Intelligent glasses applied to intelligent industrial internet-of-things remote device

Abstract

The utility model relates to the field of intelligent industrial Internet of Things, in particular to intelligent glasses applied to an intelligent industrial Internet of Things remote device. The intelligent glasses comprise an intelligent glasses frame body and an electromechanical control system, the intelligent glasses frame body comprises an arc-shaped eyebrow edge hollow shell frame rod, linear hollow shell cross arms which are connected with the two ends through movable hinge shafts and are arranged on the two sides, and a frame support which is connected with a fixed hinge shaft, and the central part of the intelligent glasses frame body is connected with a nose support part. When the recognition rate of voice or gesture control in the prior art of medical treatment, fire fighting, travel guidance, smart home, education and the like is greatly influenced by external interference such as environmental noise, accent and the like, or the precision and the actual effect are poor, the wearable equipment in the prior art is combined with remote control equipment for control, so that all-directional use in most of application scenes is supported; and the intellectualization, intuition and convenience of the current and field working modes are realized.

Description

Technical Field

[0001] The utility model invention relates to the field of intelligent industrial Internet of Things, and in particular to a pair of smart glasses applied to a remote device of the intelligent industrial Internet of Things. Background Art

[0002] Industrial Internet of Things refers to the expansion and use of the Internet of Things (IIoT) in industrial applications. IIoT focuses on machine-to-machine (M2M) communication, big data, and machine learning to make industrial operations more efficient and reliable. IIoT not only covers the entire industry, industrial installation and commissioning, maintenance inspection, logistics, etc. Through the application of smart glasses, remote devices can be more convenient to use and provide a new way of information interaction. There is no need to worry about inconvenience in use, so that the virtual world on the screen can be combined and interacted with the real world scene. Most importantly, it can be used very intuitively. However, existing technologies such as voice or gesture control have the disadvantage that their recognition rate accuracy and actual effect are easily affected by external interference such as environmental noise and accents. Utility Model Content

[0003] The purpose of the present utility model invention is to overcome the defects of the above-mentioned prior art and provide a smart glasses applied to the remote device of intelligent industrial Internet of Things to overcome the shortcomings of the above-mentioned prior art, not only in industry, industrial installation and debugging, logistics, application, medical treatment, fire protection, tourism guidance, smart home, education, etc., through the existing technology wearable device combined with remote control device control, so as to support all-round use in most application scenarios.

[0004] The utility model invention can be realized by the following technical solutions:

[0005] A smart glasses applied to remote devices of intelligent industrial Internet of Things, which is composed of a smart glasses frame, an electromechanical control system, and remote control devices such as a remote control camera, a remote control ring, and a remote control headset;

[0006] The smart glasses frame body comprises an arc-shaped hollow shell frame rod, two straight hollow shell cross arms connected to both ends by a movable hinge shaft, and a frame bracket connected by a fixed hinge shaft;

[0007] The linear hollow housing cross arm and the bracket are both hollow housings, and are both provided with a cover that can be opened movably. The electromechanical control system and the flexible flat panel connection penetrating therethrough are embedded in the housing;

[0008] The arc-shaped brow-shaped hollow shell frame rod has a lens and display screen at the front end. The lens and display screen is connected to the flexible wiring board of the electromechanical control system and is movably connected by hinges of clamping parts fixed at the left and right middle parts of the arc-shaped brow-shaped hollow shell frame rod. The clamping parts are fixed to the arc-shaped brow-shaped hollow shell frame rod by a square saddle. The space behind the convex block in the square saddle can be used to install a micro projector and a camera sensor, etc. The front end n-shaped part serves as a convex block interface of the lens and display screen, which can be movably connected to the lens and display screen. The lens and display screen is also fixed with a protective frame. The lens and display screen can be replaced according to the usage requirements of different people and different scenes. Generally, the lens and display screen is based on DMD (digital micromirror device) technology. The light source is uniformed by an integrator, and then the light is divided into red, green and blue colors by a color wheel. These colors are imaged on the DMD through a lens. The electrical signal of the digital rotating lens converts the continuous light into grayscale, and cooperates with R, G, B Three colors show color projection imaging. This kind of lens uses a flexible screen as part of the display screen and can serve as a "one-stop" display screen for reading news and browsing the Internet. When worn, a variety of colorful content will be virtually displayed on the lens;

[0009] The remote control device is a remote control camera, a remote control ring, or a remote control headset;

[0010] The remote control camera is composed of a cylindrical frame and a suction cup base combined with a camera, a reset button, a switch mode switch button, a main control chip control system of an internal device, and a rechargeable lithium battery power supply system, and is wirelessly connected to the host for control; it is responsible for short-range Bluetooth communication with the smart glasses frame and the electromechanical control system, so that the optical image of the scene generated by the camera is projected onto the surface of the image sensor, and then converted into an electrical signal, which is converted into a digital image signal after A / D (analog-to-digital conversion), and then sent to a digital signal processing chip (DSP) for processing, and then wirelessly transmitted to the electromechanical control system for processing via Bluetooth, and the image can be seen through the lens and display screen, which can solve the problem of needing to realize the scene at different angles or being controlled by voice or gestures, and its recognition accuracy and actual effect are affected by external interference such as environmental noise and accents;

[0011] The remote control ring is composed of a cylindrical frame body combined with a switch mode switch key, up, down, left, and right switch keys, indicator lights, and a main control chip control system of an internal device, and a rechargeable lithium battery power supply system, and is wirelessly connected and controlled with a host; it is responsible for short-range Bluetooth communication with the smart glasses frame body and the electromechanical control system. When the remote control ring is turned on, long pressing the switch mode switch key can enter the Bluetooth pairing mode, the Bluetooth mode indicator light flashes quickly, and the Bluetooth pairing mode is entered. After pairing with the smart glasses, it can be used. The up, down, left, and right switch keys can be controlled by pressing the thumb, and the switch mode switch key can be used to select and operate the remote control camera, etc., to solve the problem that the recognition rate accuracy and actual effect of voice or gesture control are affected by external interference such as environmental noise and accents;

[0012] The remote control headset is composed of two semi-cylindrical frames connected with an n-type clamp body, the n-type clamp body is used to clamp the ear on the side of the jaw, and is controlled by a touch key. The touch key is an electronic component that realizes operation through human contact and pressure sensing. It is based on capacitive touch technology to communicate with the smart glasses frame and the electromechanical control system over a short distance through Bluetooth or control the volume of the sound, and the main control chip control system of the internal device and the rechargeable lithium battery power supply system are combined and wirelessly connected to the host for control; the remote control headset is a way of transmitting sound through the ear bone, which is to transmit sound with mechanical vibrations of different frequencies, using the human skull and jaw as the medium for transmission, and transmitting sound waves to the auditory nerve through the labyrinth and inner ear lymph. The entire conduction process is completed through bone vibration, without passing through the external auditory canal and eardrum, and its micro-microphone uses an electret microphone, which is a parallel plate capacitor composed of a diaphragm and an electret as a back electrode, and is coupled with a microphone amplifier circuit and an audio power amplifier circuit to convert sound waves into electrical signals. The sound is recorded and transmitted by transmitting and processing electrical signals. It is used when the recognition rate accuracy and actual effect are affected by external interference such as environmental noise and accents due to voice or gesture control;

[0013] The above uses existing wearable devices combined with remote control devices to support all-round use in most application scenarios. It is suitable for solving the problem that the recognition rate of voice or gesture control is greatly affected by external interference such as environmental noise and accents, and the accuracy and actual effect are poor, so as to realize the current and on-site working mode of intelligence, intuition and convenience;

[0014] The electromechanical control system is provided with a main control chipset, including a processing module, a receiving module, a sending module, a storage module, a display module and an LED lighting module, a wireless control module, a touch screen interface, a liquid crystal screen interface, a bone conduction device, and a gyroscope, and is respectively connected to the light sensor of the front lens and display screen, the optical display device, the MIPI camera, and the left and right straight hollow shell cross arms, the WIFI antenna on the bracket, the GPS chip, the Bluetooth chip, the speaker interface, the smart sensor chip, the music amplifier chip, the rechargeable battery, the earphone, and the microphone, the power management chip and the flexible wiring board.

[0015] A pair of smart glasses applied to remote devices of intelligent industrial Internet of Things, after being realized by the above technical solution, has the following main beneficial effects: in industry, industrial installation and debugging, logistics, application, medical treatment, fire protection, tourist guidance, smart home, education and other fields, when the recognition rate of existing technologies such as voice or gesture control is greatly affected by external interference such as environmental noise and accent, or when its accuracy and actual effect are relatively poor, the existing wearable devices are combined with remote control devices to support all-round use in most application scenarios, thereby realizing the intelligence, intuition and convenience of current and on-site working modes. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] The utility model is further described below in conjunction with the accompanying drawings;

[0017] FIG1 is an overall front view of a smart glasses applied to a remote device of a smart industrial Internet of Things;

[0018] FIG2 is a front view of the structure of a smart glasses applied to a remote device of the smart industrial Internet of Things;

[0019] FIG3 is a detailed structural diagram of a lens body component of a smart glasses applied to a smart industrial Internet of Things remote device;

[0020] FIG4 is a detailed structural diagram of a lens body component of a smart glasses applied to a smart industrial Internet of Things remote device;

[0021] FIG5 is a front view of a remote control device of smart glasses applied to a remote device of a smart industrial Internet of Things;

[0022] FIG6 is a diagram of an electromechanical control system of smart glasses applied to a remote device of a smart industrial Internet of Things;

[0023] The figure shows: smart glasses 1, smart glasses frame body 10, arc-shaped eyebrow hollow shell frame rod 11, movable hinge shaft 12, straight hollow shell cross arm 13, fixed hinge shaft 14, bracket 15, front box cover 131, rear box cover 151, nose pad component 16, circular hollow shell 161, movable cover 162, support rod 163, hinge head 164, elliptical nose pad 165, fixed camera, micro-projection, sensor 166, clamping component 17, square saddle 171, hinge 172, lens and display screen 18, bump 181, protective frame 182, electromechanical control system 20, remote control camera 30, cylindrical frame and suction cup base 301, main camera 302, reset button 303, power button 304, remote control ring 40, Cylindrical frame 401 , switch mode switch key 402 , up, down, left, and right switch keys 403 , indicator light 404 , remote control headset 50 , semi-cylindrical frame 501 , n-type clamp 502 , touch control key 503 . DETAILED DESCRIPTION

[0024] As shown in FIG1 , a smart glasses 1 applied to a remote device of the smart industrial Internet of Things is composed of a smart glasses frame 10, an electromechanical control system 20, a remote control camera 30, a remote control ring 40, a remote control headset 50, and a remote control device;

[0025] As shown in FIG. 2 , the smart glasses frame body 10 includes an arc-shaped brow edge hollow shell frame rod 11, and two straight hollow shell cross arms 13 connected to both ends by a movable hinge shaft 12, and a bracket 15 connected by a fixed hinge shaft 14;

[0026] As shown in FIG3 , the linear hollow housing cross arm 13 and the bracket 15 are both hollow housings, and are both provided with a front cover 131 and a rear cover 151 that can be opened movably, and the electromechanical control system 20 and the through-going flexible flat panel are embedded in the housing;

[0027] As shown in FIG3 , the arc-shaped brow hollow shell frame rod 11 is connected to a nose pad component 16 in the central part, and its front upper end is a circular hollow shell 161, one end of which is provided with a movable cover 162 for setting a fixed camera, a micro-projection, and a sensor 166, one end of which is fixedly connected to the arc-shaped brow hollow shell frame rod 11, and both sides are fixedly connected with a support rod 163 and a hinge 164, and the elliptical nose pad 165 at the end is movably connected with the hinge 164;

[0028] As shown in FIG4 , the arc-shaped brow-shaped hollow shell frame rod 11 is provided with a lens and display screen 18 at the front end. The lens and display screen 18 is connected to the flexible flat panel of the electromechanical control system 20 and is movably connected by a hinge 172 of a clamping component 17 fixed to the left and right middle parts of the arc-shaped brow-shaped hollow shell frame rod 11. The clamping component 17 is fixed to the arc-shaped brow-shaped hollow shell frame rod 11 by a square saddle 171. The square saddle 171 is an inverted U-square support, and its concave portion is anchored to the frame rod by a hinge. The space behind the inner convex block 181 can be used to install a micro projector and a camera sensor, etc. The front end n-shaped portion thereof serves as an interface of the convex block 181 of the lens and display screen 18, which can be movably connected to the lens and display screen 18. The lens and display screen 18 is also fixed with a protective frame 182. The lens and display screen 18 can be replaced according to the usage requirements of different groups of people in different scenes. Generally, the lens and display screen 18 Based on DMD (digital micromirror device) technology, the light source is homogenized through an integrator, and then the light is divided into red, green and blue through a color wheel. These colors are imaged on the DMD through a lens. The electrical signal of the digital rotating lens converts the continuous light into grayscale, and the three colors of R, G and B are used to express the projection imaging of the color. This kind of lens uses a flexible screen as part of the display screen and can serve as a "one-stop" display screen for reading news and checking the Internet. When worn, a variety of colorful content will be virtually displayed on the lens;

[0029] As shown in FIG5 , the remote control device is a remote control camera 30 , a remote control ring 40 , and a remote control headset 50 ;

[0030] The remote control camera 30 is composed of a cylindrical frame and a suction cup base 301 combined with a main camera 302, a reset button 303, an on / off button 304, a main control chip control system of an internal device, and a rechargeable lithium battery power supply system, and is wirelessly connected to the host for control; it is responsible for short-range Bluetooth communication with the smart glasses frame 10 and the electromechanical control system 20, so that the optical image of the scene generated by the main camera 302 is projected onto the surface of the image sensor, and then converted into an electrical signal, which is converted into a digital image signal after A / D (analog-to-digital conversion), and then sent to a digital signal processing chip (DSP) for processing, and then wirelessly transmitted to the electromechanical control system 20 for processing via Bluetooth, and the image can be seen through the lens and display screen 18, which can solve the problem of needing to realize the scene at different angles or being controlled by voice or gestures, and its recognition accuracy and actual effect are affected by external interference such as environmental noise and accents;

[0031] The remote control ring 40 is composed of a cylindrical frame 401 combined with a switch mode switch key 402, an up, down, left, and right switch key 403, an indicator light 404, a main control chip control system of an internal device, and a rechargeable lithium battery power supply system, and is wirelessly connected and controlled with a host; it is responsible for short-range Bluetooth communication with the smart glasses frame 10 and the electromechanical control system 20. When the remote control ring 40 is turned on, long pressing the switch mode switch key 402 can enter the Bluetooth pairing mode, and the Bluetooth mode indicator light flashes quickly to enter the Bluetooth pairing mode. After pairing with the smart glasses 1, it can be used. The up, down, left, and right switch keys 403 can be controlled by pressing the thumb, and the switch mode switch key 402 can be used to select and operate the remote control camera 30, etc., to solve the problem that the recognition rate accuracy and actual effect of voice or gesture control are affected by external interference such as environmental noise and accents;

[0032] The remote control headset 50 is composed of two semi-cylindrical frames 501 connected with an n-type clamp 502. The n-type clamp 502 is used to clamp the ear on the side of the jaw and is controlled by a touch key 503. The touch key is an electronic component that realizes operation through human contact and pressure sensing. It is based on capacitive touch technology to perform short-range Bluetooth communication or control the volume of the sound with the smart glasses frame 10 and the electromechanical control system 20, and the main control chip control system of the internal device and the rechargeable lithium battery power supply system are combined and wirelessly connected to the host for control; the remote control headset 50 It is a method of transmitting sound through the ear bone. It uses mechanical vibrations of different frequencies, and uses the human skull and jawbone as the medium for transmission. It transmits the sound waves to the auditory nerve through the labyrinth and inner ear lymph. The entire conduction process is completed by bone vibration, and does not need to pass through the external auditory canal and eardrum. The micro microphone uses an electret microphone, which is a parallel plate capacitor composed of a diaphragm and an electret as the back electrode, and is coupled with a microphone amplifier circuit and an audio power amplifier circuit to convert sound waves into electrical signals. The sound is recorded and transmitted by transmitting and processing electrical signals. It is used when the recognition rate accuracy and actual effect are affected by external interference such as environmental noise and accents due to voice or gesture control;

[0033] The above uses existing wearable devices combined with remote control devices to support all-round use in most application scenarios. It is suitable for solving the problem that the recognition rate of voice or gesture control is greatly affected by external interference such as environmental noise and accents, and the accuracy and actual effect are poor, so as to realize the current and on-site working mode of intelligence, intuition and convenience;

[0034] As shown in FIG6 , the electromechanical control system 20 is provided with a main control chipset, including a processing module, a receiving module, a sending module, a storage module, a display module and an LED lighting module, a wireless control module, a touch screen interface, an LCD screen interface, a bone conduction device, and a gyroscope, and is respectively connected to the optical sensor of the front lens and display screen 18, an optical display device, a MIPI camera, and the left and right straight hollow shell cross arms 13, the WIFI antenna on the bracket 15, a GPS chip, a Bluetooth chip, a speaker interface, a smart sensor chip, a music amplifier chip, a rechargeable battery, headphones, and a microphone, a power management chip and a flexible wiring board.

[0035] A pair of smart glasses applied to remote devices of intelligent industrial Internet of Things, after being realized by the above technical solution, has the following main beneficial effects: in industry, industrial installation and debugging, logistics, application, medical treatment, fire protection, tourist guidance, smart home, education and other fields, when the recognition rate of existing technologies such as voice or gesture control is greatly affected by external interference such as environmental noise and accent, or when its accuracy and actual effect are relatively poor, the existing wearable devices are combined with remote control devices to support all-round use in most application scenarios, thereby realizing the intelligence, intuition and convenience of current and on-site working modes.

Claims

1. A pair of smart glasses (1) applied to a remote device of an intelligent industrial Internet of Things, comprising a smart glasses frame (10) and an electromechanical control system (20); the smart glasses frame (10) comprises an arc-shaped brow-shaped hollow shell frame rod (11), two straight hollow shell cross arms (13) connected at both ends by a movable hinge (12), and a bracket (15) connected by a fixed hinge (14); the characteristics are: The arc-shaped eyebrow hollow shell frame rod (11) is connected to a nose pad component (16) at the center, and a fixed camera, a micro-projector, and a sensor (166) are arranged therein, and are wirelessly connected to a remote control camera (30), a remote control finger ring (40), and a remote control headset (50) device.

2. The smart glasses (1) used for the remote device of the smart industrial Internet of Things according to claim 1, characterized in that: The linear hollow shell cross arm (13) and the bracket (15) are both hollow shells, and are both provided with a front box cover (131) and a rear box cover (151) that can be movably opened. The electromechanical control system (20) and the flexible flat panel connection that penetrates the shell are embedded in the shell.

3. The smart glasses (1) used for the remote device of the smart industrial Internet of Things according to claim 1, characterized in that: The nose pad component (16) has a circular hollow shell (161) at its front upper end, a movable cover (162) at one end, and one end fixedly connected to the arc-shaped brow hollow shell frame rod (11). Support rods (163) and hinge joints (164) are fixedly connected on both sides, and an elliptical nose pad (165) at the end is movably connected to the hinge joint (164).

4. The smart glasses (1) applied to the remote device of the smart industrial Internet of Things according to claim 1, characterized in that: The arc-shaped brow-shaped hollow shell frame rod (11) is provided with a lens and display screen (18) at the front end, and is movably connected by a hinge (172) of a clamping component (17) fixed to the left and right middle parts of the arc-shaped brow-shaped hollow shell frame rod (11); the clamping component (17) is fixed to the arc-shaped brow-shaped hollow shell frame rod (11) by a square saddle (171); the front end n-shaped part serves as a convex block (181) interface of the lens and display screen (18), and can be movably connected and fixed to the lens and display screen (18); the lens and display screen (18) is also fixed with a protective frame (182); and the lens and display screen (18) is connected to a flexible wiring board of the electromechanical control system (20).

5. The smart glasses (1) used for the smart industrial Internet of Things remote device according to claim 1, characterized in that: The remote control camera (30) is composed of a cylindrical frame and a suction cup base (301) combined with a main camera (302), a reset button (303), an on / off button (304), a main control chip control system of an internal device, and a rechargeable lithium battery power supply system. It is wirelessly connected to a host to control the smart glasses frame (10) and to perform short-range Bluetooth communication with the electromechanical control system (20), so that an optical image of a scene generated by the main camera (302) is projected onto the surface of an image sensor, converted into an electrical signal, and converted into a digital image signal after A / D (analog-to-digital conversion), and then sent to a digital signal processing chip (DSP) for processing, and then wirelessly transmitted to the electromechanical control system (20) for processing via Bluetooth, and the image is presented through the lens and display screen (18).

6. The smart glasses (1) used for the remote device of the smart industrial Internet of Things according to claim 1, characterized in that: The remote control finger ring (40) is composed of a cylindrical frame (401) combined with a switch mode switch key (402), an up / down / left / right switch key (403), an indicator light (404) and an internally arranged charging control device, and is wirelessly connected to a host for control, performs short-range Bluetooth communication with the smart glasses frame (10) and the electromechanical control system (20), and is paired with the smart glasses (1) for use. The up / down / left / right switch key (403) is controlled by pressing the thumb, and the switch mode switch key (402) is used to select and operate the remote control camera (30).

7. The smart glasses (1) used for the remote device of the smart industrial Internet of Things according to claim 1, characterized in that: The remote control headset (50) is composed of two semi-cylindrical frames (501) connected to an n-type clamp (502), and is controlled by a touch control key (503). It performs short-range Bluetooth communication or controls the volume of sound with the smart glasses frame (10) and the electromechanical control system (20), and is combined with a main control chip control system of the internal device and a rechargeable lithium battery power supply system and is wirelessly connected and controlled with a host. The remote control headset (50) is a remote control headset for bone conduction sound transmission through the ear. Its micro microphone adopts an electret microphone, which is a parallel plate capacitor composed of a diaphragm and an electret as a back electrode, and is equipped with a microphone amplifier circuit and an audio power amplifier circuit to convert sound waves into electrical signals, and realize sound recording and transmission by transmitting and processing electrical signals.

8. The smart glasses (1) used for the remote device of the smart industrial Internet of Things according to claim 1, characterized in that: The electromechanical control system (20) is provided with a main control chipset, including a processing module, a receiving module, a sending module, a storage module, a display module and an LED lighting module, a wireless control module, a touch screen interface, a liquid crystal screen interface, a bone conduction device, and a gyroscope, and is respectively connected to the optical sensor of the front lens and display screen (18), the optical display device, the MIPI camera, and the left and right straight hollow shell cross arms (13), the WIFI antenna of the bracket (15), the GPS chip, the Bluetooth chip, the speaker interface, the smart sensor chip, the music amplifier chip, the rechargeable battery, the earphone, and the microphone, the power management chip and the flexible wiring board.

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