that is directly in contact with the human body during the procedure. have.

The controller 160 may receive a detection signal from the detector 150 and control the optical treatment patch 100. For example, the controller 160 receives a touch detection signal from the touch detection sensor 152 and turns on the low-power optical element 140 when the patch body 110 contacts the human body during a procedure. When the patch body 110 is not in contact with the human body, the low-power optical device 140 may be turned off. At this time, above

In addition, the controller 160 receives a temperature detection signal from the temperature detection sensor 154 and turns off the low-power optical element 140 when the temperature of the patch body 110 exceeds a preset temperature. And, when the temperature of the patch body 110 satisfies a preset temperature, the low-power optical device 140 may be turned on. Here, the preset temperature range may preferably be a temperature range for an appropriate thermal treatment. For example, the preset temperature range may be approximately 40°C to 55°C. When the patch body 110 is less than about 40° C. during the procedure, the thermal treatment effect may be extremely insufficient. On the other hand, when the patch body 110 exceeds approximately 55°C during the procedure, the user may be burned.

Hereinafter, a self-contained low-power optical procedure method using the aforementioned optical procedure patch procedure set will be described in detail. Here, a redundant description of the optical procedure patch and the optical procedure patch set having the same described above will be omitted or simplified.

5 is a flowchart showing a method of using an optical treatment patch according to an embodiment of the present invention, and FIG. 6 is a view showing a treatment type for each indication of an optical treatment patch according to an embodiment of the present invention.

Referring to FIGS. 5 and 6, first, a procedure condition may be set and started (S110). More specifically, the user may manipulate the control buttons 118 of the optical treatment patch 100 to set the output time, intensity of the low-power light of the optical treatment patch 100, and whether to operate on or not. . These treatment condition setting values may differ depending on the purpose of use, such as pain relief, blood flow improvement, blood flow enhancement, skin regeneration, cell activation, lipolysis, and cell stimulation. In addition, the treatment condition setting values may be controlled through a smartphone app (42 in FIG. 1) linked to the optical treatment patch 100.

As a more specific example, as shown in Figure 6 (a), when the indication (for example, purpose of use) is the relief of wrist pain (or tendonitis) and elbow pain, the output control button 118b is operated to After setting the output of the low-power light to 40mW and setting it to 30 minutes by manipulating the timer button 118c, the ON/OFF button 118a may be manipulated to turn on as the above condition. In addition, while using the patch band 20, the plurality of optical treatment patches 100 are sequentially attached to the target skin location according to the treatment method and treatment image guided through a smartphone app (42 in FIG. 1). I can.

Here, the indications shown in FIG. 6(b) are knee pain and sprained ankle, the indications shown in FIG. 6(c) are shoulder pain and frozen shoulder, and the indications shown in FIG. 6(d) are stiff back neck or stiff neck area. Symptoms and indications shown in FIG. 6(e) may include sciatica and back pain. This smart phone app 42 guides the user with the pictures and figures of FIGS. 6(a) to 6(e), and the user can perform a personalized self-operation through such a procedure guide. This treatment method is a procedure that combines the principle of moxibustion and acupuncture treatment with a two-sided technique called low-power light, while placing the light treatment patches 100 on the main adaptation spots guided by the smartphone app 42. You can perform professional procedures yourself.

When the optical treatment patch 100 is attached to the treatment site, it may be determined whether the optical treatment patch 100 is in normal contact with the human body (S120). More specifically, the controller 160 receives a touch detection signal from the touch detection sensor 152 of the detector 150, and one surface of the first body 112a of the optical treatment patch 100 is normally attached to the treatment site. It can be determined whether or not. At this time, when it is determined that the patch body 110 is in normal contact with the treatment site, the controller 160 controls the circuit board 120 to use the low-power optical device as its own power of the built-in battery 140. The low-power light irradiation of 140 may be started (S130). On the other hand, when it is determined that the patch body 110 is not in contact with the treatment site, the controller 160 may wait for low-power light irradiation of the low-power optical element 14 (S140).

That is, the low-power light irradiation of the low-power optical device 140 is irradiated only when the optical treatment patch 100 is in normal contact with the treatment site, and otherwise, it may always be in an off state. Accordingly, since the light treatment patch 100 as described above allows low-power light to be irradiated only when it is normally in contact with the treatment site, it is possible to prevent safety accidents such as irradiation of low-power light to the eyes due to a user's carelessness.

In addition, when the low-power light is irradiated, it may be determined whether the temperature of the optical treatment patch 100 satisfies a preset temperature range (S150). More specifically, the controller 160 receives a temperature detection signal from the temperature detection sensor 154 of the sensor 150, and the temperature of the patch body 112 of the optical treatment patch 100 is within a preset temperature range. You can judge whether you are satisfied or not. At this time, when the temperature of the patch body 110 satisfies the preset temperature range, the controller 160 may allow the low-power light irradiation of the low-power optical element 140 to continue (S160). On the other hand, when the temperature of the patch body 110 is out of the preset temperature range, the controller 160 controls the circuit board 120 to stop the laser irradiation of the low-power optical element 140. Yes (S170).

That is, as described above, the optical treatment patch 100 according to the embodiment of the present invention uses the heat generated by the low-power optical device 140 as heat for thermal treatment, so that the temperature of the patch body 110 is excessive. If it rises, problems such as an image may occur. Accordingly, the optical treatment patch 100 as described above may increase treatment safety by irradiating low-powered light only when it does not exceed a normal temperature range.

In the process of performing the low-power optical procedure as described above, it may be determined whether or not a predetermined procedure time has been reached (S180). For example, if the 30 minutes set in the above-described step (S110) has not been reached, the controller 160 may return to the previous step (S120) and perform the above-described steps (S120 to S170) repeatedly. On the other hand, when the 30 minutes set in step S110 is reached, the low-power optical element 140 is turned off, and then an alarm or operation lamp (not shown) is displayed so that the user can recognize it. External display, such as off, can be performed.

As described above, the optical treatment patch set 10 according to the embodiment of the present invention includes optical treatment patches 100 for irradiating low-power light and a patch band 20 capable of fixing the same to the treatment site, Each of the optical treatment patches 100 may have a relatively small diameter and may be provided in a thin plate shape. In this case, the user selects and arranges the optical treatment patches 100 in local areas such as a pain area, a blood aperture, a lymph node, etc. to relieve pain, improve blood flow, enhance blood flow, Various self-procedures such as lymph node stimulation, edema relief, and skin irritation can be performed. Accordingly, the optical procedure patch and the optical procedure patch treatment set provided with the same according to the present invention are composed of plate-shaped optical procedure patches having a relatively small size so that the procedure can be performed on a local area, so that the type of treatment required by the user and the desired local area are provided. You can use a combination of patches accordingly.

In addition, the optical procedure patch and the optical procedure patch set having the same according to the embodiment of the present invention are compared with conventional pain patches or pain patches, which are caused by adhesives and paste agents such as skin troubles such as skin rash, allergies, and burns. Without it, procedures such as pain relief, blood flow improvement, blood flow enhancement, skin regeneration, cell activation, fat breakdown, and cell stimulation can be performed.

In addition, the optical procedure patch according to the present invention and the optical procedure patch set having the same, compared with the conventional pars or pain patch, allows the user to receive self-operation with the same effect without additional cost for a long time, and prevents wasted resources. It can be environmentally friendly.

Hereinafter, an optical treatment patch according to other embodiments of the present invention described above will be described. Here, redundant content for the optical procedure patch according to the exemplary embodiment described above may be omitted or simplified.

7 is a view showing an optical treatment patch according to another embodiment of the present invention, and FIG. 8 is an exploded perspective view of the optical treatment patch shown in FIG. 7. 7 and 8, an optical treatment patch 100a according to another embodiment of the present invention includes a patch body 110, a circuit board 120, a built-in battery 130, a low-power optical device 140a, and a detector. 150, and a controller 160, wherein the low-power optical device 140a may include a first device 142a and a second device 144a having different laser wavelength values. As an example, the first device 142a may include a low-power optical device having a wavelength range of approximately 630 nm to 680 nm and an output intensity of approximately 100 mW or less. The first device 142a may be used for purposes such as pain relief, lymph node stimulation, edema relief, cell activation, and the like. In contrast, the second device 144a may include a low-power optical device having a wavelength range of approximately 780 nm to 990 nm and an output intensity of approximately 100 mW or less. The second device 142a may be used for purposes of improving blood flow, enhancing blood flow, and activating cells. Here, it may be more preferable that the output intensity of the first and second elements 142a and 142b be limited to 80mW or less for user safety. In addition, it may be desirable for personal medical device authentication that the output intensity of the first and second devices 142a and 142b is adjusted to 5mW or less, which is an output value limited in class 3R class among class 3 medical devices.

The number and arrangement of the first and second elements 142a and 144a may be variously changed or modified. The user can select and control the first and second elements 142a and 144a by manipulating the control buttons 118. For example, when the optical treatment patch 100a is used for pain relief use, the user may use the control buttons 118 after setting the control buttons 118 so that only the first element 142a is turned on. Alternatively, when the optical treatment patch 100a is used for the purpose of improving blood flow, the user may use after setting the control buttons 118 so that only the second element 144a is turned on. If both of the purposes of pain relief and blood flow improvement are to be used at the same time, the user may use the first and second elements 142a and 144a after turning on both of the first and second elements 142a and 144a.

Meanwhile, in order to radiate heat from the first and second elements 142a and 144a, ring-shaped heat sinks 141 surrounding each of the first and second elements 142a and 144a will be provided. I can. In addition, the heat sinks 141 may have different materials, shapes, and thicknesses than those provided on the first device 142a and those provided on the second device 144a. For example, when the heat generating temperature of the first element 142a is high or large among the first and second elements 142a and 144a, the size of the heat sink 141 provided to the first element 142a , High material, thermal conductivity, etc. can be used.

The optical treatment patch 100a having the structure as described above can irradiate lasers of different wavelengths as one optical treatment patch 100a, and thus, compared to the optical treatment patch 100 according to an embodiment of the present invention, a single light As the treatment patch 100a, laser treatment in two wavelength bands may be performed.

9 is a view showing an optical procedure patch according to another embodiment of the present invention. Referring to FIG. 9, an optical treatment patch 100b according to another embodiment of the present invention includes a patch body 110, a circuit board 120, a built-in battery 130, a low-power optical device 140a, and a detector 150. ), a controller 160, and a vibrator 170 may be included. The vibrator 170 may be provided to further add a purpose of use, such as improvement of blood flow, by transmitting micro-vibration to a treatment site during a procedure. As the vibrator 170, an ultrasonic vibrator, an electromagnet motor vibrator, or the like may be used.

Here, the user may be provided to adjust the vibration intensity, vibration period, and vibration waveform of the vibrator 170 by using the control buttons 118 and the smartphone app 42. For example, the optical treatment patch 100b may have a plurality of vibration modes in which the vibration intensity or period of the vibrator 150 is different, and the user selects a desired pain procedure and Vibration massage or hand rub effect can be achieved.

The optical procedure patch 100b having the structure as described above is one optical procedure patch 100b, and may simultaneously or separately perform a low-power optical procedure and a physical energy procedure by micro-vibration.

Until now, specific embodiments of the optical procedure patch and the optical procedure patch procedure set having the same according to the present invention have been described, but it is obvious that various implementation modifications are possible without departing from the scope of the present invention. Therefore, the scope of the present invention is limited to the described embodiments and should not be transmitted, and should be determined by the claims to be described later, as well as the claims and equivalents. The above-described embodiments are illustrative in all respects and should be understood as not limiting, and the scope of the present invention is indicated by the claims to be described later rather than the detailed description, and the meaning and scope of the claims and their equivalents All changes or modifications derived from the concept should be construed as being included in the scope of the present invention.

10: optical treatment patch set
20: patch band
30: charger
40: smartphone
100: light treatment patch
110: patch body
112: plate-shaped body
113: lens
115: motion light
116: charging unit
118: control buttons
120: circuit board
130: built-in battery
140: low power optical element
150: detector
152: touch detection sensor
154: temperature detection sensor
160: controller

Claims (1)

A plate-shaped patch body having a transmission hole for transmitting light;
A circuit board disposed inside the patch body; And
A plurality of low-power optical devices electrically connected to the circuit board and irradiating low-level lasers having at least one purpose of use of at least one of pain relief, lymph node stimulation, edema relief, blood flow improvement, blood flow enhancement, or cell activation Including (Low Level Light Device),
The plurality of low-power optical devices include a first device and a second device,
The second element is disposed in the central region of the patch body,
The first element is disposed in a peripheral area of the patch body,
The second device generates a low-power laser of a higher wavelength than the first device,
The first device irradiates low-power light having a wavelength range of 630 nm to 680 nm for at least one of pain relief, lymph node stimulation, and edema relief,
The second device irradiates low-power light having a wavelength range of 780 nm to 990 nm for at least one of blood flow improvement, blood flow enhancement, and cell activation,
The second element is located on the user's blood vessel to promote or improve blood flow in the blood vessel,
Low-power laser irradiation of the first element and the second element is performed at the same time,
The low-power laser irradiation area of the first element is wider than the low-power laser irradiation area of the second element,
The second device irradiates the low-power laser deeper from the skin surface than the first device,
The first element is arranged in plurality,
A plurality of the first elements are disposed radially apart from each other along a peripheral region of the patch body around the second element,
The patch body has a multi-layered structure made of a biocompatible material on the outside and a thermally conductive material on the inside, so that heat generated from the low-power optical device is transferred to the treatment site to provide a thermal treatment to the user,
The optical procedure patch further comprising a contact detection sensor disposed on the patch body to detect whether the user touches the skin of the user so as to control whether or not the procedure proceeds.

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