Intelligent goggles system and working method thereof

Abstract

The invention discloses an intelligent goggle system and a working method thereof. The system comprises a goggle main body and a calculation box, the goggles main body is used for realizing augmented reality information display and collecting images and videos; the calculation box is used for being responsible for integrating information perception, carrying out data processing, realizing man-machine interaction, managing data storage and carrying out external communication so as to drive the goggles main body to realize the functions of the goggles main body; and the two realize data interaction through a high-speed data line. The method comprises a system starting and initializing function, a near-to-eye display function, a high-definition shooting function and a myopia correction function. According to the intelligent goggles, the transmission type near-to-eye display function and the high-resolution image shooting function are combined with the goggles, so that the environment applicability and the man-machine work efficiency of the intelligent goggles are greatly improved.

Description

Technical Field

[0001] This invention belongs to the field of intelligent goggles technology, and in particular relates to an intelligent goggles system and its working method. Background Technology

[0002] Goggles, as eye protection tools, play an important role in cycling, skiing, and industrial work. However, existing goggles have relatively limited functions and cannot meet people's needs for information acquisition and recording of daily life; existing goggles have low lens transmittance and cannot adjust transmittance under different lighting conditions, limiting their use and making them unsuitable for low-light environments such as night; for nearsighted users, additional glasses are required, which not only increases inconvenience but also seriously affects the goggles' seal and wearing comfort. Summary of the Invention

[0003] The purpose of this invention is to provide an intelligent goggle system and its working method to solve the technical problems of existing goggles having limited functions, restricted usage scenarios, and incompatibility with myopia glasses. By combining transmissive near-eye display and high-resolution image capture functions with the goggle, the environmental applicability and human-machine efficiency of the intelligent goggle are greatly improved.

[0004] To achieve the objectives of this invention, in one aspect, this invention provides an intelligent goggle system, including a goggle body and a computing box;

[0005] The goggle body is used to display augmented reality information and to capture images and videos;

[0006] The computing box is responsible for integrating information perception, processing data, realizing human-computer interaction, managing data storage and external communication, thereby driving the main body of the goggles to realize its functions.

[0007] The two entities communicate via a high-speed data cable.

[0008] The main body of the goggles includes a frame, lenses, a near-eye display module, a shooting module, and a near-eye lens module;

[0009] The frame is the main structure of the goggles, used to support and fix the lenses, the near-eye display module, the shooting module, and the near-vision lens module; the frame fixes the lenses through annular grooves, and the near-eye display module, the shooting module, and the near-vision lens module can be detachably installed through an integrated fixing structure; the frame is also connected with elastic adjustable webbing to ensure a secure fit.

[0010] The lens is fixed to the front end of the frame, located at the front of the user's field of vision. It has a photochromic function, which can automatically adjust the transmittance according to the ambient light. It also has anti-fog and explosion-proof treatment, providing visual comfort and physical protection.

[0011] The near-eye display module and the shooting module are integrated to form a display and shooting module, which is detachably installed inside the frame; the near-eye display module projects the image to the user's eyes through a microdisplay, an optical coupling system and an optical waveguide to achieve transmissive near-eye display; the near-eye display module is connected to the computing box through a data cable;

[0012] The shooting module is integrated with the near-eye display module and is located in the upper middle of the display module. It has a built-in CMOS sensor and a photosensor. The shooting module is used to capture high-definition photos and videos, and uses the photosensor to sense ambient light to assist in adjusting the display brightness. The shooting module is connected to the computing box via a data cable.

[0013] The myopia lens module contains myopia lenses of multiple degrees and adopts a magnetic design, which can be quickly and stably installed on the fixed structure of the display and shooting module to provide vision correction for myopia users;

[0014] The near-eye display module, the shooting module, and the near-eye lens module are integrated into a single unit, forming a quick-detachable display and shooting module for independent use.

[0015] The eyeglass frame includes an arc-shaped unit, a nose bridge support unit, and a frame unit;

[0016] The arc-shaped unit contacts the user's forehead and has embedded memory foam inside;

[0017] The nasal bridge support unit adopts a Y-shaped bifurcated structure to maintain stability and avoid compressing the nasal bridge;

[0018] The edge of the frame unit is provided with an annular groove;

[0019] The side of the eyeglass frame is secured with elastic webbing via connecting rings;

[0020] The upper edge of the frame has two parallel guide rail grooves on the left and right sides, and the end has a positioning pin fixing structure to fix the display and shooting module.

[0021] A release button is provided on the outside of the frame. When the user presses the release button, the display and shooting module slides out in the opposite direction, enabling quick disassembly and assembly.

[0022] The display and shooting module is located in the upper center of the frame, and its bottom is provided with a positioning pin that cooperates with the positioning pin of the parallel guide rail groove; each of the two parallel guide rail grooves is provided with a one-way spring buckle, and the end of the buckle is provided with a corresponding locking groove.

[0023] The near-eye display module includes a microdisplay, an optical coupling system, and an optical waveguide. The microdisplay generates high-resolution, high-refresh-rate images that are projected into the user's field of vision via the optical coupling system and the optical waveguide to achieve high-brightness, high-contrast transmissive near-eye display.

[0024] The near-eye display module and the shooting module are integrated into one unit. The near-eye display module is located in front of the user's eyes, and the shooting module is located above and in the middle of the display and shooting module.

[0025] The myopia lens module includes myopia lenses of various degrees, allowing users to choose the appropriate lens according to their vision. The myopia display module has a U-shaped groove in the center, with a magnet embedded inside. The matching myopia lens frame has a corresponding protruding structure above the center and a metal block embedded inside.

[0026] The computing box includes a computing module, an interaction module, and a power module;

[0027] The computing module is located inside the computing box;

[0028] The interaction module includes a touchpad and physical buttons;

[0029] The touchpad is located on the front of the computing box and uses capacitive sensing technology to enable multi-touch and various gesture operations;

[0030] The physical buttons are located on the side edge of the computing box and feature a raised button design with clear tactile feedback.

[0031] The power module is located inside the computing box and integrates a polymer lithium battery.

[0032] The computing module is equipped with a high-performance multi-core processor that is deeply customized for low-power mobile edge computing scenarios. It has heterogeneous computing capabilities and can efficiently process complex visual computing, sensor fusion, and real-time spatial positioning and mapping tasks locally.

[0033] The touchpad surface is coated with a hydrophobic and oleophobic coating, and the touchpad interior adopts an enhanced capacitive sensing hardware design.

[0034] On the other hand, the present invention also provides a method for implementing the above-described intelligent goggle system, comprising the following steps:

[0035] Step 1, System Start-up and Initialization: The user presses the power button to turn on the smart windshield. The computing unit performs self-tests on each module to ensure that each module functions normally.

[0036] Step 2, Near-eye display function: Acquire and process data from the positioning module, sensor module and external devices to generate content to be displayed; accurately project the content into the user's field of vision through a microdisplay and optical system; and dynamically adjust the display brightness according to the ambient light intensity to ensure that the information is clearly visible;

[0037] Step 3, High-definition shooting function: Users can trigger and set shooting parameters through the touchpad or voice commands to adapt to different shooting scenarios and needs; then, the shooting module optimizes the acquisition of external images or videos based on the set parameters, combined with technologies such as autofocus and optical image stabilization; finally, the processed shooting data is stored locally and supports users to synchronize or share it to other devices.

[0038] Step 4, Myopia Correction Function: Users select the appropriate lens from the provided lens set based on their myopia degree. The lenses feature a magnetic design; users simply need to place the selected lens near the mounting position inside the frame, and the lens will automatically adhere and secure it. The installation method is convenient and the lens is stable and reliable during use, and will not loosen due to vigorous exercise or external impact.

[0039] Compared with the prior art, the significant progress of the present invention is as follows: (1) The present invention combines transmissive near-eye display technology with photochromic lenses, enabling the goggles to automatically adjust the lens transmittance according to changes in ambient light, thereby improving the visual experience, expanding the application scenarios, and enhancing safety; (2) The present invention meets the personalized needs of nearsighted users through a magnetically designed replaceable nearsighted lens assembly, improving the comfort of wearing the goggles and enhancing the sealing safety; (3) The present invention improves the flexibility of the system through the detachable design of the near-eye display and shooting modules, thereby increasing flexibility, expanding application scenarios, and facilitating daily maintenance and upgrades.

[0040] To more clearly illustrate the functional characteristics and structural parameters of the present invention, further explanation is provided below in conjunction with the accompanying drawings and specific embodiments. Attached Figure Description

[0041] The accompanying drawings, which are included to provide a further understanding of the invention and form part of this application, illustrate exemplary embodiments of the invention and, together with their description, serve to explain the invention and do not constitute an undue limitation thereof. In the drawings:

[0042] Figure 1 This is a 3D diagram of the intelligent windproof goggle system of the present invention;

[0043] Figure 2 These are the front view, side view, and rear view of the main body of the windshield of this invention;

[0044] Figure 3 These are the front view, rear view, and side view of the computing unit of this invention. Detailed Implementation

[0045] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0046] The present invention provides an intelligent goggle system, which combines... Figure 1 It includes a goggle body 100 and a computing box 200;

[0047] The goggle body 100 serves as a wearable component of the system, used to display augmented reality information and capture images and videos;

[0048] The computing box 200, as the core processing and control unit of the system, is responsible for integrating information perception, performing data processing, realizing human-computer interaction, managing data storage and external communication, thereby driving the windproof goggle body 100 to realize various intelligent functions.

[0049] The two entities communicate via a high-speed data cable 300.

[0050] Combination Figure 2 The goggles body 100 includes a frame 101, a lens 102, a near-eye display module 103, a shooting module 104, and a near-eye lens module 105;

[0051] The frame 101 is the main structure of the goggles, used to support and fix the lens 102, the near-eye display module 103, the shooting module 104, and the near-eye lens module 105; the frame 101 fixes the lens 102 through an annular groove, and the near-eye display module 103, the shooting module 104, and the near-eye lens module 105 are detachably installed through an integrated fixing structure; the frame 101 is also connected with an elastic adjustable webbing to ensure a stable fit.

[0052] The lens 102 is fixed to the front end of the frame 101 and is located at the front of the user's field of vision. It has a photochromic function and can automatically adjust the transmittance according to the ambient light. It also has anti-fog and explosion-proof treatments, providing visual comfort and physical protection.

[0053] The near-eye display module 103 and the shooting module 104 are integrated to form a display and shooting module, which is detachably installed inside the frame 101; the near-eye display module 103 projects the image to the user's eyes through a microdisplay, an optical coupling system and an optical waveguide to achieve transmissive near-eye display; the near-eye display module 103 is connected to the computing box 200 through a data cable;

[0054] The shooting module 104 is integrated with the near-eye display module 103 and is located in the upper middle of the display module. It has a built-in CMOS sensor and a photosensitive sensor. The shooting module 104 is used to realize high-definition photo and video shooting, and uses the photosensitive sensor to sense ambient light to assist in adjusting the display brightness. The shooting module 104 is connected to the computing box 200 via a data cable.

[0055] The myopia lens module 105 contains myopia lenses of multiple degrees and adopts a magnetic design, which can be quickly and stably installed on the fixing structure of the display and shooting module 103 / 104 to provide vision correction for myopic users.

[0056] The near-eye display module 103, the shooting module 104, and the near-eye lens module 105 are integrated into a single unit, forming a quick-detachable display and shooting module for independent use.

[0057] The eyeglass frame 101 includes an arc-shaped unit, a nose bridge support unit, and a frame unit;

[0058] The arc-shaped unit contacts the user's forehead, with an arc radius of approximately 120mm. It is embedded with high-density memory foam, which is used to adaptively deform according to the shape of the user's forehead, provide uniform pressure distribution, fit closely to the face, and ensure that there is no pressure during long-term wear.

[0059] The nasal bridge support unit adopts a Y-shaped bifurcated structure to maintain stability and avoid compressing the nasal bridge;

[0060] The edge of the frame unit is provided with an annular groove, 0.8 mm deep and 2 mm wide, for precisely fixing the photochromic lens and preventing the lens from shifting during movement;

[0061] The side of the eyeglass frame 101 is fixed with an elastic adjustable webbing via a connecting ring to accommodate different head circumferences of the user;

[0062] The upper edge of the frame 101 has two parallel guide rail grooves on the left and right sides, and a positioning pin fixing structure at the end for fixing the display and shooting module.

[0063] A release button is provided on the outside of the frame 101. When the user presses the release button, the display and shooting module can be easily slid out in the opposite direction, enabling quick disassembly and assembly.

[0064] The display and shooting module is located in the upper center of the frame 101, and its bottom is provided with a positioning pin that cooperates with the positioning pin of the parallel guide rail groove. When the user installs it, the sliding rails on the left and right sides of the display and shooting module are aligned with the grooves in the frame 101 and pushed inward. When the module is pushed to the bottom, the positioning pin is inserted into the positioning pin hole to achieve precise positioning of the module and prevent the module from shaking or misaligning during use. Each of the two parallel guide rail grooves is provided with a one-way spring buckle, and the end of the buckle is provided with a corresponding locking slot. When the display and shooting module are fixed in the corresponding position, the buckle will be locked into the slot.

[0065] The near-eye display module 103 includes a Micro-OLED microdisplay, an optical coupling system, and an optical waveguide. The microdisplay generates high-resolution, high-refresh-rate images that are projected into the user's field of vision via the optical coupling system and the optical waveguide to achieve high-brightness, high-contrast transmissive near-eye display.

[0066] The near-eye display module 103 and the shooting module 104 are integrated into one unit. The near-eye display module 103 is located in front of the user's eyes, and the shooting module 104 is located above and in the middle of the display and shooting module. Through the above-mentioned integrated fixing structure, the user can install and disassemble it by himself. With accessories such as headbands, it can be used independently and adapted to more application scenarios. The display and shooting module realizes data transmission with the computing unit through a data cable.

[0067] The myopia lens module 105 includes myopia lenses of various prescriptions, allowing users to choose the appropriate lens based on their vision. The myopia display module 103 has a U-shaped groove at its center, with a magnet embedded inside. A corresponding protruding structure with a metal block is located above the center of the matching myopia lens frame. When in use, the user aligns the protruding structure of the selected myopia lens with the U-shaped groove and pushes it into the groove; the lens will automatically adhere, ensuring it remains firmly attached even during vigorous movement, bumps, or collisions. For removal, the user simply grasps the myopia lens and gently applies outward force to release the magnetism and remove the lens from the groove. The myopia lenses will not loosen or fall off during use, and users can quickly replace them.

[0068] Combination Figure 3 The computing box 200 includes a computing module 201, an interaction module, and a power module 204;

[0069] The computing module 201 is disposed inside the computing box 200;

[0070] The interaction module includes a touchpad 202 and physical buttons 203;

[0071] The touchpad 202 is located on the front of the computing box 200, and uses capacitive sensing technology to realize multi-touch and various gesture operations. It has an elliptical area of ​​40x30mm.

[0072] The physical buttons 203 are located on the side edge of the computing box 200 and are ergonomically laid out to facilitate blind operation and reliable control in extreme environments such as when wearing thick gloves or in rainy or snowy weather. The raised button design provides clear tactile feedback and is used to execute core and critical control functions, such as: power on / off and sleep / wake; quick confirmation, return and menu navigation; volume up / down and mute; quick trigger for taking photos / recording videos.

[0073] The power module 204 is located inside the computing box 200 and integrates a high-energy-density, lightweight custom polymer lithium battery, which can provide up to 8 hours of continuous working power for high-performance computing and AR display.

[0074] The computing module 201 is equipped with a high-performance multi-core processor deeply customized for low-power mobile edge computing scenarios, possessing powerful heterogeneous computing capabilities. It can efficiently handle complex visual computing, sensor fusion, and real-time spatial localization and mapping (SLAM) tasks locally. Furthermore, the module incorporates a lightweight, customized operating system, deeply optimized for near-eye display characteristics and goggle usage scenarios, ensuring a smooth user experience. It also comes pre-installed with a series of innovative applications and services, including: High-precision real-time AR navigation: combining GPS, IMU, and visual SLAM data to overlay precise path guidance and points of interest information into the field of view; Multilingual real-time voice translation: enabling cross-language communication through voice input and AR display output; Intelligent photo / video recording and scene recognition: automatically optimizing shooting parameters and recognizing objects, people, or scenes in the environment (such as ski slope type, obstacles ahead), providing enhanced contextual awareness; Real-time motion data analysis: displaying speed, altitude, heart rate, etc. in real time based on sensor data, and providing motion trajectory tracking. This computing module has powerful "edge intelligence processing capabilities": most complex data (such as image recognition and pose calculation) is completed locally, which significantly reduces data transmission latency and dependence on the cloud, improves user privacy protection, and ensures the availability of core functions in environments without or with weak networks.

[0075] The computing module 201 is stably connected to the near-eye display and imaging modules 103 / 104 via a high-speed, low-latency data cable. It is responsible for: real-time control of the operating status of each optical module and display content refresh; efficient acquisition of high-definition video streams from the imaging module and sensor data from the near-eye display module; and execution of complex computing tasks, including image processing, AI inference, data analysis, and user command response. Furthermore, to achieve comprehensive interconnectivity, the computing module integrates a multi-mode wireless communication unit, including: a low-power Bluetooth 5.2 module for connecting to external devices such as wireless headphones, heart rate monitors, and motion sensors, as well as for data synchronization with smartphones; a Wi-Fi 6 module providing a high-speed and stable local area network connection for firmware updates, large file transfers, and streaming media content reception; and an optional 5G / 4G mobile data module supporting independent network communication, cloud service access, and real-time data sharing, ensuring connectivity even in outdoor environments.

[0076] The touchpad 202 has a hydrophobic and oleophobic coating on its surface and features an enhanced capacitive sensing hardware design, supporting multi-touch and various gesture operations (such as single-finger swipe, two-finger pinch, and long press), maintaining sensitivity even when wet or when wearing thin gloves. It is primarily responsible for providing a more refined and immersive AR interface, such as: smoothly swiping and browsing menus, application lists, and image galleries on near-eye displays; precisely selecting and clicking virtual buttons or information cards; zooming in and out of maps or images with two fingers, and rotating 3D models; and customizing gestures to quickly launch specific functions.

[0077] The interactive module transmits all user operation commands to the computing module 201 for processing in real time and accurately via a high-reliability data bus, ensuring the immediacy of the system response. This dual interaction strategy, combining physical buttons and a touchpad, aims to provide users with a comprehensive and seamless interactive experience, from precise operation to reliability control.

[0078] A method for implementing the above-described intelligent goggle system according to the present invention includes the following steps:

[0079] Step 1, System Start-up and Initialization: The user presses the power button to turn on the smart windshield. The computing unit performs self-tests on each module to ensure that each module functions normally.

[0080] Step 2, Near-eye display function: Acquire and process data from the positioning module, sensor module and external devices to generate content to be displayed; accurately project the content into the user's field of vision through a microdisplay and optical system; and dynamically adjust the display brightness according to the ambient light intensity to ensure that the information is clearly visible;

[0081] Step 2-1, Data Acquisition and Processing: The positioning module and sensor module in the smart goggles acquire information such as the current geographical location, movement trajectory, and speed; or obtain relevant information to be displayed by communicating with devices such as mobile phones. The computing unit generates the corresponding display content based on the above information.

[0082] Step 2-2, Image Display and Fusion: The computing unit transmits the display content to the microdisplay via a data cable. The microdisplay displays the image and projects it accurately in front of the user through an optical coupler and an optical waveguide. The user can intuitively obtain the information they need without having to look down at their phone or other devices.

[0083] Steps 2-3: Dynamic display adjustment: The smart goggles have a built-in photosensitizer that automatically adjusts the display brightness according to the current light intensity to ensure clear and complete information display.

[0084] Step 3, High-definition shooting function: Users can trigger and set shooting parameters through the touchpad or voice commands to adapt to different shooting scenarios and needs; then, the shooting module optimizes the acquisition of external images or videos based on the set parameters, combined with technologies such as autofocus and optical image stabilization; finally, the processed shooting data is stored locally and supports users to synchronize or share it to other devices.

[0085] Step 3-1, Shooting Command Trigger and Parameter Setting: Users can start the shooting function through the touchpad of the computing unit or voice command, and set the shooting parameters through the interactive module according to actual requirements. For example, when recording high-speed action, users can choose a high frame rate; in low light conditions, users can adjust the white balance and ISO to ensure the quality of the shot.

[0086] Step 3-2, Image Acquisition and Optimization Processing: The shooting module captures external images or videos according to the set parameters. During the shooting process, the autofocus system adjusts the focal length in real time, the optical image stabilization function monitors and compensates for image shake in real time, and the image sensor performs initial processing on the acquired signals to improve image quality.

[0087] Step 3-3, Data Storage and Sharing: The processed shooting data is transmitted to the computing unit via a data cable and stored in the local storage unit. Users can synchronize the captured photos or videos to other devices via wired or wireless connections.

[0088] Step 4, Myopia Correction Function: Users select the appropriate lens from the provided lens set based on their myopia degree. The lenses feature a magnetic design; users simply need to place the selected lens near the mounting position inside the frame, and the lens will automatically adhere and secure it. The installation method is convenient and the lens is stable and reliable during use, and will not loosen due to vigorous exercise or external impact.

[0089] Example

[0090] The intelligent goggle system consists of a goggle body and a computing box, which exchange data via an integrated flexible shielded cable fixed at both ends.

[0091] The goggles consist of a frame, lenses, a near-eye display module, a shooting module, and a prescription lens module. The frame is injection-molded from polycarbonate and is ergonomically designed. Adjustable headbands made of elastic fabric are located on both sides of the frame and are connected to the frame via plastic buckles, allowing users to adjust the fit to their head shape. The frame is padded with foam to conform to the user's face. Photochromic lenses are mechanically secured to the outside of the frame, and the lens surface is coated with an anti-fog coating and is explosion-proof to protect the user's face. The near-eye display module and camera module are detachable and can be used independently with the headband. Two 0.3” LCOS microdisplays are arranged on the left and right sides, using side projection to transmit images to the arrayed waveguide via an optical coupler. The waveguide lens is located in front of the user, providing a 30° field of view and a 1920×1080 resolution. The signal interface is MIPI. The camera module is located in the center, equipped with a 1 / 2-inch CMOS sensor with 64 million effective pixels and an 80-degree field of view. A photosensitive sensor is located next to the camera module. The near-eye lens module contains resin near-eye lenses with a power of -1.00D to -8.00D, which are magnetically attached to the frame, ensuring a secure and reliable installation and easy replacement.

[0092] The computing box integrates a computing module and a power module. The computing module is equipped with a high-performance system-on-a-chip (SoC) processor, 16GB of RAM, and 256GB of storage. The power module is a 3000mAh lithium polymer battery. The front of the box features a capacitive touchpad that supports swiping and multi-touch gestures. Four silicone buttons and a knob are arranged on the side of the box, namely the power button, confirmation button, back button, custom function button, and adjustment button. All buttons are IP67 waterproof.

[0093] The following is an example of a cycling scenario:

[0094] The user presses and holds the power button to turn on the smart goggle device. Once the system is powered on, the user selects "cycling mode." Function commands are prioritized by voice commands. The system workflow is as follows:

[0095] (1) Voice wake-up and pattern confirmation

[0096] The user speaks the wake-up word, the microphone array picks up the sound and it is then verified by the local speech recognition engine. Once the verification is successful, the system plays back "Cycling mode is ready" and activates the three main function modules: navigation, photography, and display.

[0097] (2) Navigation function

[0098] The calculation module requests the current route from the mobile device; the phone returns navigation data, and the calculation module generates a dynamic arrow from this data. The arrow's length, color, and direction are mapped in real time to the remaining distance, slope, and turning angle. The image data is then transmitted to the near-eye display module and displayed in front of the user. The user can speak commands such as "How much further?" or "Zoom in on the arrow" at any time, and the calculation module will immediately announce the remaining distance or adjust the arrow size. If the system detects that the user has deviated from the navigation route, the arrow turns red and a voice prompt is triggered.

[0099] (3) Photo function

[0100] When the user gives the command "take a photo / record a video," the computing module sends the corresponding command to the shooting module. The shooting module then takes the photo, sends the image back to the computing module, and writes it locally. The computing module then displays a "shooting complete" message to the user. During the shooting process, the navigation icons update in real time without affecting normal navigation display functionality.

[0101] (4) Display function

[0102] The calculation module has three preset display interfaces: arrows only; arrows + speed / mileage / calories; and arrows + map thumbnails. Users can switch between these interfaces using the voice command "switch display". The calculation module reads data from the photosensor and adaptively adjusts the display brightness according to the ambient light level. Users can also manually adjust the display brightness using the "brightness increase" or "brightness decrease" commands.

[0103] (5) Exit mode and power off

[0104] Users can exit riding mode via voice command "Exit riding mode"; users can turn off the device by pressing and holding the power button.

[0105] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0106] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A smart goggle system, characterized in that, Includes a goggle body (100) and a computing box (200); The goggle body (100) is used to display augmented reality information and to capture images and videos; The computing box (200) is responsible for integrating information perception, performing data processing, realizing human-computer interaction, managing data storage and external communication, thereby driving the goggle body (100) to realize its functions; The two entities communicate via a high-speed data cable (300).

2. The intelligent goggle system according to claim 1, characterized in that, The goggles body (100) includes a frame (101), lenses (102), a near-eye display module (103), a shooting module (104), and a near-eye lens module (105). The frame (101) is the main structure of the goggles, used to support and fix the lens (102), the near-eye display module (103), the shooting module (104), and the myopia lens module (105); the frame (101) fixes the lens (102) through an annular groove, and the near-eye display module (103), the shooting module (104), and the myopia lens module (105) can be detachably installed through an integrated fixing structure; the frame (101) is also connected with an elastic adjustable webbing to ensure a stable fit; The lens (102) is fixed to the front end of the frame (101), located at the front of the user's field of vision. It has a photochromic function, can automatically adjust the transmittance according to the ambient light, and has anti-fog and explosion-proof treatment, providing visual comfort and physical protection. The near-eye display module (103) and the shooting module (104) are integrated to form a display shooting module, which is detachably installed inside the frame (101); the near-eye display module (103) projects the image to the user's eyes through a microdisplay, an optical coupling system and an optical waveguide to realize a transmissive near-eye display; the near-eye display module (103) is connected to the computing box (200) through a data cable; The shooting module (104) is integrated with the near-eye display module (103) and is located in the upper middle of the display module. It has a built-in CMOS sensor and a photosensitive sensor. The shooting module (104) is used to realize high-definition photo and video shooting, and uses the photosensitive sensor to sense ambient light to assist in adjusting the display brightness. The shooting module (104) is connected to the computing box (200) through a data cable. The myopia lens module (105) contains myopia lenses of multiple degrees and adopts a magnetic design, which can be quickly and stably installed on the fixed structure of the display and shooting module (103 / 104) to provide vision correction for myopic users; The near-eye display module (103), the shooting module (104), and the near-eye lens module (105) are integrated into a single unit, forming a quick-detachable display and shooting module for independent use.

3. The intelligent goggle system according to claim 2, characterized in that, The eyeglass frame (101) includes an arc-shaped unit, a nose bridge support unit, and a frame unit; The arc-shaped unit contacts the user's forehead and has embedded memory foam inside; The nasal bridge support unit adopts a Y-shaped bifurcated structure to maintain stability and avoid compressing the nasal bridge; The edge of the frame unit is provided with an annular groove; The side of the eyeglass frame (101) is secured with elastic webbing via a connecting ring; The upper edge of the frame (101) has two parallel guide rail grooves on the left and right sides, and a positioning pin fixing structure at the end, which is used to fix the display shooting module. A release button is provided on the outside of the frame (101). When the user presses the release button, the display and shooting module slides out in the opposite direction, realizing quick disassembly and assembly.

4. The intelligent goggle system according to claim 3, characterized in that, The display and shooting module is located in the upper center of the frame (101), and its bottom is provided with a positioning pin that cooperates with the positioning pin of the parallel guide rail groove; each of the two parallel guide rail grooves is provided with a one-way spring buckle, and the end of the buckle is provided with a corresponding locking groove.

5. The intelligent goggle system according to claim 4, characterized in that, The near-eye display module (103) includes a microdisplay, an optical coupling system, and an optical waveguide. The microdisplay generates a high-resolution, high-refresh-rate image, which is projected into the user's field of vision through the optical coupling system and the optical waveguide to achieve a high-brightness, high-contrast transmissive near-eye display. The near-eye display module (103) and the shooting module (104) are integrated into one unit. The near-eye display module (103) is located in front of the user's eyes, and the shooting module (104) is located above the middle of the display and shooting module.

6. The intelligent goggle system according to claim 5, characterized in that, The myopia lens module (105) includes myopia lenses of various degrees, and users can choose the appropriate lens according to their vision. The myopia display module (103) has a U-shaped groove in the center, and a magnet is embedded in the U-shaped groove. The matching myopia lens frame has a corresponding protruding structure above the center and a metal block is embedded in it.

7. The intelligent goggle system according to claim 1, characterized in that, The computing box (200) includes a computing module (201), an interaction module, and a power module (204). The computing module (201) is located inside the computing box (200); The interaction module includes a touchpad (202) and physical buttons (203); The touchpad (202) is located on the front of the computing box (200) and uses capacitive sensing technology to realize multi-touch and various gesture operations; The physical buttons (203) are located on the side edge of the computing box (200) and feature a raised button design with clear tactile feedback. The power module (204) is located inside the computing box (200) and integrates a polymer lithium battery.

8. The intelligent goggle system according to claim 7, characterized in that, The computing module (201) is equipped with a high-performance multi-core processor that is deeply customized for low-power mobile edge computing scenarios. It has heterogeneous computing capabilities and can efficiently process complex visual computing, sensor fusion and real-time spatial positioning and mapping tasks locally.

9. The intelligent goggle system according to claim 7, characterized in that, The touchpad (202) is coated with a hydrophobic and oleophobic coating, and the touchpad is internally designed with enhanced capacitive sensing hardware.

10. A method for implementing the intelligent goggle system according to any one of claims 1-9, characterized in that, Includes the following steps: Step 1, System Start-up and Initialization: The user presses the power button to turn on the smart windshield. The computing unit performs self-tests on each module to ensure that each module functions normally. Step 2, Near-eye display function: Acquire and process data from the positioning module, sensor module and external devices to generate content to be displayed; The content is precisely projected into the user's field of vision using a microdisplay and optical system; and the display brightness is dynamically adjusted according to the ambient light intensity to ensure that the information is clearly visible. Step 3, High-definition shooting function: Users can trigger and set shooting parameters through the touchpad or voice commands to adapt to different shooting scenarios and needs; then, the shooting module optimizes the acquisition of external images or videos based on the set parameters, combined with technologies such as autofocus and optical image stabilization; finally, the processed shooting data is stored locally and supports users to synchronize or share it to other devices. Step 4, Myopia Correction Function: Users select the appropriate lens from the provided lens set based on their myopia degree. The lenses feature a magnetic design; users simply need to place the selected lens near the mounting position inside the frame, and the lens will automatically adhere and secure it. The installation method is convenient and the lens is stable and reliable during use, and will not loosen due to vigorous exercise or external impact.

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