KR200497183Y1 - LED thermal light irradiation device for companion animals - Google Patents

Abstract

The present invention relates to an LED thermal light irradiator for skin treatment of companion animals. In particular, since animal skin is often more fragile than human skin, problems such as burns may occur when a light irradiator applied to humans is applied to an animal body. In order to solve problems that may occur, a sensor that detects the temperature is installed to detect the temperature and turn on/off the power according to the detected temperature to prevent burns while treating the animal's body. It was created to solve the problem.
The LED thermal light irradiator for companion animals according to the present invention for achieving the above object accommodates an LED module equipped with a plurality of LEDs and an LED module, and has through-holes formed on one surface corresponding to the LEDs mounted on the LED module. A case, a battery that supplies power to make the LED emit light, a battery pouch mounted on the case to accommodate the battery, a cable connecting the battery and the LED module and supplying power from the battery to the LED module, and LED light It is technically characterized by including a sensor that detects heat and generates temperature information as an electrical signal, and a control unit that cuts off or energizes power when the temperature information input from the sensor is out of a set temperature range.

Description

LED thermal light irradiation device for companion animals}

The present invention relates to an LED thermal light irradiator, in particular, by irradiating LED light beneficial to humans and companion animals to companion animals, partial or systemic treatment of musculoskeletal injuries, muscle pain, reduced blood circulation and skin diseases of companion animals is possible, It is configured to solve problems such as burns that may occur due to the heat of the light irradiator.

People treat or alleviate symptoms by using near-infrared rays and a light irradiator called LLLT (Lower Level Laser Therapy) for the purpose of treating musculoskeletal injuries, relieving muscle pain, increasing blood circulation, and treating skin diseases.

In particular, unlike high-power lasers, LED light can be irradiated to a wide area of diseased areas with appropriate light output, and skin treatment technology using LED light sources is similar to the principle in which sunlight is converted into plant cells through chlorophyll in plants. Light-biochemical reaction between skin cells is induced by irradiating LED light source.

Phototherapy using such an LED light source is based on the fact that photons of the LED light source are absorbed by chromospheres or photoreceptors in cell tissues and promote metabolic activities of cells. Light absorbed by cells increases ROS and ATP synthesis in cell tissues, and cells exposed to red light and near-infrared light release nitric oxide (NO).

Light of a wavelength selected at an appropriate time and period is absorbed by photoreceptors such as cytochrome C oxidase in cells, which photodegrades NO, promotes enzyme activation, and promotes mitochondrial metabolism and ATP production. This causes proteins such as hemoglobin and myoglobin to release additional NO, which results in a series of intracellular biochemical reactions. As a result, LED light irradiation to cells activates the overall metabolic activity of cells and plays a large role in cell regeneration and rehabilitation.

In addition, LED light irradiation can promote the production of collagen and elastin in the skin, suppress the occurrence of wrinkles, and improve the skin to make it moist and elastic.

In addition, LED light irradiation exerts a significant effect on the treatment of skin diseases. For example, when LED light, particularly blue LED light is irradiated to the skin area where acne occurs, bacteria that cause acne are eliminated and inflammation is relieved, thereby improving the overall condition of the skin.

As such, it has already been recognized that LED light is effective in treating musculoskeletal injuries, relieving muscle pain, increasing blood circulation, and treating skin diseases, and accordingly, LED thermal light irradiators that irradiate LED light have been developed and commercialized for humans. .

However, even though LED light is effective in treating musculoskeletal injuries of companion animals as well as humans, relieving muscle pain, increasing blood circulation, and treating skin diseases, LED thermal light irradiators for companion animals have not been developed or are insignificant.

Registered Utility Model Publication No. 20-0320001 (published on July 16, 2003) Publicated Utility Model Publication No. 20-2016-0003886 (published on November 10, 2016)

The present invention was devised to solve the problems of the prior art as described above, and is used for the treatment of musculoskeletal injuries of companion animals, relief of muscle pain, increased blood circulation, and treatment of skin diseases, especially in the treatment of fragile companion animals. An LED thermal light irradiator configured to prevent secondary injuries caused by treatment of companion animals by automatically turning on/off the power when it is out of the set temperature range to prevent problems such as burns that may occur in advance Its purpose is to provide

The LED thermal light irradiator for companion animals according to the present invention for achieving the above object accommodates an LED module equipped with a plurality of LEDs and an LED module, and has through-holes formed on one surface corresponding to the LEDs mounted on the LED module. A case made of flexible material, a battery that supplies power for the LED to emit light, a battery pouch mounted on the case to accommodate the battery, a cable connecting the battery and the LED module and supplying power from the battery to the LED module, and an LED light It includes a sensor that detects heat generated by and generates temperature information as an electrical signal, and a control unit that cuts off or energizes power when the temperature information input from the sensor is out of a set temperature range, but the LED module is made of a flexible material. , characterized in that a slit is formed so that the LED module can be bent.

In addition, according to a preferred embodiment of the present invention, both ends of the case are fixed to the coupling portion that is mutually bound or separated.

In addition, according to a preferred embodiment of the present invention, the case has an expandable band structure in which an elastic material is accommodated.

In addition, according to a preferred embodiment of the present invention, one side of the case is formed with a cutout into which an LED module can be inserted.

In addition, according to a preferred embodiment of the present invention, the LED module has an adhesive layer located on the upper surface of the substrate, the conductive layer is fixed to the upper surface of the substrate by the adhesive layer, and a sealing layer is formed on the upper surface of the conductive layer where the LED is located.

In addition, according to a preferred embodiment of the present invention, the case is a companion animal's clothing, and the LED module is inserted into the clothing and positioned.

As described above, the LED thermal light irradiator for companion animals according to the present invention is used for treating musculoskeletal injuries of companion animals, relieving muscle pain, increasing blood circulation, and treating skin diseases, so that the temperature applied to companion animals is the set temperature When out of range, the power is automatically turned on/off to adjust the temperature, solving problems such as burns that may occur due to overheating during treatment of companion animals.

In addition, the LED thermal light irradiator for companion animals according to the present invention is convenient to wear because it is not easily peeled off even if the companion animal moves as it is bound while wrapping the companion animal body or pressurized by wrapping the companion animal body with the elastic force of the elastic body. It has the advantage of being Therefore, it is possible to wear it for the time required for LED light irradiation, which is effective in treating companion animals.

In addition, in the case of companion animals such as dogs and cats that walk on four legs, LED light is simultaneously irradiated to the spine and the thighs where large muscles are formed to treat musculoskeletal injuries, relieve muscle pain, increase blood circulation, and skin diseases treatment can be obtained.

1 is a perspective view showing a belt-type LED thermal light irradiator for companion animals according to a first embodiment of the present invention;
2 is an exploded perspective view of the belt-type LED thermal light irradiator shown in FIG. 1;
3 is a cross-sectional view of the belt-type LED thermal light irradiator shown in FIG. 1;
FIG. 4 is a conceptual diagram showing a state in which the belt-type LED thermal light irradiator shown in FIG. 1 is worn on a dog.
5 is a conceptual diagram showing a band-type LED thermal light irradiator for companion animals as a second embodiment according to the present invention;
6 is a conceptual diagram showing a clothing-type LED thermal light irradiator for companion animals as a third embodiment according to the present invention.
7 is a conceptual diagram showing a state in which a companion dog is wearing a cloak-type LED thermal light irradiator for companion animals according to a fourth embodiment according to the present invention;
8 is a bottom perspective view showing the cloak-type LED thermal light irradiator shown in FIG. 7;
Figure 9 is a bottom perspective view showing only the LED module shown in Figure 8,
10 is a plan perspective view of the LED module shown in FIG. 9 .

Hereinafter, a preferred embodiment of the LED thermal light irradiator for companion animals according to the present invention will be described in detail with reference to the accompanying drawings.

[First Embodiment]

In the drawings, FIG. 1 is a perspective view showing a belt-type LED thermal light irradiator for companion animals according to a first embodiment of the present invention, FIG. 2 is an exploded perspective view of the belt-type LED thermal light irradiator shown in FIG. 1, and FIG. is a cross-sectional view of the belt-type LED thermal light irradiator shown in FIG. 1, and FIG. 4 is a conceptual diagram showing a state in which the belt-type LED thermal light irradiator shown in FIG. 1 is worn on a companion dog.

As shown in FIG. 1, the belt-type LED thermal light irradiator 100 for companion animals includes a flexible case 110 made of a material such as leather or cloth with one side cut so that the LED module 120 can be accommodated therein. , Binding parts 130 fixed to both ends of the case 110 so that the case 110 can be fixed while the companion animal is wrapped around the case 110, and the LED module 120 on the outer surface of the case 110 A battery bag 140 in which a battery 141 for supplying power is accommodated, and a cable 150 connecting the battery 141 accommodated in the battery bag 140 and the LED module 120 accommodated in the case 110 and a sensor 160 mounted on the LED module 120 and detecting the temperature of the generated LED light.

Below, the LED thermal light irradiator for companion animals configured as described above will be described in detail.

1 to 3, the case 110 has a cutout 111 formed on one side so that the LED module 120 can be inserted and positioned therein.

In addition, the case 110 is configured to accommodate the LED module 120 therein by sewing its edges in a state where a plurality of leathers or cloths are overlapped, and the inner surface 110I of the case 110 has an LED module A through hole 113 is formed corresponding to each LED 125 of 120). Therefore, when the LED module 120 is inserted into the inside of the case 110 through the cutout 111 formed in the case 110, the LED module 120 is located inside the case 110, but the LED 125 Light generated from the LED 125 corresponding to the through hole 113 is irradiated to the outside of the case 110 through the through hole 113 of the inner surface 110I of the case 110 . Here, the inner surface 110I of the case 110 to which the light of the LED 125 is irradiated is positioned to come into contact with the body of the companion animal.

And a sensor 160 for measuring the temperature generated by the LED light is mounted on one side of the LED module 120 facing the inner surface 110I of the case 110. As the sensor 160, a bimetallic or thermal switch is preferable, and any sensor that detects the temperature generated by LED light irradiated on the body of a companion animal is suitable.

The temperature detected by the sensor 160 is converted into an electrical signal and input to the control unit 170 of the companion animal LED thermal light irradiator 100, and the temperature information input as an electrical signal in the control unit 170 determines the set temperature range. If it exceeds, the power applied to the LED module 120 is cut off to prevent the temperature from further rising. In this way, it is possible to prevent the companion animal from being burned by the LED light.

Meanwhile, at both ends of the case 110, long holes 115 capable of fixing the fastening parts 130 are formed, and the fastening parts 130 are inserted into the long holes 115 and fixed. The coupling part 130 is preferably a Velcro tape, and the Velcro tapes fixed to both ends of the case 110 may be attached or separated. Here, the Velcro tape is only an exemplary configuration of the coupling part 130, and may be replaced by a belt or strap.

In addition, the battery bag 140 is fixed to the outer surface 110E of the case 110, and the cable 150 connected to the battery 141 accommodated in the battery bag 140 extends to the outside of the battery bag 140. It is connected to the LED module 120 located inside the case 110.

In the LED module 120, a terminal holder 121 to which the terminal 151 of the cable 150 is connected is formed on one side, and the terminal 151 of the cable 150 is connected to the terminal holder 121, so that the battery ( 141) is supplied to the LED module 120 so that the LED 125 emits light.

On the other hand, the control unit 170 is located in the middle of the length of the cable 150 and is exposed to the outside of the case 110 when the LED thermal light irradiator 100 is worn on a companion animal.

And, as described above, the temperature information sensed by the sensor 160 is input to the controller 170. The control unit 170 sets a temperature range suitable for the companion animal's body, and when the input temperature information exceeds the set temperature range, the power applied to the LED module 120 is cut off to transmit to the companion animal's body. reduce heat

The sensor 160 measures the temperature in real time by power supplied from the battery 141, and when the measured temperature is input to the controller 170 and is lower than the set temperature range, power is applied to the LED module 120 Let the LED 125 emit light. When the LED 125 emits light, the body of the companion animal is irradiated with LED light accordingly, thereby increasing the temperature.

Below, the LED module 120 will be described in detail.

When the companion animal LED thermal light irradiator 100 is wrapped around the companion animal's body, the LED module 120 is flexible so that it can be deformed according to the companion animal's body shape. In this way, the LED module 120 is configured as described below to be flexible.

As shown in FIG. 3, in the LED module 120, a conductive layer 123c is attached to an upper surface of a substrate 123a by an adhesive, and an LED 125 is fixed to the upper surface of the conductive layer 123c. A sealing layer 123d is formed on the top surface of the conductive layer 123c.

Here, the substrate 123a preferably has mechanical strength to stably support the conductive layer 123c and is made of a flexible synthetic resin material.

Also, the substrate 123a preferably has high thermal resistance. This is to suppress the passage of radiant heat and conduction heat generated from the LED 125 by the substrate having high thermal resistance so that most of the heat is transferred to the top of the LED module 120, that is, to the sealing layer 123d. As a material of the substrate 123a, PET, PI, polyester, nylon, etc. may be used as a material.

The conductive layer 123c adhered to the upper surface of the substrate 123a is a highly conductive and flexible non-ferrous metal, and may be made of, for example, copper (Cu). The conductive layer 123c is supported by the substrate 123a therebelow, and the conductive layer 123c is mounted on the substrate 123a by an adhesive layer 123b.

A plurality of LEDs 125 are positioned on the upper surface of the conductive layer 123c, and a sealing layer 123d is formed on the upper surface of the conductive layer 123c. The sealing layer 123d is made of a transparent and flexible material, and the sealing layer 123d protects the LED 125 mechanically and electrically, and is made of a material such as PVC, PET, silicone, EVA, PU, or epoxy, and the conductive layer 123c ) can be coated on the upper surface of the coating, potting, dipping, lamination, or hot press.

Finally, after the sealing layer 123d is coated, a slit 127 is formed around the LED 125 as shown in FIG. 3 . The slit 127 is formed between the LEDs 125 within a range that does not disconnect the circuit that supplies power to the LEDs 125. As the slit 127 is formed in this way, even if the substrate 123a is somewhat hard, it is bent based on the slit 127 so that the LED module 120 can be bent to fit the body of the companion animal. will be.

In wearing the LED thermal light irradiator 100 for companion animals configured as described above to the companion animal, the inner surface of the case 110, that is, the surface to which the LED light is irradiated is brought into contact with the body of the companion animal. After wrapping the body of the animal, it can be worn by attaching and binding the binding parts 130 fixed to both ends of the case 110 to each other.

In this state, when power is applied to the LED module 120 through the control unit 170, the LED 125 emits light and the LED light is irradiated to the companion animal's body, and the LED light treats musculoskeletal injuries, relieves muscle pain, and reduces blood pressure. Circulation increase and skin disease treatment can be expected, and even if the companion animal moves, the LED thermal light irradiator 100 for companion animals is bound by the binding unit 130 and has the advantage of not leaving the companion animal's body.

[Second Embodiment]

On the other hand, the LED thermal light irradiator 100 for companion animals described above is described as being worn by the binding unit 130 with the LED module 120 accommodated in the case 110, but there is an elastic material such as a rubber band therein. It can also be configured to be worn using a band 110 'type case that can be accommodated and expanded.

In the drawings, FIG. 5 is a conceptual diagram showing a band-type LED thermal light irradiator for companion animals as a second embodiment according to the present invention.

As shown in FIG. 5, it may be configured to be worn using an expandable band 110'type case in which an elastic material such as a rubber band is accommodated.

In this case, as shown in FIG. 5, the configuration of the coupling part is omitted, and the LED module 120 is configured to be located on the inner surface of the cylindrical band, long-shaped band, or dogbone-shaped band.

Specifically, the inner lining 117 is sewn and fixed to the inner surface of the band 110', and the LED module 120 can be inserted through the incision 111 formed at one end of the inner lining 117. In this case, a through hole 113 is formed in the inner lining 117, and the LED 125 is positioned corresponding to the through hole 113 of the inner lining 117.

Other configurations are identical and similar to those of the LED thermal light irradiator for companion animals shown in FIGS. 1 to 4, so a detailed description thereof will be omitted.

[Third Embodiment]

6 is a conceptual diagram showing a clothing-type LED thermal light irradiator for companion animals as a third embodiment according to the present invention.

As shown in FIG. 6, an incision is formed on the outer or inner surface of the clothing 180 of the companion animal into which a plurality of LED modules 120 can be inserted, and the inside of the clothing 180 through the incision. By inserting and positioning a plurality of LED modules 120 in, it is possible to receive treatment by LED light for a long time. In this case, through-holes corresponding to the LEDs are formed inside the clothing 180 so that the LED light can be directly irradiated to the companion animal's body.

In addition, by dividing and arranging a plurality of spaces into which the LED module 120 can be inserted inside the clothing, it is possible to perform LED light therapy by inserting the LED module only in the area requiring treatment.

[Fourth Embodiment]

In the LED thermal light irradiator for companion animals according to the first to second embodiments described above, the LED module 120 is located inside the case 110 and the chest of the companion animal is wrapped with the case 110, The LED light is irradiated toward the animal and is configured to be treated. In the third embodiment, a plurality of LED modules 120 are fixed to the inside of companion animal's clothing so that LED light can be irradiated from the chest to the abdomen of companion animal.

However, in the case of companion animals that walk on four legs, such as dogs and cats, large muscles are formed in the thighs, and muscles of the thighs are used a lot in running or movement. However, in the first to third embodiments, as described above, since the LED module has a structure that surrounds the chest and abdomen of the companion animal, it can be worn only from the chest to the abdomen of the companion animal, and accordingly, the femur located at the rear of the abdomen. It is a structure in which LED light irradiation is difficult.

The LED thermal light irradiator for companion animals according to the fourth embodiment has a cape structure that surrounds the spine and abdomen of the companion animal and covers the femur, and emits LED light through the LED module mounted on the inside of the cape to the spine and the back of the companion animal. It is a cloak-structured LED thermal light irradiator optimized to irradiate the femoral area to expand the range of treatment and to facilitate treatment of the spine and femur, which are frequently used according to the activities of companion animals.

In the drawings, FIG. 7 is a conceptual diagram showing a state in which a companion dog wears a cloak-type LED thermal light irradiator for companion animals according to a fourth embodiment according to the present invention, and FIG. 8 is a cloak-type LED thermal light irradiator shown in FIG. A bottom perspective view showing, Figure 9 is a bottom perspective view showing only the LED module shown in Figure 8, Figure 10 is a plan perspective view of the LED module shown in Figure 9.

As shown in FIG. 7 , the cape-type LED thermal light irradiator 100 for companion animals includes a cape 190 covering the thighs while covering the spine and abdomen of the companion animal.

Specifically, the cloak 190 has a front groove portion 191F formed in the center of its front face, side groove portions 191S formed on both sides, and a rear groove portion 191B formed in the center of the rear face. When the mantle 190 covers the companion animal, the neck of the companion animal is located in the front groove part 191F, and the front protrusion part 192F of the structure protruding between the front groove part 191F and the side groove part 191S is the companion animal. covers the forelimbs of

In addition, when both sides of the cloak 190 are positioned toward the abdomen of the companion animal and attached to each other, the side protrusions 192S protruding on both sides at the rear of the side grooves 191S cover the hind legs, that is, the thighs of the companion animal.

In addition, the companion animal's tail corresponds to the rear groove portion 191B and enters into the rear groove portion 191B when the companion animal raises its tail.

In this way, the cape 190 surrounds the spine and abdomen of the companion animal and has protrusions 192F and 192S to cover the front and hind legs.

In addition, a loop 196F is formed on the bottom of each protrusion 192F, 192S so that the mantle 190 covering the spine and abdomen of the companion animal does not come off, and both sides and neck of the mantle 190 overlapping on the abdomen side are formed. Velcro tape 194 is fixed to both front protrusions 192F overlapping each other at the lower part of the neck while wrapping so that the overlapping parts are attached to each other so that they do not spread. The Velcro tape 194 is a binding means for attaching and fixing the overlapping portion of the cloak 190, and can be replaced with other binding means such as buttons, snap buttons, slide fasteners, and the like.

In addition, the cloak 190 can be worn by putting the forelimbs and hind legs on the front leg rings 196F fixed to the bottom of the front protrusion 192F and the hind leg rings 196F fixed to the bottom of the lateral protrusion 192S, respectively. Even if the pet moves while wrapped, it will not come off.

On the other hand, three pockets (193F, 193B) are fixed to the lower surface of the cloak 190 so that the LED module 120 can be mounted.

The pockets 193F and 193B are divided into one front pocket 193F and two rear pockets 193B on both sides. ), the entrance to which faces the rear.

On the other hand, both rear pockets (193B) are located at the ends of the side protrusions (192S), but are fixed to the inside of the hind leg rings (196F), and the entrances of both rear pockets (193B) are fixed facing each other.

As such, the ends of the LED module 120 are inserted into the three pockets 193F and 193B fixed to the lower surface of the cloak 190, respectively, so that the LED module 120 is located on the lower surface of the cloak 190. .

Here, the LED module 120 has a T-shaped structure, the ends of the T-shaped center pillar 129C are inserted into the front pockets 193F, and the ends of the T-shaped wings 129W are inserted into the rear pockets 193B on both sides, respectively. do. Therefore, as the ends of the T-shaped LED module 120 are inserted into the three pockets 193F and 193B, respectively, the LED module 120 can be located on the bottom of the cloak 190, and the pockets 193F and 193B The cape 190 and the LED module 120 may be separated by withdrawing the ends of the LED module 120 inserted into the pockets 193F and 193B.

Here, the LED module 120 is the same as the LED module 120 described in the first to third embodiments, and therefore, the terminal holder 121 and the substrate 123a described in the first to third embodiments , Description of the configuration of the adhesive layer 123b, the conductive layer 123c, the sealing layer 123d, the LED 125, and the slit 127 is omitted. In addition, although not shown in the drawing, the sensor 160 and the control unit 170 described in the first embodiment are installed and connected to the LED module 120 of the fourth embodiment to block an excessive rise in temperature.

On the other hand, in inserting the ends of the LED modules 120 into the three pockets 193F and 193B, it is preferable that the pockets 193F and 193B have a mesh structure so that the light emitted from the LED module 120 can be irradiated. do. The LED light emitted from the inside of the pockets 193F and 193B of the network structure can pass through the pockets 193F and 193B and irradiate the body of the companion animal.

On the other hand, as shown in FIGS. 9 and 10, semicircular grooves 129CH are formed on both sides of the center pillar 129C of the LED module 120, which reduces the quantity of the LED module 120. This is to enable elastic deformation when force is applied to the module 120 . That is, when the companion animal moves while wearing the LED thermal light irradiator, the LED module 120 is configured to be deformed according to the bending of the spine, and this is to provide convenience for the companion animal's activities.

In addition, the semicircular groove 129WH formed in the rear center of the LED module 120 is positioned correspondingly to the rear groove 191B when the LED module 120 is mounted on the bottom of the cloak 190, so that the companion animal can pull its tail. It is configured not to interfere when lifting, and can be easily elastically deformed by the semicircular groove 129WH when the wings 129W of the LED module 120 are deformed to cover the thigh. In addition, a tail ring 196T is formed on the bottom surface of the cloak 190 to correspond to the rear groove portion 191B, and as the tail is inserted into the tail ring 196T, the tail of the companion animal is connected to the rear groove portion 191B and the LED module ( 120) can be comfortably guided to be positioned inside the semicircular groove 196T.

On the other hand, when the center pillar 129C of the LED module 120 is positioned to correspond to the spine and the wings 129W are positioned to correspond to the thigh, the flat surface of the LED module 120 can be smoothly elastically deformed. As shown in FIGS. 9 and 10, a slit 127 is formed on the bottom surface and the bottom surface. Therefore, the center pillar 129C of the LED module 120 is located in the longitudinal direction of the spine and is elastically deformed to be curved in the transverse direction according to the back structure of the companion animal, and the wing portion 129W is also elastically deformed to cover the femur. .

On the other hand, the battery pocket 140 is fixed to the plane of the cloak 190, and the battery 141 is located inside the battery pocket 140. And the cable 150 extended from the battery 141 is connected to the terminal holder (121 in FIG. 2) of the LED module 120 to supply power required for light emission of the LED 125.

100: LED thermal light irradiator 110: case
110 ': band 111: incision
113: through hole 115: long hole
117: inner feeling 120: LED module
121: terminal holder 123a: substrate
123b: adhesive layer 123c: conductive layer
123d: sealing layer 125: LED
127: slit 129C: center pillar
129W: wing 129CH, 129WH: semicircular groove
130: coupling part 140: battery bag
141: battery 150: cable
151: terminal 160: sensor
170: control unit 180: companion animal clothing
190: cloak 191F, 191S, 191B: groove
192F, 192S: projections 193F, 193B: pockets
194: Velcro tape 196F, 196T: hook

Claims (6)

An LED module equipped with a plurality of LEDs;
A flexible material case having through-holes formed on one surface to accommodate the LED module and correspond to the LED mounted on the LED module;
A battery that supplies power so that the LED emits light;
A battery pocket mounted on the case to accommodate the battery;
A cable connecting the battery and the LED module and supplying power from the battery to the LED module;
A sensor that detects heat generated by LED light and generates temperature information as an electrical signal;
Including a control unit that cuts off or energizes power when the temperature information input from the sensor is out of the set temperature range,
The LED module is a flexible material, and a LED thermal light irradiator for companion animals, characterized in that a slit is formed so that the LED module can be bent.
According to claim 1,
LED thermal light irradiator for companion animals, characterized in that the mutually bound or separated binding part is fixed to both ends of the case.
According to claim 1,
The case is an LED thermal light irradiator for companion animals, characterized in that the elastic body is accommodated therein and has an expandable band structure.
According to any one of claims 1 to 3,
LED thermal light irradiator for companion animals, characterized in that one side of the case is formed with a cutout into which an LED module can be inserted.
According to any one of claims 1 to 3,
The LED module has an adhesive layer on the upper surface of the substrate, a conductive layer is fixed to the upper surface of the substrate by the adhesive layer, and a sealing layer is formed on the upper surface of the conductive layer where the LED is located.
According to claim 1,
The case is a companion animal's clothing, and an LED thermal light irradiator for companion animals, characterized in that the LED module is inserted and positioned inside the clothing.