Endoscope detection system based on intelligent endoscope type identification

Abstract

The invention relates to the technical field of intelligent medical systems, equipment, signal transmission, identification and the like, and provides an endoscope detection system based on intelligent mirror type identification, the endoscope detection system comprises an endoscope host and an intelligent mirror type identification module, the endoscope host comprises a hose endoscope communication interface, and the hose endoscope communication interface is used for connecting a hose endoscope; the intelligent endoscope type recognition module is electrically connected with the hose endoscope communication interface and used for obtaining identity information of a camera chip of the connected hose endoscope after the hose endoscope communication interface is connected with the hose endoscope and recognizing endoscope type information of the connected hose endoscope according to the identity information of the camera chip. According to the endoscope detection system based on intelligent endoscope type identification, the endoscope types of different hose endoscopes can be identified, and detection and operations of different items are realized by replacing the hose endoscopes, so that the cost of the endoscope is reduced, and the use and management convenience of the endoscope is improved.

Description

Technical Field

[0001] The present invention relates to the technical fields of intelligent medical systems, equipment, signal transmission, identification and the like, and in particular to an endoscope detection system based on intelligent endoscope type identification. Background Art

[0002] An endoscope is a medical instrument used to examine organs or cavities in the body, mainly including hard tube endoscopes and soft tube endoscopes. A hard tube endoscope usually includes a handle and a hard tube connected to the handle, a control panel is provided in the handle, and the hard tube is usually replaceable. A soft tube endoscope usually includes a long and soft tube, a light source and a camera, and a light source and a camera are provided at the front end of the tube. A soft tube endoscope can enter the human body through a natural cavity (such as the oral cavity, nasal cavity, intestine) or a small surgical incision, and transmit the image inside the body to an external display for the doctor to observe. Endoscopes are usually used for examinations and surgeries such as gastroscopy, colonoscopy, and bronchoscopy. Endoscopes can also be used for minimally invasive surgery, and doctors can perform treatment operations such as cutting, sampling, and hemostasis through the operating channel attached to the endoscopic device. At present, endoscopes are mainly single product structures, that is, the host only has one endoscope interface, which cannot adapt to different types of endoscopes, resulting in high costs for endoscopic inspection and surgery, and is not convenient for medical staff to use and manage. Moreover, when the endoscope interface is connected to a hose endoscope, an interface connected to a hose endoscope can only identify the camera of the hose endoscope, and cannot identify the cameras of other hose endoscopes. For example, a host can only be paired with one type of hose endoscope. Once the hose endoscope is replaced, that is, the type of the endoscope changes, the host cannot identify the hose endoscope of the changed type because the camera chip in the hose endoscope changes.

[0003] In summary, the existing endoscope technology has technical problems such as the inability to identify the type of hose endoscope, single interface, high cost, and inconvenient use and management. Summary of the invention

[0004] In view of the deficiencies in the above-mentioned prior art, the present invention provides an endoscope detection system based on intelligent scope type recognition to identify the scope types of different hose endoscopes, reduce the cost of endoscopes, and improve the convenience of using and managing endoscopes.

[0005] The endoscope detection system based on intelligent endoscope type recognition provided by the present invention comprises:

[0006] An endoscope host, comprising a hose endoscope communication interface, wherein the hose endoscope communication interface is used to connect the hose endoscope;

[0007] The intelligent scope type identification module is electrically connected to the hose endoscope communication interface, and is used to obtain the identity information of the camera chip of the connected hose endoscope after the hose endoscope communication interface is connected to the hose endoscope, and identify the scope type information of the connected hose endoscope according to the identity information of the camera chip.

[0008] Furthermore, the intelligent lens type recognition module runs on the endoscope host. When the intelligent lens type recognition module recognizes the lens type information, it matches the identity information of the camera chip of the connected hose endoscope with the preset lens type information to identify the lens type information of the connected hose endoscope.

[0009] Furthermore, the endoscope detection system based on intelligent endoscope type recognition also includes a workstation module; the workstation module runs on the endoscope host and is used to manage detection information to generate a detection report.

[0010] Furthermore, the endoscope detection system based on intelligent endoscope type recognition also includes a printing driver module; the printing driver module runs on the endoscope host and is used to drive an external printer to print the detection report.

[0011] Furthermore, the endoscope host is a display and control integrated host, which includes a host body, the hose endoscope communication interface and the hard tube endoscope communication interface, and the hose endoscope communication interface and the hard tube endoscope communication interface are arranged at intervals on the host body; the hose endoscope includes a hose, a light source and a camera; the signal connection end of the hose is connected to the hose endoscope communication interface, and the light source and the camera are installed on the detection end of the hose; the hard tube endoscope communication interface is electrically connected to the hard tube endoscope, and the hard tube endoscope includes a handle and a hard tube; the signal connection end of the handle is connected to the hard tube endoscope communication interface, and the tube diameter connection end of the handle is detachably connected to the hard tube.

[0012] Further, the flexible tube endoscope communication interface and the rigid tube endoscope communication interface are spaced apart on the same side of the host body, or the flexible tube endoscope communication interface and the rigid tube endoscope communication interface are spaced apart on different sides of the host body.

[0013] Furthermore, the hard tube of the hard tube endoscope is a disposable hard tube or a sterilizable and reusable hard tube; the disposable hard tube is detached from the tube diameter connecting end of the handle and discarded after use; the sterilizable and reusable hard tube is detached from the tube diameter connecting end of the handle and disinfected after use or is disinfected integrally with the handle.

[0014] Furthermore, the hose endoscope is a disposable hose or a sterilizable reusable hose; after use, the disposable hose is detached from the hose endoscope communication interface and discarded together with the light source and the camera; after use, the sterilizable reusable hose is detached from the hose endoscope communication interface and reused after being sterilized together with the light source and the camera.

[0015] Furthermore, the host body includes a display screen, a main case and an electronic control module; the electronic control module is distributed inside the main case; the display screen is embedded in one side of the main case and displays under the control of the electronic control module; the soft tube endoscope communication interface and the hard tube endoscope communication interface are electrically connected to the electronic control module.

[0016] Furthermore, the main chassis includes a heat dissipation support portion and a display mounting portion; the heat dissipation support portion is located at the bottom end of the display mounting portion, and extends toward the tail of the bottom end of the display mounting portion to form a support tail portion; heat dissipation holes are distributed on the bottom surface, back surface and two side surfaces of the heat dissipation support portion; the display screen is embedded and mounted on the front side of the display mounting portion.

[0017] Furthermore, the bottom surface of the heat dissipation support part is provided with a mounting bracket and a foot pad; the mounting bracket includes a first bracket body and a second bracket body, and the foot pad includes a first foot pad and a second foot pad; the first bracket body, the second bracket body, the first foot pad and the second foot pad are distributed at the four top corners of the bottom surface of the heat dissipation support part.

[0018] Furthermore, the soft tube endoscope communication interface and the hard tube endoscope communication interface are arranged at intervals on the front side of the heat dissipation support part, and the front side of the heat dissipation support part and the display screen are on the same side of the host body.

[0019] Furthermore, a first heat dissipation ring, a second heat dissipation ring and a bottom groove are arranged on the rear side of the display mounting portion; the first heat dissipation ring and the second heat dissipation ring are spaced apart and distributed at the upper end of the bottom groove; and an external device connector is arranged inside the bottom groove.

[0020] Furthermore, an upper handle, a left handle and a right handle are arranged at intervals on the rear side of the display mounting portion; the upper handle is located above the left handle and the right handle, and the left handle and the right handle are symmetrically arranged on the rear side of the display mounting portion.

[0021] Compared with the prior art, the present invention has the following beneficial effects:

[0022] The present invention provides an endoscope detection system based on intelligent scope type recognition, including an endoscope host and an intelligent scope type recognition module, the endoscope host including a hose endoscope communication interface, the hose endoscope communication interface is used to connect the hose endoscope; the intelligent scope type recognition module is electrically connected to the hose endoscope communication interface, and is used to obtain the identity information of the camera chip of the connected hose endoscope after the hose endoscope communication interface is connected to the hose endoscope, and identify the scope type information of the connected hose endoscope according to the identity information of the camera chip. The endoscope detection system based on intelligent scope type recognition can identify the scope types of different hose endoscopes, and realize the detection and surgery of different projects by replacing the hose endoscope, thereby reducing the cost of the endoscope and improving the convenience of using and managing the endoscope. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] The drawings described herein are used to provide a further understanding of the present invention and constitute a part of the present invention. The exemplary embodiments of the present invention and their description are used to explain the present invention and do not constitute an improper limitation of the present invention. Some specific embodiments of the present invention will be described in detail in an exemplary and non-restrictive manner with reference to the drawings. The same reference numerals in the drawings indicate the same or similar components or parts. It should be understood by those skilled in the art that these drawings are not necessarily drawn to scale. In the drawings:

[0024] Figure 1 It is a structural schematic diagram of an endoscope detection system based on intelligent endoscope type recognition according to an embodiment of the present invention;

[0025] Figure 2 This is a schematic diagram of the structure of a display-control integrated host according to an embodiment of the present invention;

[0026] Figure 3 It is another structural schematic diagram of the display and control integrated host according to an embodiment of the present invention;

[0027] Figure 4 It is another structural schematic diagram of the display and control integrated host according to an embodiment of the present invention.

[0028] Description of reference numerals:

[0029] 1. Endoscope host; 10. Host body; 100. Display screen; 101. Host box; 1010. Heat dissipation support; 10100. Heat dissipation hole; 10101. Mounting bracket; 101010. First bracket body; 101011. Second bracket body; 10102. Foot pad; 101020. First foot pad; 101021. Second foot pad; 1011. Display mounting part; 10110. First heat dissipation ring; 10111. Second heat dissipation ring; 10112. Bottom groove; 10113. Peripheral connector; 10114. Upper handle; 10115. Left handle; 10116. Right handle; 11. Flexible tube endoscope communication interface; 12. Hard tube endoscope communication interface;

[0030] 2. Flexible tube endoscope;

[0031] 3. Rigid tube endoscope. DETAILED DESCRIPTION

[0032] In order to enable those skilled in the art to better understand the scheme of the present invention, the technical scheme in the embodiment of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiment of the present invention. Obviously, the described embodiment is only an embodiment of a part of the present invention, not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative work should fall within the scope of protection of the present invention.

[0033] Embodiment 1

[0034] See also Figure 1-Figure 4 The endoscope detection system based on intelligent endoscope type recognition provided in this embodiment includes:

[0035] The endoscope host 1 includes a hose endoscope communication interface 11, and the hose endoscope communication interface is used to connect the hose endoscope;

[0036] The intelligent scope type identification module is electrically connected to the hose endoscope communication interface, and is used to obtain the identity information of the camera chip of the connected hose endoscope after the hose endoscope communication interface is connected to the hose endoscope, and identify the scope type information of the connected hose endoscope according to the identity information of the camera chip. Preferably, the intelligent scope type identification module runs on the endoscope host, and when the intelligent scope type identification module identifies the scope type information, it matches the identity information of the camera chip of the connected hose endoscope with the preset scope type information to identify the scope type information of the connected hose endoscope.

[0037] It should be noted that in the prior art, the endoscope host usually has only one endoscope interface, and the interface can only adapt to a single type of endoscope. For example, a host can only match a specific hose endoscope model. This single interface design greatly limits the versatility and compatibility of the endoscope, not only increasing the cost of medical equipment, but also limiting the flexibility of the equipment. When the interface is connected to the hose endoscope, it can only recognize a specific model of camera chip, which means that the host can only be used with a specific hose endoscope. Once the mirror type is changed (for example, using a hose endoscope of a different model or brand), the host cannot recognize and be compatible because its camera chip does not match. This limitation requires hospitals to be equipped with a variety of different endoscope hosts in actual operations, resulting in increased equipment investment costs and more complicated management. In response to the above problems in the prior art, in this embodiment, by setting an intelligent mirror type recognition module, it can automatically obtain and identify the camera chip information of the endoscope when connecting the hose endoscope, thereby determining the type of endoscope connected. This intelligent recognition mechanism can effectively solve the problems of compatibility and insufficient intelligence in the current technology. The intelligent scope type recognition module can automatically identify various types of hose endoscopes to ensure that the host is compatible with endoscopes of different brands and models. In this way, the hospital only needs to be equipped with one host to support the access of various endoscopic devices, reducing hardware investment and equipment management costs. In some further preferred embodiments, by automatically identifying and adapting the connected hose endoscope, the setting parameters (such as light source brightness, resolution, etc.) are automatically adjusted according to the scope type information of the specific hose endoscope, thereby improving the accuracy and efficiency of detection, reducing the steps of manual configuration by medical staff, and improving the ease of use of the equipment. In some further preferred embodiments, the intelligent recognition module records the type of endoscope connected each time and its usage, so as to facilitate tracking and management of the usage of the endoscopic equipment, ensuring the safety of the equipment and the timeliness of maintenance.

[0038] In some further preferred embodiments, a lens type information database is preset, and the lens type information database contains detailed information of various hose endoscopes, and the detailed information of each hose endoscope includes the lens type name and the camera chip model that uniquely corresponds to the lens type name; when the hose endoscope is connected to the endoscope host, the intelligent lens type recognition module automatically reads the identity information of the camera chip; the identity information of the camera chip includes the model of the camera chip; the identity information of the camera chip read is queried and matched in the lens type information database to identify the lens type information of the connected hose endoscope. It should be noted that in this embodiment, through the matching of the identity information of the camera chip, the system can automatically identify the lens type information of the connected hose endoscope, greatly improving the recognition efficiency and accuracy. In addition, since multiple types of hose endoscope information can be preset and expanded in the lens type information database, the system can automatically identify and be compatible with hose endoscopes of different brands and models as new lens types are launched and the database is updated, which not only reduces the procurement cost of hospital equipment, but also improves the expansion capability of the system.

[0039] In some preferred embodiments, the endoscope detection system based on intelligent scope identification also includes a workstation module; the workstation module runs on the endoscope host and is used to manage the detection information to generate a detection report. It should be noted that a large amount of images and data generated during the endoscope detection process need to be effectively managed and stored. By setting up the workstation module, the system can automatically collect, classify and store detection data, such as images, videos and other detection parameters. The workstation module runs on the endoscope host, and can analyze and process these data and automatically generate a detection report. This automated report generation function greatly reduces the manual recording and sorting work of medical staff, improves work efficiency, and ensures the standardization and consistency of report content. It is understandable that the workstation module can integrate various analysis tools and algorithms, such as image processing, anomaly detection and measurement analysis tools. In this way, the system can perform real-time analysis of the collected endoscopic images and generate preliminary diagnostic information based on the analysis results. This centralized information processing capability enables doctors to obtain not only high-quality real-time images during endoscopic operation, but also immediate auxiliary analysis results of the system, thereby speeding up the diagnosis and improving the accuracy of the diagnosis. Through the workstation module, the endoscope detection system can provide an intuitive user interface for medical staff to view real-time images, analysis results and related equipment status information during the detection process. At the same time, the system can display and update the generation status of the test report in real time for doctors to review and confirm at any time. This interface not only improves the interactivity and user experience of the system, but also enables medical staff to operate equipment and manage test data more intuitively and efficiently. In addition, the workstation module can connect test data and reports with the hospital information system (HIS) or other medical data systems to achieve information sharing and remote access. This kind of data interconnection helps to achieve multi-department collaboration and cross-device data sharing, and improve the overall management efficiency of the hospital.

[0040] In some preferred embodiments, the endoscope detection system based on intelligent scope identification also includes a printing driver module; the printing driver module runs on the endoscope host and is used to drive an external printer to print the detection report. It should be noted that the detection report generated during the endoscopic detection process needs to be delivered to medical staff or patients in a timely manner so that diagnosis and treatment can be carried out immediately after the inspection is completed. By setting up a printing driver module, the endoscope host can directly drive an external printer to realize instant printing of the detection report. This instant report output function not only improves diagnostic efficiency, but also shortens the waiting time of medical staff during report generation and delivery, and optimizes the medical process.

[0041] Embodiment 2

[0042] See also Figure 1-Figure 4In this embodiment, the endoscope host 1 is a display and control integrated host, and the display and control integrated host includes a host body 10, the hose endoscope communication interface 11 and the hard tube endoscope communication interface 12, and the hose endoscope communication interface and the hard tube endoscope communication interface are arranged on the host body at intervals; the hose endoscope includes a hose, a light source and a camera; the signal connection end of the hose is connected to the hose endoscope communication interface, and the detection end of the hose is installed with the light source and the camera; the hard tube endoscope communication interface is electrically connected to the hard tube endoscope, and the hard tube endoscope includes a handle and a hard tube; the signal connection end of the handle is connected to the hard tube endoscope communication interface, and the pipe diameter connection end of the handle is detachably connected to the hard tube.

[0043] It should be noted that, in this embodiment, the display control integrated host is provided with a communication interface for the hose and the hard tube endoscope 3. By integrating two different types of endoscopes into the same host system, the purchase and maintenance costs of duplicate equipment can be reduced. The user only needs one host to replace different types of endoscopes as needed, greatly reducing the overall cost of the equipment. The hard tube is connected to the host interface signal through a handle, and the pipe diameter connection end of the handle and the hard tube are detachable. This detachable design facilitates the replacement of the hard tube size or type (such as hard tubes of different lengths or diameters) when necessary, further improving the diversity and adaptability of the equipment, and is also conducive to cleaning and maintenance. In addition, independent communication interfaces for the hose and the hard tube endoscope 3 are respectively provided on the host to ensure that the host system does not need to be reconfigured when the endoscope is replaced. Each endoscope communicates directly with the host through a specific interface, making the replacement process simple and quick, and reducing the risk of interface confusion or connection errors.

[0044] It should also be noted that, in this embodiment, the hose endoscope 2 and the hard tube endoscope 3 can be connected to the communication interface of the hose and the hard tube endoscope 3 on the host, respectively, to form a dual-mirror structure. The hose endoscope 2 has the characteristics of high flexibility and bendability, and is suitable for detecting and operating tissues in narrow or curved cavities, such as the gastrointestinal tract, bronchi, etc. The hose can move freely in the curved pipe, and transmit internal images through the light source and camera to achieve fine diagnosis and minimally invasive surgery. The hard tube endoscope 3 is more rigid and is suitable for linear inspections and surgeries, such as the bladder, joint cavity, etc. The rigid structure of the hard tube enables it to provide a more stable viewing angle at specific locations and remain stable in surgeries that require greater operating force. In this embodiment, through the interchange of the soft and hard tube endoscopes 3, the system can adapt to different diagnostic and surgical scenarios, and can handle narrow, curved and complex locations, as well as locations that require greater operational stability, thereby significantly expanding the scope of application of the endoscope system.

[0045] In some preferred embodiments, the hose endoscope communication interface 11 and the hard tube endoscope communication interface 12 are arranged at intervals on the same side of the host body 10, or the hose endoscope communication interface 11 and the hard tube endoscope communication interface 12 are arranged at intervals on different sides of the host body 10. It should be noted that when the interface is arranged on the same side of the host body 10, the user only needs to concentrate on one position when replacing the hose or hard tube endoscope 3. This design simplifies the use process, allowing operators to quickly and more conveniently connect or switch different types of endoscopes, reducing time waste. Concentrating the interfaces on the same side can also reduce the wiring complexity of the host body 10, improve the overall aesthetics and ease of use of the equipment, and help keep the work area tidy. In some scenarios, if the hose endoscope 2 and the hard tube endoscope 3 are used at the same time, setting the interfaces on different sides of the host can effectively avoid the two endoscope pipelines from crossing or winding in the same direction. This design helps to keep the work area tidy and reduce obstacles and interference caused by cable winding during operation. When the soft tube endoscope and the hard tube endoscope 3 are used separately, connecting to the host from different directions helps to maintain the independence of each endoscope and reduce the physical interference between the two. For example, the hard tube endoscope 3 is usually used for relatively fixed linear operations, while the soft tube endoscope 2 requires more flexible mobility. Connecting them separately can ensure that each endoscope is not restricted or affected by other devices during use, thereby improving the stability and convenience of use.

[0046] In some preferred embodiments, the hard tube of the hard tube endoscope 3 is a disposable hard tube or a sterilizable and reusable hard tube; the disposable hard tube is detached from the pipe diameter connection end of the handle and discarded after use; the sterilizable and reusable hard tube is detached from the pipe diameter connection end of the handle and disinfected or disinfected together with the handle after use. In addition, the hose endoscope 2 is a disposable hose or a sterilizable and reusable hose; the disposable hose is detached from the hose endoscope communication interface 11 after use and discarded together with the light source and the camera; the sterilizable and reusable hose is detached from the hose endoscope communication interface 11 after use and reused after disinfection together with the light source and the camera. It should be noted that the disposable hard tube is discarded after each use, eliminating the risk of cross infection caused by incomplete disinfection. This is particularly important in some high-risk operations and examinations that require a sterile environment. The disposable hard tube does not need to be disinfected and can be directly discarded after use, which reduces the steps of cleaning and disinfection and improves operating efficiency, especially in a busy medical environment. Although reusable hard tubes need to be disinfected, they are more cost-effective than disposable hard tubes in long-term use and are suitable for medical scenarios with frequent use. The hard tube can be detached from the handle for easy disinfection. This design simplifies the cleaning and maintenance process of the equipment, and also facilitates medical personnel to replace hard tubes of different specifications according to different surgical needs. In some cases, if the hard tube and the handle are designed as one, they can be disinfected as a whole. This method reduces the time for disassembly and reassembly, ensures the thoroughness of disinfection and the integrity of the equipment. In addition, since the hose endoscope 2 needs to enter a longer body cavity during operation, it is difficult to clean and disinfect it, and there are dead angles and blind spots. Designing the hose, light source and camera to be discarded as a whole after one-time use can minimize cross-infection and bacterial residues, thereby improving patient safety. The disposable design avoids the cumbersome process of disinfecting, maintaining and inspecting the hose, light source and camera. Medical personnel only need to replace new disposable components before each use, which significantly improves operating efficiency and equipment turnover.

[0047] In some preferred embodiments, the host body 10 includes a display screen 100, a host box 101 and an electric control module; the electric control module is distributed inside the host box 101; the display screen 100 is embedded in one side of the host box 101 and displays under the control of the electric control module; the flexible tube endoscope communication interface 11 and the rigid tube endoscope communication interface 12 are electrically connected to the electric control module. Further, the host box 101 includes a heat dissipation support portion 1010 and a display mounting portion 1011; the heat dissipation support portion 1010 is located at the bottom end of the display mounting portion 1011 and extends toward the tail of the bottom end of the display mounting portion 1011 to form a supporting tail; the bottom surface, back surface and two side surfaces of the heat dissipation support portion 1010 are distributed with heat dissipation holes 10100; the display screen 100 is embedded and mounted on the front side of the display mounting portion 1011. Furthermore, the bottom surface of the heat dissipation support part 1010 is provided with a mounting bracket 10101 and a foot pad 10102; the mounting bracket 10101 includes a first bracket body 101010 and a second bracket body 101011, and the foot pad 10102 includes a first foot pad 101020 and a second foot pad 101021; the first bracket body 101010, the second bracket body 101011, the first foot pad 101020 and the second foot pad 101021 are distributed at the four vertices of the bottom surface of the heat dissipation support part 1010. Furthermore, the soft tube endoscope communication interface 11 and the hard tube endoscope communication interface 12 are arranged at intervals on the front surface of the heat dissipation support part 1010, and the front surface of the heat dissipation support part 1010 and the display screen 100 are on the same side of the host body 10. Furthermore, the rear side of the display mounting portion 1011 is provided with a first heat dissipation ring 10110, a second heat dissipation ring 10111 and a bottom groove 10112; the first heat dissipation ring 10110 and the second heat dissipation ring 10111 are spaced apart at the upper end of the bottom groove 10112; and the interior of the bottom groove 10112 is provided with an external device connector 10113. Furthermore, the rear side of the display mounting portion 1011 is also spaced apart with an upper handle 10114, a left handle 10115 and a right handle 10116; the upper handle 10114 is located above the left handle 10115 and the right handle 10116, and the left handle 10115 and the right handle 10116 are symmetrically arranged at the rear side of the display mounting portion 1011. It should be noted that the display screen 100 is embedded in one side of the main chassis 101. This design is compact and integrated, which is convenient for doctors to view the endoscope image in real time during operation, while reducing the need for an external display. The electronic control module is distributed inside the main chassis 101, which can not only protect the safety of the control module, but also facilitate the integration and compact layout of the whole machine, while reducing the size of the main machine and improving the portability of the equipment.The hose and hard tube endoscope communication interface 12 are directly connected to the electric control module to ensure the stability and real-time performance of the device signal transmission, so that the endoscope can respond quickly and transmit clear images during detection and surgery. The heat dissipation support part 1010 is located at the bottom of the display mounting part 1011 and extends to the tail to form a supporting tail. On the one hand, this design plays a role in supporting the host so that the host can be placed stably; on the other hand, the bottom surface, back and side of the heat dissipation support part 1010 are distributed with heat dissipation holes 10100, which effectively help the device to dissipate heat. In addition, embedding the display screen 100 into the front side of the display mounting part 1011 not only improves the overall aesthetics of the device, but also ensures that the display screen 100 is firmly installed and not easily affected by external impact. In addition, this design also facilitates users to view the display content clearly and conveniently when using it. In addition, the mounting bracket 10101 and the foot pad 10102 are respectively arranged at the four top corners of the heat dissipation support part 1010. This four-corner support design can ensure that the host remains stable during use and is not easy to tip over or move. The combination of the bracket and the foot pad 10102 can effectively reduce shock and reduce the impact of vibration on the device during operation, thereby improving the reliability and service life of the device. In addition, the communication interface of the hose and the hard tube endoscope 3 is arranged on the front of the heat dissipation support part 1010, and is located on the same side as the display screen 100, which can ensure that the doctor can see it at a glance and quickly access the device during operation. This design improves the operating efficiency and convenience, and avoids wasting time on finding the interface location. At the same time, this layout helps to avoid cable entanglement, because all connections and operations are performed on the same side of the host, reducing the possibility of equipment cable crossing and ensuring a clean working environment. In addition, a heat dissipation ring is arranged on the rear side of the display mounting part 1011, and is arranged at intervals at the upper end of the bottom groove 10112, which can form a convection heat dissipation effect. Multiple heat dissipation rings are distributed at intervals, which effectively improves the heat dissipation efficiency of the device and ensures that the internal electric control module and the display screen 100 can maintain a suitable temperature during long-term operation. In addition, an external device connector 10113 is provided inside the bottom groove 10112, so that the device can be connected to other external devices, such as data transmission cables, power cables, etc. This design ensures that the connector is arranged on the rear side of the device, which does not affect the front operation and display of the device, and also helps to keep the rear of the device neat and orderly. In addition, an upper handle 10114, a left handle 10115 and a right handle 10116 are arranged at intervals on the rear side of the display mounting portion 1011, making the device more convenient to move and carry. The upper handle 10114 is located above the left and right handles, and is ergonomically designed. The device can be lifted with one hand or both hands, providing a better sense of balance. The left and right handles are symmetrically arranged, which makes the device more stable and convenient when it needs to be carried horizontally or adjusted. At the same time, the multi-handle design also allows the device to be moved and placed quickly and flexibly in various medical environments.

[0048] It should be pointed out that the above embodiments are only preferred specific implementation modes of the present invention, and the protection scope of the present invention is not limited thereto. Any changes or substitutions that can be easily thought of by any technician familiar with the technical field within the technical scope disclosed by the present invention should be covered within the protection scope of the present invention. The protection scope of the present invention should be based on the protection scope of the claims.

Claims

1. An endoscope detection system based on intelligent endoscope type recognition, characterized in that: include: An endoscope host, comprising a hose endoscope communication interface, wherein the hose endoscope communication interface is used to connect the hose endoscope; The intelligent scope type identification module is electrically connected to the hose endoscope communication interface, and is used to obtain the identity information of the camera chip of the connected hose endoscope after the hose endoscope communication interface is connected to the hose endoscope, and identify the scope type information of the connected hose endoscope according to the identity information of the camera chip.

2. The endoscope detection system based on intelligent endoscope type recognition according to claim 1, characterized in that: The intelligent scope type recognition module runs on the endoscope host. When the intelligent scope type recognition module recognizes the scope type information, it matches the identity information of the camera chip of the connected hose endoscope with the preset scope type information to identify the scope type information of the connected hose endoscope.

3. The endoscope detection system based on intelligent endoscope type recognition according to claim 1, characterized in that: It also includes a workstation module; the workstation module runs on the endoscope host and is used to manage detection information to generate a detection report.

4. The endoscope detection system based on intelligent endoscope type recognition as claimed in claim 3, characterized in that: It also includes a printing driver module; the printing driver module runs on the endoscope host and is used to drive an external printer to print the detection report.

5. The endoscope detection system based on intelligent endoscope type recognition according to any one of claims 1 to 4, characterized in that: The endoscope host is a display and control integrated host, which includes a host body, the hose endoscope communication interface and the hard tube endoscope communication interface, and the hose endoscope communication interface and the hard tube endoscope communication interface are arranged at intervals on the host body; the hose endoscope includes a hose, a light source and a camera; the signal connection end of the hose is connected to the hose endoscope communication interface, and the detection end of the hose is installed with the light source and the camera; the hard tube endoscope communication interface is electrically connected to the hard tube endoscope, and the hard tube endoscope includes a handle and a hard tube; the signal connection end of the handle is connected to the hard tube endoscope communication interface, and the pipe diameter connection end of the handle is detachably connected to the hard tube.

6. The endoscope detection system based on intelligent endoscope type recognition according to claim 5, characterized in that: The flexible tube endoscope communication interface and the rigid tube endoscope communication interface are spaced apart on the same side of the host body, or the flexible tube endoscope communication interface and the rigid tube endoscope communication interface are spaced apart on different sides of the host body.

7. The endoscope detection system based on intelligent endoscope type recognition according to claim 5, characterized in that: The hard tube of the hard tube endoscope is a disposable hard tube or a sterilizable and reusable hard tube; the disposable hard tube is detached from the tube diameter connecting end of the handle and discarded after use; the sterilizable and reusable hard tube is detached from the tube diameter connecting end of the handle and sterilized after use or is sterilized integrally with the handle.

8. The endoscope detection system based on intelligent endoscope type recognition according to claim 5, characterized in that: The hose endoscope is a disposable hose or a sterilizable reusable hose; after use, the disposable hose is detached from the hose endoscope communication interface and discarded together with the light source and the camera; after use, the sterilizable reusable hose is detached from the hose endoscope communication interface and reused after being sterilized together with the light source and the camera.

9. The endoscope detection system based on intelligent endoscope type recognition according to claim 5, characterized in that: The host body includes a display screen, a main case and an electronic control module; the electronic control module is distributed inside the main case; the display screen is embedded in one side of the main case and displays under the control of the electronic control module; the soft tube endoscope communication interface and the hard tube endoscope communication interface are electrically connected to the electronic control module.

10. The endoscope detection system based on intelligent endoscope type recognition according to claim 9, characterized in that: The main chassis includes a heat dissipation support portion and a display mounting portion; the heat dissipation support portion is located at the bottom end of the display mounting portion, and extends toward the tail of the bottom end of the display mounting portion to form a support tail portion; heat dissipation holes are distributed on the bottom surface, back surface and two side surfaces of the heat dissipation support portion; the display screen is embedded and mounted on the front side of the display mounting portion.

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