Medical intelligent glasses

Abstract

The invention discloses a pair of medical intelligent glasses, which comprises a glasses frame main body, and is characterized in that a communication module and an image processing module are arranged in the glasses frame main body; the lens display end is used for displaying the image signal in the image processing module; temples; and the image acquisition end is used for acquiring an image and transmitting a signal to the communication module, and the image processing module is used for processing and compiling image information received by the communication module. According to the invention, the communication module and the lens display end are additionally arranged in the spectacle frame main body, and the display end integrates the display into the lens, so that the information of the inner image acquisition end can be independently displayed in front of a medical wearer. The communication module is arranged in the spectacle frame main body, can display image information in an endoscope in a lens display end in real time, and can also project the image information to a plurality of terminals such as a mobile phone through a built-in Bluetooth module, so that convenience is provided for consultation communication or remote consultation.

Description

Technical Field

[0001] The present invention belongs to the technical field of medical glasses, and in particular relates to medical smart glasses. Background Art

[0002] At present, medical endoscopes mainly enter the patient's body through natural orifices of the human body or through small incisions made during surgery. When examining the patient's intestines or colonoscopy, the endoscope needs to be introduced into the patient's intestines. The patient's organ to be examined is photographed through the built-in camera of the endoscope. Medical staff use an external monitor connected to the endoscope to observe the patient's organ part examined by the endoscope.

[0003] During the above-mentioned endoscopic examination operation, medical personnel need to connect the endoscope to a display so as to project the image information collected from the patient's internal organs, and then diagnose the patient's condition through the displayed images.

[0004] At present, most external display devices are computer screens. Computer screens are large in size and occupy a large area. In addition, the operating room is small and requires a high sanitary environment. The large area makes it inconvenient for multiple medical staff to consult and communicate, which limits the consultation between doctors and patients.

[0005] During the operation, medical staff often need to observe the patient's internal conditions in real time. Traditional computer display screens occupy a large area and are fixed in position, which is not conducive to the doctor's operation during the operation. It is very inconvenient for medical staff to view the images taken by the medical endoscope. This situation prolongs the diagnosis process of medical staff to a certain extent, prolongs the operation time in disguise, and increases the pain of patients.

[0006] Therefore, in order to solve the above problems, a kind of smart glasses that can be connected to an endoscope and display image information on the lenses of the glasses are designed to reduce the size of the traditional endoscope display device and improve the convenience of medical staff in consulting endoscopic patients. Summary of the invention

[0007] The purpose of the present invention is to provide a medical smart glasses to solve the technical problems mentioned in the above background technology that the traditional endoscope display terminal occupies a large area, is inconvenient for medical staff to observe the image in the endoscope, and causes inconvenience in consultation. The following technical solution is provided: a medical smart glasses, wherein the device includes:

[0008] A frame body, wherein a communication module and an image processing module are arranged inside the frame body;

[0009] The lens display end has two lens display ends, which are movably connected to the frame body, and the lens display ends are used to display the image signal in the image processing module;

[0010] Temples, movably connected to both sides of the frame body;

[0011] The image acquisition end is used to acquire images and transmit signals to the communication module. The image processing module is used to process and compile the image information received at the communication module.

[0012] Two groups of lens slots are respectively arranged inside the frame body, and main magnets are arranged on the inner walls of the lens slots.

[0013] In the present technical solution, there is a data connection between the smart glasses and the medical endoscope. The image acquisition end can adopt a traditional endoscope, which is mainly used to capture the patient's image information for transmission. The image acquisition end sends the acquired image information outward in the form of an electrical signal. The communication module is used to receive the signal transmitted at the image acquisition end and transmit the signal to the image processing module. The image processing module compiles and processes the electrical signal and finally displays it through the lens display end. The lens display end is worn by medical staff, which ensures that medical staff can observe the pictures collected in the image acquisition end in real time, thereby facilitating medical staff to diagnose the patient's condition.

[0014] The image processing module includes a memory or SD card for storing the collected patient image information, and in order to observe and consult the image information from multiple parties, during the test, the image processing module can project the entire image information to a computer or mobile phone through the built-in radio Bluetooth module. The image processing module can be connected to multiple image display devices at the same time. The display end of the image processing module is not limited solely in this application. The display end can be a lens display end, and can also be other Bluetooth receiving devices, mobile phones and other terminals.

[0015] The image processing module includes a memory or SD card for storing the collected patient image information, and in order to observe and consult the image information from multiple parties, during the test, the image processing module 30 can project the entire image information to a computer or mobile phone through the built-in radio Bluetooth module. The image processing module can be connected to multiple image display devices at the same time. The display end of the image processing module is not limited solely in this application. The display end can be a lens display end, and can also be other Bluetooth receiving devices, mobile phones and other terminals.

[0016] The image processing module uses various types of chips for image storage, which can be selected based on storage capacity, read / write speed, and power consumption. The image storage chip types preferred in this application are:

[0017] 1. Dynamic random access memory (DRAM), DRAM is used to temporarily store data, with fast reading and writing speeds, but the data will be lost after power failure, and supports fast reading and writing of images. 2. Static random access memory (SRAM), as long as the SRAM remains powered on, the data stored in the SRAM can be kept constant. But the data will also be lost after power failure. 3. Flash memory (Flash), Flash storage chips can retain data for a long time, regardless of whether it is powered on or not. The flash drives in this application mainly include NAND Flash and NOR Flash. NAND Flash is often used for large-capacity storage, and can be externally connected to solid-state drives (SSDs), USB flash drives, etc. to transmit image information and store image data for a long time.

[0018] The sensor chips in the image processing module in this application are preferably the following:

[0019] CMOS Image Sensor (CIS) is an electronic device that can capture images and convert them into digital signals, which can then be stored in the memory chip mentioned above. It can be used in external mobile phones, cameras and other devices through Bluetooth and other connections.

[0020] Secondly, a digital signal processor (DSP) can be used. DSP is a unique microprocessor that is specially used to process digital signals. The DSP itself is not directly used to store image data, but it can play a role in image compression, filtering, edge detection, etc. in the image processing process, and cooperate with the image sensor and storage chip to improve the efficiency and quality of image processing, thereby ensuring that the image captured by the image processing module 30 can be transmitted to the outside world in real time and clearly.

[0021] Alternatively, image processing can be achieved by using embedded storage solutions, integrating storage chips with processors or other functional modules to form embedded systems. For example, CMOS image sensors, storage chips (such as Flash memory) and processors can be integrated to achieve image capture, processing and storage.

[0022] In summary, the image processing module can use memory chips such as DRAM, SRAM, Flash (including NAND and NOR) to store image data. At the same time, CMOS image sensor chips are used to capture images and convert them into digital signals for storage and processing. In addition, digital signal processors (DSPs) and embedded storage solutions can be used to implement image processing.

[0023] In any of the above technical solutions, further, the edge of the display end of the lens is covered with a frame, the frame can be snapped into the lens slot, and a connecting bracket is provided at the lower end of the frame, and an interface is provided in the middle of the connecting bracket. An output port is also provided at the lower end wall of the lens slot, and when the frame is snapped into the bottom of the lens slot, the interface is connected to the output port. A secondary magnet is also provided at the side of the connecting bracket, and the secondary magnet can be adsorbed and fitted with the main magnet.

[0024] In the present technical solution, when the lens display end is used as the image display end, the operator first inserts the frame into the lens slot. In order to ensure that the lens display end can be well connected to the communication module and avoid display interruption during surgery or consultation, a main magnet is arranged under the lens slot. The main magnet can be adsorbed with the auxiliary magnet after the lens display end is inserted, thereby ensuring the stability of the entire lens display end in the lens slot, thereby avoiding poor contact of the lens display end caused by the operator wearing the frame body or walking bumpy.

[0025] The connection between the interface and the output port is externally connected. With this connection method, the operator does not need to use force when installing the lens display end to ensure that the lens display end and the communication module are firmly connected. The good docking state of the two can be ensured only by the magnetic force of the main magnet and the auxiliary magnet.

[0026] In any of the above technical solutions, further, the temples are connected to the frame body through a plug-in assembly, which includes a temple slot opened on the side of the frame body, an insert block is horizontally inserted in the temple slot, one end of the insert block is hinged with a hinge, and the temple is fixedly connected to the hinge.

[0027] In the present technical solution, in order to facilitate the carrying of the entire device, the plug-in assembly can be movably disassembled from the frame body, and the plug-in block and the temple slot are interference-connected, thereby ensuring that the two will not be easily disengaged when the plug-in block is horizontally inserted into the slot, further ensuring the stability of the device and ensuring that medical staff will not drop their glasses during use.

[0028] The communication module in this application has an AI communication function that can enable human-computer interaction. The modules that can be used mainly include the following types:

[0029] MPI (Message Passing Interface): MPI is a cross-language communication protocol and paradigm standard. MPI can provide an application program interface (API) and support semantically rich message communication mechanisms, including point-to-point, groupcast and multicast modes. The collected images can be transmitted point-to-point. At the same time, a voice acquisition system can be added to the API interface in this application to realize the visualization of image data acquisition by artificial spoken language control communication module.

[0030] The communication module involved in this application may also adopt a P2P (Peer-to-Peer) communication method: P2P communication is the communication between two processes, which is used to control the synchronization or data transmission between the data acquisition end and the data receiving end. It supports synchronous (blocking) and asynchronous (non-blocking) mechanisms. Thereby achieving efficient communication and data exchange between multiple processes. As a result, the device can meet the data collection work under different conditions according to the user's operation commands during use, and can cooperate with RDMA technology to achieve remote memory access through a direct network. No CPU intervention is required, and data transmission can be performed directly in user mode. It realizes the simultaneous reception of multiple ports for collected images, thereby realizing multi-port observation of collected images, creating conditions for multi-person consultations.

[0031] In any of the above technical solutions, further, the length of the temple can be freely extended, and the temple includes a storage rod, a storage cavity is provided inside the storage rod, and a bent leg is slidably provided in the storage cavity. A key cavity is provided at one end of the storage rod, a button is slidably provided in the key cavity, and one end of the button is always supported by a spring provided in the key cavity, and countersunk holes are evenly provided at one end surface of the bent leg, and the button can be embedded in the countersunk hole to fix the bent leg.

[0032] In this technical solution, since the device can be used by medical staff in different clinics, different medical staff can manually press the spring to pull the bent leg out of the storage rod when wearing the device. When the bent leg is pulled out to a suitable length, the device is adjusted to the most comfortable size for wearing. After use, the bent leg can be inserted into the storage rod to minimize the volume of the product.

[0033] In any of the above technical solutions, further, a transmission cavity is provided inside the image acquisition end, a rotating box is provided in a rotating sleeve inside the transmission cavity, the rotating box is driven to rotate by a first motor provided at the side wall of the transmission cavity, a camera is also provided in the rotating box, and the camera can swing around the rotating axis direction of the rotating box. The lower end of the camera is hemispherical, and a slide bar is provided at the spherical surface of the camera, and an arc-shaped slide groove is also provided at the end of the rotating box, and the slide bar is slidably provided in the arc-shaped slide groove.

[0034] In the present technical solution, when the device is used, the image acquisition end doctor may use a traditional endoscope instead, and the present application does not limit this.

[0035] The image acquisition end of the present application is provided with a camera inside. In order to increase the range of image acquisition, the camera can swing around the arc-shaped slide groove. The slide bar is also arc-shaped, and the slide bar is slidably embedded in the arc-shaped slide groove. The two can swing relative to each other. When the second motor is controlled to rotate, the second motor contacts one end of the slide bar, and the second motor itself rotates to drive the slide bar to swing along the arc direction of the arc-shaped slide groove, thereby increasing the image acquisition range of the camera.

[0036] Moreover, the arc-shaped slide groove and the rotating box are of an integrated design and can rotate in the transmission cavity. By controlling the rotation of the first motor, the first motor contacts the outer surface of the rotating box to drive the transmission cavity and the arc-shaped slide groove to rotate. The motor can drive the slide bar to move through gear transmission or pulley contacting the slide bar.

[0037] Compared with traditional endoscopes, the search range of image acquisition at the image acquisition end is expanded through the rotation of the arc-shaped slide groove and the swing of the slide bar.

[0038] The beneficial effect of the present invention is that in order to effectively reflect the image facts in the endoscope to the medical staff, the present invention adds a communication module and a lens display end to the inside of the frame body, and the display end integrates the display into the lens, so that the information of the internal image acquisition end can be independently displayed in front of the medical wearer. The communication module is arranged inside the frame body, and the communication module can display the image information in the endoscope in real time on the lens display end, and the communication module can also deliver the image information to multiple terminals such as mobile phones through the built-in Bluetooth module, which provides convenience for multi-person consultation and communication or remote consultation.

[0039] In order to facilitate the operation of medical staff, the size of the lens display end is the same as the lens, and the lens display end can be quickly replaced with the resin lens to meet the medical staff's seamless change between different operations such as observation and recording treatment, thereby shortening the consultation time and reducing patient risks. It effectively solves the problem of inconvenience in endoscope consultation operation when medical staff use traditional displays. BRIEF DESCRIPTION OF THE DRAWINGS

[0040] Figure 1 It is a schematic diagram of the appearance of the present invention;

[0041] Figure 2 It is a schematic diagram of the internal structure of the present invention;

[0042] Figure 3 yes Figure 1 An enlarged schematic diagram of the plug-in assembly;

[0043] Figure 4 is a schematic diagram of the temples of the present invention;

[0044] Figure 5 yes Figure 4 Schematic diagram of the middle AA;

[0045] Figure 6 is a schematic diagram of an image acquisition terminal in the present invention;

[0046] Figure 7 yes Figure 6 Schematic diagram of the middle BB.

[0047] The reference numerals in the figure are: 10, frame body; 11, lens slot; 12, main magnet;

[0048] 20. Communication module; 21. Output port;

[0049] 30. Image processing module; 40. Lens display end; 41. Frame; 42. Connecting bracket; 43. Interface; 44. Auxiliary magnet;

[0050] 50. temple; 51. storage rod; 52. storage cavity; 53. bent leg; 54. key cavity; 55. button; 56. countersunk hole; 57. spring;

[0051] 60. Plug-in assembly; 61. Plug-in block; 62. Hinge; 63. Temple slot;

[0052] 70. Image acquisition end; 71. Transmission cavity; 72. Rotating box; 73. First motor; 74. Arc slide; 75. Camera; 76. Slide bar; 77. Second motor. DETAILED DESCRIPTION

[0053] The following will be combined with the drawings in the embodiments of the present application to clearly describe the technical solutions in the embodiments of the present application. Obviously, the described embodiments are part of the embodiments of the present application, rather than all the embodiments. All other embodiments obtained by ordinary technicians in this field based on the embodiments in the present application belong to the scope of protection of this application.

[0054] In the description of the present application, it should be noted that the terms used herein are only for describing specific embodiments, and are not intended to limit the exemplary embodiments according to the present application. For ease of description, the sizes of the various parts shown in the drawings are not drawn according to the actual proportional relationship. The technology, methods and equipment known to ordinary technicians in the relevant field may not be discussed in detail, but in appropriate cases, the technology, methods and equipment should be regarded as part of the authorization specification. In all examples shown and discussed here, any specific value should be interpreted as merely exemplary, rather than as a limitation. Therefore, other examples of the exemplary embodiments may have different values. It should be noted that similar numbers and letters represent similar items in the following drawings, so once an item is defined in one drawing, it does not need to be further discussed in subsequent drawings.

[0055] like Figure 1-7 As shown, this embodiment provides a medical smart glasses, wherein the device includes:

[0056] The frame body 10 has a communication module 20 and an image processing module 30 disposed therein;

[0057] The lens display end 40 has two lens display ends 40, which are respectively movably connected to the frame body 10, and the lens display end 40 is used to display the image signal in the image processing module 30;

[0058] Temples 50 are movably connected to both sides of the frame body 10;

[0059] The image acquisition terminal 70 is used to acquire images and transmit signals to the communication module 20 . The image processing module 30 is used to process and compile image information received at the communication module 20 .

[0060] Two groups of lens slots 11 are respectively arranged inside the frame body 10 , and main magnets 12 are arranged on the inner walls of the lens slots 11 .

[0061] In the present technical solution, there is a data connection between the smart glasses and the medical endoscope. The image acquisition terminal 70 is mainly used to capture the patient's image information for transmission. A traditional endoscope can also be used. The image acquisition terminal 70 sends the collected image information outward in the form of an electrical signal. The communication module 20 is used to receive the signal transmitted from the image acquisition terminal 70 and transmit the signal to the image processing module 30. The image processing module 30 compiles and processes the electrical signal and finally displays it through the lens display terminal 40. The lens display terminal 40 is worn by medical staff, which ensures that medical staff can observe the pictures collected in the image acquisition terminal 70 in real time, thereby facilitating medical staff to diagnose the patient's condition.

[0062] The image processing module 30 includes a memory or SD card for storing the collected patient image information, and for multi-party observation and consultation of the image information, when performing the test, the image processing module 30 can project the entire image information to a computer or mobile phone through a built-in radio Bluetooth module. The image processing module 30 can be connected to multiple image display devices at the same time. The display end of the image processing module 30 is not limited solely in this application. The display end can be a lens display end 40, and can also be other Bluetooth receiving devices, mobile phones and other terminals.

[0063] The image processing module 30 uses various types of chips for image storage, which can be selected according to storage capacity, read / write speed, and power consumption. The image storage chip types preferred in this application are:

[0064] 1. Dynamic random access memory (DRAM), DRAM is used to temporarily store data, with fast reading and writing speeds, but the data will be lost after power failure, and supports fast reading and writing of images. 2. Static random access memory (SRAM), as long as the SRAM remains powered on, the data stored in the SRAM can be kept constant. But the data will also be lost after power failure. 3. Flash memory (Flash), Flash storage chips can retain data for a long time, regardless of whether it is powered on or not. The flash drives in this application mainly include NAND Flash and NOR Flash. NAND Flash is often used for large-capacity storage, and can be externally connected to solid-state drives (SSDs), USB flash drives, etc. to transmit image information and store image data for a long time.

[0065] The sensor chips in the image processing module in this application are preferably the following:

[0066] CMOS Image Sensor (CIS) is an electronic device that can capture images and convert them into digital signals, which can then be stored in the memory chip mentioned above. It can be used in external mobile phones, cameras and other devices through Bluetooth and other connections.

[0067] Secondly, a digital signal processor (DSP) can be used. DSP is a unique microprocessor that is specially used to process digital signals. The DSP itself is not directly used to store image data, but it can play a role in image compression, filtering, edge detection, etc. in the image processing process, and cooperate with the image sensor and storage chip to improve the efficiency and quality of image processing, thereby ensuring that the image captured by the image processing module 30 can be transmitted to the outside world in real time and clearly.

[0068] Alternatively, image processing can be achieved by using embedded storage solutions, integrating storage chips with processors or other functional modules to form embedded systems. For example, CMOS image sensors, storage chips (such as Flash memory) and processors can be integrated to achieve image capture, processing and storage.

[0069] In summary, the image processing module 30 can use DRAM, SRAM, Flash (including NAND and NOR) and other storage chips to store image data. At the same time, the CMOS image sensor chip is used to capture images and convert them into digital signals for storage and processing. In addition, digital signal processors (DSP) and embedded storage solutions can be used to implement image processing.

[0070] In a preferred embodiment of the present invention:

[0071] like Figure 1-2As shown, specifically, the edge of the lens display end 40 is covered with a frame 41, the frame 41 can be snapped into the lens slot 11, and a connecting bracket 42 is provided at the lower end of the frame 41, and an interface 43 is provided in the middle of the connecting bracket 42. An output port 21 is also provided at the lower end wall of the lens slot 11, and when the frame 41 is snapped into the bottom of the lens slot 11, the interface 43 is connected to the output port 21. A secondary magnet 44 is also provided at the side of the connecting bracket 42, and the secondary magnet 44 and the main magnet 12 can be adsorbed and fitted.

[0072] In the present technical solution, when the lens display end 40 is used as the image display end, the operator first inserts the frame 41 into the lens slot 11. In order to ensure that the lens display end 40 can be well connected with the communication module 20 and avoid display interruption during surgery or consultation, a main magnet 12 is set below the lens slot 11. The main magnet 12 can be adsorbed with the secondary magnet 44 after the lens display end 40 is inserted, thereby ensuring the stability of the entire lens display end 40 in the lens slot 11, thereby avoiding poor contact of the lens display end 40 due to the operator wearing the frame body 10 or walking bumpy.

[0073] The connection between the interface 43 and the output port 21 is externally connected. This connection method does not require the operator to use force when installing the lens display terminal 40 to ensure that the lens display terminal 40 and the communication module 20 are firmly connected. The magnetic force of the main magnet 12 and the auxiliary magnet 44 can ensure that the two are in a good docking state.

[0074] The communication module 20 in this application has an AI communication function that can interact with humans and machines, and the modules that can be used mainly include the following types:

[0075] MPI (Message Passing Interface): MPI is a cross-language communication protocol and paradigm standard. MPI can provide an application program interface (API) and support semantically rich message communication mechanisms, including point-to-point, groupcast and multicast modes. The collected images can be transmitted point-to-point. At the same time, a voice acquisition system can be added to the API interface in this application to realize the visualization of image data acquisition by artificial spoken language control communication module.

[0076] The communication module involved in this application may also adopt a P2P (Peer-to-Peer) communication method: P2P communication is the communication between two processes, which is used to control the synchronization or data transmission between the data acquisition end and the data receiving end. It supports synchronous (blocking) and asynchronous (non-blocking) mechanisms. Thereby achieving efficient communication and data exchange between multiple processes. As a result, the device can meet the data collection work under different conditions according to the user's operation commands during use, and can cooperate with RDMA technology to achieve remote memory access through a direct network. No CPU intervention is required, and data transmission can be performed directly in user mode. It realizes the simultaneous reception of multiple ports for collected images, thereby realizing multi-port observation of collected images, creating conditions for multi-person consultations.

[0077] In a preferred embodiment of the present invention:

[0078] like Figure 3 As shown, specifically, the temple 50 is connected to the frame body 10 through a plug-in assembly 60, and the plug-in assembly 60 includes a temple slot 63 opened at the side of the frame body 10, and an insert block 61 is horizontally inserted in the temple slot 63, and a hinge 62 is hinged at one end of the insert block 61, and the temple 50 is fixedly connected to the hinge 62.

[0079] In the present technical solution, in order to facilitate the carrying of the entire device, the plug-in assembly 60 can be movably disassembled from the frame body 10, and the plug-in block 61 and the temple slot 63 are interference-connected, thereby ensuring that the two will not be easily disengaged when the plug-in block 61 is horizontally plugged into 3, further ensuring the stability of the device and ensuring that the glasses will not fall off during use by medical staff.

[0080] In a preferred embodiment of the present invention:

[0081] like Figure 4-5 As shown, specifically, the length of the temple 50 can be freely extended and retracted, and the temple 50 includes a storage rod 51, and a storage cavity 52 is provided inside the storage rod 51, and a bent leg 53 is slidably provided in the storage cavity 52. ​​A key cavity 54 is provided at one end of the storage rod 51, and a button 55 is slidably provided in the key cavity 54, and one end of the button 55 is always supported by a spring 57 provided in the key cavity 54, and countersunk holes 56 are evenly provided at one end surface of the bent leg 53, and the button 55 can be embedded in the countersunk hole 56 to fix the bent leg 53.

[0082] In this technical solution, since the device can be used by medical staff in different clinics, different medical staff can manually press the spring 57 to pull the curved leg 53 out of the storage rod 51 when wearing the device. When the curved leg 53 is pulled out to a suitable length, the device is adjusted to the most comfortable size for wearing. After use, the curved leg 53 can be inserted into the storage rod 51 to minimize the volume of the product.

[0083] In a preferred embodiment of the present invention:

[0084] like Figure 6-7 As shown, specifically, a transmission cavity 71 is provided inside the image acquisition end 70, a rotating box 72 is rotatably sleeved inside the transmission cavity 71, the rotating box 72 is driven to rotate by a first motor 73 provided at the side wall of the transmission cavity 71, a camera 75 is also provided in the rotating box 72, and the camera 75 can swing around the rotation axis direction of the rotating box 72. The lower end of the camera 75 is hemispherical, and a slide bar 76 is provided at the spherical surface of the camera 75, and an arc-shaped slide groove 74 is also provided at the end of the rotating box 72, the slide bar 76 is slidably provided in the arc-shaped slide groove 74, and the slide bar 76 is controlled to swing by a second motor 77 provided at the bottom of the rotating box 72.

[0085] In the present technical solution, when the device is used, the image acquisition end 70 can be replaced by a traditional endoscope, and the present application does not limit this.

[0086] The image acquisition end 70 of the present application is provided with a camera 75 therein. In order to increase the range of image acquisition, the camera 75 can swing around the arc-shaped slide groove 74. The arc-shaped slide groove 74 and the slide bar 76 are both arc-shaped. The slide bar 76 is slidably embedded in the arc-shaped slide groove 74, and the two can swing relative to each other. When the second motor 77 is controlled to rotate, the second motor 77 contacts one end of the slide bar 76, and the second motor 77 rotates itself to drive the slide bar 76 to swing along the arc direction of the arc-shaped slide groove 74, so as to increase the image acquisition range of the camera 75.

[0087] The arc-shaped slide groove 74 and the rotating box 72 are of an integrated design and can rotate in the transmission cavity 71. By controlling the rotation of the first motor 73, the first motor 73 contacts the outer surface of the rotating box 72 to drive the transmission cavity 71 and the arc-shaped slide groove 74 to rotate. Compared with the traditional endoscope, the search range of the image acquisition end 70 is expanded through the rotation of the arc-shaped slide groove 74 and the swing of the slide bar 76. The first motor 73 and the second motor 77 can both use gear transmission or friction wheel transmission as active parts for power transmission.

[0088] The embodiments of the present application are described above in conjunction with the accompanying drawings. In the absence of conflict, the embodiments in the present application and the features in the embodiments can be combined with each other. The present application is not limited to the above-mentioned specific implementation methods. The above-mentioned specific implementation methods are merely illustrative and not restrictive. Under the guidance of the present application, ordinary technicians in this field can also make many forms without departing from the purpose of the present application and the scope of protection of the claims, all of which are within the protection of the present application.

Claims

1. A medical smart glasses, characterized in that: include: A frame body (10), wherein a communication module (20) and an image processing module (30) are provided inside the frame body (10); A lens display end (40), the lens display end (40) having two ends, movably snap-connected to the frame body (10), the lens display end (40) being used to display the image signal in the image processing module (30); Temples (50) movably connected to both sides of the frame body (10); An image acquisition terminal (70) is used to acquire images and transmit signals to a communication module (20); and the image processing module (30) is used to process and compile image information received at the communication module (20).

2. The medical smart glasses according to claim 1, characterized in that: Two groups of lens slots (11) are respectively arranged inside the frame body (10), and main magnets (12) are arranged on the inner walls of the lens slots (11).

3. The medical smart glasses according to claim 2, characterized in that: The edge of the lens display end (40) is covered with a frame (41), the frame (41) can be snapped into the lens slot (11), and a connecting bracket (42) is provided at the lower end of the frame (41), and an interface (43) is provided in the middle of the connecting bracket (42).

4. The medical smart glasses according to claim 3, characterized in that: An output port (21) is also provided at the lower end wall of the lens slot (11); when the frame (41) is snapped onto the bottom of the lens slot (11), the interface (43) is connected to the output port (21).

5. The medical smart glasses according to claim 4, characterized in that: A secondary magnet (44) is also provided on the side of the connecting bracket (42), and the secondary magnet (44) and the main magnet (12) can be adsorbed and fitted.

6. The medical smart glasses according to claim 1, characterized in that: The temple (50) is connected to the frame body (10) via a plug-in assembly (60), wherein the plug-in assembly (60) comprises a temple slot (63) provided at a side of the frame body (10), wherein an insert block (61) is horizontally inserted into the temple slot (63), wherein a hinge (62) is provided at one end of the insert block (61), and the temple (50) is fixedly connected to the hinge (62).

7. The medical smart glasses according to claim 1, characterized in that: The length of the temple (50) can be freely extended and retracted. The temple (50) comprises a storage rod (51). A storage cavity (52) is provided inside the storage rod (51). A bent leg (53) is slidably provided in the storage cavity (52).

8. The medical smart glasses according to claim 7, characterized in that: A key cavity (54) is provided at one end of the storage rod (51), a button (55) is provided in the key cavity (54), and one end of the button (55) is always supported by a spring (57) arranged in the key cavity (54), and countersunk holes (56) are evenly arranged at one end surface of the bent leg (53), and the button (55) can be embedded in the countersunk hole (56) to fix the bent leg (53).

9. The medical smart glasses according to claim 1, characterized in that: A transmission cavity (71) is arranged inside the image acquisition end (70), a rotating box (72) is rotatably sleeved inside the transmission cavity (71), the rotating box (72) is driven to rotate by a first motor (73) arranged on the side wall of the transmission cavity (71), and a camera (75) is also arranged in the rotating box (72), and the camera (75) can swing around the rotation axis direction of the rotating box (72).

10. The medical smart glasses according to claim 9, characterized in that: The lower end of the camera (75) is hemispherical, and a slide bar (76) is arranged on the spherical surface of the camera (75). An arc-shaped slide groove (74) is also arranged at the end of the rotating box (72). The slide bar (76) is slidably arranged in the arc-shaped slide groove (74). The slide bar (76) is controlled to swing by a second motor (77) arranged at the bottom of the rotating box (72).

Images