Multifunctional head-mounted device and use method thereof

Abstract

The invention provides a multifunctional head-mounted device and a use method thereof. The multifunctional head-mounted device comprises a device shell module, a signal control module, a first image generation module and a second image generation module. The device housing module includes a first lens structure and a second lens structure. The first image generation module includes a plurality of first image generation chips configured to surround the first lens structure, and the second image generation module includes a plurality of second image generation chips configured to surround the second lens structure. When a user selectively wears the multifunctional head-mounted device, the plurality of first image generating chips are configured to project a first predetermined image beam to a first eye of the user through a first optical waveguide channel provided by the first lens structure. The plurality of second image generating chips are configured to project a second predetermined image beam onto a second eye of the user through a second optical waveguide channel provided by the second lens structure.

Description

Technical Field

[0001] The present invention relates to a head-mounted device and a method for using the same, and more particularly to a multi-functional head-mounted device and a method for using a multi-functional head-mounted device. Background Art

[0002] In the prior art, AR or VR head-mounted devices can provide different visual experiences to users. However, there is still room for improvement in the AR or VR head-mounted devices in the prior art. Summary of the Invention

[0003] The problem to be improved or solved by the present invention is to provide a multi-functional head-mounted device and a method for using the same in view of the deficiencies of the prior art. In addition to providing image-related signals to the left eye and the right eye of the user in real time, the present invention can also track the eye positions of the user's left eye and right eye in real time.

[0004] To improve or solve the above problems, one of the technical means adopted by the present invention is to provide a multi-functional head-mounted device, which includes: a device housing module, a signal control module, a first image generation module, and a second image generation module. The device housing module includes a first frame structure, a second frame structure that cooperates with the first frame structure, a first lens structure carried by the first frame structure, and a second lens structure carried by the second frame structure. The signal control module is disposed within the device housing module. The first image generation module cooperates with the device housing module and is electrically connected to the signal control module. The second image generation module cooperates with the device housing module and is electrically connected to the signal control module. Wherein, the first image generation module includes a plurality of first image generation chips, and the plurality of first image generation chips are configured to surround the first lens structure and are surrounded by the first frame structure; wherein, the second image generation module includes a plurality of second image generation chips, and the plurality of second image generation chips are configured to surround the second lens structure and are surrounded by the second frame structure; wherein, when the user selectively wears the multi-functional head-mounted device, the plurality of first image generation chips are allowed to be configured through the control of the signal control module to pass through a first optical waveguide channel provided by the first lens structure to project a first predetermined image beam onto the user's first eye; wherein, when the user selectively wears the multi-functional head-mounted device, the plurality of second image generation chips are allowed to be configured through the control of the signal control module to pass through a second optical waveguide channel provided by the second lens structure to project a second predetermined image beam onto the user's second eye.

[0005] To improve or solve the above problems, another technical means adopted by the present invention is to provide a multifunctional head-mounted device, which includes: a device housing module, a signal control module, a first image generation module, and a second image generation module. The device housing module includes a first spectacle frame structure, a second spectacle frame structure that cooperates with the first spectacle frame structure, a first lens structure carried by the first spectacle frame structure, and a second lens structure carried by the second spectacle frame structure. The signal control module is disposed within the device housing module. The first image generation module cooperates with the device housing module and is electrically connected to the signal control module. The second image generation module cooperates with the device housing module and is electrically connected to the signal control module. Among them, the first image generation module includes a plurality of first image generation chips configured to surround the first lens structure, and the second image generation module includes a plurality of second image generation chips configured to surround the second lens structure.

[0006] To improve or solve the above problems, yet another technical means adopted by the present invention is to provide a method for using a multifunctional head-mounted device, which includes: providing a multifunctional head-mounted device, the multifunctional head-mounted device including a device housing module, a signal control module disposed within the device housing module, a first image generation module electrically connected to the signal control module, and a second image generation module electrically connected to the signal control module; the first image generation module transmits through the optical waveguide of the device housing module to project a first predetermined image beam onto the user's first eye; and the second image generation module transmits through the optical waveguide of the device housing module to project a second predetermined image beam onto the user's second eye. Among them, the device housing module includes a first spectacle frame structure, a second spectacle frame structure that cooperates with the first spectacle frame structure, a first lens structure carried by the first spectacle frame structure, and a second lens structure carried by the second spectacle frame structure; among them, the first image generation module includes a plurality of first image generation chips, and the plurality of first image generation chips are configured to surround the first lens structure and are surrounded by the first spectacle frame structure; among them, the second image generation module includes a plurality of second image generation chips, and the plurality of second image generation chips are configured to surround the second lens structure and are surrounded by the second spectacle frame structure; among them, when the user selectively wears the multifunctional head-mounted device, the plurality of first image generation chips are allowed to be configured, through the control of the signal control module, to pass through a first optical waveguide channel provided by the first lens structure to project the first predetermined image beam onto the user's first eye; among them, when the user selectively wears the multifunctional head-mounted device, the plurality of second image generation chips are allowed to be configured, through the control of the signal control module, to pass through a second optical waveguide channel provided by the second lens structure to project the second predetermined image beam onto the user's second eye.

[0007] One of the beneficial effects of the present invention is that a multifunctional head-mounted device provided by the present invention can, through the technical solutions of "the first image generation module includes a plurality of first image generation chips configured to surround the first lens structure" and "the second image generation module includes a plurality of second image generation chips configured to surround the second lens structure", when the user selectively wears the multifunctional head-mounted device, the plurality of first image generation chips can be configured to project a first predetermined image beam onto the user's first eye through "a first optical waveguide channel provided by the first lens structure", and the plurality of second image generation chips can be configured to project a second predetermined image beam onto the user's second eye through "a second optical waveguide channel provided by the second lens structure", thereby providing image-related signals to the user's left eye and right eye in a real-time manner.

[0008] One of the beneficial effects of the present invention is that a method for using a multifunctional head-mounted device provided by the present invention can, through the technical solutions of "the first image generation module transmits through the optical waveguide of the device housing module to project a first predetermined image beam onto the user's first eye" and "the second image generation module transmits through the optical waveguide of the device housing module to project a second predetermined image beam onto the user's second eye", when the user selectively wears the multifunctional head-mounted device, the plurality of first image generation chips can be configured to project a first predetermined image beam onto the user's first eye through "a first optical waveguide channel provided by the first lens structure", and the plurality of second image generation chips can be configured to project a second predetermined image beam onto the user's second eye through "a second optical waveguide channel provided by the second lens structure", thereby providing image-related signals to the user's left eye and right eye in a real-time manner.

[0009] To further understand the features and technical content of the present invention, please refer to the following detailed description and drawings of the present invention. However, the provided drawings are only for reference and illustration and are not used to limit the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0010] Figure 1 It is a functional block diagram of the multifunctional head-mounted device provided by the first embodiment of the present invention.

[0011] Figure 2 It is one of the three-dimensional schematic diagrams of the multifunctional head-mounted device provided by the first embodiment of the present invention.

[0012] Figure 3 It is another three-dimensional schematic diagram of the multifunctional head-mounted device provided by the first embodiment of the present invention.

[0013] Figure 4 A schematic cross-sectional exploded view of a first part (the part applied to the right eye area of the user) or a second part (the part applied to the left eye area of the user) of the multifunctional head-mounted device provided by the first embodiment of the present invention.

[0014] Figure 5 A schematic cross-sectional combined view of a first part (the part applied to the right eye area of the user) or a second part (the part applied to the left eye area of the user) of the multifunctional head-mounted device provided by the first embodiment of the present invention.

[0015] Figure 6 A schematic view of the multifunctional head-mounted device provided by the first embodiment of the present invention for obtaining the eye image of the user through an external light source.

[0016] Figure 7 A schematic view of the multifunctional head-mounted device provided by the first embodiment of the present invention for obtaining the eye image of the user through a first projection beam or a second projection beam.

[0017] Figure 8 A schematic view of the multifunctional head-mounted device provided by the first embodiment of the present invention for providing an image-related signal to the user through a first predetermined image beam or a second predetermined image beam.

[0018] Figure 9 A schematic view of the first image acquisition module and the first image generation module of the multifunctional head-mounted device provided by the first embodiment of the present invention being arranged on a first circuit board (or the second image acquisition module and the second image generation module being arranged on a second circuit board).

[0019] Figure 10 A flowchart of the usage method of the multifunctional head-mounted device provided by the first embodiment of the present invention. Detailed implementation manners

[0020] The following are specific embodiments to illustrate the implementation manners of the present invention regarding the "multifunctional head-mounted device and its usage method". Those skilled in the art can understand the advantages and effects of the present invention from the content disclosed in this specification. The present invention can be implemented or applied through other different specific embodiments, and various details in this specification can also be modified and changed based on different viewpoints and applications without departing from the concept of the present invention. Additionally, it should be stated in advance that the drawings of the present invention are only simple schematic illustrations and are not drawn according to actual dimensions. The following implementation manners will further elaborate on the related technical content of the present invention, but the disclosed content is not intended to limit the protection scope of the present invention. In addition, the term "or" used herein should, depending on the actual situation, possibly include any one or a combination of more of the related listed items.

[0021] Refer to Figures 1 to 9 As shown, in a feasible embodiment, the present invention provides a multifunctional head-mounted device H, which at least includes a device housing module 1, a signal control module 2, a first image acquisition module 3, and a second image acquisition module 4. Further, the device housing module 1 includes a first spectacle frame structure 11, a second spectacle frame structure 12 that cooperates with the first spectacle frame structure 11, a first lens structure 13 carried by the first spectacle frame structure 11, and a second lens structure 14 carried by the second spectacle frame structure 12. The signal control module 2 is disposed within the device housing module 1. The first image acquisition module 3 cooperates with the device housing module 1 and is electrically connected to the signal control module 2, and the first image acquisition module 3 includes a plurality of first image sensors 30 disposed on the first spectacle frame structure 11. The second image acquisition module 4 cooperates with the device housing module 1 and is electrically connected to the signal control module 2, and the second image acquisition module 4 includes a plurality of second image sensors 40 disposed on the second spectacle frame structure 12. Thus, when the user selectively wears the multifunctional head-mounted device H, the plurality of first image sensors 30 can be configured, under the control of the signal control module 2, to acquire a first eyeball image M1 of the user's first eye E1 through "a first optical waveguide channel 1300 provided by the first lens structure 13", and the plurality of second image sensors 40 can be configured, under the control of the signal control module 2, to acquire a second eyeball image M2 of the user's second eye E2 "through a second optical waveguide channel 1400 provided by the second lens structure 14", thereby tracking the eyeball positions of the user's left eye and right eye in real time.

[0022] Refer to Figures 1 to 9As shown, in a feasible embodiment, the present invention provides a multifunctional head-mounted device H, which at least includes a device housing module 1, a signal control module 2, a first image generation module 5, and a second image generation module 6. Further, the device housing module 1 includes a first lens frame structure 11, a second lens frame structure 12 that cooperates with the first lens frame structure 11, a first lens structure 13 carried by the first lens frame structure 11, and a second lens structure 14 carried by the second lens frame structure 12. The signal control module 2 is disposed within the device housing module 1. The first image generation module 5 is cooperable with the device housing module 1 and electrically connected to the signal control module 2, and the first image generation module 5 includes a plurality of first image generation chips 50 configured to surround the first lens structure 13. The second image generation module 6 is cooperable with the device housing module 1 and electrically connected to the signal control module 2, and the second image generation module 6 includes a plurality of second image generation chips 60 configured to surround the second lens structure 14. Thus, when the user selectively wears the multifunctional head-mounted device H, the plurality of first image generation chips 50 are configured to project a first predetermined image beam P1 onto the user's first eye E1 through a first optical waveguide channel 1300 provided by the first lens structure 13, and the plurality of second image generation chips 60 are configured to project a second predetermined image beam P2 onto the user's second eye E2 through a second optical waveguide channel 1400 provided by the second lens structure 14, thereby providing image-related signals to the user's left and right eyes in a real-time manner.

[0023] First Embodiment

[0024] Refer to Figures 1 to 9 As shown, the first embodiment of the present invention provides a multifunctional head-mounted device H, which at least includes: a device housing module 1, a signal control module 2, a first image acquisition module 3, and a second image acquisition module 4. For example, the multifunctional head-mounted device H may be glasses, so the device housing module 1 may be a glasses housing module. In a feasible embodiment, the multifunctional head-mounted device H may also be goggles worn by a user during exercise or work, or swimming goggles, ski goggles, pilot goggles, firefighter goggles, military goggles, medical goggles, or any type of multifunctional head-mounted device. However, the above examples are only one feasible embodiment and are not intended to limit the present invention.

[0025] Further, in cooperation with Figure 2 、 Figure 3 、 Figure 4 and Figure 5As shown, when the multifunctional head-mounted device H can be glasses, the device housing module 1 includes a first spectacle frame structure 11 (or a right spectacle frame structure), a second spectacle frame structure 12 (or a left spectacle frame structure) that cooperates with the first spectacle frame structure 11, a first lens structure 13 (or a right spectacle lens structure) carried by the first spectacle frame structure 11, and a second lens structure 14 (or a left spectacle lens structure) carried by the second spectacle frame structure 12. For example, the first spectacle frame structure 11 has a first lens accommodation space 111 and a first surrounding groove 112 communicating with the first lens accommodation space 111, and the first lens structure 13 is detachably accommodated in the first lens accommodation space 111 and limited by the first surrounding groove 112. Furthermore, the second spectacle frame structure 12 has a second lens accommodation space 121 and a second surrounding groove 122 communicating with the second lens accommodation space 121, and the second lens structure 14 is detachably accommodated in the second lens accommodation space 121 and limited by the second surrounding groove 122. In addition, the first lens structure 13 includes a first lens 131 (such as a lens with or without a prescription), a first outer reflection layer 132 provided on a first outer surface (or the first outer surface facing away from the user) of the first lens 131, and a first inner reflection layer 133 provided on a first inner surface (or the first inner surface facing the user) of the first lens 131. Additionally, the second lens structure 14 includes a second lens 141 (such as a lens with or without a prescription), a second outer reflection layer 142 provided on a second outer surface (or the second outer surface facing away from the user) of the second lens 141, and a second inner reflection layer 143 provided on a second inner surface (or the second inner surface facing the user) of the second lens 141. It should be noted that the device housing module 1 may further include a first temple (or a first temple structure) that can cooperate with the first spectacle frame structure 11 and a second temple (or a second temple structure) that can cooperate with the second spectacle frame structure 12. However, the above examples are only one possible embodiment and are not intended to limit the present invention.

[0026] Furthermore, in cooperation with Figure 1 、 Figure 2 and Figure 5As shown, the signal control module 2 is disposed within the device housing module 1. The first image acquisition module 3 cooperates with the device housing module 1 (for example, the first image acquisition module 3 is detachably disposed on the device housing module 1) and is electrically connected to the signal control module 2. Also, the second image acquisition module 4 cooperates with the device housing module 1 (for example, the second image acquisition module 4 is detachably disposed on the device housing module 1) and is electrically connected to the signal control module 2. For example, the signal control module 2 can be a central processing unit (CPU), a digital signal processor (DSP), a microprocessor (MPU), a microcontroller (MCU), or any type of control chip paired with any type of memory. Furthermore, the first image acquisition module 3 includes a plurality of first image sensors 30 fabricated by semiconductor to be disposed around the first frame structure 11 (or rather, the plurality of first image sensors 30 can be configured to surround the first lens structure 13 and be surrounded by the first frame structure 11). The plurality of first image sensors 30 can be disposed inside or outside the first surrounding groove 112, and each first image sensor 30 has a first sensing area 300 facing the first lens 131 of the first lens structure 13. In addition, the second image acquisition module 4 includes a plurality of second image sensors 40 fabricated by semiconductor to be disposed around the second frame structure 12 (or rather, the plurality of second image sensors 40 can be configured to surround the second lens structure 14 and be surrounded by the second frame structure 12). The plurality of second image sensors 40 can be disposed inside or outside the second surrounding groove 122, and each second image sensor 40 has a second sensing area 400 facing the second lens 141 of the second lens structure 14. Additionally, the first image sensors 30 and the second image sensors 40 can be charge-coupled device (CCD) image sensors, complementary metal-oxide-semiconductor (CMOS) image sensors, or any type of image sensors (or any type of image sensing chips). It should be noted that in a feasible embodiment, a part of the plurality of first image sensors 30 can be configured as a plurality of first biosensing chips (such as at least one or more first biosensing chips), and a part of the plurality of second image sensors 40 can be configured as a plurality of second biosensing chips (such as at least one or more second biosensing chips), thereby used to acquire the eye image information of the user (such as pupil image, eyelid image, or sclera image, and these images can be used to provide relevant position information or microvascular feature information). And the eye image information of the user can be transmitted to the cloud database through wired or wireless transmission means for relevant biological analysis and data comparison, thereby obtaining the relevant physiological information of the user.In addition, multiple first image sensors 30 can be arranged in sequence on a first circuit board S1 and surround the first lens 131 of the first lens structure 13, and the first circuit board S1 can be disposed around the inside or outside of the first surrounding groove 112. Additionally, multiple second image sensors 40 can be arranged in sequence on a second circuit board S2 and surround the second lens 141 of the second lens structure 14, and the second circuit board S2 can be disposed around the inside or outside of the second surrounding groove 122. However, the above examples are only one possible embodiment and are not intended to limit the present invention.

[0027] Thereby, in cooperation with Figure 1 , Figure 5 , Figure 6 and Figure 7 as shown, when the user selectively wears the multifunctional head-mounted device H, multiple first image sensors 30 can be configured, through the control of the signal control module 2, to be used for "obtaining (or acquiring) a first eyeball image M1 (or the right eyeball) of the user's first eye E1 through a first optical waveguide channel 1300 (or a first light transmission channel, or a first reflective diffractive optical channel) provided by the first lens structure 13", and multiple second image sensors 40 can be configured, through the control of the signal control module 2, to be used for "obtaining (or acquiring) a second eyeball image M2 (or the left eyeball) of the user's second eye E2 through a second optical waveguide channel 1400 (or a second light transmission channel, or a second reflective diffractive optical channel) provided by the second lens structure 14", thereby tracking the eyeball positions of the user's left eye and right eye in real time. Further, when multiple first image sensors 30 are configured to obtain the first eyeball image M1 of the user's first eye E1, "a first eyeball reflected light R1 (or multiple first eyeball reflected lights R1) generated by the reflection of the first eye E1" can be reflected multiple times between the first outer reflection layer 132 and the first inner reflection layer 133 of the first lens structure 13 (or transmitted in the first optical waveguide channel 1300) and then projected onto the multiple first image sensors 30. Additionally, when multiple second image sensors 40 are configured to obtain the second eyeball image M2 of the user's second eye E2, "a second eyeball reflected light R2 generated by the reflection of the second eye E2" can be reflected multiple times between the second outer reflection layer 142 and the second inner reflection layer 143 of the second lens structure 14 (or transmitted in the second optical waveguide channel 1400) and then projected onto the multiple second image sensors 40. Thereby, the present invention can not only be used to reduce the overall volume of the multifunctional head-mounted device H, but also reduce the loss generated during light transmission (i.e., increase the light transmission efficiency).

[0028] For example, in conjunction with Figure 1 , Figure 5 , Figure 6 and Figure 7 as shown, when multiple first image sensors 30 can be configured to obtain a first eyeball image M1 of a user's first eye E1, "an external light source ES (as shown in Figure 6 )" or "a first projection beam L1 (or multiple first projection beams L1) provided by multiple first light-emitting chips C1 of the multifunctional head-mounted device H (such as multiple first light-emitting diode chips or multiple first infrared light-emitting diode chips arranged around) (as shown in Figure 7 )" can generate a first eyeball reflected light R1 (or multiple first eyeball reflected lights R1) through the reflection of the first eye E1. The first eyeball reflected light R1 can be reflected multiple times between the first outer reflection layer 132 and the first inner reflection layer 133 of the first lens structure 13 (or after being transmitted in the first optical waveguide channel 1300) and then projected onto the multiple first image sensors 30. Additionally, when multiple second image sensors 40 can be configured to obtain a second eyeball image M2 of a user's second eye E2, "an external light source ES (as shown in Figure 6 )" or "a second projection beam L2 (or multiple second projection beams L2) provided by multiple second light-emitting chips C2 of the multifunctional head-mounted device H (such as multiple second light-emitting diode chips or multiple second infrared light-emitting diode chips arranged around) (as shown in Figure 7 )" can generate a second eyeball reflected light R2 (or multiple second eyeball reflected lights R2) through the reflection of the second eye E2. The second eyeball reflected light R2 can be reflected multiple times between the second outer reflection layer 142 and the second inner reflection layer 143 of the second lens structure 14 (or after being transmitted in the second optical waveguide channel 1400) and then projected onto the multiple second image sensors 40. However, the above examples are only one possible embodiment and are not intended to limit the present invention.

[0029] Furthermore, in conjunction with Figure 1 , Figure 2 , Figure 8 and Figure 9As shown, a multifunctional head-mounted device H provided by the first embodiment of the present invention may further include: a first image generation module 5 and a second image generation module 6. In addition, the first image generation module 5 and the device housing module 1 can cooperate with each other and are electrically connected to the signal control module 2. The first image generation module 5 includes a plurality of first image generation chips 50 (or a plurality of first light-emitting chips), and the plurality of first image generation chips 50 can be configured to surround the first lens structure 13 and be surrounded by the first frame structure 11. Additionally, the second image generation module 6 and the device housing module 1 can cooperate with each other and are electrically connected to the signal control module 2. The second image generation module 6 includes a plurality of second image generation chips 60 (or a plurality of second light-emitting chips), and the plurality of second image generation chips 60 can be configured to surround the second lens structure 14 and be surrounded by the second frame structure 12. For example, a plurality of first image generation chips 50 (such as a plurality of first LED chips) can be fabricated by semiconductor processes to be arranged in sequence on the first circuit board S1 and surround the first lens 131 of the first lens structure 13. The plurality of first image generation chips 50 can be disposed around the inside or outside of the first surrounding groove 112, and each first image generation chip 50 has a first light-emitting area 500 facing the first lens 131 of the first lens structure 13. Moreover, a plurality of second image generation chips 60 (such as a plurality of second LED chips) can be fabricated by semiconductor processes to be arranged in sequence on the second circuit board S2 and surround the second lens 141 of the second lens structure 14. The plurality of second image generation chips 60 can be disposed around the inside or outside of the second surrounding groove 122, and each second image generation chip 60 has a second light-emitting area 600 facing the second lens 141 of the second lens structure 14. However, the above examples are only one possible embodiment and are not intended to limit the present invention.

[0030] Thereby, in cooperation with Figure 1 , Figure 2 and Figure 9As shown, when the user selectively wears the multifunctional head-mounted device H, a plurality of first image generation chips 50 are allowed to be configured, through the control of the signal control module 2, to project a first predetermined image beam P1 (or a plurality of first predetermined image beams P1) onto the user's first eye E1 through a first optical waveguide channel 1300 provided by the first lens structure 13. Additionally, when the user selectively wears the multifunctional head-mounted device H, a plurality of second image generation chips 60 are allowed to be configured, through the control of the signal control module 2, to project a second predetermined image beam P2 (or a plurality of second predetermined image beams P2) onto the user's second eye E2 through a second optical waveguide channel 1400 provided by the second lens structure 14. Further, when the plurality of first image generation chips 50 are configured to project the first predetermined image beam P1 onto the user's first eye E1, the first predetermined image beam P1 generated by the plurality of first image generation chips 50 can be reflected multiple times between the first outer reflection layer 132 and the first inner reflection layer 133 of the first lens structure 13 (or after being transmitted in the first optical waveguide channel 1300) and then projected onto the user's first eye E1. Additionally, when the plurality of second image generation chips 60 are configured to project the second predetermined image beam P2 onto the user's second eye E2, the second predetermined image beam P2 generated by the plurality of second image generation chips 60 can be reflected multiple times between the second outer reflection layer 142 and the second inner reflection layer 143 of the second lens structure 14 (or after being transmitted in the second optical waveguide channel 1400) and then projected onto the user's second eye E2. Thereby, the present invention can not only be used to reduce the overall volume of the multifunctional head-mounted device H, but also reduce the loss generated during light transmission (i.e., increase the light transmission efficiency).

[0031] It should be noted that, for example, in cooperation with Figure 1 、 Figure 2 and Figure 3As shown in the figure, a multifunctional head-mounted device H provided by the first embodiment of the present invention may further include: a wireless transmission module 71, a power supply module 72, a sound generation module 73, a vibration generation module 74, and an electrical connector module 75. The wireless transmission module 71 (for example, it can perform wireless data transmission through an antenna structure or an antenna chip in combination with Wi-Fi, Bluetooth, ZigBee, or any wireless transmission method), the power supply module 72 (for example, it can include any type of rechargeable battery or solar cell), the sound generation module 73 (for example, it can include any type of speaker), the vibration generation module 74 (for example, it includes a small vibration motor that can generate continuous or discontinuous vibrations or generate high-frequency or low-frequency vibrations), and the electrical connector module 75 (for example, it can include a USB interface or any type of transmission interface) can all be disposed inside the device housing module 1 (for example, inside the first temple or the second temple) and electrically connected to the signal control module 2. However, the examples given above are only one feasible embodiment and are not intended to limit the present invention.

[0032] Second Embodiment

[0033] Refer to Figure 1 、 Figure 6 、 Figure 7 and Figure 10 As shown in the figure, the usage method of the multifunctional head-mounted device provided by the second embodiment of the present invention may further at least include the following steps: First, in cooperation with Figure 1 and Figure 10 As shown in the figure, provide a multifunctional head-mounted device H (step S100). The multifunctional head-mounted device H includes a device housing module 1, a signal control module 2 disposed inside the device housing module 1, a first image acquisition module 3 electrically connected to the signal control module 2, and a second image acquisition module 4 electrically connected to the signal control module 2; Next, in cooperation with Figure 6 、 Figure 7 and Figure 10 As shown in the figure, the first image acquisition module 3 (including a plurality of first image sensors 30) can be transmitted through the optical waveguide of the device housing module 1 to acquire a first eyeball image M1 of the user's first eye E1 (step S102); Then, in cooperation with Figure 6 、 Figure 7 and Figure 10As shown, the second image acquisition module 4 (including multiple second image sensors 40) can be transmitted through the optical waveguide of the device housing module 1 to acquire a second eyeball image M2 of the user's second eye E2 (step S104). That is, when the user selectively wears the multifunctional head-mounted device H, the multiple first image sensors 30 of the first image acquisition module 3 can be configured to be used for "through a first optical waveguide channel 1300 (or a first light transmission channel, or a first reflective diffractive optical channel) provided by the first lens structure 13" to acquire a first eyeball image M1 of the user's first eye E1 under the control of the signal control module 2, and the multiple second image sensors 40 of the second image acquisition module 4 can be configured to be used for "through a second optical waveguide channel 1400 (or a second light transmission channel, or a second reflective diffractive optical channel) provided by the second lens structure 14" to acquire a second eyeball image M2 of the user's second eye E2 under the control of the signal control module 2, thereby tracking the eyeball positions of the user's left eye and right eye in real time (step S106).

[0034] Furthermore, referring to Figure 1 、 Figure 9 and Figure 10 as shown, the method of using the multifunctional head-mounted device provided in the second embodiment of the present invention may further at least include the following steps: First, in cooperation with Figure 9 and Figure 10 as shown, provide a multifunctional head-mounted device H (step S200), the multifunctional head-mounted device H includes a device housing module 1, a signal control module 2 disposed in the device housing module 1, a first image generation module 5 electrically connected to the signal control module 2, and a second image generation module 6 electrically connected to the signal control module 2; then, in cooperation with Figure 9 and Figure 10 as shown, the first image generation module 5 (including multiple first image generation chips 50) is transmitted through the optical waveguide of the device housing module 1 to project a first predetermined image beam P1 onto the user's first eye E1 (step S202); then, in cooperation with Figure 9 and Figure 10As shown, the second image generation module 6 (including multiple second image generation chips 60) is transmitted through the optical waveguide of the device housing module 1 to project a second predetermined image beam P2 onto the second eye E2 of the user (step S204). That is, when the user selectively wears the multifunctional head-mounted device H, the multiple first image generation chips 50 of the first image generation module 5 can be configured, through the control of the signal control module 2, to "project the first predetermined image beam P1 onto the first eye E1 of the user through a first optical waveguide channel 1300 (or a first light transmission channel, or a first reflective diffractive optical channel) provided by the first lens structure 13", and the multiple second image generation chips 60 of the second image generation module 6 can be configured, through the control of the signal control module 2, to "project the second predetermined image beam P2 onto the second eye E2 of the user through a second optical waveguide channel 1400 (or a second light transmission channel, or a second reflective diffractive optical channel) provided by the second lens structure 14", thereby providing image-related signals to the user's left and right eyes in a real-time manner (step S206).

[0035] Advantages of the embodiment

[0036] One of the beneficial effects of the present invention is that a multifunctional head-mounted device H provided by the present invention can, through the technical solutions of "the first image generation module 5 includes a plurality of first image generation chips 50 configured to surround the first lens structure 13" and "the second image generation module 6 includes a plurality of second image generation chips 60 configured to surround the second lens structure 14", such that when the user selectively wears the multifunctional head-mounted device H, the plurality of first image generation chips 50 can be configured to project a first predetermined image beam P1 onto the user's first eye E1 through "a first optical waveguide channel 1300 provided by the first lens structure 13", and the plurality of second image generation chips 60 can be configured to project a second predetermined image beam P2 onto the user's second eye E2 through "a second optical waveguide channel 1400 provided by the second lens structure 14", thereby providing image-related signals to the user's left eye and right eye in a real-time manner. It should be noted that a multifunctional head-mounted device H provided by the present invention can further, through the technical solutions of "the first image acquisition module 3 includes a plurality of first image sensors 30 disposed on the first frame structure 11" and "the second image acquisition module 4 includes a plurality of second image sensors 40 disposed on the second frame structure 12", such that when the user selectively wears the multifunctional head-mounted device H, the plurality of first image sensors 30 can be configured to acquire a first eye image M1 of the user's first eye E1 through "a first optical waveguide channel 1300 provided by the first lens structure 13", and the plurality of second image sensors 40 can be configured to acquire a second eye image M2 of the user's second eye E2 through "a second optical waveguide channel 1400 provided by the second lens structure 14", thereby tracking the eye positions of the user's left eye and right eye in a real-time manner.

[0037] One of the beneficial effects of the present invention is that, for a method of using a multifunctional head-mounted device provided by the present invention, it can project a first predetermined image beam P1 onto the user's first eye E1 through the optical waveguide of the device housing module 1 by the "first image generation module 5", and project a second predetermined image beam P2 onto the user's second eye E2 through the optical waveguide of the device housing module 1 by the "second image generation module 6". Such a technical solution enables, when the user selectively wears the multifunctional head-mounted device H, multiple first image generation chips 50 to be configured to project a first predetermined image beam P1 onto the user's first eye E1 through "a first optical waveguide channel 1300 provided by the first lens structure 13", and multiple second image generation chips 60 to be configured to project a second predetermined image beam P2 onto the user's second eye E2 through "a second optical waveguide channel 1400 provided by the second lens structure 14", thereby providing image-related signals to the user's left eye and right eye in real time. It should be noted that the method of using a multifunctional head-mounted device provided by the present invention can further obtain a first eye image M1 of the user's first eye E1 through the optical waveguide of the device housing module 1 by the "first image acquisition module 3", and obtain a second eye image M2 of the user's second eye E2 through the optical waveguide of the device housing module 1 by the "second image acquisition module 4". Such a technical solution enables, when the user selectively wears the multifunctional head-mounted device H, multiple first image sensors 30 to be configured to obtain a first eye image M1 of the user's first eye E1 through "a first optical waveguide channel 1300 provided by the first lens structure 13", and multiple second image sensors 40 to be configured to obtain a second eye image M2 of the user's second eye E2 through "a second optical waveguide channel 1400 provided by the second lens structure 14", thereby tracking the eye positions of the user's left eye and right eye in real time.

[0038] The content disclosed above is only an optional and feasible embodiment of the present invention, and does not limit the protection scope of the claims of the present invention. Therefore, all equivalent technical changes made by using the content of the specification and drawings of the present invention are included in the protection scope of the claims of the present invention.

Claims

1. A multifunctional head-mounted device, characterized in that: The multifunctional head mounted device comprises: A device housing module, the device housing module comprising a first frame structure, a second frame structure cooperating with the first frame structure, a first lens structure carried by the first frame structure, and a second lens structure carried by the second frame structure; a signal control module, the signal control module being disposed in the device housing module; a first image generating module, the first image generating module cooperates with the device housing module and is electrically connected to the signal control module; and a second image generating module, the second image generating module cooperates with the device housing module and is electrically connected to the signal control module; Wherein, the first image generating module comprises a plurality of first image generating chips, and the plurality of first image generating chips are arranged to surround the first lens structure and be surrounded by the first lens frame structure; The second image generating module includes a plurality of second image generating chips, and the plurality of second image generating chips are configured to surround the second lens structure and be surrounded by the second lens frame structure; Wherein, when the user selectively wears the multifunctional head mounted device, the plurality of first image generating chips are allowed to be configured under the control of the signal control module to be used for projecting a first predetermined image light beam onto the first eye of the user through a first optical waveguide channel provided by the first lens structure; When the user selectively wears the multifunctional head-mounted device, a plurality of the second image generating chips are allowed to be configured through the control of the signal control module to be used for projecting a second predetermined image light beam onto the user's second eye through a second optical waveguide channel provided by the second lens structure.

2. The multifunctional head-mounted device according to claim 1, characterized in that: The multifunctional head mounted device further comprises: a first image acquisition module, the first image acquisition module cooperates with the device housing module and is electrically connected to the signal control module; a second image acquisition module, the second image acquisition module cooperates with the device housing module and is electrically connected to the signal control module; a wireless transmission module, the wireless transmission module being disposed inside the device housing module and electrically connected to the signal control module; a power supply module, the power supply module being disposed inside the device housing module and electrically connected to the signal control module; a sound generating module, the sound generating module being disposed inside the device housing module and being electrically connected to the signal control module; a vibration generating module, the vibration generating module being disposed inside the device housing module and being electrically connected to the signal control module; and an electrical connector module, the electrical connector module being disposed inside the device housing module and electrically connected to the signal control module; The first image acquisition module includes a plurality of first image sensors, the plurality of first image sensors are configured to surround the first lens structure and be surrounded by the first lens frame structure, and a portion of the plurality of first image sensors are configured as a plurality of first biosensing chips; The second image acquisition module includes a plurality of second image sensors, the plurality of second image sensors are configured to surround the second lens structure and be surrounded by the second lens frame structure, and a portion of the plurality of second image sensors are configured as a plurality of second biosensing chips; Wherein, when the user selectively wears the multifunctional head mounted device, the plurality of first image sensors are allowed to be configured under the control of the signal control module to be used for acquiring a first eyeball image of the user's first eye through the first optical waveguide channel provided by the first lens structure; When the user selectively wears the multifunctional head-mounted device, a plurality of the second image sensors are allowed to be configured through the control of the signal control module to obtain a second eye image of the user's second eye through the second optical waveguide channel provided by the second lens structure.

3. The multifunctional head-mounted device according to claim 2, characterized in that: in, The first frame structure has a first lens accommodating space and a first surrounding groove connected to the first lens accommodating space, and the first lens structure can be detachably accommodated in the first lens accommodating space and is limited by the first surrounding groove; The second frame structure has a second lens accommodating space and a second surrounding groove connected to the second lens accommodating space, and the second lens structure can be detachably accommodated in the second lens accommodating space and is limited by the second surrounding groove; Wherein, the first lens structure comprises a first lens, a first outer reflection layer disposed on a first outer surface of the first lens, and a first inner reflection layer disposed on a first inner surface of the first lens; The second lens structure includes a second lens, a second outer reflection layer disposed on a second outer surface of the second lens, and a second inner reflection layer disposed on a second inner surface of the second lens; Wherein, when the plurality of first image sensors are configured to acquire the first eyeball image of the first eye of the user, a first eyeball reflected light generated by reflection of the first eye is reflected multiple times between the first outer reflection layer and the first inner reflection layer of the first lens structure before being projected to the plurality of first image sensors; Among them, when multiple second image sensors are configured to obtain the second eyeball image of the user's second eye, a second eyeball reflected light generated by reflection of the second eye is reflected multiple times between the second outer reflection layer and the second inner reflection layer of the second lens structure before being projected onto the multiple second image sensors.

4. The multifunctional head-mounted device according to claim 2, characterized in that: in, The first frame structure has a first lens accommodating space and a first surrounding groove connected to the first lens accommodating space, and the first lens structure can be detachably accommodated in the first lens accommodating space and is limited by the first surrounding groove; The second frame structure has a second lens accommodating space and a second surrounding groove connected to the second lens accommodating space, and the second lens structure can be detachably accommodated in the second lens accommodating space and is limited by the second surrounding groove; Wherein, the first lens structure comprises a first lens, a first outer reflection layer disposed on a first outer surface of the first lens, and a first inner reflection layer disposed on a first inner surface of the first lens; The second lens structure includes a second lens, a second outer reflection layer disposed on a second outer surface of the second lens, and a second inner reflection layer disposed on a second inner surface of the second lens; Wherein, a plurality of the first image sensors are disposed in a surrounding manner inside or outside the first surrounding groove, and each of the first image sensors has a first sensing area of ​​the first lens facing the first lens structure; Wherein, a plurality of the second image sensors are disposed in a surrounding manner inside or outside the second surrounding groove, and each of the second image sensors has a second sensing area of ​​the second lens facing the second lens structure; Wherein, a plurality of the first image generation chips and a plurality of the first image sensors are sequentially arranged on a first circuit substrate and surround the first lens of the first lens structure, and the first circuit substrate is disposed surroundingly inside or outside the first surrounding groove; Wherein, a plurality of the second image generation chips and a plurality of the second image sensors are sequentially arranged on a second circuit substrate and surround the second lens of the second lens structure, and the second circuit substrate is disposed surroundingly inside or outside the second surrounding groove; Wherein, when the plurality of first image sensors are configured to acquire the first eyeball image of the first eye of the user, an external light source or a first projection light beam provided by the multifunctional head mounted device generates a first eyeball reflected light through reflection from the first eye, and the first eyeball reflected light is projected to the plurality of first image sensors after being reflected multiple times between the first outer reflection layer and the first inner reflection layer of the first lens structure; Among them, when multiple second image sensors are configured to obtain the second eyeball image of the user's second eye, an external light source or a second projection light beam provided by the multifunctional head-mounted device generates a second eyeball reflected light through reflection by the second eye, and the second eyeball reflected light is reflected multiple times between the second outer reflection layer and the second inner reflection layer of the second lens structure before being projected onto the multiple second image sensors.

5. The multifunctional head-mounted device according to claim 1, characterized in that: in, The first frame structure has a first lens accommodating space and a first surrounding groove connected to the first lens accommodating space, and the first lens structure can be detachably accommodated in the first lens accommodating space and is limited by the first surrounding groove; The second frame structure has a second lens accommodating space and a second surrounding groove connected to the second lens accommodating space, and the second lens structure can be detachably accommodated in the second lens accommodating space and is limited by the second surrounding groove; The first lens structure includes a first lens, a first outer reflection layer disposed on a first outer surface of the first lens, and a first inner reflection layer disposed on a first inner surface of the first lens; The second lens structure includes a second lens, a second outer reflection layer disposed on a second outer surface of the second lens, and a second inner reflection layer disposed on a second inner surface of the second lens; Wherein, a plurality of the first image generating chips are disposed in a surrounding manner inside or outside the first surrounding groove, and each of the first image generating chips has a first light emitting area of ​​the first lens facing the first lens structure; Wherein, a plurality of the second image generating chips are disposed in a surrounding manner inside or outside the second surrounding groove, and each of the second image generating chips has a second light emitting area of ​​the second lens facing the second lens structure; Wherein, when the plurality of first image generating chips are configured to project the first predetermined image light beam onto the first eye of the user, the first predetermined image light beam generated by the plurality of first image generating chips is reflected multiple times between the first outer reflection layer and the first inner reflection layer of the first lens structure before being projected onto the first eye of the user; When a plurality of the second image generating chips are configured to project the second predetermined image light beam onto the user's second eye, the second predetermined image light beam generated by the plurality of the second image generating chips is reflected multiple times between the second outer reflection layer and the second inner reflection layer of the second lens structure before being projected onto the user's second eye.

6. A multifunctional head-mounted device, characterized in that: The multifunctional head mounted device comprises: A device housing module, the device housing module comprising a first frame structure, a second frame structure cooperating with the first frame structure, a first lens structure carried by the first frame structure, and a second lens structure carried by the second frame structure; a signal control module, the signal control module being disposed in the device housing module; a first image generating module, the first image generating module cooperates with the device housing module and is electrically connected to the signal control module; and a second image generating module, the second image generating module cooperates with the device housing module and is electrically connected to the signal control module; The first image generating module includes a plurality of first image generating chips configured to surround the first lens structure, and the second image generating module includes a plurality of second image generating chips configured to surround the second lens structure.

7. The multifunctional head-mounted device according to claim 6, characterized in that: The multifunctional head mounted device further comprises: a first image acquisition module, the first image acquisition module cooperates with the device housing module and is electrically connected to the signal control module; a second image acquisition module, the second image acquisition module cooperates with the device housing module and is electrically connected to the signal control module; a wireless transmission module, the wireless transmission module being disposed inside the device housing module and electrically connected to the signal control module; a power supply module, the power supply module being disposed inside the device housing module and electrically connected to the signal control module; a sound generating module, the sound generating module being disposed inside the device housing module and being electrically connected to the signal control module; a vibration generating module, the vibration generating module being disposed inside the device housing module and being electrically connected to the signal control module; and an electrical connector module, the electrical connector module being disposed inside the device housing module and electrically connected to the signal control module; The first image acquisition module includes a plurality of first image sensors, the plurality of first image sensors are configured to surround the first lens structure and be surrounded by the first lens frame structure, and a portion of the plurality of first image sensors are configured as a plurality of first biosensing chips; The second image acquisition module includes a plurality of second image sensors, the plurality of second image sensors are configured to surround the second lens structure and be surrounded by the second lens frame structure, and a portion of the plurality of second image sensors are configured as a plurality of second biosensing chips; Wherein, when the user selectively wears the multifunctional head mounted device, the plurality of first image sensors are allowed to be configured under the control of the signal control module to obtain a first eyeball image of the user's first eye through a first optical waveguide channel provided by the first lens structure; When the user selectively wears the multifunctional head-mounted device, a plurality of the second image sensors are allowed to be configured through the control of the signal control module to obtain a second eye image of the user's second eye through a second optical waveguide channel provided by the second lens structure.

8. The multifunctional head-mounted device according to claim 7, characterized in that: in, The first frame structure has a first lens accommodating space and a first surrounding groove connected to the first lens accommodating space, and the first lens structure can be detachably accommodated in the first lens accommodating space and is limited by the first surrounding groove; The second frame structure has a second lens accommodating space and a second surrounding groove connected to the second lens accommodating space, and the second lens structure can be detachably accommodated in the second lens accommodating space and is limited by the second surrounding groove; The first lens structure includes a first lens, a first outer reflection layer disposed on a first outer surface of the first lens, and a first inner reflection layer disposed on a first inner surface of the first lens; The second lens structure includes a second lens, a second outer reflection layer disposed on a second outer surface of the second lens, and a second inner reflection layer disposed on a second inner surface of the second lens; Wherein, a plurality of the first image generation chips and a plurality of the first image sensors are sequentially arranged on a first circuit substrate and surround the first lens of the first lens structure, and the first circuit substrate is disposed surroundingly inside or outside the first surrounding groove; Wherein, a plurality of the second image generation chips and a plurality of the second image sensors are sequentially arranged on a second circuit substrate and surround the second lens of the second lens structure, and the second circuit substrate is disposed surroundingly inside or outside the second surrounding groove; Wherein, when the plurality of first image sensors are configured to acquire the first eyeball image of the first eye of the user, a first eyeball reflected light generated by reflection of the first eye is reflected multiple times between the first outer reflection layer and the first inner reflection layer of the first lens structure before being projected to the plurality of first image sensors; Among them, when multiple second image sensors are configured to obtain the second eyeball image of the user's second eye, a second eyeball reflected light generated by reflection of the second eye is reflected multiple times between the second outer reflection layer and the second inner reflection layer of the second lens structure before being projected onto the multiple second image sensors.

9. The multifunctional head-mounted device according to claim 6, characterized in that: in, The first frame structure has a first lens accommodating space and a first surrounding groove connected to the first lens accommodating space, and the first lens structure can be detachably accommodated in the first lens accommodating space and is limited by the first surrounding groove; The second frame structure has a second lens accommodating space and a second surrounding groove connected to the second lens accommodating space, and the second lens structure can be detachably accommodated in the second lens accommodating space and is limited by the second surrounding groove; The first lens structure includes a first lens, a first outer reflection layer disposed on a first outer surface of the first lens, and a first inner reflection layer disposed on a first inner surface of the first lens; The second lens structure includes a second lens, a second outer reflection layer disposed on a second outer surface of the second lens, and a second inner reflection layer disposed on a second inner surface of the second lens; Wherein, a plurality of the first image generating chips are disposed in a surrounding manner inside or outside the first surrounding groove, and each of the first image generating chips has a first light emitting area of ​​the first lens facing the first lens structure; Wherein, a plurality of the second image generating chips are disposed in a surrounding manner inside or outside the second surrounding groove, and each of the second image generating chips has a second light emitting area of ​​the second lens facing the second lens structure; Wherein, when the plurality of first image generating chips are configured to project a first predetermined image light beam onto a first eye of a user, the first predetermined image light beam generated by the plurality of first image generating chips is reflected multiple times between the first outer reflection layer and the first inner reflection layer of the first lens structure before being projected onto the first eye of the user; When a plurality of the second image generating chips are configured to project a second predetermined image light beam onto the user's second eye, the second predetermined image light beam generated by the plurality of the second image generating chips is reflected multiple times between the second outer reflection layer and the second inner reflection layer of the second lens structure before being projected onto the user's second eye.

10. A method for using a multifunctional head-mounted device, characterized in that: The method for using the multifunctional head mounted device comprises: A multifunctional head-mounted device is provided, the multifunctional head-mounted device comprising a device housing module, a signal control module disposed in the device housing module, a first image generating module electrically connected to the signal control module, and a second image generating module electrically connected to the signal control module; The first image generating module transmits through the optical waveguide of the device housing module to project a first predetermined image beam onto a first eye of the user; and The second image generating module transmits through the optical waveguide of the device housing module to project a second predetermined image beam onto the second eye of the user; The device housing module includes a first frame structure, a second frame structure cooperating with the first frame structure, a first lens structure carried by the first frame structure, and a second lens structure carried by the second frame structure; Wherein, the first image generating module comprises a plurality of first image generating chips, and the plurality of first image generating chips are arranged to surround the first lens structure and be surrounded by the first lens frame structure; The second image generating module includes a plurality of second image generating chips, and the plurality of second image generating chips are configured to surround the second lens structure and be surrounded by the second lens frame structure; Wherein, when the user selectively wears the multifunctional head mounted device, the plurality of first image generating chips are allowed to be configured under the control of the signal control module to be used for projecting the first predetermined image light beam onto the first eye of the user through a first optical waveguide channel provided by the first lens structure; When the user selectively wears the multifunctional head-mounted device, a plurality of the second image generating chips are allowed to be configured through the control of the signal control module to be used for projecting the second predetermined image light beam onto the user's second eye through a second optical waveguide channel provided by the second lens structure.

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