TWI791978B - Wearable device with audio somatosensory and method of use thereof - Google Patents

Abstract

The present invention is a wearable device for audio somatosensory. Its structure includes a main body, a first belt, a second belt and a buckle. The upper side of the main body is provided with a first space, and the lower side of the main body is provided with a second space. The main control circuit board is set in one space, the sensing element is set in the second space, the first belt is set on one side of the body, the first speaker element and the wireless transmission module are set on it, and the second belt is set on the other side of the body On one side, a second speaker element and a rechargeable battery module are arranged on it, and music is received through the radio element on the main control circuit board, filtered and amplified, and then converted into a frequency vibration signal and transmitted to the sensing element.

Description

Wearable device with audio somatosensory and method of use thereof

The present invention relates to a device and a method of use, in particular to a wearable device with audio somatosensory and a method of use thereof.

With the advancement of science and technology, when people watch modern movies or play very visual games, large-scale monitors and speakers can provide storytelling images and rich sound and light effects, so that audiences or players can enjoy both visual and visual effects. In terms of hearing, you can get a pleasing feeling, so as to fully achieve the effect of regulating the body and mind, or through special devices, when people listen to music, they can feel the frequency vibration of the music and resonate with the music.

At present, when users play games through electronic devices, such as computers, PS4, NS or mobile phones, they can only experience the sound and light effects brought by the game content through monitors, speakers or headphones, but they cannot resonate with the game.

In recent years, the film industry has developed 3D movies with stereoscopic visual effects and I941AX movies with huge screen effects. To see the effect of the audience coming to the scene, the film industry specially designed the seats of the audience so that they can vibrate, tilt, and shake in accordance with the development of the movie plot, so that the audience can get physical stimulation linked with the movie content, so as to achieve real immersive experience The audio and video effects of the environment.

But above-mentioned seat facility is only used in cinema to watch movies, makes body ride on chair or sofa, reaches the effect of being on the spot by vibration or other means, if be used for personal listening to music or when being used for game, not only The equipment is huge, the price is high, the material cost and labor cost of installing the equipment are high, and there will be high maintenance costs in the future.

Therefore, how to make equipment that is suitable for listening to music, playing games or watching movies, and at the same time can feel the frequency of music is also the direction that many manufacturers are working hard to research and develop. Many wearable devices are currently being developed, but most Most of them are only used for simple music playback, but at present, a research and development manufacturer has developed a wearable device. Through a special transmitter, when using it, insert the tail end of the transmitter into the earphone hole of a smart device such as a mobile phone, and then Just plug the earphones into the transmitter. When the device starts to play music, the wearable device worn on the user's hand will vibrate with the beat of the music, allowing the user to feel the frequency of the music.

However, this kind of equipment needs to be connected through a transmitter and then through earphones, because earphones and mobile phones are required as input and output devices. When listening to music or gaming experience, it will be limited by the influence of earphones, and it will be more difficult to use. Inconvenient, plus this kind of equipment can only be worn on the hand, only the wrist has the feeling of vibration, and the frequency of the vibration cannot be clearly felt.

For this reason, how to make a device that can make the body feel the frequency vibration while listening to music is a problem that those skilled in the art want to solve.

An object of the present invention is to provide a wearable device with audio somatosensory and its use method. The wearable device is worn on the user's body, and through wireless or wired transmission and reception, it receives audio from mobile phones, tablet computers, or other mobile and stationary audio messages, or The surrounding audio information is collected through the built-in microphone, and the signal is filtered and amplified through the main control circuit board, and then transmitted to the sensing element and the stereo speaker amplification unit; the wearable device of the present invention can achieve 2.V channel output The feature is that when the user enjoys listening to stereo music, he can simultaneously perceive the music plot corresponding to the vibration wave (that is, the V in the 2.V channel, representing Vibration) and transmit it into the body through the sensing device to achieve the effect of sound experience; Another object of the invention is to provide a Bluetooth transmitter. When the transmitter is turned on, the stereo speakers can be turned off, and at the same time, the audio can be transmitted to the Bluetooth headset by wireless transmission, so as to achieve the purpose of full wireless.

For the above purpose, the present invention provides a method for using a wearable device with audio somatosensory. The steps include: using a radio device to receive audio information from the external environment, and at the same time transmit the audio information to a main control circuit board; converting the audio signal into a frequency vibration signal through the main control circuit board; transmitting the frequency vibration signal to an expansion module and amplifying the frequency vibration signal; and the main control circuit board amplifying the frequency vibration signal Transmission to a sensing element; wherein, the sensing element is set in an audio somatosensory wearable device, and the audio somatosensory wearable device is set on an integrated watch, and the sensing element vibrates the amplified frequency The signal is transmitted to the body surface through the audio somatosensory wearable device.

The present invention provides an embodiment, wherein the sound receiving device uses a capacitive or MEMS microphone to collect the sound of the actual external environment, amplifies and filters the sound and converts it into a shock wave output, so that the body can feel the vibration.

In view of the above-mentioned purpose, the present invention provides a wearable device with audio somatosensory. A main body has a first space on the upper side, a second space on the lower side of the main body, and a main control circuit board in the first space. , a sensor element is arranged in the second space, wherein the sensor element is an audio-driven vibration unit, an expansion module and a radio device are arranged in the main control circuit board, and the radio device The expansion module is electrically connected, and the expansion module is electrically connected to the sensing element; a first belt, one end of which is arranged on one side of the body, and a first U-shaped bag is arranged in the first belt body and a second U-shaped bag body, the first U-shaped bag system is adjacent to the body, the second U-shaped bag system is adjacent to the first U-shaped bag body, and a first loudspeaker element is arranged on In the first U-shaped bag, a wireless transmission module is arranged in the second U-shaped bag, wherein the first speaker element and the wireless transmission module are electrically connected to the main control circuit board; a second One end of the belt is arranged on the other side of the main body, a third U-shaped bag and a fourth U-shaped bag are arranged in the second belt, the third U-shaped bag is adjacent to the main body, the The fourth U-shaped bag system is arranged adjacent to the third U-shaped bag body, a second speaker element is arranged in the third U-shaped bag body, and a rechargeable battery module is arranged in the fourth U-shaped bag body, wherein , the second speaker element is electrically connected to the rechargeable battery module; and a buckle, which includes a buckle and a buckle, the buckle is connected to the other end of the first belt, the The clip is connected to the other end of the second strap, wherein the clip is engaged with the clip to connect the first strap and the second strap. Wherein, when the audio receiving device receives an audio message, and inputs the audio message to the expansion module, amplifies the audio message, filters and expands it, converts the audio message into a frequency vibration signal and transmits it to the sensing element .

The present invention provides an embodiment, wherein the main control circuit board further includes an audio decoding processing module, further the audio decoding processing module is electrically connected to a Bluetooth module, a wireless receiving module, and an AUX auxiliary input module group, a USB input port, an external storage port or the radio device, and the audio decoding processing module is electrically connected to the expansion module, and the expansion module is electrically connected to the sensing element, the first speaker element and the second speaker element.

The present invention provides an embodiment, wherein the rechargeable battery module is electrically connected to the main control circuit board, the sensor element, the wireless transmission module, the first speaker element, and the second speaker element are electrically connected connected to the main control circuit board.

The invention provides an embodiment, wherein the buckle is provided with at least one hook, the buckle is provided with at least one buckle, and the at least one buckle is sleeved on the at least one hook.

The present invention provides an embodiment, wherein the first U-shaped bag body, the second U-shaped bag body, the third U-shaped bag body and the fourth U-shaped bag body respectively have at least three closed ends to form a first opening, and A first accommodating space is formed.

For the above-mentioned another purpose, the present invention provides a wearable device with audio body sensation, the structure of which includes a first wearable body, which includes a first wearable part and a second wearable part, the first wearable part and the second wearable part A plurality of fifth U-shaped bags are arranged on the inner side of the second wearing piece, a second wearable body is provided with a plurality of sixth U-shaped bags on the inner side; a plurality of sensing elements are respectively arranged on the In the fifth U-shaped bag body and the sixth U-shaped bag body, a body is arranged on the lower edge of the second wearing piece, a third space is provided on one side of the body body, and a main control circuit board , a third speaker element, a wireless transmission module and a rechargeable battery module are arranged in the third space, and these sensing elements are electrically connected to the main control circuit board, wherein the main control circuit A wireless receiving module included in the board is to receive an audio message from a wireless transmission module of a smart electronic device, and the main control circuit board transmits the audio message to the sensing elements, so that the sensing elements The sensing element produces audio vibrations.

The present invention provides an embodiment, wherein the main control circuit board further includes an audio decoding processing module and an expansion module, further the audio decoding processing module is electrically connected to a bluetooth module, a wireless receiving module, An AUX auxiliary input module, a USB input port, an external storage port or the radio device, and the audio decoding processing module is electrically connected to the expansion module, and the expansion module is electrically connected to the sensors component and the third speaker component, the rechargeable battery module is connected to the audio decoding processing module and the expansion module.

The present invention provides an embodiment, wherein the fifth U-shaped bags and the sixth U-shaped bags respectively have at least three closed ends to form a second opening and form a second accommodating space, the One of the sensing elements is disposed in the second accommodating space.

The present invention provides an embodiment, wherein the second opening is provided with a second stopper, and the second stopper is Velcro, button or zipper.

1: Wearable device for audio somatosensory

10: Ontology

12: The first space

14:Second space

2: Wearable device for audio somatosensory

20: The first belt body

22: The first U-shaped bag body

24: The second U-shaped bag body

30: the second belt body

32: The third U-shaped bag body

34: The fourth U-shaped bag body

40: Buckle

42: Fasteners

422: hook

44: Card firmware

442: Buckle

50: The first wearable body

51: The fifth U-shaped bag body

52: The first wearing piece

54:Second wearing piece

60: The second wearable body

61: The sixth U-shaped bag body

70: Ontology

72: The third space

90: closed end

911: Main control circuit board

912: Sensing element

913:Wireless sending module

915: Wireless transmission module

916:Rechargeable battery module

917: The first speaker component

918: Second speaker component

919: The third speaker component

921: first opening

922: second opening

923: first stopper

924: second stopper

925: The first storage space

926: The second storage space

932:Audio decoding processing module

931:Smart electronic device

933: Expansion module

934:Bluetooth module

935: radio device

936:Wireless receiving module

937: AUX auxiliary input module

938: USB input port

939: external storage port

941:Audio message

950: user

S10, S20, S30, S40, S50: steps

Figure 1: It is a schematic diagram of the wearable structure of a first embodiment of the present invention; and Figure 2: It is a schematic cross-sectional view of the body of a first embodiment of the present invention; Figure 3A: It is a schematic diagram of the body of the present invention A schematic diagram of the arrangement of the wearable device components in the first embodiment; Figure 3B: It is an enlarged schematic diagram of the arrangement of the wearable device components in the first embodiment of the present invention; Figure 4A: It is a second embodiment of the present invention Schematic diagram of the front structure of the wearable structure of the example; Figure 4B: It is a schematic diagram of the back structure of the wearable structure of the second embodiment of the present invention; Figure 4C: It is the body of the second embodiment of the present invention Schematic diagram of component setup; Fig. 5: It is a schematic diagram of an audio decoding processing module of the present invention; and Fig. 6: It is a schematic diagram of the use flow of a wearable structure of the present invention.

In order to enable your review committee members to have a further understanding and understanding of the characteristics of the present invention and the achieved effects, I would like to provide a better embodiment and a detailed description, as follows: It is known that most of the wearable devices are only used for simple music playback. At present, some R&D manufacturers have developed a wearable device. Through a special transmitter, when using it, the tail end of the transmitter is inserted into a smart phone such as a mobile phone. The earphone hole of the device, and then insert the earphone into the transmitter. When the device starts to play music, the wearable device worn on the user's hand will vibrate with the beat of the music, so that the user can feel the music frequency rhythm.

Because earphones and mobile phones are needed as input and output devices, it will be more inconvenient to use. In addition, this kind of equipment can only be worn on the hand, and only the wrist has a local vibration feeling, which cannot make the user clearly feel the wide range. vibration effect.

The present invention wears the wearable device on the user's body, receives the music signal through wireless transmission and reception, and transmits the signal to the sensing element through the main control circuit board, and the wearable device of the present invention is provided with an audio output The device can generate somatosensory shock waves at the same time as the device outputs music, so that users can experience the immersive effect of 2.V sound channels, that is, stereo plus bass shock waves.

Hereinafter, the present invention will be described in detail by illustrating various embodiments of the present invention by means of the accompanying drawings. Inventive concepts may, however, be embodied in many different forms and should not be construed as limited to the illustrative embodiments set forth herein.

First, please refer to Figure 6, which is a schematic diagram of the use flow of a wearable structure of the present invention. As shown in the figure, the steps include: Step S10: Use the radio device to receive audio information from the external environment, and at the same time transmit the audio information to The main control circuit board; step S20: convert the audio signal into a frequency vibration signal through the main control circuit board; step S30: amplify the frequency vibration signal through the expansion module; Step S40: the main control circuit board transmits the amplified frequency vibration signal to the sensing element; and Step S50: the sensing element receives the amplified frequency vibration signal, and generates vibration and transmits it to the body surface.

As shown in steps S10 to S50, the audio somatosensory wearable device of the present invention is a device that can receive the sound of the external environment and convert the sound into vibration, so that the body can feel the frequency of the music. The first belt body 20 and a second belt body 30 are combined with a buckle 40 to install the wearable device on an integrated watch, wherein the wearable device includes a sensing element 912, a main control circuit board 911 and a radio receiver device 935, the main control circuit board 911 includes an expansion module 933, which uses the radio device 935 to receive an audio message 941 from the external environment, and when the radio device 935 receives the audio message 941, it will transmit the audio message 941 to the Main control circuit board 911, wherein, the audio message 941 can be the sound of a concert, music played by an electronic device, etc., wherein, in step S10, a bluetooth module 934 and a wireless receiving module 936 can be used , an AUX auxiliary input module 937, a USB input port 938 or an external storage port 93 to input the audio information 941 of the external environment.

Then, convert the audio signal 941 into a frequency vibration signal (not shown) through the main control circuit board 911, and then amplify the frequency vibration signal through the expansion module 933, and the main control circuit board 911 will amplify the frequency vibration signal The vibration signal of the frequency is transmitted to the sensing element 912, and the sensing element 912 receives the amplified vibration signal of the frequency, and generates vibration and transmits it to the body surface, so that the user can feel the corresponding vibration wave transmission along with the rhythm of the music At the same time, the built-in speaker components on the wearable device can also be used for music stereo amplification, or the music can be wirelessly transmitted to the earphone through the wireless transmitting component, or the music can be wired into the earphone through the AUX auxiliary output.

Next, please refer to FIG. 1, which is a schematic diagram of a wearable structure of a first embodiment of the present invention. As shown in the figure, a wearable device 1 for audio somatosensory of the present invention, its structure includes a body 10, a The first strap 20 , a second strap 30 and a buckle 40 .

Wherein, please refer to Fig. 2 together, which is a schematic cross-sectional view of the main body of a first embodiment of the present invention. Body 20, the second belt body 30 and the buckle 40, a first space 12 is provided on the upper side of the main body 10, a second space 14 is provided on the lower side of the main body 10, and a main control circuit is arranged in the first space 12 board 911, in addition, the second space 14 is provided with a sensing element 912, wherein the sensing element 912 is an audio-driven vibration unit, and the main control circuit board 911 is provided with an expansion module 933 and a sound receiving device 935 , the sound receiving device 935 is electrically connected to the expansion module 933 , and the expansion module 933 is electrically connected to the sensing element 912 .

Next, please refer to Figure 3A, which is a schematic diagram of the arrangement of components of a wearable device according to a first embodiment of the present invention, and Figure 3B, which is an enlarged schematic diagram of the arrangement of components of a wearable device according to a first embodiment of the present invention , as shown in the figure, the first belt body 20 is provided on one side of the body 10, and a first U-shaped bag body 22 and a second U-shaped bag body 24 are arranged inside the first belt body 20. A U-shaped bag body 20 is adjacent to the body 10, the second U-shaped bag body 24 is adjacent to the first U-shaped bag body 22, and a first speaker element 917 is arranged on the first U-shaped bag body 22. In the bag body 22, a wireless sending module 913 is arranged in the second U-shaped bag body 24, wherein the first speaker element 917 and the wireless sending module 913 are electrically connected to the main control circuit board 911 , In addition, the second belt body 30 is provided on the other side of the body 10, and a third U-shaped bag body 32 and a fourth U-shaped bag body 34 are arranged inside the second belt body 30. The third U-shaped bag body 34 The bag body 32 is adjacent to the body 10, the fourth U-shaped bag body 34 is arranged adjacent to the third U-shaped bag body 32, and a second speaker element 918 is arranged on the third U-shaped bag body 32 Inside, a rechargeable battery module 916 is disposed in the fourth U-shaped bag 34 , wherein the second speaker element 918 is electrically connected to the rechargeable battery module 916 .

Wherein, when the radio device 935 receives an audio message 941, and inputs the audio message 941 to the expansion module 933, amplifies the audio message 941 and filters and expands the audio message 941, and then converts the audio message 941 into a frequency vibration signal transmitted to the sensing element 912.

The first U-shaped bag body 22, the second U-shaped bag body 24, the third U-shaped bag body 32 and the fourth U-shaped bag body 34 on the above-mentioned first belt body 20 have at least three closed ends 90 respectively. A first opening 921 is formed, and a first accommodating space 925 is formed, and the at least three closed ends 90 of the first U-shaped bag body 22 are fixed on the first belt body 20, and the first opening 921 is Set upward, the second U-shaped bag body 24 has the same structure as the first U-shaped bag body 22, and the third U-shaped bag body 32 and the fourth U-shaped bag body 34 are also the same as the first U-shaped bag body. Bag body 22.

Furthermore, the first opening 921 is provided with a first stopper 923, and the first stopper 923 is Velcro, buttons or zippers. Furthermore, the above-mentioned wireless sending module 913, the first lift The sound element 917, the rechargeable battery module 916 or the second speaker element 918 are put into the first accommodating space 925 through the first opening 921, and then the first opening is closed through the first stopper 923, so that The above-mentioned components will not be separated from the wearable device 1 of the audio somatosensory due to the walking of the human body.

In addition, please refer to Figure 1. In Figure 1, it is clearly disclosed that the buckle 40 is provided between the first belt body 20 and the second belt body 30, and the buckle ring 40 includes a buckle 42 and a Fastener 44, the fastening piece 42 is connected to the other end of the first belt body 20, the fastening piece 44 is connected to the other end of the second belt body 30, further, the fastening piece 42 is engaged with the The fastening member 40 is used to connect the first belt body 20 and the second belt body 30 .

Wherein, the buckle 42 is provided with at least one hook 422, the buckle 44 is provided with at least one buckle 442, and the at least one buckle 442 is sleeved on the at least one hook 422 so as to be fixedly connected to the first The belt body 20 and the second belt body 30 .

In addition, as shown in Figure 5, it is a schematic diagram of an audio decoding processing module of the present invention. As shown in the figure, the above-mentioned main control circuit board 911 further includes an audio decoding processing module 932, further the audio decoding processing Module 932 is electrically connected to a Bluetooth module 934, a wireless receiving module 936, an AUX auxiliary input module 937, a USB input port 938, an external storage port 939 or the radio device 935, and the audio decoding The processing module 932 is electrically connected to the expansion module 933, the expansion module 933 is electrically connected to the sensor element 912, the first speaker element 917 and the second speaker element 918, the external storage port 939 It is a commercially available memory card that can choose SD card, TF card or Micro SD card, but not limited to the above choices.

Wherein, the above-mentioned input of the audio decoding processing module 932 can come from the Bluetooth module 934, the wireless receiving module 936, the AUX auxiliary input module 937, the USB input port 938, the external storage port 939 or the One of the following six radio devices 935, wherein the Bluetooth module 934 and the wireless receiving module 936 are connected to the 941MCU microprocessor and the input channel selection unit, and the AUX auxiliary input module 937 is used to receive the AUX line control signal, and connected to the 941MCU microprocessor and input channel selection unit, the USB input port 938 is used to insert a USB flash drive to input audio signals, and the external storage port 939 is used to insert a security digital card (Security Digital 941e941ory Card: SD), wherein, the USB input port 938 and the external storage port are connected to the 941MCU microprocessor and the input channel selection unit through the audio decoder, and the signal output after being processed by the 941MCU microprocessor and the input channel selection unit The amplification module 933 is amplified, and then transmitted to the first speaker element 917 and the second speaker element 918 respectively.

The above-mentioned wireless sending module 913 is a Bluetooth transmitter (Bluetooth transmitter). The wireless sending module 913 is provided with 4 ports, which are respectively used for outputting audio signals, communicating with LED displays and setting frequency signals. .

The above-mentioned radio device 935 is a microphone radio module. The radio microphone uses a miniature condenser microphone or MEMS microphone to collect the sound of the actual external environment. After the audio is collected, it is multi-stage signal amplified and filtered to remove noise, and then passed through the 941MCU The signal processed by the microprocessor and the input channel selection unit is output to the expansion module 933 for amplification, and the sound is amplified and filtered and converted into shock wave output so that the body can feel the vibration, and then transmitted to the first speaker respectively element 917 and the second speaker element 918 .

The selection of the six inputs of the audio decoding processing module 932 can be automatically judged and selected by the system without using traditional buttons and display screens. The order of priority for selection and use is: the wireless receiving module 936 → the radio device 935 → the AUX Auxiliary input module 937 → the USB input port 938 → the external storage port 939 → the bluetooth module 934, wherein the system default value is the bluetooth module 934, when the system detects any one of the above inputs When the port is inserted, the bluetooth module 934 will be disabled, and automatically jump to the inserted input port to play the audio/file/stream of the inserted port, which means that the device of the present invention can pass through The audio source input is obtained through a wireless connection method or the audio source input information is obtained through a wired method.

Furthermore, the rechargeable battery module 916 installed in the second belt 30 can be used through external power charging, wherein the rechargeable battery module 916 of the first embodiment uses a lithium battery, but this is not a limitation. limited, the rechargeable battery module 916 is electrically connected to the main control circuit board 911, the sensor element 912, the wireless transmission module 913, the first speaker element 917 and the second speaker element 918 are electrically connected Connected to the main control circuit board 911.

The audio somatosensory wearable device 1 sends audio messages 941 through the speaker unit, the wired output of the earphone hole, or the wireless sending device 913, wherein the wireless sending device 913 can be connected to any Bluetooth earphone or Bluetooth loudspeaker. The embodiment is described with a bluetooth speaker, but not limited thereto.

In order to disclose the implementation of the first embodiment of the present invention more clearly, a practical implementation example is listed below: a music listening user transmits music to the wearable audio somatosensory device of the present invention through the Bluetooth on a mobile phone. On the device 1, the audio somatosensory wearable device 1 is installed on the waist, chest, or oblique back of the music listening user in this embodiment. During the wearing process, the sensor element 912 The side is attached to the skin surface of the user 950, and receives music through the microphone (the wireless receiving module 936) or the Bluetooth (the Bluetooth module 934) inside the wearable device 1 of the audio somatosensory, when the audio somatosensory When the wearable device 1 receives music, it uses the main control circuit board 911 to convert the music into a frequency vibration signal and transmits it to the sensing element 912, so that the user 950 can hear the sound through the first speaker element 917 and the second speaker element 917. The acoustic element 918 listens to the stereo channel audio, and the sensing element 912 feels the bass frequency vibration of the audio, that is to say, the audio somatosensory wearable device 1 can listen to the audio source of any device or the sound of the external environment , for example: concerts or concerts, the sound is amplified and filtered and converted into shock wave output, so that the body can feel the vibration, and at the same time, the audio can be listened to separately through the first speaker element 917 and the second speaker element 918 The music sound emitted by the somatosensory wearable device 1 .

The audio somatosensory wearable device 1 of the present invention wears the wearable device on the user's body, receives music signals through wireless transmission and reception, and transmits the signals to the sensing element through the main control circuit board 911 912, allowing users to listen to their favorite music while making the whole body feel the rhythm of the audio.

Next, please refer to Figure 4A, which is a schematic diagram of the front structure of a wearable structure according to a second embodiment of the present invention, and Figure 4B, which is a rear view of a wearable structure according to a second embodiment of the present invention As shown in the figure, the structure includes a first wearable body 50 , a second wearable body 60 , a plurality of sensing elements 912 and a body 70 .

The connection relationship of the main control circuit board 911, the sensing elements 912, the wireless transmission module 913 and the wireless transmission module 915 in the second embodiment of the present invention is the same as that of the first embodiment, so it is not mentioned here to repeat.

Wherein, the first wearable body 50 includes a first wearable part 52 and a second wearable part 54, and a plurality of fifth U-shaped bags 51 are arranged inside the first wearable part 52 and the second wearable part 54. In addition, a plurality of sixth U-shaped bags 61 are also provided inside the second wearable body 60, and the fifth U-shaped bags 51 and the sixth U-shaped bags 61 are provided with the The sensing elements 912 are audio-driven vibration units.

In addition, please also refer to Figure 4C, which is a schematic diagram of the arrangement of components in the body of a second embodiment of the present invention. As shown in the figure, the body 70 is arranged on the lower edge of the second wearing part 54, the body One side of the 70 is provided with a third space 72, and the third space 72 is provided with a main control circuit board 911, a third speaker element 919 and a rechargeable battery module 916, and these sensing elements 912 are electrically connected to On the main control circuit board 911, further, a wireless receiving module 936 of the main control circuit board 911 receives an audio message 941 of the wireless transmission module 915 of a smart electronic device 931, the main control circuit board 911 transmits the audio message 941 to the sensing elements 912 to make the sensing elements 912 generate audio vibrations.

Wherein, the main control circuit board 911 further includes an audio decoding processing module 932 and an expansion module 933, further the audio decoding processing module 932 is electrically connected to a bluetooth module 934, the wireless receiving module 936, An AUX auxiliary input module 937, a USB input port 938, an external storage port 939 or a radio device 935, and the audio decoding processing module 932 is electrically connected to the expansion module 933, and the expansion module 933 is electrically Connected to the sensing element 912 and the third speaker element 919 , the rechargeable battery module 916 is connected to the audio decoding processing module 932 and the expansion module 933 .

In addition, the above-mentioned fifth U-shaped bags 51 and the sixth U-shaped bags 61 respectively have at least three closed ends 90 to form a second opening 922 and form a second accommodating space 926, And the at least three closed ends 90 of the fifth U-shaped bag bodies 51 are fixed on the inner side of the first wearing piece 52, close to the user's skin surface, the second opening 922 is set upward, and the The arrangement structure of the sixth U-shaped bag body 61 is the same as that of the fifth U-shaped bag bodies 51, and these sixth U-shaped bag bodies 61 are arranged on the inner side of the second wearable body 60 and are also close to the user. the skin side.

The second opening 922 is provided with a second stopper 924, the second stopper 924 is Velcro, buttons or zippers, and further, the above-mentioned sensing element 912 is put into the second opening 922. In the second accommodating space 926 , the second opening 922 is closed through the second stopper 924 , so that the above-mentioned components will not be separated from the audio somatosensory wearable device 2 due to human body walking.

The audio somatosensory wearable device 2 transmits an audio message 941 through the speaker unit, the wired output of the headphone jack, or the wireless sending module 913, wherein the wireless sending module 913 can be connected to any bluetooth earphone or bluetooth loudspeaker , this embodiment is described with a bluetooth speaker, but not limited thereto.

In order to disclose the implementation of the second embodiment of the present invention more clearly, a practical implementation example is enumerated below: a music listening user transmits the mobile phone to the present invention through the bluetooth (wireless transmission module) on the mobile phone. On the wearable device 2 of audio somatosensory, in this embodiment, the wearable device 2 of audio somatosensory is installed on the whole body of the music listening user, and is presented as a vest and a bottom device. During the wearing process, Attach the sides of these sensor elements 912 to the user's skin surface, and receive music through the Bluetooth or microphone inside the audio somatosensory wearable device 2. When the audio somatosensory wearable device 2 receives the music (the audio message 941), use the main control circuit board 911 to convert the music into a frequency signal and transmit it to the sensing element 912, so that the user can feel the frequency vibration of the music through these sensing elements 912, and can simultaneously Listen to the sound of music transmitted through the third speaker element 919, that is to say, the audio The somatosensory wearable device 1 can use the audio source of any device or collect the sound of the actual external environment, such as a concert or a concert, amplify and filter the sound and convert it into shock wave output, so that the body can feel the vibration, and at the same time It is also possible to listen to the music sound from the audio somatosensory wearable device 1 through the third speaker element 919 alone.

According to the above-mentioned embodiment, the present invention is to produce a wearable device with audio somatosensory, which is to provide a wearable device to be worn on the user's body, which is matched with the wireless transmission receiving element, the speaker element and the sensing element in the body. , receiving music information from the smart electronic device, and converting the music information into a frequency vibration signal, through the sensor element and the speaker element, the user can listen to the favorite music while making the whole body feel the audio rhythm.

Therefore, the present invention is novel, progressive and can be used in the industry. It should meet the patent application requirements of my country's patent law. I file an invention patent application in accordance with the law. I pray that the bureau will grant the patent as soon as possible. I am sincerely praying.

However, the above-mentioned ones are only preferred embodiments of the present invention, and are not used to limit the scope of the present invention. For example, all equal changes and modifications are made according to the shape, structure, characteristics and spirit described in the scope of the patent application of the present invention. , should be included in the patent application scope of the present invention.

1: Wearable device for audio somatosensory

10: Ontology

20: The first belt body

30: the second belt body

40: Buckle

42: Fasteners

422: hook

44: Card firmware

442: Buckle

Claims (5)

A wearable device with audio somatosensory, its structure includes: a main body, a first space is set on the upper side, a second space is set on the lower side of the main body, a main control circuit board is set in the first space, and a main control circuit board is set in the first space. There is a sensor element in the second space, wherein the sensor element is an audio-driven vibration unit, an expansion module and a sound receiving device are arranged in the main control circuit board, and the sound receiving device is electrically connected to the expansion module, The expansion module is electrically connected to the sensing element; a first belt, one end of which is arranged on one side of the body, and a first U-shaped bag and a second U-shaped bag are arranged in the first belt , the first U-shaped bag system is adjacent to the body, the second U-shaped bag system is arranged adjacent to the first U-shaped bag body, a first speaker element is arranged in the first U-shaped bag body, and a The wireless sending module is arranged in the second U-shaped bag body, wherein the first loudspeaker element and the wireless sending module are electrically connected to the main control circuit board; a second belt, one end of which is arranged in the On the other side of the body, a third U-shaped bag and a fourth U-shaped bag are arranged in the second belt, the third U-shaped bag system is adjacent to the body, and the fourth U-shaped bag system is connected to the body. The third U-shaped bag is arranged adjacently, a second speaker element is arranged in the third U-shaped bag, and a rechargeable battery module is arranged in the fourth U-shaped bag, wherein the second speaker element is Electrically connected to the main control circuit board, the main control circuit board is connected to the rechargeable battery module; and a buckle, which includes a buckle and a buckle, the buckle is connected to the first belt The other end of the clip is connected to the other end of the second belt, Wherein, the buckle is engaged with the clip to connect the first belt body and the second belt body; wherein, when the audio receiving device receives an audio message and inputs the audio message to the expansion module, After the audio information is amplified, filtered and enlarged, the audio information is converted into a frequency vibration signal and transmitted to the sensing element. The wearable device with audio somatosensory as described in claim 1, wherein the main control circuit board further includes an audio decoding processing module, and further the audio decoding processing module is electrically connected to a Bluetooth module, a wireless A receiving module, an AUX auxiliary input module, a USB input port, an external storage port or the radio device, and the audio decoding processing module is electrically connected to the expansion module, and the expansion module is electrically connected to the The first speaker element and the second speaker element. The wearable device with audio somatosensory as described in claim 1, wherein the rechargeable battery module is electrically connected to the main control circuit board, the sensing element, the wireless sending module, and the first speaker element And the second speaker element is electrically connected to the main control circuit board. The wearable device with audio somatosensory as described in claim 1, wherein the sound receiving device uses a capacitive or MEMS microphone to collect the sound of the actual external environment, and the expansion module amplifies and filters the sound and converts it into a shock wave output, so that the body Vibration can be felt, and at the same time, the music sound from the audio somatosensory wearable device can be listened to independently through the first speaker element and the second speaker element. The wearable device with audio somatosensory as described in claim 1, wherein the audio message output has a music playing function in addition to connecting the sensing element, and its music playing Divided into 3 modes, one for speaker components, one for headphone jack output, and one for wireless bluetooth transmitter.

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