TWI834430B - Headphone device with light therapy function - Google Patents

Abstract

An earphone device with a phototherapy function includes an earphone unit and a head phototherapy unit installed on the earphone unit. The headphone unit includes two headphone modules, and a left and right fitting extending between the headphone modules and used to be worn on the user's head. The head phototherapy unit includes a housing module installed on the wearing piece and leaning downward against the top of the user's head, and a first light emitting device disposed on the housing module that can emit far-infrared rays toward the user's head. Mods. Through the design of installing the head phototherapy unit on the headphone unit, the head phototherapy unit can be used to perform phototherapy on the head acupuncture points while listening to the music output by the headphone unit, and most of the far infrared rays generated It will be directly irradiated on the user's head, which can greatly improve the effect of light therapy.

Description

Headphone device with light therapy function

The present invention relates to a sound output device, in particular to an earphone device with a phototherapy function.

From a traditional Chinese medicine perspective, the human head is covered with many acupuncture points, and stimulation of the acupoints on the head can help improve specific physiological functions. Currently, most of the methods used to stimulate acupuncture points on the head are acupuncture. However, acupuncture is an invasive medical practice and must be performed by a legal physician. Non-general people can handle it on their own. Since far-infrared rays also have the function of stimulating acupuncture points, many people will place a far-infrared light therapy device next to the body and irradiate far-infrared rays toward the head to stimulate acupuncture points. However, this method of irradiating far-infrared rays from the side will not be able to focus on the head due to the divergence of the light, so it will not be able to produce a good irradiation stimulation effect.

Therefore, an object of the present invention is to provide an earphone device with a phototherapy function that can improve at least one shortcoming of the prior art.

Therefore, the earphone device with phototherapy function of the present invention is suitable for being worn on a user's head. The earphone device includes an earphone unit and a head phototherapy unit installed on the earphone unit.

The earphone unit includes two earphone modules that are respectively disposed on the user's ears and can be used to output sound, and a left and right extension connected between the earphone modules and used to be worn on the user's head. Accessories. The head phototherapy unit includes a housing module installed on the wearer for leaning downward against the top of the user's head, and a housing module that is disposed on the housing module and can be controlled to emit light toward the top of the user's head. The first far-infrared light emitting module.

The effect of the present invention is that by installing the head phototherapy unit on the headphone unit, the head phototherapy unit can be used to treat the user's head while the music outputted through the headphone unit is for the user to listen to. When performing phototherapy on acupuncture points, most of the far-infrared rays generated will be directly irradiated on the user's head, which can greatly improve the effect of phototherapy.

Before the present invention is described in detail, it should be noted that in the following description, similar elements are designated with the same numbering.

Referring to Figures 1 and 2, a first embodiment of an earphone device 200 with a phototherapy function of the present invention is suitable for being worn on the head of a user 800, and can be used to perform far-infrared phototherapy on the head of the user 800. With hot compress, it can be used for signal connection with a music playing device (not shown), and can output music played by the music playing device for the user 800 to listen to. The earphone device 200 with phototherapy function includes an earphone unit 3 for wearing on the head of the user 800, and a communication unit 4, a head phototherapy unit 5, and an ear installed on the earphone unit 3. Phototherapy unit 6 and a control unit 7 .

Referring to Figures 1, 2, and 3, the earphone unit 3 includes two earphone modules 31 for respectively covering the ears of the user 800, and a left and right arc-shaped extension connected between the earphone modules 31. The wearing piece 32 is used to be worn on the head of the user 800 . Each earphone module 31 has an earphone holder 311 connected to the wearing piece 32, a cushion 313 provided on the earphone holder 311 and used to abut against the head of the user 800, and an A sound output element 314 for outputting sound to the corresponding ear 801 can be provided in the earphone base 311 . The cushion 313 can support the earphone holder 311 away from the head surface of the user 800 . The earphone holder 311 has a plurality of heat dissipation holes 312 penetrating from left to right, and cooperates with the cushion 313 to define an earmuff space 310 for accommodating the corresponding ear 801. The sound output element 314 is exposed on in the earmuff space 310.

In the first embodiment, the soft cushion 313 of each earphone module 31 is in the shape of a curved strip. However, in other embodiments of the present invention, the soft cushion 313 can also be used. It is changed to a circular shape in the left and right axial directions, and can cooperate with the earphone holder 311 to surround the earmuff space 310 that defines an opening toward the head of the user 800 and is used to completely cover the outside of the corresponding ear 801 . In addition, in the first embodiment, the sound output components 314 are in-ear headphones. However, during implementation, since there are many types of sound output components 314 that can be used to output sound, for example, they may also be changed to ear-hook headphones or bone conduction headphones. type headphones, etc., so during implementation, the type of the sound output components 314 is not limited to the diagram style.

The communication unit 4 is connected to the sound output components 314 via signals and can be used to be connected to the music player device to transmit the music being played by the music player device to the sound output components 314 for output. In the first embodiment, the communication unit 4 is a signal line for signal connection with the sound output components 314, and can be used for direct signal connection and insertion into the music player device. However, during implementation, in other implementation aspects of the present invention, the communication unit 4 can also be changed to a communication element that can wirelessly communicate with the music player through currently known wireless communication technology, such as a Bluetooth module, and can be provided with An earphone holder 311 is provided in the wearing part 32 .

Referring to Figures 1, 2, and 4, the head phototherapy unit 5 includes a housing module 51 installed on the wearing piece 32, and a first hot compress module 52 installed in a stack on the housing module 51. A first light-emitting module 53 and a first heat sink 54.

The shell module 51 has a shell body 511 that can be slidably installed on the wearer 32 left and right along the length of the wearer 32 , and a shell body 511 that is disposed on the shell body 511 and used to lean against the user. 800 The headrest cushion 513. A plurality of heat dissipation holes 512 are formed around the shell body 511 . In the first embodiment, the cushion 513 is an annular ring that is axially ringed up and down on the shell body 511 and can push the shell body 511 upward away from the top of the user's head. However, during implementation, , in other embodiments of the present invention, the soft cushion 513 can also be changed into a curved strip shape similar to the soft cushion 313 of the earphone module 31 .

The first hot compress module 52 is installed and fixed in the shell body 511, and cooperates with the shell body 511 to define a first installation space 50 connected to the heat dissipation holes 512, and has a plurality of modules extending upward from the bottom surface. The first through hole 520 penetrates and communicates with the first installation space 50 . The first heat compress module 52 includes a sheet-shaped first heating element 521 that can be energized and heated, a first heat insulator 522 of thermally insulating material laminated on the top side of the first heating element 521, and a laminated The first functional material body 523 is provided on the bottom side of the first heating element 521 . The first heat insulator 522 can block the heat energy of the first heating element 521 from flowing upward into the first installation space 50 . The first functional material body 523 is made of a material that can be heated to emit far-infrared rays, such as but not limited to cloth made of far-infrared yarn, or mixed with minerals or ceramics that have far-infrared radiating energy. Made objects. Since there are many types of the first functional material body 523 that can emit far-infrared rays, they will not be described in detail and are not limited to the above-mentioned ones.

The first light-emitting module 53 is disposed in the first installation space 50 and has a first circuit board 531 and a plurality of electrical connections disposed on the first circuit board 531 and protruding downward respectively through the third circuit boards 531 . A first light emitting element 532 is provided in a through hole 520 . The first light-emitting components 532 can be driven by the first circuit board 531 to emit far-infrared rays that penetrate downward through the first through-holes 520 . The first heat sink 54 is disposed in the first installation space 50 and is stacked above the first circuit board 531 to guide and dissipate the heat energy of the first circuit board 531 . In the first embodiment, the first heat dissipation member 54 is a metal fin. However, in other embodiments of the present invention, the first heat dissipation member 54 may also be an object made of heat dissipation gel or other thermally conductive materials.

Referring to Figures 1, 2, and 3, the ear phototherapy units 6 are respectively installed and fixed on the earphone holders 311, and are respectively located in the earmuff spaces 310. Each ear phototherapy unit 6 includes a second hot compress module 61 , a second light-emitting module 62 and a second heat sink 63 stacked on the left and right sides of the corresponding earphone base 311 , and the second hot compress module 61 The earphone holder 311 cooperates to define a second installation space 60 that communicates with the heat dissipation holes 312 , and has a plurality of second through holes 610 left and right that connect the second installation space 60 and the earmuff space 310 . The second light emitting module 62 and the second heat sink 63 are disposed in the second installation space 60 .

Each second heating module 61 has a second heating element 611 that can be energized and heated, a second heat insulator 612 stacked between the second heating element 611 and the second light-emitting module 62, and A second functional material body 613 is provided on the second heating element 611 and exposed in the corresponding earmuff space 310 . Since the functional designs of the second heat insulating body 612 and the second functional material body 613 are the same as those of the first heat insulating body 522 and the first functional material body 523 respectively, no further description will be given.

Each second light-emitting module 62 has a second circuit board 621, and a plurality of second circuit boards 621 that are electrically connected to the second circuit board 621 and are respectively penetrated through the second through holes 610 and exposed in the corresponding earmuff space 310. Two light-emitting components 622. The second light-emitting components 622 can be driven by the second circuit board 621 to emit far-infrared rays that penetrate the second through-holes 610 . Each second heat dissipation member 63 is against the side of the corresponding second circuit board 621 facing away from the second heat application module 61 and can be used to guide and dissipate the heat energy of the second circuit board 621 . Since the functional design of the second heat dissipation component 63 is the same as that of the first heat dissipation component 54 , no further description will be given.

Referring to Figures 1 and 5, the control unit 7 is disposed on the shell body 511 and is electrically connected to the first heating element 521, the first light-emitting module 53, the second heating elements 611 and the second light-emitting modules. 62, and has a light adjustment module 71 and a temperature adjustment module 72. The dimming module 71 is operable to control the light-emitting mode of the first light-emitting elements 532 (shown in FIG. 4 ) of the first light-emitting module 53 and to control the light-emitting modes of the second light-emitting modules 62 . The second light-emitting component 622 (shown in FIG. 3 ) emits light in a light-emitting mode. The light-emitting mode includes, but is not limited to, light-emitting frequency and light-emitting time. The temperature control module 72 can be operated to control the heating mode of the first heating element 521 and the second heating element 611, such as but not limited to heating temperature and heating time.

In the first embodiment, the control unit 7 is disposed on the housing module 51 . However, in other embodiments of the present invention, the control unit 7 can also be disposed on the wearing device. 32 or one of the headphone sockets 311, or is independent of the headphone unit 3, and is electrically connected to the first light-emitting module 53, the first hot compress module 52, the second light-emitting module 62 and the third light-emitting module 32 through signal lines. Two hot compress modules 61. Since the control unit 7 can be arranged in many ways, the implementation is not limited to the above-mentioned ways.

It must be noted that when the present invention is implemented, the power required for operation will also be obtained through currently known technologies, such as installing a battery or connecting an external power source through a power cord. Since there are many ways to obtain power and they are not the focus of improvement of the present invention, they will not be described in detail.

Referring to Figures 1, 2, and 5, when the first embodiment of the earphone device 200 with phototherapy function of the present invention is used, it can be worn on the head of the user 800 through the earphone unit 3, so that the user 800 can Both ears are located in the earmuff spaces 310 respectively. The sound output components 314 are respectively aimed at both ears of the user 800 . The ear phototherapy units 6 will be close to both ears respectively. The head phototherapy unit 5 will be folded down and rest on the top of the user's 800 head. Then, the communication unit 4 can be connected to the music playing device via a signal, so that the sound output elements 314 can output the music of the music playing device for listening.

When light therapy is to be performed, the light-emitting mode of the head phototherapy unit 5 and the ear phototherapy units 6 can be individually activated and set by operating the dimming module 71 , so that the user 800 can control the top of the head and both ears. Far-infrared rays are irradiated to corresponding acupuncture points for phototherapy. When hot compressing is required, the temperature of the first heating element 521 and the second heating element 611 can be controlled by operating the temperature adjustment module 72, so that the first functional material body 523 (shown in FIG. 4) The second functional material body 613 (shown in FIG. 3 ) is heated to generate far-infrared rays.

When it is necessary to perform phototherapy and hot compress on other parts of the head, the head phototherapy unit 5 can be moved left and right relative to the wearing piece 32 to move the head phototherapy unit 5 to the desired position.

In addition, in the first embodiment, the earphone unit 3 is connected to the music playing device via a signal through the communication unit 4 and can be used to output music played by the music playing device. However, during implementation, in another embodiment of the present invention, the headphone unit 3 can also be changed to a functional type that can store and play music files, and can directly play and output the stored music for listening. Since the headphone unit 3 capable of storing and playing music files is an existing technology and has many types, it will not be described in detail.

During implementation, in another embodiment of the present invention, the first light-emitting elements 532 of the first light-emitting module 53 can also be designed to generate far-infrared rays of different wavelengths, and the first The second light-emitting components 622 of the two light-emitting modules 62 are designed to generate far-infrared rays of different wavelengths, so that the head phototherapy unit 5 and the ear phototherapy units 6 can produce different phototherapy effects. For example, far-infrared rays with wavelengths of 530 nm and 630 nm help stem cells grow and differentiate. Far-infrared rays with wavelengths of 620 nm, 630 nm, 638 nm, 655 nm and 830 nm help bone cells differentiate and grow. Wavelengths 638 nm and 655 nm can Promote hair growth, and relevant studies have also confirmed that far-infrared rays can also prevent dementia, promote blood circulation, reduce pain, reduce free radicals/antioxidants, improve diabetes, and regulate the activity of the autonomic nervous system.

In addition, the dimming module 71 of the control unit 7 can also be designed to adjust the flashing frequency of the first light-emitting parts 532 and the second light-emitting parts 622, so that the first light-emitting module 53 and the third light-emitting part 622 can be adjusted. The two light-emitting modules 62 can perform phototherapy by emitting far-infrared rays or visible light by flashing.

Referring to Figures 6 to 9, a second embodiment of the headphone device 200 with a phototherapy function of the present invention differs from the first embodiment in that: the headphone modules 31, the head phototherapy unit 5 and the ear phototherapy Unit 6 Structural Design. For convenience of explanation, only the differences between the embodiments will be described below.

Each headphone module 31 includes an earphone holder 311 with an opening facing the user, a sound output element 316 disposed in the earphone holder 311 , and a soft material covering the opening of the earphone holder 311 . Cloth 315. The earphone holder 311 cooperates with the cover 315 to define an installation space 317 . The sound output element 316 is located in the installation space 317 and is connected to the communication unit 4 via signals. In the second embodiment, the sound output element 316 is a speaker that can be used to amplify and output sound. The earphone module 31 can be close to the user's ear 801 through the cover 315 .

The head phototherapy unit 5 includes a housing module 51 installed on the wearing part 32, and a first hot compress module 52, a first light-emitting module 53, and a first heating module 52 installed in the housing module 51. A first graphene sheet 55 and a first electromagnetic coil 56 . The shell module 51 has a shell body 511 with an opening facing downward, and a cover 514 disposed on the bottom edge of the shell body 511 to cover the opening of the shell body 511 , and the cover 514 is connected to the shell body 511 . The modules 51 cooperate to define a first installation space 50 . The first light-emitting module 53 , the first graphene sheet 55 , the first heating module 52 and the first electromagnetic coil 56 are all disposed in the first installation space 50 . The cloth 514 is, for example, but not limited to cotton.

The first light-emitting module 53 has the first circuit board 531 fixed on the housing module 51, and the third light-emitting modules protruding from the bottom surface of the first circuit board 531 and used to emit light toward the user's head. A light emitting element 532. The first graphene sheet 55 is stacked on the bottom surface of the first circuit board 531 and is provided with a plurality of through holes 551 for the first light-emitting components 532 to penetrate downward. The first graphene sheet 55 The heat energy generated by the first light-emitting parts 532 that is close to the first light-emitting parts 532 can be heated to emit far-infrared rays.

The first hot compress module 52 is in the shape of a ring sheet, and is spaced below the first circuit board 531 and relatively radially outside the first graphene sheet 55 . The first heat compress module 52 has a ring-shaped first heating element 521 fixed on the shell body 511 and a ring-shaped first functional material body 523 stacked on the bottom surface of the first heating element 521 . The first heating element 521 can be energized to generate heat, and the first functional material body 523 can be heated by the first heating element 521 to emit far-infrared rays.

The first electromagnetic coil 56 is disposed above the first circuit board 531 and is connected to the control unit 7 via signals. It can be controlled by the control unit 7 to generate a magnetic field for magnetic therapy, and can be controlled and adjusted by the control unit 7 to generate a magnetic field. the frequency of the magnetic field.

Each ear phototherapy unit 6 includes a second light-emitting module 62, a second graphene sheet 64, and a second heat compress module 61 arranged in the installation space 317 of the corresponding earphone module 31. and a second electromagnetic coil 65.

The second light-emitting module 62 includes an annular second circuit board 621 that is uprightly arranged on the corresponding earphone base 311, and second light-emitting modules that are spaced apart on the side of the second circuit board 621 facing the user. Item 622. The sound output element 316 of the headphone module 31 is exposed on the inner peripheral side of the second circuit board 621 . The second graphene sheet 64 is stacked on the side of the second circuit board 621 facing the user, and has a plurality of through holes 641 for the second light-emitting components 622 to pass through. The sheet 64 is close to the second light-emitting components 622 and will be heated by the heat energy generated by the second light-emitting components 622 to generate far-infrared rays.

The second hot compress module 61 is spaced apart on the side of the second light-emitting module 62 facing the user, and is relatively located radially outside the second graphene sheet 64 . The second heating module 61 has a ring-shaped second heating element 611 arranged on the earphone base 311, and a second functional material body laminated on the side of the second heating element 611 facing the user. 613. The second heating element 611 can be energized to generate heat, and the second functional material body 613 can be heated by the second heating element 611 to emit far-infrared rays.

The second electromagnetic coil 65 is disposed on the side of the second circuit board 621 facing away from the user, and is connected with the signal to the control unit 7, and can be controlled by the control unit 7 to generate a magnetic field for magnetic therapy, and can be controlled by the control unit 7. The control unit 7 controls and adjusts the frequency of the generated magnetic field.

The control unit 7 also includes a magnetic field control module 73 exposed on the housing module 51 . The magnetic field control module 73 is operable to activate the first electromagnetic coil 56 and the second electromagnetic coil 65 to generate a magnetic field, and can adjust the frequency of the magnetic field generated by the first electromagnetic coil 56 and the second electromagnetic coil 65 .

When the second embodiment of the earphone device 200 of the present invention is used, in addition to operating the dimming module 71 to individually activate and set the head phototherapy unit 5 and the ear phototherapy units 6 to emit far-infrared rays, In addition to irradiating the head and ears of the user 800 with far-infrared rays for phototherapy, the first graphene sheet 55 and the second graphene sheet 64 will also be illuminated by the first light-emitting module 53 and the second light-emitting module respectively. The module 62 is heated to generate far-infrared rays, and the far-infrared rays generated by the first graphene sheet 55 and the second graphene sheet 64 can be simultaneously utilized to enhance the phototherapy effect.

When you want to apply hot compress, you can operate the temperature adjustment module 72 separately to adjust the first heating element 521 and the second light-emitting module 62 without starting the first light-emitting module 53 and the second light-emitting module 62. The heating temperature of the second heating element 611 is used to produce a hot compress effect. During the hot compress period, the first functional material body 523 will be heated by the first heating element 521 and start to release far infrared rays, and the second functional material body 613 will be heated by the second heating element 611 and start to release far infrared rays. Far infrared rays can be used for phototherapy at the same time.

When magnetic therapy is desired, the magnetic field control module 73 can be operated to activate the first electromagnetic coil 56 and the second electromagnetic coils 65 respectively, so that the first electromagnetic coil 56 and/or the second electromagnetic coils 65 are activated. The coil 65 generates a magnetic field for performing magnetic therapy on the user, and can further adjust the frequency of the generated magnetic field by operating the magnetic field control module 73 to perform magnetic therapy with magnetic fields of different frequencies.

The dimming module 71 that combines the first light-emitting part 532, the second light-emitting part 622, or the multi-turn coil and the control unit 7 can exert different biological effects; for example, research has found that electromagnetic wave irradiation with a flicker frequency of 40 Hz can help To improve cognitive ability, electromagnetic wave irradiation with a flickering frequency of 10 Hz can help improve depression, etc.

To sum up, through the design of the headphone unit 3 and the head phototherapy unit 5 and the ear phototherapy units 6 installed on the headphone unit 3, the music played by the music player device can be output for the use. While the user 800 is listening, the head phototherapy unit 5 and the ear phototherapy units 6 are used to perform phototherapy and hot compress on the acupuncture points of the user 800's head and ears at the same time, and because the head phototherapy unit 5 is stacked against the head of the user 800, and the ear phototherapy units 6 are clamped against the ears of the user 800 in conjunction with the earphone module 31, so most of the far infrared rays generated will directly irradiate the user's ear. or 800, which can greatly improve the effect of phototherapy. Furthermore, through the design that the head phototherapy unit 5 can be moved left and right along the wearing piece 32, phototherapy can be conveniently targeted at different parts of the head. In addition, through the design that the first electromagnetic coil 56 and the second electromagnetic coils 65 can be controlled to generate a magnetic field, the earphone device 200 of the present invention can further provide magnetic therapy to the user. Therefore, the earphone device 200 with phototherapy function of the present invention is indeed a very innovative, convenient and practical creation, and can indeed achieve the purpose of the present invention.

However, the above are only examples of the present invention. They cannot be used to limit the scope of the present invention. All simple equivalent changes and modifications made based on the patent scope of the present invention and the contents of the patent specification are still within the scope of the present invention. within the scope covered by the patent of this invention.

200: Headphone device 3: Headphone unit 31:Headphone module 310: Earmuff space 311:Headphone holder 312:Heat dissipation hole 313:Back cushion 314: Sound output component 315:Cover 316: Sound output component 317: Set up space 32:Accessories 4: Communication unit 5: Head phototherapy unit 50: First installation space 51: Shell module 511: Shell body 512:Heat dissipation hole 513:Back cushion 514:Cover 52: The first hot compress module 520: first piercing 521: The first heating element 522:First heat insulator 523: The first functional material body 53:The first light-emitting module 531:First circuit board 532:The first luminous part 54:First heat sink 55: First graphene sheet 551:Perforation 56:First electromagnetic coil 6: Ear phototherapy unit 60: Second installation space 61: Second hot compress module 610: Second piercing 611: Second heating element 612: Second heat insulator 613: Second functional material body 62: Second light-emitting module 621: Second circuit board 622: The second luminous part 63:Second heat sink 64: Second graphene sheet 641:Perforation 65: Second electromagnetic coil 7:Control unit 71: Dimming module 72:Temperature control module 73: Magnetic field control module 800:User 801:Ears

Other features and effects of the present invention will be clearly presented in the embodiments with reference to the drawings, in which: Figure 1 is a perspective view illustrating the structure of a first embodiment of the earphone device with phototherapy function of the present invention; Figure 2 is a front view schematically illustrating the first embodiment when worn on a user's head; Figure 3 is an incomplete front cross-sectional view illustrating the structure of an ear phototherapy unit of the first embodiment; Figure 4 is an incomplete front cross-sectional view illustrating the structure of a head phototherapy unit of the first embodiment; Figure 5 is a functional block diagram illustrating the functional architecture of the first embodiment; Figure 6 is a perspective view illustrating the structure of a second embodiment of the earphone device with phototherapy function of the present invention; Figure 7 is an incomplete front cross-sectional view illustrating the structure of a head phototherapy unit of the second embodiment; Figure 8 is an incomplete front cross-sectional view illustrating the structure of an ear phototherapy unit of the second embodiment; and FIG. 9 is a functional block diagram illustrating the functional architecture of the second embodiment.

200: Headphone device

3: Headphone unit

31:Headphone module

310: Earmuff space

311:Headphone holder

312:Heat dissipation hole

313:Back cushion

314: Sound output component

32:Accessories

4: Communication unit

5: Head phototherapy unit

51: Shell module

511: Shell body

512:Heat dissipation hole

513:Back cushion

6: Ear phototherapy unit

61: Second hot compress module

610: Second piercing

613: Second functional material body

622: The second luminous part

7:Control unit

71: Dimming module

72:Temperature control module

Claims (7)

An earphone device with a phototherapy function, suitable for being worn on a user's head, and includes: an earphone unit with two earphone modules respectively arranged on both ears of the user for outputting sound, And a left and right extension connected between the earphone modules and used to be worn on the user's head; and a head phototherapy unit, including a head mounted on the wearing part for leaning downwards. a casing module on the top of the user's head, a first light-emitting module disposed on the casing module, a first electromagnetic coil disposed on the casing module and capable of being driven to generate a magnetic field, and a third A graphene sheet and a first hot compress module. The first light-emitting module has a plurality of first light-emitting elements that can emit far-infrared rays toward the user's head. The first graphene sheet is disposed on the user's head. The first light-emitting module can be heated by the thermal energy generated when the first light-emitting parts emit light to generate far-infrared rays. The first heat-containing module is arranged on the shell module and has a heat module arranged on the shell module. A first heating element is provided and can be controlled to generate heat, and a first functional material body is stacked under the first heating element and can be heated by the first heating element to generate far-infrared rays. The earphone device with phototherapy function as claimed in claim 1, wherein the shell module has a shell body installed on the wearing piece, and a shell module disposed on the shell body and used to abut against the user. The first light-emitting module is installed on the shell body and has a plurality of first light-emitting parts that can be used to emit far-infrared rays toward the user's head. The earphone device with phototherapy function according to claim 2, wherein the head phototherapy unit further includes a first heat compress module that is disposed on the shell body and can be controlled to generate heat to emit far-infrared rays. The earphone device with phototherapy function as claimed in claim 3, wherein the first hot compress module cooperates with the shell body to define a first installation space, and the bottom surface of the first hot compress module has a plurality of upwardly extending The first through-hole penetrates and communicates with the first installation space. The first light-emitting module also has a first circuit board disposed in the first installation space. The first light-emitting components are electrically connected to the first circuit board. , and pass downwards through the first through holes respectively. The earphone device with phototherapy function as described in claim 4, wherein the first heat compress module has a first heating element that can be controlled to generate heat, and a layer laminated between the first heating element and the first circuit board. a first heat insulator, and a first functional material body that is stacked under the first heating element and can be heated by the first heating element to generate far-infrared rays. The earphone device with phototherapy function as described in claim 4, further comprising a control unit electrically connected to the first circuit board and the first hot compress module, the control unit having an operable control unit through the first circuit board. a light-adjusting module that controls the light-emitting mode of the first light-emitting components, and a temperature-adjusting module that is operable to control the heating mode of the first hot compress module. The earphone device with phototherapy function as described in claim 1 also includes two ear phototherapy units respectively installed on the earphone modules, and a control electrically connecting the head phototherapy unit and the ear phototherapy units. unit, each of the ear phototherapy units includes a third unit that can be controlled to emit far-infrared rays. Two light-emitting modules, a second graphene sheet arranged on the second light-emitting module, a second heat compress module arranged on the corresponding earphone module and capable of controlling the heating and temperature rise to release far-infrared rays, and a A second electromagnetic coil is provided on the housing module and can be driven to generate a magnetic field. Each second light-emitting module has a plurality of second light-emitting elements that can emit far-infrared rays toward the user's ears. The two graphene sheets can be heated by the thermal energy generated when the second light-emitting parts emit light to generate far-infrared rays. Each of the second heat compress modules has a third heat-generating module that is disposed on the corresponding earphone module and can be controlled to generate heat. Two heating elements, and a second functional material body that is stacked below the second heating element and can be heated by the second heating element to generate far-infrared rays. The control unit has a light-adjusting module and a temperature-adjusting module. , and a magnetic field control module, the dimming module signal is connected to the first light-emitting module and the second light-emitting modules, and can be operated to control the light-emitting modes of the first light-emitting parts and the second light-emitting parts. , the temperature control module signal connects the first heat compress module and the second heat compress modules, and is operable to control the heating mode of the first heating element and the second heating element. The magnetic field control module A signal connects the first electromagnetic coil and the second electromagnetic coils and is operable to adjust the frequency of the magnetic field generated by the first electromagnetic coil and the second electromagnetic coils.

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