KR20120114045A - Thermotherapy apparatus, pillow and sitting cushion - Google Patents

Abstract

PURPOSE: A thermotherapy apparatus, a pillow, and a cushion are provided to relieve pains and to promote blood circulation by irradiating light to the human body. CONSTITUTION: A thermotherapy apparatus comprises an input unit(110), a sensor unit(120), a controller(130), a light output unit(140), a display unit(150), and a communication unit(160). The input unit receives lighting information on a plurality of light output units from a user. The sensor unit detects the pressure applied to thermotherapy device. The controller controls the lighting of an LED based on lighting information or sensing information. The light output unit is realized as a plurality of light output units having different wavelength bands. The display unit displays output information including wavelength band information of light, treatment effect, and power state. The communication unit receives the lighting information on the LED. [Reference numerals] (110) Input unit; (120) Sensor unit; (130) Controller; (140) Output unit; (150) Display unit; (160) Communication unit

Description

Heat therapy apparatus, pillow and sitting cushion {Thermotherapy apparatus, pillow and sitting cushion}

The present invention relates to a heat treatment device, a health care pillow and a health care cushion, and in particular, a heat that can provide a health supplement function such as pain relief or blood circulation promotion by irradiating light having a plurality of wavelength bands to the affected part or the human body. A therapeutic device, a health care pillow, and a health care cushion.

Various medical or health supplement devices are known that use light to achieve a therapeutic or health benefit. In particular, the light of the band of 650 to 690nm is effective in treating wounds on the skin or stimulating the skin nerve, and the light of the band of 660 to 750nm activates the subcutaneous tissue of the human body, It is known to be effective in mitigating. In addition, light in the 750 to 880 nm band is known to have an excellent effect on producing collagen, regenerating energy, stimulating immunity, relaxing nerve cells, and increasing the synthesis of DNA and RNA in the human body. . In addition, the light of the 880 to 980 nm band has an excellent effect in the treatment of inflammation and arthritis, and has been reported to exhibit excellent medical effects such as stimulating fibroblasts while improving joint movement.

However, when looking at medical devices or health care devices using conventional light, each light source having a band of 650 to 980 nm among the light having various effects for each band is irradiated to the corresponding site or affected part, or each of the corresponding light sources that may exhibit a therapeutic effect. Investigations are conducted individually.

In the prior art, since the light of the appropriate band is not irradiated to a specific area to obtain a specific therapeutic effect, it is very difficult to expect a specific therapeutic effect expected by the user.

In order to solve the problems of the prior art as described above, the present invention provides a heat treatment device, health care pillow and health care cushion that can expect a desired therapeutic effect by irradiating the human body or the affected area with light having different wavelength bands. To provide.

According to an aspect of the present invention,

A plurality of light output units each comprising a plurality of LEDs for outputting light having different wavelength bands;

An input unit configured to receive lighting information about lighting of the plurality of light output units;

A sensor unit which detects an arrangement state or applied pressure and generates sensing information; And

A controller for controlling lighting of the LED based on the lighting information or the sensing information;

It provides a thermal therapy device comprising a.

In one embodiment of the present invention, the lighting information may include at least one of information for determining individual lighting, sequential lighting and simultaneous lighting of each of the plurality of light output units.

In one embodiment of the present invention, the sensor unit may include a gravity sensor for detecting the arrangement of the thermotherapy device and / or a pressure sensor for detecting the pressure applied to the thermotherapy device.

In one embodiment of the present invention, at least one of the plurality of light output unit may include a plurality of LEDs for outputting light of the wavelength band of 650 to 690nm for wound healing and blood flow improvement of the affected area. In addition, at least one of the plurality of light output unit may include a plurality of LEDs for outputting light having a wavelength band of 660 to 840 nm for relieving muscle pain and improving muscle fatigue of the human body. In addition, at least one of the plurality of light output unit may include an LED for outputting light having a wavelength band of 790 to 880 nm for the treatment of arthritis of the human body.

An embodiment of the present invention may further include a display unit for displaying output information including at least one of band information, a treatment effect, and a power state of a light source output through the plurality of light output units.

One embodiment of the present invention may further include a communication unit for receiving lighting information for the plurality of light output units from the outside through wired or wireless communication.

As another means for achieving the above technical problem, the present invention,

A lower plate having a concave-convex structure in which a convex portion is formed in a central portion and has recesses on left and right sides of the central portion;

An upper plate of a horseshoe shape forming a space with an upper surface of the lower plate and covering the lower plate so that the lower surface of the lower plate is exposed;

A first light output unit disposed on a lower surface of a left main recess of the lower plate and having a plurality of LEDs for outputting light of a first wavelength band;

A second light output unit disposed on a lower surface of the center portion and having a plurality of LEDs for outputting light of a second wavelength band;

A third light output unit disposed on a lower surface of the lower right portion of the lower plate and having a plurality of LEDs for outputting light of a third wavelength band;

An input unit disposed on a front surface of the upper plate and receiving lighting information for controlling lighting of the plurality of light output units;

A sensor unit disposed in one region of the upper plate or the lower plate to generate sensing information by detecting an arrangement state or an applied pressure state;

A control unit disposed on an upper surface of a central portion of the lower plate and controlling lighting of the plurality of light output units based on the lighting information or the sensing information,

The first optical output unit, the second optical output unit and the third optical output unit provides a heat treatment device, characterized in that for outputting light having a different wavelength band.

In one embodiment of the present invention, the first light output unit may include a plurality of LEDs for outputting light of the wavelength band of 650 to 690nm for wound healing and blood flow improvement of the affected part.

In one embodiment of the present invention, the second light output unit may include a plurality of LEDs for outputting light having a wavelength band of 660 to 840 nm for relieving muscle pain and improving muscle fatigue of the human body.

In one embodiment of the present invention, the third light output unit may include an LED for outputting light having a wavelength band of 790 to 880 nm for treating arthritis of the human body.

As another means for achieving the above technical problem, the present invention,

A structure having an upper surface contacting the head of the human body, a lower surface facing the upper surface, and a side surface formed between the upper surface and the lower surface and having a plurality of through holes penetrating the upper surface and the lower surface;

Grooves formed in the center of the lower surface of the structure;

An optical output module disposed in the groove and having an LED outputting a plurality of lights having different frequency bands in the upper surface direction through the plurality of through holes;

An input module disposed at a side of the structure and receiving lighting information for lighting the optical output module;

A gravity sensor disposed adjacent to the optical output module, the gravity sensor detecting a pillow arrangement and a pressure sensor detecting pressure by the head;

A control module disposed in the groove to control lighting of an LED of the optical output module according to the lighting information and information detected by the gravity sensor and the pressure sensor.

Provide a health care pillow comprising a.

As another means for achieving the above technical problem, the present invention,

An implantation unit having an upper surface in contact with the buttocks of the human body;

A groove formed on the upper surface of the implantation part;

An optical output module disposed in the groove and having an LED outputting a plurality of lights having different frequency bands to the buttocks of the human body;

An input unit disposed at one side of the conception unit and receiving lighting information for lighting the optical output module;

A gravity sensor disposed adjacent to the optical output module, the gravity sensor detecting an arrangement state of a cushion, and a pressure sensor detecting pressure by the buttocks;

A control module disposed in the groove and controlling lighting of an LED of the optical output module according to the lighting information and information detected by the gravity sensor and the pressure sensor.

It provides a health care cushion comprising a.

In an embodiment related to the health supplement pillow and the health care cushion, the light output module may include a plurality of LEDs for outputting light having a wavelength band of 660 nm ± 15 nm, 880 nm ± 15 nm and 1074 ± 15 nm, respectively.

According to the thermal therapy apparatus using the light source of the present invention, by controlling the LED to irradiate a plurality of light having a different wavelength band on the basis of the lighting information, by irradiating the corresponding light to the human body or the affected area, treatment of the affected area There is an effect that can be irradiated with a light source having a band for. Accordingly, there is an effect that can expect a quick and easy treatment for the affected area.

In addition, according to the health care pillow of the present invention, by outputting the light of the wavelength band beneficial to the human body to the head of the human body, by expanding the microvascular in the brain of the user using the health care pillow, it is possible to activate the brain function It works. In addition, not only the user's brain but also the light irradiated to the shoulder and neck reach, there is an effect that can relax the muscles of the shoulder and neck portion of the user to alleviate the pain and muscle fatigue.

In addition, according to the health supplement cushion of the present invention, by irradiating the light of the frequency band to stimulate the internal organs in the position where the buttocks of the human body is implanted, it is expected to improve the blood flow in the human body by stimulating prostate or perineal blood in the human body, etc. It can be effective.

In addition, according to the present invention, there is an effect of providing a sterilizing function to the human body portion in contact with the heat treatment device, health care pillow and health care cushion.

1 is a block diagram of a thermotherapy device according to an embodiment of the present invention.
2 is an exploded perspective view of a thermotherapy device according to an embodiment of the present invention.
3 is an exploded perspective view of a health care pillow according to an embodiment of the present invention.
4 is a schematic diagram of the light output module of the health supplement pillow of FIG.
5 is an exploded perspective view of a health care pillow according to an embodiment of the present invention.

Hereinafter, with reference to the preferred embodiments and the accompanying drawings will be described in detail to be easily carried out by those of ordinary skill in the art. As those skilled in the art would realize, the described embodiments may be modified in various different ways, all without departing from the spirit or scope of the present invention.

First, with reference to FIG. 1, the thermotherapy device which concerns on one Embodiment of this invention is demonstrated.

1 is a block diagram of a thermotherapy device according to an embodiment of the present invention.

As shown in FIG. 1, the thermal therapy apparatus 100 using the light source of the present invention includes an input unit 110, a sensor unit 120, a controller 130, an optical output unit 140, a display unit 150, and a communication unit. 160 may be included.

The input unit 110 receives lighting information about a plurality of light output units for outputting light having different bands from a user. The input unit 110 receives lighting information for irradiating the affected area with light for each wavelength band corresponding to various treatment purposes such as wound healing and blood flow improvement of the affected part, muscle pain relief and muscle fatigue improvement, and arthritis treatment. . In this case, the lighting information for the plurality of light output units may perform individual lighting for each wavelength band for a plurality of light output units for irradiating light of different wavelength bands, or sequentially turn on light sources for each wavelength band. It may include at least one of information to perform the operation, or to light the light sources of different wavelength bands at the same time to obtain one or more therapeutic effects.

The sensor unit 120 may detect the arrangement state of the heat treatment device using the light source and / or the pressure applied to the heat treatment device. To this end, the sensor unit 120 may include a gravity sensor for detecting an arrangement state of the thermotherapy unit and / or a pressure sensor for detecting a pressure applied to the thermotherapy unit.

The gravity sensor, also referred to as a gyro sensor, may provide information about an arrangement state so that it may be determined whether the arrangement state of the thermotherapy unit is suitable for the operation of the thermotherapy unit. For example, when the heat treatment device is disposed in an inverted state, it detects the case when proper operation is impossible and provides information on it, and provides the corresponding information to the control unit described later to stop or operate the heat treatment device by the control unit. Initiation can be blocked.

The pressure sensor may detect a load applied to the thermal therapy device and provide the pressure sensor to the controller. For example, when the thermotherapy device contacts the human body, the pressure sensor detects that the load by the human body is provided to the thermotherapy device and provides it to the controller. If the pressure is not detected by the human body through this can stop the operation of the thermal therapy device or block the start of operation.

The controller 130 controls the lighting of the LED that irradiates the light source based on the lighting information or the sensing information. For example, when the lighting information received from the input unit 110 includes a content of operating only the first light output unit for outputting light of a first wavelength band for wound healing and blood flow improvement of the affected part, The controller 130 controls all of the output units outputting light of a wavelength band except for the first optical output unit to be turned off, and controls only the first optical output unit to light up.

In addition, the controller 130 controls the light output unit according to the sensing information received from the sensor unit 120. As described above, when the thermotherapy device is disposed in a state suitable for treatment by the sensor unit 120 and the human body can provide light to the human body in contact with the human body, the controller 130 is turned on. Control can be made.

The light output unit 140 may be implemented as a plurality of light output units having different wavelength bands. Each light output unit may include a plurality of LEDs.

At least one of the plurality of light output units 140 may include an LED for outputting light of a first wavelength band for healing the wound and improving blood flow. In this case, the first wavelength band may be a wavelength band of 650 to 690 nm.

In addition, at least one of the plurality of light output units 140 may include an LED for outputting light of a second wavelength band for relieving muscle pain and improving muscle fatigue of the human body. In this case, the second wavelength band may be a wavelength band of 660 to 840 nm.

In addition, at least one of the plurality of light output units 140 may include an LED for outputting light of a third wavelength band for treating arthritis of the human body. In this case, the third wavelength band may be a wavelength band of 790 to 880 nm.

On the other hand, the light of the first to third wavelength band may provide a bactericidal effect in addition to the aforementioned therapeutic effect. Usually, light having a wavelength band of 600 to 700 nm and light having a wavelength band of 1000 to 1700 nm are known to have bactericidal effects. Therefore, when providing the light of the first to third wavelength band described above, it can be expected to provide a bactericidal effect to the human body to prevent infection by various viruses or bacteria.

The display unit 150 displays output information including at least one of wavelength band information, treatment effect, and power state of the light output through the light output unit 140 to the outside. Accordingly, the user can know the band information on the light currently being irradiated and the expected therapeutic effect through the output information displayed through the display unit 150, and the current power supply inside the thermotherapy device. The condition can be visually confirmed.

The communication unit 160 receives the lighting information about the lighting of the LED through various wired / wireless communication remotely, not directly by the user. Accordingly, the user may control the lighting of the LED of the thermal therapy device while being located at a remote location without directly inputting lighting information about the LED lighting of the thermal therapy device.

Hereinafter, various application examples of the thermal therapy apparatus will be described in detail with reference to FIGS. 2 to 6. Thermotherapy device having a configuration shown in Figure 1 can be applied to various fields used in real life. 3 to 5 as well as the multi-purpose thermal therapy device, health care pillows and health care cushions, as well as a variety of times can be applied to bedding, such as mattresses or urine in contact with the body.

        Figure 2 is an exploded perspective view of a multi-purpose heat treatment device according to an embodiment of the present invention.

As shown in FIG. 2, the heat treatment apparatus using the light source of the present invention includes a lower plate 210, an upper plate 220, an input unit 230, a sensor unit (not shown), a control unit 250, and a first light output unit ( 260, a second light output unit 270, and a third light output unit 280.

The lower plate 210 may have a concave-convex structure, and may have a convex portion having a central portion protruding from the concave portion.

The upper plate 220 is a horseshoe-shaped structure, such as half of the ring, the inner region is empty to form a space, it may be arranged to cover the upper surface of the lower plate 210 and to expose the lower surface.

A plurality of light output units may be formed on the bottom surface of the lower plate 210.

For example, the first light output unit 260 may be disposed on a lower surface of the left recess of the lower plate 210 and may include a plurality of LEDs for outputting light of a first wavelength band. The first light output unit 260 may have a plurality of LEDs outputting a first wavelength band of 650 to 690 nm for wound healing and blood flow improvement.

In addition, the second light output unit 270 may be disposed on a lower surface of the convex portion of the lower plate 210 and may include a plurality of LEDs for outputting light of a second wavelength band. The second light output unit 270 may include a plurality of LEDs for outputting light having a second wavelength band of 660 to 840 nm for relieving muscle pain and improving muscle fatigue of the human body.

In addition, the third light output unit 280 may be disposed on a lower surface of the right main portion of the lower plate 210 and may include a plurality of LEDs for outputting light of a third wavelength band. The third light output unit 280 may output light having a third wavelength band of 790 to 880 nm for treating arthritis of the human body.

The input unit 230 is disposed on the front surface of the upper plate 220 to receive lighting information for lighting control of the LED of the light output unit for outputting light. The input unit 230 is preferably disposed in the front of the top plate 220 in the form of a push button switch.

The sensor unit (not shown) may be disposed in one region of the lower plate 210 or the upper plate 220 to generate sensing information by detecting an arrangement state or an applied pressure state of the heat treatment device. The sensor unit may include a gravity sensor for detecting an arrangement state of the thermotherapy unit and / or a pressure sensor for detecting a pressure applied to the thermotherapy unit, and a pressure sensor for detecting the arrangement state of the thermotherapy unit and the pressure applied thereto. The sensing information may be generated.

The controller 250 may be disposed in the upper center of the lower plate 210, and may be implemented by a combination of various electric devices and integrated circuits. The control unit 250 may generate a control signal for controlling the lighting of the LED for outputting light based on the lighting information input from the input unit 230 or the sensing information input from the sensor unit.

        3 is a block diagram of a health care pillow according to an embodiment of the present invention.

As shown in FIG. 3, the health care pillow 300 using the light source of the present invention includes a structure 320, a groove 321, an optical output module 340, an input module 310, a gravity sensor, and a pressure sensor ( Not shown) and a control module 330.

The structural mall 320 may have a plurality of through-holes 322 penetrating the upper surface and the lower surface and having a top surface contacting the head of the human body, a lower surface facing the upper surface, and a side surface formed between the upper surface and the lower surface. have.

The groove 321 may be formed at the center of the lower surface of the structure 320.

The optical output module 340 is disposed in the groove 321 and may output a plurality of lights having different frequency bands in the upper direction through the plurality of through holes 322.

4 is a schematic diagram of the light output module 340 of the health supplement pillow of FIG.

As shown in Figure 4, the light output module 340 of the health supplement pillow according to an embodiment of the present invention to expand the microvascular in the brain of the user to improve the blood flow to activate the brain function, healthy hair It may have a plurality of LEDs for outputting light having a wavelength band of 660nm ± 15nm, 880nm ± 15nm, 1074 ± 15nm to form a. In particular, the LED in the light output module 340 of the part of the shoulder and neck of the user to facilitate the muscle relaxation to output a light source having a wavelength band of 660nm ± 15nm and 880nm ± 15nm to improve pain and muscle fatigue .

Accordingly, when the user uses the health care pillow, the blood vessels are improved by expanding the microvascular in the brain of the user. In addition, the shoulder and neck portion of the user can promote muscle relaxation to improve pain and muscle fatigue.

The input module 310 is disposed on the side of the structure 320 receives the lighting information for the LED lighting of the light output unit for irradiating light.

The gravity sensor and the pressure sensor are disposed adjacent to the light output module 340 in consideration of the ease of the circuit connection, respectively, the pressure by the head of the human body to detect the arrangement state of the pillow 300 and contact the upper surface Detect and output information about it.

The control module 330 is disposed inside the groove part 321, and the LED of the optical output module according to the lighting information received by the input module 310 and the information detected by the gravity sensor and the pressure sensor. Lighting can be controlled.

5 is a block diagram of a health supplement cushion according to an embodiment of the present invention.

As shown in FIG. 5, the health care cushion using the light source of the present invention includes an implantation part 410, a groove part 411, an input part 420, a control part 430, and an optical output module 440.

The implantation part 410 may have an upper surface in contact with the buttocks of the human body.

The groove 411 may be formed at the center of the upper surface of the implantation part 410.

The optical output module 440 may include a plurality of LEDs for outputting light of different wavelength bands. The optical output module 440 selectively emits LEDs outputting light of different wavelength bands under the control of the control module and outputs light of a specific wavelength band to the buttocks of the human body. For example, the light output module 440 may include an LED for outputting light having a wavelength band of 660 nm ± 15 nm, 880 nm ± 15 nm, and 1074 ± 15 nm. By irradiating light having such a wavelength band to the buttocks of the human body, it is possible to stimulate the prostate or perineal blood of the human body.

The input unit 420 is disposed on one side of the conception unit 410 and receives lighting information for lighting the LED of the optical output module 440 that outputs light for each wavelength band.

The gravity sensor and the pressure sensor (not shown) may be disposed adjacent to the light output module 440 in consideration of the ease of the circuit connection. The gravity sensor and the pressure sensor, respectively, detect the arrangement of the cushion 400, detect the pressure by the buttocks of the human body in contact with the upper surface and outputs information about it.

        The input unit 420 is disposed on one side of the implantation unit 410, is disposed adjacent to the LED for irradiating a light source for each band, each of the human body to detect the arrangement of the cushion 400 and to contact the upper surface Detects the pressure caused by the buttocks and outputs information about it.

The control module 430 may be disposed in the groove 411 to light up the LED of the light output module 440 according to the lighting information and the information detected by the gravity sensor and the pressure sensor.

As described above, the heat treatment device of the present invention controls the LEDs irradiating a plurality of lights having different bands to light based on lighting information, and then irradiates the corresponding light source to the human body or the affected part, thereby treating the affected part. There is an effect that can be irradiated with light having a band for. Accordingly, quick and easy treatment can be expected for the affected area.

In addition, by providing the light having a plurality of wavelength bands to the head of the human health pillow of the present invention, it is possible to expand the microvascular in the brain of the user using the health care pillow and activate the brain function. In addition, by irradiating light to not only the user's brain but also the shoulder and neck areas, the muscles of the shoulder and neck parts of the user may be relaxed to alleviate pain and muscle fatigue.

In addition, the health supplement cushion using the light source of the present invention by irradiating light to stimulate the internal organs in the position where the buttocks of the human body is implanted, the effect that can be expected to improve the blood flow in the human body by stimulating prostate or perineal blood in the human body, etc. There is.

In addition, the heat treatment device of the present invention, the health care pillow and the health care cushion can provide a sterilization function to the human body contacted.

        Although the preferred embodiments of the present invention have been described above, the present invention is not limited thereto, and various modifications and changes can be made within the scope of the technical idea of the present invention. Do.

110: input unit 120: sensor unit
130: control unit 140: light output unit
150: display unit 160: communication unit

Claims (16)

A plurality of light output units each comprising a plurality of LEDs for outputting light having different wavelength bands;
An input unit configured to receive lighting information about lighting of the plurality of light output units;
A sensor unit which detects an arrangement state or applied pressure and generates sensing information; And
A controller for controlling lighting of the LED based on the lighting information or the sensing information;
Thermotherapy device comprising a. The method of claim 1, wherein the lighting information is
And at least one of information for determining individual lighting, sequential lighting, and simultaneous lighting of each of the plurality of light output units. The apparatus according to claim 1,
And a pressure sensor for detecting a pressure applied to the thermotherapy device and a gravity sensor for detecting an arrangement state of the thermotherapy device. The method of claim 1, wherein at least one of the plurality of light output units
Thermal treatment apparatus comprising a plurality of LEDs for outputting light of the wavelength band of 650 to 690nm for wound healing and blood flow improvement. The method of claim 1, wherein at least one of the plurality of light output units,
A thermotherapy device comprising a plurality of LEDs for outputting light having a wavelength band of 660 to 840 nm for relieving muscle pain and improving muscle fatigue of the human body. The method of claim 1, wherein at least one of the plurality of light output units,
Thermal therapy apparatus comprising an LED for outputting light having a wavelength band of 790 to 880 nm for the treatment of arthritis of the human body. The method of claim 1,
And a display unit configured to display output information including at least one of band information, a treatment effect, and a power supply state of the light source output through the plurality of light output units. The method of claim 1,
And a communication unit which receives lighting information on the plurality of light output units from the outside through wired or wireless communication. A lower plate having a concave-convex structure in which a convex portion is formed in a central portion and has recesses on left and right sides of the central portion;
An upper plate of a horseshoe shape forming a space with an upper surface of the lower plate and covering the lower plate so that the lower surface of the lower plate is exposed;
A first light output unit disposed on a lower surface of a left main recess of the lower plate and having a plurality of LEDs for outputting light of a first wavelength band;
A second light output unit disposed on a lower surface of the center portion and having a plurality of LEDs for outputting light of a second wavelength band;
A third light output unit disposed on a lower surface of the lower right portion of the lower plate and having a plurality of LEDs for outputting light of a third wavelength band;
An input unit disposed on a front surface of the upper plate and receiving lighting information for controlling lighting of the plurality of light output units;
A sensor unit disposed in one region of the upper plate or the lower plate to generate sensing information by detecting an arrangement state or an applied pressure state;
A control unit disposed on an upper surface of a central portion of the lower plate and controlling lighting of the plurality of light output units based on the lighting information or the sensing information,
And the first light output unit, the second light output unit, and the third light output unit output light having different wavelength bands. The method of claim 9, wherein the first light output unit,
Thermal treatment apparatus comprising a plurality of LEDs for outputting light of the wavelength band of 650 to 690nm for wound healing and blood flow improvement. The method of claim 9, wherein the second light output unit
A thermotherapy device comprising a plurality of LEDs for outputting light having a wavelength band of 660 to 840 nm for relieving muscle pain and improving muscle fatigue of the human body. The method of claim 9, wherein the third light output unit
Thermal therapy apparatus comprising an LED for outputting light having a wavelength band of 790 to 880 nm for the treatment of arthritis of the human body. A structure having an upper surface contacting the head of the human body, a lower surface facing the upper surface, and a side surface formed between the upper surface and the lower surface and having a plurality of through holes penetrating the upper surface and the lower surface;
Grooves formed in the center of the lower surface of the structure;
An optical output module disposed in the groove and having an LED outputting a plurality of lights having different frequency bands in the upper surface direction through the plurality of through holes;
An input module disposed at a side of the structure and receiving lighting information for lighting the optical output module;
A gravity sensor disposed adjacent to the optical output module, the gravity sensor detecting a pillow arrangement and a pressure sensor detecting pressure by the head;
A control module disposed in the groove to control lighting of an LED of the optical output module according to the lighting information and information detected by the gravity sensor and the pressure sensor.
Health care pillow comprising a. The method of claim 13,
The light output module includes a plurality of LEDs for outputting light having a wavelength band of 660nm ± 15nm, 880nm ± 15nm and 1074 ± 15nm, respectively. An implantation unit having an upper surface in contact with the buttocks of the human body;
A groove formed on the upper surface of the implantation part;
An optical output module disposed in the groove and having an LED outputting a plurality of lights having different frequency bands to the buttocks of the human body;
An input unit disposed at one side of the conception unit and receiving lighting information for lighting the optical output module;
A gravity sensor disposed adjacent to the optical output module, the gravity sensor detecting an arrangement state of a cushion, and a pressure sensor detecting pressure by the buttocks;
A control module disposed in the groove and controlling lighting of an LED of the optical output module according to the lighting information and information detected by the gravity sensor and the pressure sensor.
Health supplement cushion comprising a. 16. The method of claim 15,
The light output module includes a plurality of LEDs for outputting light having a wavelength band of 660nm ± 15nm, 880nm ± 15nm and 1074 ± 15nm, respectively.

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