TWM521468U - Wearable lighting device - Google Patents

Description

Wearable illuminator

The present invention relates to a light-emitting device; more particularly, to a light-weight, portable and flexible wearable light-emitting device that can be attached to a human body part in any geometric shape for cosmetic or phototherapy.

Wearable devices are now becoming a trend in the future. There are many types of wearable devices, which can be roughly classified into glasses type, watch type, wear type, wear type and sticker type, depending on the application. The use of the above wearable devices for illuminating illumination has become widespread today. The light source using the light-emitting diode as a wearable device has been gradually improved, and the market acceptance is high. The light-emitting diode has excellent characteristics such as light and thin, self-luminous, low power consumption, no backlight, no viewing angle limitation, and high reaction rate. .

In addition, the conventional acupuncture therapy still has high risk and many side effects. Therefore, light therapy that uses light to illuminate the acupuncture points of human skin instead of needles has emerged. Therefore, there is a novel application field in the past, in which the body-mounted acupuncture points or skin are illuminated by the above-mentioned wearable device for phototherapy or beauty treatment.

Wearable illuminators are more important for the protection of moisture and moisture (such as sweat, hand washing, external rain, etc.) due to direct contact with the body. Most of the wearable illuminators are exposed with electrode contacts, external power supplies and control switches, making their circuits insensitive. The seal should be used carefully so that the components in the device are exposed to moisture, which causes troubles in the configuration and use of the circuit. Moreover, the conventional wearable illuminating device is still difficult to switch its illuminating band, which makes its application more limited.

Therefore, the wear-resistant illuminating device which is waterproof, oxygen-proof, moisture-proof, light and portable, can be flexibly folded into various types, and can be combined with a specific paint and can be used for phototherapy or beauty of human body skin is still in great potential.

Accordingly, the present invention provides a wearable lighting device that compactly integrates the switch body, the wireless charging system, the thin power supply unit, and the lighting unit into a unitary enclosed structure without any electrical contacts being exposed. In this way, it achieves waterproof oxygen and moisture resistance to improve component durability and extend service life. Furthermore, the wearable illuminating device is easy to develop various application types based on its thinness, portability and flexibility. It also achieves different cosmetic or phototherapy effects through the combination of different wavelengths of light and paint.

To achieve the above objective, in one embodiment, a wearable light-emitting device is provided, comprising a flexible substrate, a light-emitting unit, a power supply unit, a double-sided printed circuit board, and a switch body. The light emitting unit is disposed on the flexible substrate. The power supply unit is disposed on the light emitting unit, and is electrically connected to the light emitting unit. The double-sided printed circuit board is disposed on the power supply unit, and is provided with a wireless charging system and a switch control circuit. The wireless charging system and the switch control circuit are electrically connected to the power supply unit individually. The switch body is disposed on the double-sided printed circuit board, and is electrically connected to the switch control circuit. Where the power supply unit is not available through the wireless charging system Line charging; the power supply unit supplies the required power to the light emitting unit and the switch control circuit; and the switch body controls the light emitting intensity and the light emitting band of the light emitting unit through the switch control circuit.

In the above-mentioned wearable light-emitting device, the light-emitting unit may be an organic light-emitting diode or an inorganic light-emitting diode. The power supply unit can be a film type rechargeable battery.

In the aforementioned wearable lighting device, the wireless charging system may include a wireless charging receiving portion and a charging circuit. The charging circuit is electrically connected to the wireless charging receiving unit and the power supply unit. The wireless charging receiving portion may include an induction coil. The induction coil is electromagnetically induced by the main coil of one of the external charging devices to generate an inductance, and converts the electric energy to wirelessly charge the power supply unit through the charging circuit.

In the above-mentioned wearable light-emitting device, the switch body may include a magnetic shield, a control circuit layer, a pad layer and a panel layer. The magnetic spacer is disposed on the double-sided printed circuit board. The control circuit layer is disposed on the magnetic isolation sheet, and is electrically connected to the switch control circuit on the double-sided printed circuit board. The pad layer is disposed on the control circuit layer. The panel layer is disposed on the pad layer. The panel layer includes a plurality of buttons, and the buttons are electrically connected to the control circuit layer and the switch control circuit to switch the illumination intensity or the illumination band of the illumination unit.

In the above-mentioned wearable lighting device, the switch control circuit may be provided with an inductive receiving unit, which may be a sound sensor, a pressure sensor, a light sensor or a gravity sensor (G-sensor).

The wearable illuminating device may further include a sealing member for covering the wearable illuminating device. The seal is made of a waterproof oxygen material. The sealing member may be transparent, or a transparent area may be formed in the sealing member for the light emitting unit to transmit light. The seal can be further added with a hygroscopic material to increase the waterproof oxygen effect.

In the above-mentioned wearable light-emitting device, the light-emitting band of the light-emitting unit can be an ultraviolet light band of 280-450 nm, a visible light band of 400-700 nm, a red light band of 610-650 nm, an infrared light band of 650-1000 nm, and a distance of more than 1350 nm. Infrared light band, blue light band of 425~475nm or yellow light band of 580~600nm.

The wearable illuminating device can be flexed and folded into a ring on a human body part. The wearable illuminating device can be stretched into a garment lining, a hat lining, a pillow cover, an insole, a sock, an eye lining or a side film.

The aforementioned wearable illuminating device can emit various kinds of different colored lights to corresponding coating materials for catalytic reaction. If the wearable light-emitting device emits a red/infrared light band, the paint is a collagen, adenosine triphosphatase, a hepatic ester, a mucopolysaccharide or a hyaluronic acid. If the wearable illuminator emits a yellow band, the coating is a pair of hydroquinone or a left-handed C. If the wearable light-emitting device emits ultraviolet light B light band (280-320 nm), the paint is a coal tar. If the wearable illuminating device emits ultraviolet light A (320~400 nm), the coating is a psoralen.

In one example, a fiber may be coated on the wearable light-emitting device; the fiber is coated with a coating. The wearable illuminating device can emit ultraviolet light or visible light and illuminate the paint, and the paint is a nano photocatalyst.

100,200‧‧‧Wearing illuminators

110‧‧‧Flexible substrate

120‧‧‧Lighting unit

130‧‧‧Power supply unit

140‧‧‧Double-sided printed circuit board

141‧‧‧Wireless charging system

141a‧‧‧Wireless Charging Receiver

141b‧‧‧Charging circuit

141c‧‧‧Wireless charging receiver chip

141d‧‧‧Charging chip

150‧‧‧Switch body

151‧‧‧magnetic separator

153‧‧‧The rubber layer

154‧‧‧ panel layer

154a‧‧‧ button

160‧‧‧Seal

160a‧‧‧Lighting area

1 is a schematic exploded view of a wearable light-emitting device according to an embodiment of the present invention; and FIG. 2 is a schematic exploded view of the switch body in FIG. 1; 3 is a schematic view showing another embodiment of the wearable device in FIG. 1; FIG. 4 is a schematic view showing another embodiment of the wireless charging system in FIG. 1; FIG. 5A is a view showing another embodiment according to the present invention; FIG. 5B is a schematic view showing another embodiment of the wearable light-emitting device according to FIG. 5A; FIG. 6 is a perspective view showing the wearable light-emitting device of the present invention. FIG. 7 is a schematic view showing an application example of the wearable light-emitting device of the present invention; FIG. 8 is a schematic view showing another application example of the wearable light-emitting device of the present invention; FIG. 9 is a view showing the wear of the present invention; A schematic diagram of still another application example of the light-emitting device; and FIG. 10 is a schematic view showing still another application example of the wearable light-emitting device of the present invention.

Hereinafter, a plurality of embodiments of the present invention will be described with reference to the drawings. For the sake of clarity, many practical details will be explained in the following description. However, it should be understood that these practical details are not intended to limit the novel. That is to say, in some embodiments of the present invention, these practical details are not necessary. In addition, some of the conventional structures and elements are illustrated in the drawings in a simplified schematic manner, and the repeated elements may be represented by the same reference numerals.

Please refer to both Figure 1 and Figure 2. 1 is an exploded perspective view of a wearable light-emitting device 100 according to an embodiment of the present invention; and FIG. 2 is a schematic exploded view of the switch body 150 in FIG.

The wearable light-emitting device 100 includes a flexible substrate 110, a light-emitting unit 120, a power supply unit 130, a double-sided printed circuit board 140, and a switch body 150.

The light emitting unit 120 is disposed on the flexible substrate 110. The light emitting unit 120 may use an inorganic light emitting diode or an organic light emitting diode.

The power supply unit 130 is disposed on the light emitting unit 120, and is electrically connected to the light emitting unit 120 and provides required power to the light emitting unit 120.

The double-sided printed circuit board 140 is disposed on the light emitting unit 120, and is provided with a wireless charging system 141 and a switch control circuit 142. The switch control circuit 142 is electrically connected to the power supply unit 130 to obtain the required power. The wireless charging system 141 is also electrically connected to the power supply unit 130 to wirelessly charge the power supply unit 130. In one example, the power supply unit 130 is a thin film type rechargeable battery.

The switch body 150 is disposed on the double-sided printed circuit board 140 and electrically connected to the switch control circuit 142. The switch body 150 can control the light-emitting characteristics such as the light-emitting intensity or the light-emitting band of the light-emitting unit 120 through the switch control circuit 142.

See Figure 2 for the detailed breakdown of the switch body 150. The switch body 150 includes a magnetic isolation sheet 151, a control circuit layer 152, a pad layer 153, and a panel layer 154.

The magnetic spacer 151 is disposed on the double-sided printed circuit board 140, and may be made of a PET material and a high magnetic conductive material, and functions to separate the control circuit layer 152 and the double-sided printed circuit board 140. In general, the aforementioned wireless charging system 141 is also often provided with a structure similar to the magnetic isolation sheet 151, which functions to prevent electromagnetic interference. In the present invention, the same magnetic isolation sheet 151 is used as the control circuit layer 152 and the double-sided printed circuit board 140 of the separation switch body 150 and The magnetic isolation component of the wireless charging system 141 thereby allows the wearable lighting device 100 of the present invention to be more highly integrated in structure and to streamline component use.

The control circuit layer 152 is disposed on the magnetic isolation sheet 151. The light-emitting unit 120 is activated or controlled by electrically connecting the control circuit layer 152 to the switch control circuit 140 on the double-sided printed circuit board 140 by a pressing action.

The pad layer 153 is disposed on the control circuit layer 152.

The panel layer 142 is disposed on the pad layer 153. The panel layer 154 is provided with a plurality of buttons 154a. The control circuit layer 152 and the switch control circuit 142 can be electrically connected by pressing the buttons 154a to control the light-emitting intensity or the light-emitting band of the light-emitting unit 120. More specifically, the plurality of buttons 154a respectively correspond to different functions, and metal contacts (not shown) are disposed under the buttons 154a, and are electrically connected to the control circuit layer 152 through the metal contacts, and the control circuit layer 152 is further connected to the switch. The control circuit 142 is electrically connected. When the corresponding function button 154a is pressed, the control unit layer 152 and the switch control circuit 142 cooperate to control the light-emitting unit 120 to emit different light intensities or light-emitting bands.

For an example of the wireless charging system 141, please refer to FIG. The wireless charging system 141 basically includes a wireless charging receiving unit 141a and a charging circuit 141b. The charging circuit 141b is electrically connected to the wireless charging receiving unit 141a and the power supply unit 130. The basic wireless charging operation principle, the wireless charging receiving portion 141a is provided with an induction coil. In one example, the induction coil can be a printed induction coil for thinning requirements. During charging, an inductance is generated by electromagnetic induction of one of the main coils of an external charging device, and the electric energy is converted and the power supply unit 130 is wirelessly charged through the charging circuit 141b.

Please refer to FIG. 3 , which is a schematic diagram of another embodiment of the wearable light-emitting device 100 in FIG. 1 . The switch body 150 controls the switching of the light-emitting unit 120 and switches the light-emitting mode by pressing. In Fig. 3, another possible example of controlling the light emitting unit 120 is illustrated. An inductive receiving unit 142a may be disposed on the switch control circuit 142, which may be a sound sensor, a pressure sensor, a light sensor, or a gravity sensor (G-sensor). Thereby, the switch of the light-emitting unit 120 and the switching of the light-emitting mode can be controlled through various non-contact methods. At this time, the switch body 150 does not need to have a multi-layer structure as in the foregoing embodiment, and only a single layer of soft film can be used, thereby making the overall wearable light-emitting device 100 lighter and thinner, and the surface is more flat. Therefore, the wearable light-emitting device 100 of the present invention can control the switching of the light-emitting unit 120 and switch the light-emitting mode by providing various forms such as a membrane switch or an inductive switch, thereby increasing the convenience of use.

Based on the development of current wireless charging technologies, the wireless charging system 141 of the present invention can be implemented in different ways to meet various needs. Please refer to FIG. 4; FIG. 4 is a schematic diagram showing another embodiment of the wireless charging system 141 in FIG. 1.

In FIG. 4, the wireless charging receiving portion 141a and the charging circuit 141b are replaced with a wireless charging receiving wafer 141c and a charging wafer 141d. The wireless charging receiving chip 141c can use, for example, a wireless charging receiving chip of the model number bq51003 of the German company; and the charging chip 141d can be used with a charging chip of the model bq500210 such as Texas Instruments. With the above two highly integrated chips, the complicated circuit process of the original wireless charging receiving portion 141a and the charging circuit 141b can be simplified, and the structure of the wearable light-emitting device 100 of the present invention is simpler and easier to use.

In the above-mentioned wearable light-emitting device 100, the substrate having the flexible substrate 110 as a whole structure is directly omitted, the conventional switch portion components are omitted, and the wireless charging system 141 and the switch control circuit 142 required for the conventional switch are directly integrated on both sides. On the printed circuit board 140. Thereby, the switch body 150, the power supply unit 130, the wireless charging system 141, and the light emitting unit 120 can be highly integrated to form a thin wearable light-emitting device 100. In the wearable lighting device 100, all components and circuit systems are completely sealed and integrated into the overall structure, and the power supply unit 130 can also be wirelessly charged without an exposed power connector. Therefore, the waterproof oxygen-proof and moisture-proof effect of the present invention makes the wearable light-emitting device 100 of the present invention more durable and longer in life.

In order to increase the effect of waterproofing oxygen and moisture, please refer to Figure 5A and Figure 5B together. FIG. 5A is a schematic view showing a wearable light-emitting device 200 according to another embodiment of the present invention; FIG. 5B is a schematic view showing another embodiment of the wearable light-emitting device 200 according to FIG. 5A.

In the wearable light-emitting device 200, a seal 160 is coated on the wearable light-emitting device 100. The seal 160 is made of a material that is resistant to water and oxygen. Thereby, in addition to the wearable illuminating device 100 of the original highly tightly packed, the water-oxygen effect is better transmitted through the sealing member 160. In one example, as shown in FIG. 5B, a moisture absorbing material is added to the sealing member 160 and a light transmitting region 160a is opened for the light emitting unit 120 of the wearable light emitting device 100 to transmit light. Thereby, the moisture absorbing material further enhances the waterproof oxygen resistance to achieve a good luminescent effect.

The basic structure of the wearable lighting device (100, 200) is disclosed above in various embodiments. Based on the development of modern process technology, all components of the wearable light-emitting device (100, 200) can be formed thin, and thus the wearable light-emitting device (100, 200) can be flexed into any shape and have a variety of different application types.

For example, please refer to Figure 6. FIG. 6 is a schematic view showing the state in which the wearable light-emitting device 100 of the present invention is in a flexed state. In Fig. 6, the wearable light-emitting device 100 can be flexed and bent. Thereby, the desired shape can be formed to cope with various conditions when worn.

Various application embodiments of the wearable lighting device (100, 200) will be described next. Referring to FIG. 7 to FIG. 10 together, a schematic diagram of various application examples of the wearable light-emitting device 100 is shown. In the seventh embodiment, the wearable light-emitting device 100 is in the form of a mask on which the light-emitting unit 120 can emit colored light of different wavelength bands to illuminate the skin of the human body to achieve different whitening effects, and the light-emitting unit can be controlled through the button 154a. 120 light color and luminous intensity to ensure beauty and safety. Since the wearable light-emitting device 100 can be flexed, it can be formed into a ring shape and sleeved to various parts of the human body. For example, in FIG. 8, the ring-shaped wearable light-emitting device 100 is sleeved on the thumb knuckles so that it can illuminate the acupuncture point of the human hand to achieve a phototherapy effect. In Fig. 9, the sheet-like wearable light-emitting device 100 is attached to the corresponding acupuncture point of the human foot to achieve a phototherapy effect. Further, as in Fig. 10, the wearable light-emitting device 100 is attached to various parts of the human body in various forms. For example, the ring-shaped wearable light-emitting device 100 can also be sleeved to the wrist; or the sheet-like wearable light-emitting device 100 can be attached to the head or made into a mask to make it shine. Irradiate the desired area to achieve a therapeutic or whitening effect. In a more possible embodiment, the wearable illuminating device 100 can also be stretched into a garment lining, a hat lining, a pillow cover, an insole, a sock or an eye lining. The examples disclosed are limited.

7 to 10 above illustrate that the wearable light-emitting device 100 can be arbitrarily flexed and attached to various parts of the human body. Continuing with the description of the wearable lighting device 100 Various embodiments of various coatings were applied to different light colors. The coating material described above is applied to the skin of human organs, the light-emitting surface of the wearable light-emitting device 100 or the material coated on the wearable light-emitting device 100, and then irradiates the paint through light of different wavelength bands. Accelerate the reaction of paint with human skin to achieve a variety of beauty phototherapy effects.

For example, the light-emitting unit 120 of the wearable light-emitting device 100 can emit ultraviolet light (280-450 nm), visible light (400-700 nm), red light (610-650 nm), infrared light (650-1000 nm), Far infrared light band (greater than 1350nm), blue light band (425~475nm) or yellow light band (580~600nm), together with the corresponding coating, can achieve different beauty phototherapy effects. The following paragraphs first describe the combination of color light and different paints in different wavelength ranges, and then describe the corresponding beauty phototherapy effects.

Combination of color light and different coatings in different wavelength ranges: If the wearable illuminating device (100, 200) emits red/infrared light, the coating can be a collagen, adenosine triphosphate, monoglycoside, a mucopolysaccharide Class or a hyaluronic acid. If the wearable light-emitting device (100, 200) emits a yellow light band, the paint may be a pair of hydroquinone or a left-handed C. If the wearable illuminating device (100, 200) emits ultraviolet light B (280-320 nm), the paint may be a coal tar. If the wearable illuminating device (100, 200) emits an ultraviolet light A-light band (320-400 nm), the coating may be a psoralen. In one example, a fiber is coated on the wearable light-emitting device 100 and coated with a coating on the fiber, and the coating can be a nanophotocatalyst.

For example, the novel phototherapy effect corresponding to the present invention is as follows.

1. Individual lighting effect:

(1) Neonatal jaundice can reduce bilirubin by blue light (425~475nm). At present, many children wear eye masks (easy to rest) or naked body exposure (easy to cause water loss); The back-illuminated phototherapy bed, the wearable illuminating device (100, 200) can be made into an internal illuminating garment or burqa.

(2) Relaxing pillowcase: The wearable light-emitting device (100, 200) can be made into a pillowcase and emits infrared light/far infrared light, and the external light is irradiated to the head and neck of the person.

(3) Bald treatment: The wearable illuminating device (100, 200) can be made into a hat lining and placed in a hat, emitting red light or external light to illuminate the head, which can delay hair loss/long new hair.

(4) Anti-white hair: The wearable illuminating device (100, 200) emits red light or infrared light to illuminate the corresponding human acupuncture points to prevent white hair or hair loss, and has the following various embodiments: (a) wearable illuminating device (100) , 200) can be made into insoles or socks, forming a regional illumination at the location of the Yongquan (foot) (overcoming the problem of different foot sizes). (b) The wearable illuminating device (100, 200) can be made into a small finger sleeve to illuminate the kidney hole and the life gate acupoint on the little finger of the hand. (c) The wearable illuminating device (100, 200) can illuminate the Baihui (top of the head), integrates with the bald cap to prevent white hair and prevent hair loss.

(5) Acupuncture: Each color of light acupunctures acupuncture points instead of acupuncture.

2. Beauty patch (mask, face-lift belt, etc.):

(1) The wearable illuminating device (100, 200) can be made into a red mask, and the illuminating surface is coated with moisturizing, collagen or adenosine triphosphatase (ATP) and the like, and then attached to the face to firm and fade the fine lines. . Red light can penetrate the dermis to activate cells, and with a refreshing moisturizing lotion, it can treat acne-type acne.

(2) The wearable illuminating device (100, 200) emits blue light to kill acne bacteria, treat cystic acne (a syrup that can be combined with an antibacterial formula), and can also whiten shallow.

(3) Wearable illuminating device (100, 200) emits yellow light to metabolize melanin and strengthen lymphatic circulation, improve skin texture and even skin tone (with hydroquinone, L-C coating, whitening effect is better).

3. Wound repair (depending on different stages, different light color treatments or different coatings):

(1) Wearable illuminating device (100, 200) can be used for blue light sterilization with nano silver dressing.

(2) The wearable illuminating device (100, 200) emits yellow light to heal/metabolize melanin/enhanced lymphatic circulation, and can be used with artificial skin to accelerate wound healing.

(3) The wearable illuminating device (100, 200) emits red light, and collagen, adenosine triphosphatase (ATP) and the like can stimulate fibroblasts/collagen cells/repair cells.

4. Insole deodorization: The wearable illuminating device (100, 200) coats the fiber, and the fiber near the illuminating surface can be coated with a nano photocatalyst to achieve a deodorizing effect by illuminating the photocatalyst. The light source can be UV light or visible light depending on the photocatalyst selected.

5. 瘀 瘀 : 穿戴 穿戴 穿戴 穿戴 穿戴 穿戴 穿戴 穿戴 穿戴 穿戴 : : : : : : : : : : : : : : : : : : : : : : : : : : : : : : : : : : Pain, reduce swelling.

6. Eliminate stretch marks/obesity lines: Wearable light-emitting devices (100, 200) emit red light or infrared light on the dermis layer, and with collagen, hyaluronic acid and other coatings, can quickly rebuild connective tissue and remove stretch marks.

7. Treatment of skin diseases:

(1) Coating preparation: wearable light-emitting device (100, 200) emits ultraviolet B light (wavelength 280-320 nm), and irradiates coal tar paint to treat dryness, atopic dermatitis, urinary pruritus and systemic wetness. rash.

(2) Oral sensitizing preparations: wearable illuminating devices (100, 200) emit ultraviolet A light (wavelength 320-400 nm), and irradiate psoralen coating to treat dryness, atopic dermatitis, vitiligo, Organ transplant skin disease and skin lymphoma.

8. Breast enhancement:

(1) Spraying the breast spray or alone, the wearable illuminating device (100, 200) is made into a cup (chest pad), which emits red or infrared light to cover 4 main acupuncture points; and can provide cups of different sizes. It can be integrally formed with the corset or fixed by a curved lily hook and loop fastener.

9. Elimination of edema:

(1) Face: The wearable illuminating device (100, 200) emits red light, and irradiates four white, Yingxiang and other acupoints, which can eliminate edema and face, and accelerate the metabolism of wastewater.

(2) Lower limbs: wearable illuminating devices (100, 200) can be made into sock sleeves, coated with dyes such as Tang Xinzi, chitin or wood (bamboo) sputum on the light-emitting surface, by illuminating the positions of human acupoints such as Sanyinjiao and Taixi. Eliminate edema of the limbs.

In summary, the wearable illuminating device disclosed in the present invention can achieve the waterproof oxygen and moisture-proof effect of the wearable illuminating device through the tightly closed structure, can increase the durability of the wearable illuminating device, and prolong the wearable illuminating device. Service life. Wearable illuminators are lightweight, portable and flexible, and can be used in a variety of styles. Furthermore, by wearing The illuminating device emits different wavelengths of light, and various paints can be used to achieve different cosmetic and phototherapy effects.

Although the present invention has been disclosed in the above embodiments, it is not intended to limit the present invention. Any one skilled in the art can make various changes and retouchings without departing from the spirit and scope of the present invention. The scope is subject to the definition of the scope of the patent application attached.

100‧‧‧Wearing illuminators

110‧‧‧Flexible substrate

120‧‧‧Lighting unit

130‧‧‧Power supply unit

140‧‧‧Double-sided printed circuit board

141‧‧‧Wireless charging system

141a‧‧‧Wireless Charging Receiver

141b‧‧‧Charging circuit

142‧‧‧Switch control circuit

150‧‧‧Switch body

Claims (26)

A wearable light-emitting device comprises: a flexible substrate; an illumination unit is disposed on the flexible substrate; a power supply unit is disposed on the illumination unit, the power supply unit is electrically connected to the illumination unit; and a double-sided printed circuit board Provided on the power supply unit, the double-sided printed circuit board is provided with a wireless charging system and a switch control circuit, the wireless charging system and the switch control circuit are electrically connected to the power supply unit; and a switch body is disposed on the double The switch body is electrically connected to the switch control circuit; wherein the power supply unit is wirelessly charged through the wireless charging system, and the power supply unit supplies required power to the light emitting unit and the switch control circuit, and The switch body controls the illumination intensity and the emission band of the illumination unit through the switch control circuit. The wearable light-emitting device of claim 1, wherein the light-emitting unit is an organic light-emitting diode. The wearable light-emitting device of claim 1, wherein the light-emitting unit is an inorganic light-emitting diode. The wearable lighting device of claim 1, wherein the power supply unit is a film type rechargeable battery. The wearable lighting device of claim 1, wherein the wireless charging system comprises: a wireless charging receiving unit; and a charging circuit electrically connected to the wireless charging receiving unit and the power supply unit. The wearable lighting device of claim 5, wherein the wireless charging receiving portion comprises an induction coil that is electromagnetically induced by a main coil of an external charging device to generate an inductance and convert the electrical energy to transmit The charging circuit wirelessly charges the power supply unit. The wearable light-emitting device of claim 1, wherein the switch body comprises: a magnetic isolation sheet disposed on the double-sided printed circuit board; a control circuit layer disposed on the magnetic isolation sheet, the control circuit layer Electrically connecting the switch control circuit on the double-sided printed circuit board; a pad layer is disposed on the control circuit layer; and a panel layer is disposed on the pad layer, the panel layer includes a plurality of buttons, and the buttons After pressing, the control circuit layer and the switch control circuit are electrically connected to switch the light-emitting intensity or the light-emitting band of the light-emitting unit. The wearable lighting device of claim 1, wherein the switch control circuit comprises an inductive receiving unit. The wearable light-emitting device of claim 8, wherein the inductive receiving unit is a sound sensor, a pressure sensor, a light sensor or a gravity sensor (G-sensor). The wearable illuminating device of claim 1, further comprising a sealing member for covering the wearable illuminating device. The wearable lighting device of claim 10, wherein the sealing member is made of a water-repellent oxygen material. The wearable lighting device of claim 10, wherein the sealing member is transparent. The wearable illuminating device of claim 10, wherein a transparent area is formed in the sealing member for the light emitting unit to transmit light. The wearable lighting device of claim 10, wherein the sealing member is provided with a moisture absorbing material. The wearable light-emitting device according to claim 1, wherein the light-emitting band of the light-emitting unit is a blue light band of 425 to 475 nm. The wearable light-emitting device of claim 1, wherein the light-emitting band of the light-emitting unit is one of red light bands of 610 to 650 nm. The wearable light-emitting device according to claim 1, wherein the light-emitting band of the light-emitting unit is one of infrared light bands of 650 to 1000 nm. The wearable light-emitting device of claim 1, wherein the light-emitting band of the light-emitting unit is one of far-infrared light bands greater than 1350 nm. The wearable light-emitting device according to claim 1, wherein the light-emitting band of the light-emitting unit is a yellow light band of 580-600 nm. The wearable illuminating device of claim 1, wherein the wearable illuminating device is flexible in a ring shape for arranging. The wearable illuminating device of claim 1, wherein the wearable illuminating device can be stretched into a garment lining, a hat lining, a pillow cover, an insole, a sock, and an eye cover. Lining or a film. The wearable illuminating device of claim 1, wherein the wearable illuminating device emits a red or infrared light band to illuminate a coating, the coating being a collagen, adenosine triphosphate, a hepatic ester, a sticky Polysaccharide or a hyaluronic acid. The wearable illuminating device of claim 1, wherein the wearable illuminating device emits a yellow light band to illuminate a paint, the paint is a pair of benzenediol or a left-handed C, and the paint is applied to a human body. Part. The wearable illuminating device of claim 1, further comprising a fiber, the fiber is coated on the wearable illuminating device, and the fiber is coated with a coating; wherein the wearing illuminating device emits 280-450 nm The coating is irradiated in one of the ultraviolet light band or one of the visible light bands of 400 to 700 nm; the coating is a nano photocatalyst. The wearable illuminating device of claim 1, wherein the wearable illuminating device emits a 280-320 nm ultraviolet B-light band to illuminate a coating, the coating is a coal tar, and the coating is applied to a human organ. Part. The wearable illuminating device of claim 1, wherein the wearable illuminating device emits a coating of ultraviolet light in a range of 320 to 400 nm, and the coating is a psoralen (psoralen). Apply to a part of a human body.