KR102512301B1 - Led mat of insert structure - Google Patents

Abstract

An LED mat with an insert structure according to the present invention comprises: a lower foam absorbing shock on the top and dampening discomfort on the bottom; an insert groove formed by denting the lower foam; a plurality of light-emitting elements inserted into the insert groove to emit various forms of light upward; an upper foam stacked on the lower foam, in which the light-emitting elements are inserted into the insert groove, to absorb shock on the top; a waterproof pad formed on the upper foam to block liquid substances flowing from the top pad, thereby preventing damage to the light-emitting elements; and the top pad stacked on the top of the mat, and formed into a zipper type with a zipper at an edge to be attached to or detached from the mat. The LED mat of the present invention does not make a user who is lying on the top feel discomfort from the LED elements, thereby offering comfort.

Description

LED mat with insert structure {LED MAT OF INSERT STRUCTURE}

The present invention relates to an insert-structured LED mat, and more particularly, to an insert-structured LED mat including an LED module to be inserted into a mat formed on a mattress of a bed or a mat that is laid on the floor and used independently.

Conventional mats have a separate LED layer interposed so that LED light can be emitted upward. As the LED layer is separately interposed in the mat, a user lying on the top pad can access components including the LED module in the LED layer. There is a problem with the feeling of being conveyed as it is.

Conventional mats have LED lamps concentrating on the lower part of the mat to be irradiated upward from the corresponding LED lamps. At this time, there is a problem in that the foams stacked on the upper side cannot be uniformly delivered to the top where the user is located.

In addition, it is possible to form a plurality of LED lamps densely on the mat so that the light is uniformly irradiated upward, but in this case, there is a problem that sufficient DC power cannot be provided to the increasing load.

Korea Registered Utility Model Publication No. 20-0478070 (2015.08.19)

In order to solve the above-mentioned problems, the present invention is formed with insert grooves or lines capable of inserting LED lines, connection terminals, LED modules, etc. that generate light in the flame-resistant lower form, and LEDs are generated at the upper part where the user lies down. An object of the present invention is to provide an LED mat having an insert structure so that no sense of heterogeneity can be felt between the elements.

In order to solve the above-described problems, the present invention laminates an LED layer on a part of the mat, and allows various types of light having different wavelengths, such as near infrared rays or far infrared rays irradiated upward from the LED layer to reach the cover layer, thereby reducing the surface of the water surface. The purpose is to improve the quality and provide an insert-structured LED mat that enables skin care during sleep.

In particular, in order to solve the above-mentioned problems, the present invention forms a light guide hole 131 in the middle form so that LED light can effectively reach the upper part of the mat from the LED module of the LED layer, and forms light reflecting fibers on the inner circumferential surface. An object of the present invention is to provide an LED mat having an insert structure so that light can be more smoothly irradiated to the user's skin.

In addition, in order to solve the above problems, the present invention provides an insert structured LED mat that generates stable light by applying DC power to hundreds of LED modules attached to the LED layer instead of AC power to which power is applied unstablely. has a purpose to

In particular, an object of the LED mat system according to the present invention is to provide an insert-structured LED mat capable of stably supplying DC power even to a large-capacity load by having a large-capacity battery.

In order to achieve the above object, the insert structure of the LED mat according to the present invention includes a lower foam that absorbs the impact of the upper part and attenuates the sense of heterogeneity of the lower part; An insert groove formed in a negative shape in the lower form; a plurality of light emitting elements inserted into the insert groove and emitting various types of light upward; an upper form stacked on the lower form in which the light emitting device is inserted into the insert groove to absorb an impact of the upper portion; a waterproof pad formed on the upper foam to prevent damage to the light emitting devices by blocking liquid material flowing from the upper pad; and a top pad that is laminated on the top of the mat and detachable from the mat in a detachable zipper type with a zipper formed at the edge.

Preferably, in order to achieve the above object, the light emitting device of the insert-structured LED mat according to the present invention is made of a flexible printed circuit board on which wires and control lines are wired, and the rear surface is bonded to the insert groove. A plurality of LED lines formed in parallel; a heating wire formed between the LED lines and emitting heat by the applied power to increase the temperature of the mat; LED modules formed on the LED line at predetermined intervals to be irradiated to the user's skin; It is inserted into the insert groove formed in the lower form, and the power & control cable hub module supplies and cuts off power to the power line and control line wired therein so that they can be connected in parallel to the LED line and the hot wire. .

preferably. In order to achieve the above object, the insert-structured LED mat according to the present invention is characterized in that a flame retardant material is applied to the surface of the lower foam in which an insert groove is formed.

preferably. In order to achieve the above object, the LED module is formed on the upper part of the LED line of the insert structured LED mat according to the present invention in a state connected to electric wires and control wires so that power and control signals can be applied, and transparent silicon is coated thereon. It is characterized in that it is integrally packaged.

preferably. In order to achieve the above object, the LED module of the insert structured LED mat according to the present invention generates red light to penetrate the dermis layer and subcutaneous fat of the user's skin to regenerate the skin and relieve pain. A red light LED element; a blue ray LED element formed on one side of the red ray LED element to generate blue light rays and penetrate only to the epidermis of the user's skin to sterilize and soothe skin troubles; a near-infrared ray LED element formed on one side of the blue ray LED element to generate near-infrared rays and irradiate the user to activate immune cells, discharge waste products, and increase core body temperature; A far-infrared LED element formed on one side of the near-infrared LED element to generate far-infrared rays and irradiate them to the user so as to penetrate deep into the skin to alleviate pain.

preferably. In order to achieve the above object, the red ray LED element of the insert-structured LED mat according to the present invention generates red light with a wavelength of 645 nm to 660 nm, and the blue light LED element generates blue light with a wavelength of 415 nm to 500 nm). And, the near-infrared LED device generates near-infrared rays with a wavelength of 800 nm to 1400 nm, and the far-infrared LED device generates far-infrared rays with a wavelength of 3um or more.

preferably. In order to achieve the above object, the far-infrared ray LED element of the insert-structured LED mat according to the present invention is characterized by accelerating metabolism by generating growth rays corresponding to a wavelength of 4um to 14um among far-infrared rays.

preferably. In order to achieve the above object, the upper form of the insert structured LED mat according to the present invention has a light induction hole formed at each position corresponding to the LED module so that the light generated from the LED module can be guided to the upper end of the mat. characterized by

more preferably. In order to achieve the above object, the light guiding hole of the insert-structured LED mat according to the present invention is characterized in that light reflecting fibers are formed on the inner circumferential surface in order to prevent light generated from the LED module from being absorbed and lost. .

In the insert structured LED mat according to the present invention, insert grooves or lines into which LED lines, connection terminals, LED modules, etc. that generate light can be inserted are formed in a flame-retardant lower form, and LEDs are generated at the upper part where the user lies down. There is an effect of providing comfort by making it impossible to feel a sense of heterogeneity with respect to the elements.

The insert-structured LED mat according to the present invention provides users with a wide variety of benefits such as skin moisturizing control, anti-allergy, antibacterial, anti-inflammatory, scar prevention, improvement of blood circulation in localized areas, formation of elastin and collagen, anti-aging and wrinkle improvement. It has a skin care effect.

The insert-structured LED mat according to the present invention has an effect of stably supplying DC power even to a large-capacity load by including a large-capacity battery in a power adapter.

1 is a view showing an LED mat according to the present invention.
2 is an exploded perspective view of the LED mat according to the present invention.
3 is a view showing a substrate-type support form of an LED mat according to the present invention.
Figure 4 is a main part of the substrate-type support form of the LED mat according to the present invention.
5 is a view showing an insert-structured LED mat among various embodiments of the LED mat according to the present invention.
Figure 6 is a circuit diagram for applying a high-capacity DC voltage to the LED mat according to the present invention.
7 is a block diagram of a controller module for controlling an LED mat according to the present invention.

The terms or words used in this specification and claims should not be construed as being limited to ordinary or dictionary meanings, and the inventors may appropriately define the concept of terms in order to explain their invention in the best way. Based on the principle that there is, it should be interpreted as meaning and concept consistent with the technical spirit of the present invention.

Therefore, since the embodiments described in this specification and the configurations shown in the drawings are only one of the most preferred embodiments of the present invention and do not represent all of the technical ideas of the present invention, they can be substituted at the time of this application It should be understood that there may be many equivalents and variations.

Hereinafter, an LED mat having an insert structure according to the present invention will be described with reference to the accompanying drawings.

1 is a diagram of an LED mat system including an LED mat having an insert structure according to the present invention according to the present invention.

As shown in FIG. 1 , the LED mat system including the insert-structured LED mat according to the present invention includes an LED mat 100 , a power adapter 200 , and a controller module 300 .

2 is a perspective view of a laminated structure of the LED mat 100 of the LED mat system according to the present invention.

As shown in FIG. 2 , the LED mat 100 includes a lower form 110, a substrate-type support form 120, an upper form 130, a waterproof pad 140, and an upper pad 150.

For reference, the illustration of the spring pad that absorbs most of the shock by forming a layer with the spring of a common bed mattress is omitted.

The lower form 110 is stacked on the spring pad to absorb the impact transmitted from the upper part and transmit it to the lower spring pad, and at the same time, the difference that can be felt from the spring constituting the lower spring pad is attenuated and minimized.

The substrate-type support form 120 is formed on the lower form 110 to irradiate various types of light upward.

That is, the substrate-type support form 120 irradiates red rays with a wavelength of 660 nm, blue rays with a wavelength of 415 nm, near infrared rays with a wavelength of 800 nm to 1400 nm, far infrared rays with a wavelength of 3000 nm and far infrared rays with a wavelength of 222 nm.

The far ultraviolet ray of 222 nm wavelength kills viruses and is harmless to the human body, and has a higher sterilization power due to its shorter wavelength.

Existing ultraviolet UVC lamps have a wavelength of 240 nm or higher, which could cause side effects such as blindness or skin disease when exposed to human eyes and skin.

In order to solve the side effects as described above, in the present invention, far-ultraviolet rays having a wavelength of 222 nm are used.

The substrate-type support form 120 will be described in more detail with reference to FIGS. 3 and 4 .

The substrate-type support form 120 includes a base 121, an LED line 122, an LED module 123, a sterilization module 124, and a power & control line hub module 125.

The base 121 is made of a non-combustible material and has a lower surface laminated to the lower foam 110, and a plurality of LED lines 122 are formed in parallel at predetermined intervals on the upper surface.

The LED line 122 corresponds to a flexible printed circuit board on which wires and control lines are wired, and the LED module 123 and the sterilization module 124 are formed at equal intervals on the top surface.

At this time, the LED line 122 is packaged with transparent silicone coated at the upper end in a state connected to the electric wire and the control wire so that the LED module 123 and the sterilization module 124 can receive power and control signals.

Meanwhile, the LED line 122 is bonded to the top surface of the base 121 by forming an adhesive layer such as double-sided tape on the rear surface.

In addition, the LED lines 122 are operated independently for each line, and a connection terminal 122a is formed at one end and inserted into the power & control line hub module 125 to provide power adapter 200 and controller module 300 Receives power and control signals from each.

In particular, the plurality of LED lines 122 are connected in parallel to the power & control line hub module 125, and among the plurality of LED lines 122, the LED module 123 or the sterilization module 124 does not operate. Therefore, when a problem occurs in a specific LED line 122, only the corresponding LED line 120 having a problem may be replaced.

Meanwhile, the LED module 123 includes a red ray LED device 123a, a blue ray LED device 123b, a near infrared ray LED device 123c, and a far infrared ray LED device 124d.

The red ray LED device 123a receives power from a wire and generates red rays of 660 nm (or 645 nm) wavelength to penetrate the dermal layer and subcutaneous fat of the user lying on the mat to regenerate the skin and relieve pain. .

The blue ray LED device 123b receives power from a wire and generates blue rays of a wavelength of 415 nm (or 500 nm) close to ultraviolet rays to penetrate only to the epidermis of the skin of a user lying on a mat to sterilize and soothe skin troubles. .

The near-infrared LED device 123c generates near-infrared rays with a wavelength of 800 nm to 1400 nm, which has a relatively short wavelength among infrared rays and is close to visible light, and irradiates a user lying on a mat to activate immune cells, discharge waste products, and increase core body temperature.

The wavelength of the near infrared ray is characterized in that it is transmitted directly to the object without heating the air.

The far-infrared LED element 124d generates far-infrared rays with a relatively long wavelength of 3000 nm or more and irradiates them to a user lying on a mat to penetrate deep into the skin so that the skin can feel warm from the inside before feeling hot. It can alleviate pain.

In particular, the far-infrared LED device 124d promotes metabolism by generating growth rays corresponding to a wavelength of 4um to 14um among far-infrared rays.

That is, when the growth ray generated from the far-infrared ray LED device 124d is absorbed by the human body at a wavelength similar to that when water and organic compounds are absorbed, molecules are resonance-absorbed in the human body and vibratory motion is generated. The thermal energy generated in the process of molecular movement helps to activate the cells in the body and finally promotes metabolism.

In addition, the growth rays generated from the far-infrared LED device 124d simply generate heat to soften muscles or joints and promote metabolism, as well as increase the amount of nitric oxide in the blood to widen blood vessels and facilitate blood circulation. It can also prevent various vascular diseases.

The sterilization module 124 is to be packaged in the LED module 120 together with the above-described red ray LED device 123a, blue ray LED device 123b, near infrared ray LED device 123c, and far infrared ray LED device 123d. However, it may be formed between the LED modules 120.

As mentioned above, the sterilization module 124 sterilizes 99.9% of various harmful bacteria such as mold and mildew or house dust mites parasitic on the inside of the mat by generating deep ultraviolet rays of UVC wavelength, that is, 222 nm wavelength.

The power & control line hub module 125 is internally wired with power lines so that the DC power transmitted from the power adapter 200 can be supplied to the plurality of LED lines 122 to which they are connected.

In addition, the power & control line hub module 125 is internally wired with control lines so that control signals transmitted from the controller module 300 can be transmitted to the plurality of LED lines 122 to which they are connected.

The power & control line hub module 125 has a connection female terminal 125a into which a connection male terminal 122a formed at one end of the plurality of LED lines 122 can be inserted in one direction.

In addition, the power & control line hub module 125 is formed with a power receiving terminal 125b and a control signal receiving terminal 125c so that the power adapter 200 and the controller module 300 can be connected in the other direction. Receives DC power and control signals and distributes them to the plurality of LED lines 122 connected to one side.

The heating wire 126 is formed between the LED lines 122 and is connected to the power & control wire hub module 125 to generate heat while receiving power and operating so that the mat can have a heating function.

The power & control line hub module 125 is coupled with a communication module 127 capable of wired or wireless communication, receives a control signal wirelessly from the controller module 300, and connects it to the substrate-type support form 120. The formed LED module 123 and the sterilization module 124 may be operated.

The upper form 130 is laminated on the substrate-type support form 120 having the above-described configuration, and absorbs the impact of the upper portion while simultaneously absorbing the LED line of the substrate-type support form 120 stacked on the lower portion. The pattern of (122) is not felt on the skin of the user lying on the mat.

At this time, as shown in FIG. 1, the upper form 130 has a light guide hole 131 formed at each position corresponding to the LED module 123 formed on the lower LED line 122, so that it is in contact with the user's skin. It is desirable to be able to lead to the upper end of the mat.

In addition, at this time, the light reflecting fiber 132 is formed on the inner circumferential surface of the light guiding hole 131 to prevent the light generated from the LED module 123 from being absorbed by the light guiding hole 131 so as to reach the upper end of the mat. It is desirable to improve the delivery rate of

The waterproof pad 140 is formed on the upper form 130 to block the liquid material flowing in from the upper pad 150, and the LED module 123 formed on the substrate-type support form 120 below, the sterilization module (124) or the power & control line hub module 125 is prevented from being damaged.

At this time, the waterproof pad 140 is a platform so that the light generated by the LED module 123 of the substrate-type support form 120 and transmitted to the light guide hole 131 can be transmitted to the upper pad 150. It is preferable to use a transparent tarpaulin made of Pliofilm.

On the other hand, at this time, it is more preferable that the waterproof pad 130 is a transparent tarpaulin made of pliofilm only in a portion corresponding to the light guide hole 131.

The top pad 150 is laminated on the top of the mat and is made of seashell fabric, and is a detachable zipper type with a zipper formed on the edge, so it can be easily attached to and detached from the mat.

At this time, although not shown, the lower form 110, substrate-type support form 120, upper form 130, Alternatively, it may be formed on the edge of the waterproof pad 140 and may be formed on a separate cover.

As described above, the light generated from the LED module 123 formed on the substrate-type support form 120 passes through the waterproof pad 140 along the light guide hole 131 and then reaches the top pad 150. It is transmitted and can finally be irradiated to the skin of the user lying on the upper pad 150.

On the other hand, as another embodiment, the LED mat of the insert structure in the present invention removes the substrate-type support form 120 as shown in FIG. The LED line 122 and the power & control line hub module 125 emitting light may be inserted into the insert groove 111 .

In this embodiment, it has been described that the insert groove 111 into which the LED line 122 and the power & control cable hub module 125 can be inserted is formed, but the insert groove into which the hot wire 126 can be inserted ( 111) is formed.

At this time, it is preferable that a flame retardant material 112 is applied to the surface of the lower form 110 on which the insert groove 111 is formed so as to minimize damage from fire that may occur in the LED line 122.

The power adapter 200 receives AC power, converts it into DC power, and supplies it to the power & control line hub module 125.

More specifically, as shown in FIG. 6 , the power adapter 200 includes a transformer 210 , a rectifier 220 , a filter 230 , and a regulator 240 .

The voltage of the 220V AC power input to the transformer 210 as AC is dropped appropriately for the capacity of the load to which the DC power is applied from the power adapter 200 .

Thereafter, the rectifier 220 converts the voltage of the positive/negative bi-directional sine wave AC power voltage dropped by the transformer into a positive unidirectional voltage through a process of converting the voltage into DC power.

The filter 230 converts the half-wave or full-wave voltage of the DC power converted by the rectifier 220 into a flat DC voltage.

Meanwhile, the DC voltage converted and output by the filter 230 contains ripples corresponding to small AC voltages.

When the output current of the DC power output from the filter 230 increases, the output voltage decreases and the ripple increases. The regulator 240 is formed at the output terminal of the filter 230 even if the output current changes. It generates and outputs a constant output voltage without ripple.

The capacitor 250 is further connected to the output terminal of the regulator 240 to stably suppress the transient voltage due to the impedance change of the LED line 122 on which the load, the LED module 123 and the sterilization module 124, are formed. Allows the adapter 200 to work.

The power adapter 200 supplies the DC power output from the output terminal of the capacitor 250 to the substrate-type support groove 120 as a load.

At this time, when a large-capacity battery 260 is further coupled to the output terminal and power less than the maximum capacity required by the substrate-type support groove 120 is supplied, the remaining power can be charged in the large-capacity battery 260. do.

For example, as described below, in the case of a two-person mat, when only half of the LED lines 122 are operated and the other half is turned off by the separate operating unit 380 to be used for one person, the controller module 300 The large-capacity battery 260 can be charged with the power saved by controlling the power adapter 200 to turn off the other half.

Then, according to the specific mode operation selection, all the LED lines 122 of the substrate-type support form 120 and the LED modules 123 and sterilization modules 124 formed on the corresponding LED lines 122 are operated to maximize power. When supply is required, the power charged in the large-capacity battery 260 is supplied auxiliary.

As described above, the LED mat system according to the present invention has a large-capacity battery 260 and can stably supply DC power even to a large-capacity load.

A switch 270 and a state of charge display unit 280 are formed between the large capacity battery 260 and an output terminal, and receive a control signal from the controller module 300, and the switch 270 is switched to the high capacity battery 260. Power is charged, or conversely, power is auxiliaryly supplied from the large-capacity battery 260 to the load.

The charge state display unit is composed of a lamp element and generates light of different colors according to the charge state.

As shown in FIG. It includes a heating operation unit 330, a timer setting unit 340, a display unit 350, a memory unit 360, and a dynamics control unit 370.

The mode selection panel 320 includes a red therapy mode operation unit 321, a blue care mode operation unit 322, a near infrared mode operation unit 323, a far infrared mode operation unit 324, a sterilization mode operation unit 325, A sleep mode operating unit 326 and an automatic mode setting unit 327 are provided.

The red therapy mode operating unit 321 senses a user's manipulation of the red therapy operation button formed on the surface of the controller module 300 to generate a red therapy operation signal and transmits it to the main control unit 310.

The main controller 310 receives the let therapy operation signal and powers the red light LED element 123a included in the LED module 123 of the LED line 122 connected to the power & control line hub module 125. is applied so that the red therapy mode can be performed.

The blue care mode operating unit 322 detects a user's manipulation of the blue care operation button formed on the surface of the controller module 300 to generate a blue care operation signal and transmits it to the main control unit 310 .

The main controller 310 receives the blue care operation signal and powers the blue ray LED element 123b included in the LED module 123 of the LED line 122 connected to the power & control line hub module 125. Switching is controlled so that this can be applied so that the blue care mode can be performed.

The near-infrared mode operation unit 323 senses a user's manipulation of a near-infrared operation button formed on the surface of the controller module 300, generates a near-infrared operation signal, and transmits it to the main controller 310.

The main controller 310 receives the near-infrared operation signal and applies power to the near-infrared LED element 123c included in the LED module 123 of the LED line 122 connected to the power & control line hub module 125. Switching is controlled so that the near infrared mode can be performed.

The far-infrared mode operation unit 324 detects a user's manipulation of the far-infrared operation button formed on the surface of the controller module 300, generates a far-infrared operation signal, and transmits it to the main control unit 310.

The main controller 310 receives the far-infrared operation signal and applies power to the far-infrared LED element 123d included in the LED module 123 of the LED line 122 connected to the power & control line hub module 125. Switching is controlled so that the far-infrared mode can be performed.

The sterilization mode operating unit 325 senses a user's manipulation of a sterilization operation button formed on the surface of the controller module 300, generates a sterilization operation signal, and transmits it to the main control unit 310.

The main controller 310 receives the sterilization operation signal and controls switching so that power can be applied to the sterilization module 124 of the LED line 122 connected to the power & control line hub module 125 so that the sterilization mode is established. allow it to be performed.

In particular, the sterilization mode operating unit 325 may be operated by a user's button manipulation, but a dust sensor or odor sensor is provided for each layer inside the mat so that the dust sensor detects dust above a standard value or the odor When the sensor detects a set odor, a sterilization mode may be automatically performed.

The sleep mode operation unit 326 detects a user's manipulation of a sleep operation button formed on the surface of the controller module 300, generates a sleep operation signal, and transmits it to the main control unit 310.

The main controller 310 receives the sleep operation signal and provides light care according to the sleep algorithm stored in the memory unit 360 so that the user can enter an optimal sleep state.

The sleep algorithm collects big data for use cases of numerous users, processes them, and sets the red therapy mode, blue care mode, near-infrared mode, or far-infrared mode to operate at the optimal time and intensity.

In addition, the sleep algorithm may be an algorithm directly set and stored by the user.

That is, the user sets the red therapy mode, blue care mode, near-infrared mode, or far-infrared mode and the automatic time of each mode with the timer setting unit 340, and sets the intensity with the intensity control unit 360 to set the memory By storing in the unit 360, it is possible to set a sleep algorithm only for use.

The automatic mode operation unit 327 detects a user's manipulation of a sleep operation button formed on the surface of the controller module 300, generates an automatic operation signal, and transmits it to the main control unit 310.

The main control unit 310 receives the automatic operation signal and allows the user to receive optimal light care according to the automatic algorithm stored in the memory unit 360 .

In particular, in the automatic algorithm, as in the sleep mode, the user sets the red therapy mode, blue care mode, near-infrared mode, or far-infrared mode and the automatic time of each mode with the timer setting unit 340, and the intensity control unit ( 360), and then input user information (user 1, user 2, grandmother, grandfather, father, mother, son, daughter, etc.) into the information input unit 390 so that each user can be identified. By storing only the automatic algorithm in the memory unit 360, a user-only sleep algorithm can be set.

When the heating operation unit 330 generates a heating operation signal according to the user's touch of the heating button and transmits it to the main control unit 310, the corresponding main control unit 310 converts the power & control line hub module 125 into a heating operation signal. ) and the heating wire 126 are connected so that heat can be generated on the mat.

As mentioned above, the timer setting unit 340 sets the above-described red therapy mode, blue care mode, near-infrared mode, far-infrared mode, sterilization mode, sleep mode, automatic mode, or thermal mode time according to the user's setting.

The display unit 350 displays the current status of the LED mat according to the present invention, such as whether it is currently in red therapy mode, blue care mode, sterilization mode, how many degrees the current temperature is during thermal operation, and how much time remains in the running mode. Indicates working status.

As described above, the memory unit 360 stores and manages a sleep algorithm for each user, an automatic algorithm, or user information input through the user information input unit 390 .

When the intensity control unit 370 executes the red therapy mode, the blue care mode, the near infrared mode, the far infrared mode, the sterilization mode, the sleep mode, the automatic mode, or the warm mode, the intensity is strongly or weakly adjusted.

The intensity control unit 370 generates an intensity control signal and transmits it to the main control unit 310, so that the main control unit 310 operates the red light LED element 123a, blue light LED element 123b, The intensity can be adjusted by adjusting the amount of power applied to the near infrared LED device 123c, the far infrared LED device 123d, the sterilization module 124 or the hot wire 126.

The separation operation unit 380 separates the plurality of LED lines 122 formed on the substrate-type support form 120 in half and operates them independently.

That is, when the mat is for two people and the substrate type support form 120 has 20 LED lines 122, the separate operating unit 380 separates each half of the 10 lines and operates them independently, so that each of the two different To receive an optical service, or when only one person uses the LED line 122, half of the LED line 122 is operated and the other half is turned off so that power can be efficiently used.

As described above, the information input unit 390 can input user information, match a specific algorithm with the user, and store and input the information into the memory unit 360, using the LED mat system according to the present invention. You can also enter various necessary information.

In the above, the technical idea of the present invention has been described together with the accompanying drawings, but this is an illustrative example of a preferred embodiment of the present invention, but does not limit the present invention. In addition, it is obvious that various modifications and imitations can be made by anyone having ordinary knowledge in the technical field to which the present invention belongs without departing from the scope of the technical idea of the present invention.

100: LED mat
110: lower form 111: insert groove
112: flame retardant material 120: substrate type support foam
121: base 122: LED line
122a: connection terminal 123: LED module
123a: Red ray LED element 123b: Blue ray LED element
123c: Near-infrared LED element 123d: Far-infrared LED element
124: sterilization module 125: power & control line hub module
125a: connection female terminal 126: hot wire
127: communication module 130: upper form
131: light guide hole 132: light reflection fiber
140: waterproof pad 150: top pad
200: power adapter
210: transformer 220: rectifier
230: filter 240: regulator
250: capacitor 260: large capacity battery
270: switch 280: charging status display unit
300: controller module
310: main controller 320: mode selection panel
321: red therapy mode operation unit 322: blue care mode operation unit
323: near infrared mode operation unit 324: far infrared mode operation unit
325: sterilization mode operation unit 326: sleep mode operation unit
327: automatic mode setting unit 330: heating operation unit
340: timer setting unit 350: display unit
360: memory unit 370: strength control unit
380: separation operation unit 390: information input unit

Claims (9)

A lower foam that absorbs the shock of the upper part and attenuates the sense of heterogeneity of the lower part;
An insert groove formed in a negative shape in the lower form;
a plurality of light emitting elements inserted into the insert groove and emitting various types of light upward;
an upper form stacked on the lower form in which the light emitting device is inserted into the insert groove to absorb an impact of the upper portion;
A top pad that is laminated on the top of the mat and detachable from the mat in a detachable zipper type with a zipper formed at the edge; and
A waterproof pad formed on the upper foam to prevent damage to light emitting devices by blocking liquid material flowing from the upper pad;
A plurality of light emitting devices
LED lines formed of a flexible printed circuit board on which wires and control lines are wired, and a plurality of LED lines formed in parallel by bonding the rear surface to the insert groove;
a heating wire formed between the LED lines and emitting heat by the applied power to increase the temperature of the mat; and
An LED module formed at predetermined intervals on the LED line and irradiated to the user's skin;
The upper form is
A light guide hole is formed at each position corresponding to the LED module so that the light generated from the LED module can be guided to the upper end of the mat,
The light guide hole is
An insert structured LED mat, characterized in that light reflecting fibers are formed on the inner circumferential surface to prevent the light generated from the LED module from being absorbed and lost.
According to claim 1,
A plurality of light emitting devices
It is inserted into the insert groove formed in the lower form, and the power & control wire hub module supplies and cuts off power to the power line and control line wired therein so as to be connected in parallel to the LED line and the hot wire. LED mat with insert structure.
According to claim 2,
An insert structured LED mat, characterized in that a flame retardant material is applied to the surface of the lower foam in which the insert groove is formed.
According to claim 2,
The LED line is
An insert structured LED mat, characterized in that the LED module is formed on the upper end in a state connected to electric wires and control wires so that power and control signals can be applied, and transparent silicon is coated thereon and packaged integrally.
According to claim 2,
The LED module
A red ray LED element that generates red rays to penetrate into the dermis layer and subcutaneous fat of the user's skin to regenerate the skin and relieve pain;
a blue ray LED element formed on one side of the red ray LED element to generate blue light rays and penetrate only to the epidermis of the user's skin to sterilize and soothe skin troubles;
a near-infrared ray LED element formed on one side of the blue ray LED element to generate near-infrared rays and irradiate the user to activate immune cells, discharge waste products, and increase core body temperature;
An insert structured LED mat comprising: a far-infrared LED element formed on one side of the near-infrared LED element to generate far-infrared rays and irradiate them to the user so as to penetrate deep into the skin to alleviate pain.
According to claim 5,
The red ray LED device generates red rays with a wavelength of 645nm to 660nm, the blue ray LED device generates blue rays with a wavelength of 415nm to 500nm), and the near-infrared LED device generates near-infrared rays with a wavelength of 800nm to 1400nm, The far-infrared LED element is an insert structured LED mat, characterized in that for generating far-infrared rays of 3um wavelength or more.
According to claim 6,
The far infrared ray LED device
An insert structured LED mat characterized in that it promotes metabolism by generating growth rays corresponding to a wavelength of 4um to 14um among far-infrared rays.
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