An AI analysis interactive terminal all-in-one

Abstract

The present application provides an AI analysis interactive terminal all-in-one, including a plurality of displays respectively arranged in multiple departments of the hospital and used to display image algorithm processing, and a processing mechanism detachably connected thereto. The processing mechanism includes a protective shell detachably connected to the display of any department. It also includes a locking assembly connected to the protective shell. In the locked state, the locking assembly and the display are abutted and locked. In the unlocked state, the locking assembly is unlocked and separated from the display. And the processing mechanism is connected to the display of any department after disinfection. The grip is connected to the protective shell, the locking assembly and the grip extend to the same side of the display, and the locking assembly is located inside the grip. When unlocked, the locking assembly in contact with the human body and the protective shell in contact with the air flora are disinfected areas. Among them, each processing mechanism is only provided with one locking assembly. The purpose of facilitating disinfection is achieved through the above structure.

Description

Technical Field

[0001] The present application relates to the field of medical equipment, and in particular to an all-in-one AI analysis interactive terminal. Background Art

[0002] In the medical field, AI-powered interactive analysis terminals are widely used for image processing tasks across various departments. However, to control costs, hospitals often deploy the same model of equipment with processors of varying computing power in different departments. When patients present with complex conditions, such as complications, low-powered processors may not be able to meet real-time analysis requirements, leading to delays in diagnosis and treatment.

[0003] Existing technical solutions use non-detachable structures. Upgrading computing power requires replacing the entire machine with a higher-spec version, resulting in duplicate procurement costs. Other existing technical solutions use detachable structures. While these support cross-departmental processor module deployment, the disassembly process carries significant risks of nosocomial infection. The microbial environments of different departments, such as operating rooms and laboratories, vary significantly. Furthermore, complex geometric structures like processor interfaces and heat sinks are prone to pathogen retention, making them key disinfection areas. These areas are difficult to disinfect due to narrow corners and blind spots. Therefore, a conveniently disinfected all-in-one AI analysis and interactive terminal is needed. Summary of the Invention

[0004] In view of this, it is necessary to provide an AI analysis interactive terminal all-in-one that is easy to disinfect to solve the above problems.

[0005] An embodiment of the present application provides an all-in-one AI analysis interactive terminal, comprising a plurality of displays respectively configured in various departments of a hospital and used to display image algorithm processing, and a processing mechanism detachably connected thereto; the processing mechanism comprises:

[0006] a protective shell detachably connected to the display in any department;

[0007] A locking assembly is connected to the protective shell. In the locked state, the locking assembly and the display are abutted and locked. In the unlocked state, the locking assembly is unlocked and separated from the display. The processing mechanism is disinfected and then connected to the display of any department.

[0008] A grip member connected to the protective shell, the locking assembly and the grip member extending to the same side of the display, and the locking assembly is located within the grip member;

[0009] When unlocked, the locking assembly and the gripping member in contact with the human body, and the protective shell in contact with air flora are disinfected areas, wherein each processing mechanism is provided with only one locking assembly.

[0010] In at least one embodiment of the present application, the locking assembly includes:

[0011] an abutment member connected to the protective shell and abutted and locked with the display;

[0012] A connecting member connected to the protective shell, wherein the abutting member is sleeved and slidably connected to the connecting member;

[0013] The pressing member is vertically and slidably connected to the connecting member and partially extends outside the display, which is referred to as the pressing portion. The user presses the pressing portion.

[0014] In at least one embodiment of the present application, the abutment member includes a contraction groove, the contraction groove is configured as an isosceles right triangle, and an equilateral side is arranged parallel to the connecting member, and a first 45° angle is close to the pressing portion, and a second 45° angle is away from the pressing portion;

[0015] The pressing member includes a connecting post, the connecting post is located in the shrinkage groove and passes through the shrinkage groove, and the connecting post is slidably connected along one side of the shrinkage groove;

[0016] Press the pressing portion, and the pressing member moves in a direction opposite to the pressing direction, and the pressing member drives the connecting post to move from the second 45° angle to the first 45° angle, and the connecting post drives the connecting member to move until it abuts and locks against the display;

[0017] The pressing portion is pressed, and the pressing member moves along the pressing direction. The pressing member drives the connecting post to move from the first 45° angle to the second 45° angle. The connecting post drives the connecting member to move to be unlocked and separated from the display.

[0018] In at least one embodiment of the present application, the contraction groove includes a rounded portion, and the rounded portion is respectively located at the angle of an equilateral triangle. The diameter of the rounded portion is recorded as A1, and the diameter of the connecting column is recorded as A2, satisfying the relationship:

[0019] A1≥A2.

[0020] In at least one embodiment of the present application, the gripping member includes:

[0021] A grip portion, which is in contact with the user and is arranged in the same direction as the pressing member, is fixedly connected to an outer surface of the protective shell, and is located outside the display;

[0022] A hollow portion is formed between the grip portion and the protective shell, and the pressing portion is located in the hollow portion.

[0023] In at least one embodiment of the present application, the protective shell includes:

[0024] a first limiting groove, arranged along the pressing direction and opened on the other outer surface of the protective shell, wherein the first outer surface of the protective shell and the other outer surface of the protective shell are vertically connected, and a notch of the first limiting groove faces the display;

[0025] a second limiting groove, provided along the pressing direction and opened on the protective shell, and located on the opposite side of the other outer surface of the protective shell, wherein the grip portion is located between the first limiting groove and the second limiting groove;

[0026] A fixing groove is provided in each of the first limiting groove and the second limiting groove.

[0027] In at least one embodiment of the present application, the all-in-one device further includes a limiting component for locking the protective shell and the display, and the limiting component includes:

[0028] A limiting portion is provided in the first limiting groove and the second limiting groove, respectively. The limiting portion is slidably connected along the first limiting groove and the second limiting groove to be fitted with the fixing groove, and the limiting portion is used for locking;

[0029] The telescopic portion has one end connected to the display and the other end connected to the limiting portion.

[0030] In at least one embodiment of the present application, the depth of the first limiting groove is recorded as L1, the depth of the second limiting groove is recorded as L2, and the depth of the fixing groove is recorded as L3, which satisfy the relationship:

[0031] L1=½L3;

[0032] L2=½L3.

[0033] In at least one embodiment of the present application, the all-in-one device further comprises a gold finger for connecting the processing mechanism and the electrical connection component of the display;

[0034] The gold finger is fixedly connected to the protective shell, the gold finger is arranged opposite to the gripping piece, and the gold finger is pluggably connected to the display;

[0035] In the locked state, the gold finger is electrically connected to the display;

[0036] In the unlocked state, the gold finger is separated from the display.

[0037] In at least one embodiment of the present application, the outer surface of the protective shell is configured as a smooth antibacterial surface, which is in contact with the air.

[0038] The beneficial effects of the above-mentioned AI analysis interactive terminal are:

[0039] By setting only one locking component, the contact surface with the human body is reduced, and the key disinfection area is reduced;

[0040] In order to prevent the handling mechanism from tilting during disassembly or installation due to a locking component, a limiting component is provided, which is slidably connected along a limiting groove provided on the shell, and the limiting component is fitted with a first limiting groove and a second limiting groove provided opposite to the limiting groove to fix the disassembly direction or installation direction of the protective shell;

[0041] Furthermore, by providing gold fingers of the electrical connection components that are easier to disinfect, the gold fingers of the electrical connection components have more planar structures compared to other electrical connection structures, making them easier to disinfect. BRIEF DESCRIPTION OF THE DRAWINGS

[0042] Figure 1 This is the main view of the AI analysis interactive terminal all-in-one described in this application;

[0043] Figure 2 A three-dimensional diagram of the AI analysis interactive terminal described in this application;

[0044] Figure 3 for Figure 1 Cross-sectional view of CC;

[0045] Figure 4 for Figure 2 A partial enlarged view of point A in the middle;

[0046] Figure 5 for Figure 2 A partial enlarged view of point B in the middle;

[0047] Figure 6 for Figure 3 A partial enlarged view of point D in the middle;

[0048] Figure 7 This is a schematic diagram of the connection between the limiting assembly and the protective shell described in this application;

[0049] Figure 8 A three-dimensional diagram of the locking assembly described in this application;

[0050] Figure 9 This is a schematic diagram of the internal structure of the locking assembly described in this application;

[0051] Figure 10 This is a schematic structural diagram of the unlocked state of the locking assembly described in this application;

[0052] Figure 11 This is a schematic structural diagram of the locking state of the locking assembly described in this application;

[0053] Figure 12 It is a front view of the processing mechanism described in this application;

[0054] Description of main component symbols

[0055] 100. AI analysis interactive terminal; 1. Display; 2. Processing mechanism; 21. Protective housing; 22. Locking assembly; 23. Abutment; 231. Retraction groove; 232. First 45° angle; 233. Second 45° angle; 234. Rounded corner;

[0056] 24. Connectors;

[0057] 25. Pressing member; 251. Pressing portion; 252. Connecting column;

[0058] 26. Grip; 261. Grip portion; 262. Hollow portion;

[0059] 11. First limiting slot; 12. Second limiting slot; 13. Fixed slot;

[0060] 3. Limiting assembly; 31. Limiting portion; 32. Telescopic portion;

[0061] 41. Golden Finger. DETAILED DESCRIPTION

[0062] The embodiments of the present application will be described below in conjunction with the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments.

[0063] It should be noted that when a component is considered to be "connected to" another component, it can be directly connected to the other component or there may be an intermediate component. When a component is considered to be "disposed on" another component, it can be directly disposed on the other component or there may be an intermediate component. The terms "top", "bottom", "upper", "lower", "left", "right", "front", "back", and similar expressions used herein are for illustrative purposes only.

[0064] An embodiment of the present application provides an AI analysis interactive terminal all-in-one, comprising a plurality of displays respectively arranged in a plurality of departments of a hospital and used to display image algorithm processing, and a processing mechanism detachably connected thereto. The processing mechanism comprises: a protective shell, a locking assembly and a gripping member. The protective shell is detachably connected to the display of any department. The locking assembly is connected to the protective shell. In the locked state, the locking assembly and the display are abutted and locked. In the unlocked state, the locking assembly is unlocked and separated from the display. And the processing mechanism is connected to the display of any department after disinfection. The gripping member is connected to the protective shell, and the locking assembly and the gripping member extend to the same side of the display, and the locking assembly is located in the gripping portion. When unlocked, the locking assembly in contact with the human body and the protective shell in contact with the air flora are disinfected areas. Wherein, only one locking assembly is provided for each processing mechanism.

[0065] The beneficial effects of the above-mentioned AI analysis interactive terminal are:

[0066] By setting only one locking component, the contact surface with the human body is reduced, and the key disinfection area is reduced;

[0067] In order to prevent the handling mechanism from tilting during disassembly or installation due to a locking component, a limiting component is provided, which is slidably connected along a limiting groove provided on the shell, and the limiting component is fitted with a first limiting groove and a second limiting groove provided opposite to the limiting groove to fix the disassembly direction or installation direction of the protective shell;

[0068] Furthermore, by providing gold fingers of the electrical connection components that are easier to disinfect, the gold fingers of the electrical connection components have more planar structures compared to other electrical connection structures, making them easier to disinfect.

[0069] The following embodiments of the present application are described in detail with reference to the accompanying drawings. In the absence of conflict, the following embodiments and features therein may be combined with each other.

[0070] See also Figures 1-12, an embodiment of the present application provides an AI analysis interactive terminal all-in-one 100, comprising a plurality of displays 1 respectively arranged in a plurality of departments of a hospital and used to display image algorithm processing, and a processing mechanism 2 detachably connected thereto. The processing mechanism 2 comprises: a protective shell 21, a locking assembly 22 and a gripping member 26. The protective shell 21 is detachably connected to the display 1 of any department. The locking assembly 22 is connected to the protective shell 21. In the locked state, the locking assembly 22 and the display 1 are abutted and locked. In the unlocked state, the locking assembly 22 is unlocked and separated from the display 1. And the processing mechanism 2 is connected to the display 1 of any department after disinfection. The gripping member 26 is connected to the protective shell 21, and the locking assembly 22 and the gripping member 26 extend to the same side of the display 1, and the locking assembly 22 is located in the gripping portion 261. When unlocked, the locking assembly 22 in contact with the human body and the protective shell 21 in contact with the air flora are disinfected areas. Each of the processing mechanisms 2 is provided with only one locking assembly 22 .

[0071] Specifically, the AI interactive terminal consists of two parts: multiple fixed displays 1 distributed across different hospital departments, and one or more mobile AI processing units 2. Each processing unit 2 is connected to only one display 1 at a time. This structure allows different departments to take turns using AI processing power without having to purchase multiple AI modules, while also supporting data isolation and rapid system switching.

[0072] Multiple display 1 modules are fixedly configured in multiple departments of the hospital, such as the radiology department, endoscopy center, cardiology department, etc., for image display, doctor-patient communication, artificial intelligence-assisted analysis result display, etc. The display 1 has an integrated image transmission and control interface and a standardized connection port is reserved.

[0073] The detachable processing unit 2 is the core computing module of this system. It features a built-in AI chipset or algorithm acceleration module, such as a GPU / TPU / FPGA, for processing medical images such as CT / MRI / ultrasound images and outputting analysis results. This module can be removed from one department and relocated to another display 1 for continued use, depending on the doctor's needs. This detachable connection between the computing module and the display module enables hardware reuse, avoids redundant deployment, and reduces hospital informationization costs.

[0074] The processing mechanism 2 is covered with a protective shell 21, which is used for mechanical docking with the connection surface of any display 1. It also encapsulates components such as the mainboard, interface module, and computing unit within the processing mechanism 2. It also serves to isolate airborne bacteria. Specifically, the protective shell 21 is the area of the housing that "comes into contact with air," and is considered a non-contact contaminated area requiring surface treatment according to medical disinfection regulations.

[0075] The processing mechanism 2 is equipped with a single locking assembly 22, which securely connects to the display 1 and ensures structural stability and safe operation when connected. The locking assembly 22 is located on one side of the protective housing 21 and utilizes mechanical or electronic locking mechanisms such as an embedded knob lock, a push-pull hook, or a magnetic lock.

[0076] When locked, the locking component 22 extends and presses into the slot of the display 1 to form a tight docking structure. When unlocked, the component is released manually by the doctor or by releasing the button and separated from the display 1. The material of the locking component 22 is selected from antibacterial alloy or medical plastic, and the surface is smooth and can withstand repeated scrubbing with disinfectant. The design of the unique locking component 22 can achieve rapid installation / removal of the processing module and avoid cross-contamination of multiple components. Part of the locking component 22 requires hand-held operation and is in contact with the human body. In order to meet the cleaning zoning requirements of medical devices, this part is defined as the human body contact area that needs to be disinfected.

[0077] The grip 26 is used to improve the efficiency of manual handling of the handling mechanism 2. Located at the bottom of the handling mechanism 2, the grip 26 can be an integrally formed curved or ring-shaped handle. Its surface is coated with a non-slip material (such as a medical silicone coating) for easy operation with gloves. The grip 26 surface, along with the locking assembly 22, is located in the disinfection zone. After contact, the surface requires wiping and disinfection by the physician. The structure supports methods such as rapid spraying and ultraviolet irradiation. The handling mechanism 2's single-sided integrated design enables an integrated process of gripping, insertion, locking, operation, removal, and disinfection.

[0078] In one embodiment, the locking assembly 22 includes an abutment member 23, a connector 24, and a pressing member 25. The abutment member 23 is connected to the protective shell 21 and abuts and locks the display 1. The connector 24 is connected to the protective shell 21, and the abutment member 23 is sleeved and slidably connected to the connector 24. The pressing member 25 is perpendicular to the connector 24 and slidably connected. The portion of the pressing member 25 that extends beyond the display 1 is designated as a pressing portion 251. The user presses the pressing portion 251.

[0079] Specifically, the locking assembly 22 is arranged on one side of the protective shell 21 of the processing mechanism 2, and the locking assembly 22 and the holding member 26 are on the same surface. The locking assembly 22 is mainly composed of the abutment member 23 as the locking end member, the connecting member 24 as the guide support member and the pressing member 25 as the release mechanism.

[0080] The abutment member 23, the connection member 24 and the pressing member 25 structurally form a combination relationship of sleeve sliding connection + vertical sliding unlocking, which can realize quick plugging and unplugging, and can also be firmly fixed and anti-vibration and fall off in the plugged state.

[0081] The abutment 23 is a structure that allows the locking mechanism to come into direct mechanical contact with the display 1. The main function of the abutment 23 is to abut against the edge of the preset locking groove or slot of the display 1 in the locked state. The abutment 23 is made of antibacterial hard engineering plastic or stainless steel, and its smooth surface facilitates disinfection. A flexible buffer ring or anti-slip groove is provided at the abutting edge between the abutment 23 and the display 1 to enhance the seal and prevent scratches on the outer shell of the display 1. One end of the abutment 23 is slidably connected to the connecting member 24 through a slide groove structure, and the sliding direction is perpendicular to the insertion direction of the protective shell 21, realizing the guiding action during locking and releasing.

[0082] The connector 24 is a fixed sliding guide rail and a structural stabilizing core. As an intermediary structure, the connector 24 is mainly fixedly connected to the protective shell 21 body through screws, buckles or grooves.

[0083] The main technical functions of connector 24 include internal guide slots and position-limiting structures for the insertion and sliding of abutment member 23. A vertical slot is also provided for the insertion and upward and downward sliding of pressing member 25. Connector 24 provides structural rigidity and stability for the entire locking assembly 22, preventing deformation or displacement during use. Connector 24 can be integrally injection-molded or assembled in multiple sections for easy maintenance and replacement. The integrated framework created by connector 24 ensures the coordinated and precise movement of the various components of locking assembly 22, while also supporting the mechanical stresses caused by repeated operation.

[0084] The pressing member 25 is the core triggering element for user unlocking. It is located on one side of the connecting member 24 and is connected to it by a vertical sliding mechanism. A portion of the pressing member 25 protrudes from the outer casing of the processing mechanism 2, forming a manually operable pressing portion 251 that allows the doctor or operator to unlock the device with a single finger.

[0085] When the pressing member 25 is pressed down, it pushes the internal cam or latch mechanism to open the locking structure, causing the abutment member 23 to pop out or loosen in the slot, thereby releasing the locking mechanism. The pop-up structure of the pressing member 25 can adopt a spring reset, magnetic attraction reset, etc. to ensure that it automatically returns to its original position after each operation.

[0086] During the locking stage, the doctor inserts the processing mechanism 2 into the port of the display 1 and presses the pressing member 25, driving the abutment 23 to automatically slide under the guidance of the guide structure and lock with the boundary of the card slot of the display 1. In the locked state, the abutment 23 is stuck in the structural groove, and the whole machine is stable and reliable. During the unlocking stage, the user presses the pressing part 251 with his finger. The pressing member 25 drives the abutment 23 to detach from the display 1, releasing the abutment 23. After the abutment 23 is detached, the processing mechanism 2 can be pulled out and subsequent disinfection and transfer can be carried out. The abutment 23, the pressing member 25 and their contact areas are key disinfection areas.

[0087] In a specific embodiment, the abutment 23 includes a contraction groove 231. The contraction groove 231 is configured as an isosceles right triangle. An equilateral side of the contraction groove 231 is arranged parallel to the connecting member 24. The first 45° angle 232 is close to the pressing portion 251, and the second 45° angle 233 is away from the pressing portion 251. The pressing member 25 is connected to a connecting column 252, which is located in the contraction groove 231 and passes through the contraction groove 231, and the connecting column 252 is slidably connected along one side of the contraction groove 231. When the pressing portion 251 is pressed, the pressing member 25 moves in a direction opposite to the pressing direction, and the pressing member 25 drives the connecting column 252 to move from the second 45° angle 233 to the first 45° angle 232, and the connecting column 252 drives the connecting member 24 to move to abut against and lock with the display 1. By pressing the pressing portion 251 , the pressing member 25 moves along the pressing direction, and the pressing member 25 drives the connecting post 252 to move from the first 45° angle 232 to the second 45° angle 233 . The connecting post 252 drives the connecting member 24 to move to abut against and lock with the display 1 .

[0088] Specifically, a contraction groove 231 is provided inside the abutment member 23 . The contraction groove 231 has a standard isosceles right triangle cross-section structure, wherein one equilateral edge is arranged parallel to the connecting member 24 , constituting a basic reference edge for the movement of the connecting column 252 .

[0089] The two 45° angles are respectively defined as a first 45° angle 232 close to the pressing portion 251 and a second 45° angle 233 away from the pressing portion 251. When the connecting column 252 slides along the shrinkage groove 231 to form a clear direction of the action guide, the triangular geometric structure naturally guides it to transition from one corner to another. At the same time, the triangular structure can form a structural "dead angle", and the connecting column 252 is forced to get stuck at a certain angle position to achieve a locking function. In addition, the isosceles right-angle structure has low processing difficulty and is suitable for mold injection molding or CNC grooving, which is convenient for large-scale production. This structure is particularly suitable for use scenarios in medical equipment with limited space and frequent operations, effectively reducing the complexity of the mechanism.

[0090] The pressing member 25 is provided with a connecting post 252, which is transversely arranged in the shrinkage groove 231. The connecting post 252 slides along one side in the groove. Its end is fixed to the connecting member 24 or controls the movement of the connecting member 24 through a linkage structure.

[0091] In the initial state, the connecting column 252 is located at the second 45° angle 233, corresponding to the unlocked state. When the user releases the pressing portion 251, the pressing member 25 bounces up due to the elastic structure, driving the connecting column 252 to slide along the shrinkage groove 231 toward the first 45° angle 232. After sliding to the first 45° angle 232, the connecting column 252 abuts against the dead angle position of the triangular groove wall, pushing the connecting member 24 forward outward. After moving forward, the connecting member 24 abuts against the display 1, completing the locking action. Similarly, when the user presses the pressing portion 251 again, the connecting column 252 slides back from the first 45° angle 232 to the second 45° angle 233, driving the connecting member 24 to retract inward, completing the unlocking and separation.

[0092] Utilizing triangular groove geometry, the force path is guided, eliminating the need for complex slide rail systems. The sliding path is naturally limited, ensuring smoother operation. This prevents mechanical jamming and mis-insertion, improving user experience.

[0093] The user aligns the processing mechanism 2 with the display 1 and inserts it into the port; after the insertion is complete, the pressing portion 251 is released, and the internal spring resets and pushes the pressing member 25 to rebound. The rebound of the pressing member 25 drives the connecting column 252 to slide from the second 45° angle 233 to the first 45° angle 232 in the shrinkage groove 231. The connecting column 252 pushes against the connecting member 24, and the connecting member 24 moves forward to achieve abutment and locking with the edge of the card slot of the display 1. After use, the user presses the pressing portion 251, and the connecting column 252 slides in the opposite direction to the second 45° angle 233. The connecting member 24 is pulled back, the structure is disengaged from the lock, and the processing module can be removed.

[0094] In a specific embodiment, the contraction groove 231 includes a rounded portion 234, and the rounded portion 234 is respectively located at the angle of an equilateral triangle. The diameter of the rounded portion 234 is recorded as A1, and the diameter of the connecting column 252 is recorded as A2, which satisfies the relationship:

[0095] A1≥A2.

[0096] Specifically, the contraction groove 231 is an isosceles right-angled triangle through-groove structure, which is used to guide the connecting column 252 to slide along its edge. Traditional right-angle or acute-angle edges are prone to the following problems during use: mechanical jamming when sliding at the corner point, residual foreign matter inside, or difficulty in cleaning, which affects disinfection, and fatigue cracking or chipping at the corner point during repeated use, which reduces lifespan.

[0097] Therefore, in this embodiment, the included angles of the triangle, such as the first 45° angle 232 , the second 45° angle 233 or the right angle, are rounded to form R angles or arc edges to avoid mechanical dead angles and wear accumulation.

[0098] The fillet 234 transitions into a two-dimensional arc cross-section, forming a curved corner. The radius of curvature is preferably between 1 and 1.5 times the diameter of the connecting post 252, ensuring that the guide function is maintained while preventing the connector 24 from slipping or bouncing. The diameter A1 of the fillet 234 is ≥ the diameter A2 of the connecting post 252 to ensure that the connecting post 252 does not become stuck due to dimensional interference when sliding into the corner.

[0099] A1 ≥ A2 is the minimum constraint for geometric sliding. If the fillet diameter is smaller than the diameter of the connecting column 252, the column will be hindered during turning and sliding, requiring external force to push, affecting the operational feel. Repeated collisions between the column and the edge can cause microcracks, grooving, and even chipping. The A1 ≥ A2 condition can reduce the impact of force. Whether sliding from the first 45° angle 232 to the second 45° angle 233 or vice versa, the column is always allowed to smoothly pass through the corner.

[0100] In one embodiment, the grip 26 includes a grip portion 261 and a hollow portion 262. The grip portion 261 is in contact with the user, is arranged in the same direction as the pressing member 25, is fixedly connected to an outer surface of the protective shell 21, and is located outside the display 1. The hollow portion 262 is formed between the grip portion 261 and the protective shell 21, and the pressing portion 251 is located within the hollow portion 262.

[0101] Specifically, the grip portion 261 is the external structure that the user directly contacts when holding the device. It is fixedly connected to the outer surface of the protective case 21 and can be constructed using screws, snaps, or integral injection molding. The hollow portion 262 is located between the grip portion 261 and the protective case 21. It is a transparent cavity area with a pressing member 25 embedded inside it, forming a centralized visual and operational area.

[0102] The grip portion 261 is located on the outer surface of the entire processing mechanism 2 and protrudes outward, allowing the doctor to directly grasp it during operation. A hollow portion 262 is provided below or in the center of the grip portion 261, forming a window-like area with space inside to accommodate the pressing portion 251. The entire structure of the hollow portion 262 is coplanar with the pressing member 25 and faces outward, exposed in the direction opposite to the interface with the display 1, facilitating single-sided operation and quick removal.

[0103] The grip 261 is the primary area for the user's hand to grasp and must comply with ergonomic and hygienic standards for medical devices. It can feature contours such as arcs, ovals, or "T-grooves" to accommodate the curvature of the human hand and prevent slippage. The grip 261 utilizes medical-grade ABS with an antimicrobial coating and can be cleaned with alcohol or peracetic acid to prevent cross-infection. The hollow portion 262 aligns with the pressure member 25, allowing the user's thumb to naturally rest on the pressure member 251, achieving simultaneous "hold and unlock" operation.

[0104] The hollowed-out portion 262 visually guides the user to naturally place their finger on the pressing portion 251. This hollowing process reduces the overall weight of the structure, making it easier to hold for extended periods. The elimination of unnecessary gaps and hidden grooves reduces bacterial residue and improves overall cleaning efficiency. The pressing member 25 extends from the interior through the hollowed-out area, allowing the locking mechanism to more precisely align with the display 1 slot.

[0105] The hollow portion 262 can be formed by injection molding or modular assembly. A dustproof arc transition can be provided around the hollow portion 262 to prevent scratches by fingers and improve comfort.

[0106] In a specific embodiment, the protective shell 21 includes a first limiting groove 11 , a second limiting groove 12 and a fixing groove 13 .

[0107] The first limiting groove 11 is formed on the other outer surface of the protective shell 21 , and the outer surface of the protective shell 21 is vertically connected to the other outer surface of the protective shell 21 , and the notch of the first limiting groove 11 faces the display 1 ;

[0108] The second limiting groove 12 is formed in the protective shell 21 and is located on the opposite side of the other outer surface of the protective shell 21. The grip portion 261 is located between the first limiting groove 11 and the second limiting groove 12.

[0109] The first limiting groove 11 and the second limiting groove 12 are respectively provided with the fixing groove 13 .

[0110] Specifically, the protective case 21 has multiple outer surfaces, one of which corresponds to the side connected to the grip portion 261. The other outer surface is a docking surface perpendicular to the side and facing the display 1. The opposing surface refers to the rear structure opposite the other outer surface. The second retaining groove 12 and the first retaining groove 11 are notched toward the display 1.

[0111] The first retaining groove 11 is located on one outer surface of the protective shell 21, extending in the pressing direction, perpendicular to the connection surface of the display 1. The second retaining groove 12 is also located in the pressing direction, but on the opposite outer surface of the protective shell 21. The fixing groove 13 is provided within the first and second retaining grooves 11, 12, respectively, and engages with the retaining block on the display 1 to form a retaining stop and structural positioning. The grip portion 261 is embedded in or located between the first and second retaining grooves 12, in the center area between the two grooves.

[0112] The first limiting groove 11 is provided on the outer surface of the protective shell 21 in the direction close to the display 1, with the opening facing the display 1. Its main function is to provide a primary alignment guide function during insertion, control the insertion depth and angle error of the processing mechanism 2 in the direction close to the display 1, prevent tilted installation, and cooperate with the external plug-in guide or the side edge slider of the gripping portion 261 to form a structural slide rail auxiliary. The groove body is a U-shaped structure, and a chamfered guide can be provided inside to avoid jamming during insertion. The first limiting groove 11 and the second limiting groove 12 respectively leave an elastic installation gap of 0.2-0.5mm with the display 1. The surface is sprayed with a medical corrosion-resistant coating to support high-frequency disinfection.

[0113] The second limiting groove 12 is set to form a clamping path symmetry with the first limiting groove 11. The second limiting groove 12 is set on the side opposite to the first limiting groove 11, that is, the other outer surface of the protective shell 21 (away from the display 1), and is arranged face to face with the first limiting groove 11 along the pressing direction.

[0114] The second retaining groove 12 and the first retaining groove 11 together form a clamping track structure for the grip portion 261 or the slider clip. The second retaining groove 12 provides a bidirectional retaining support structure during the insertion and removal process, improving the device's lateral sway resistance. The second retaining groove 12 controls the sliding section of the grip portion 261 on the protective shell 21, preventing the structural components from loosening or shifting.

[0115] It is suitable for the high-frequency plugging and unplugging needs in medical settings, especially in environments with gloved hands and limited vision, ensuring automatic device positioning and correct mechanical stops.

[0116] The fixing slot 13 is a notch structure formed within the two aforementioned retaining slots, used for mounting or engaging. It precisely secures the grip 261 in place between the two retaining slots, forming a stop for the "snapping and locking" action and, in conjunction with the release mechanism of the pressing member 25, forms a closed-loop structure. This prevents the grip 261 from moving in unintended directions or shaking during insertion and removal.

[0117] A transition groove is provided between the fixing groove 13 and the first limiting groove 11 , and the depth of the transition groove is between the depth of the first limiting groove 11 and the depth of the fixing groove 13 . A transition groove is also provided between the fixing groove 13 and the second limiting groove 12 .

[0118] The transition groove can be a linear, sloped groove or a stepped transition structure. Its walls can be chamfered with an arc or an inner wall with an R-shaped bevel to prevent sticking. Together with the stopper 31 and the slider, the transition groove can create a progressive insertion process: "first guiding, then sliding, and finally locking."

[0119] In a specific embodiment, the all-in-one device further includes a limiting assembly 3 for locking the protective shell 21 and the display 1. The limiting assembly 3 includes a limiting portion 31 and a telescopic portion 32. The limiting portions 31 are respectively disposed in the first limiting groove 11 and the second limiting groove 12. The limiting portions slide along the first limiting groove 11 and the second limiting groove 12 to be fitted with the fixing groove 13, and the limiting portion 31 is used for locking. One end of the telescopic portion 32 is connected to the display 1, and the other end of the telescopic portion 32 is connected to the limiting portion 31.

[0120] Specifically, the limiting portion 31 is respectively arranged in the first limiting groove 11 and the second limiting groove 12, and can slide along the limiting groove to the corresponding fixed groove 13 position. One end of the telescopic portion 32 is fixed to the display 1 structure, and the other end is connected to the limiting portion 31, which plays the role of sliding guide and rebound release. The limiting portion 31 can be any structure such as a T-shaped slider, an L-shaped card plate or an elastic tongue, and the size is adapted to the guide channel of the limiting groove. A slide rail flange / guide rib is provided at the bottom of the limiting portion 31, and a limiting protrusion or stop edge is provided at the top for engaging the fixed groove 13. The material of the limiting portion 31 can be high-strength engineering plastic or stainless steel spring sheet, taking into account both rigidity and flexibility.

[0121] After insertion, the stopper 31 slides along the first and second stopper grooves 12 into the corresponding fixing grooves 13, forming a physically locked state. To remove the processing mechanism 2, the stopper 31 is withdrawn from the fixing groove 13 by stretching the telescopic portion 32 or releasing the structural control member. This double-sided stopper design ensures balanced clamping force and excellent lateral support stability.

[0122] The telescopic portion 32 is connected to one side of the display 1 and can take the form of a spring sleeve structure, a telescopic guide rod, a flexible serpentine piece, a compression spring slider, or other structures. It supports axial compression and extension, with a length variation range of 5–20 mm and adaptive cushioning capabilities. It can also integrate structural springs or magnetic elements to provide automatic reset and adsorption positioning functions.

[0123] In a specific embodiment, the depth of the first limiting groove 11 is recorded as L1, the depth of the first limiting groove 11 is recorded as L2, and the depth of the fixing groove 13 is recorded as L3, which satisfies the relationship:

[0124] L1=½L3;

[0125] L2=½L3.

[0126] Specifically, the depth of the first limiting groove 11 is L1 = ½ L3, and the depth of the second limiting groove 12 is L2 = ½ L3, where L3 is the depth of the fixing groove 13, and L1 and L2 are the depths of the limiting grooves, respectively. This ensures that when the limiting portion 31 slides into the fixing groove 13, both ends enter symmetrically and stop in the middle. This not only improves sliding accuracy but also reduces structural damage caused by misalignment or stress concentration during insertion and removal.

[0127] In a specific embodiment, the all-in-one machine further includes an electrical connection component for connecting the processing mechanism 2 and the display 1, and the electrical connection component includes:

[0128] The gold finger 41 connects the processing mechanism 2 and the display 1 . When the processing mechanism 2 and the display 1 are unlocked and separated, the gold finger 41 is connected to the protective shell 21 .

[0129] Specifically, the gold finger 41 serves as an electrical connection contact of the processing mechanism 2 and is fixedly connected to the outer side of the protective shell 21 or the end surface of the internal slot.

[0130] Goldfinger 41 mates with an interface on the display 1 side, such as a connection slot or spring structure. The interface on the display 1 side has an embedded contact spring that plugs into and mates with goldfinger 41 to establish an electrical connection. In the locked state, goldfinger 41 is fully engaged with the display 1 slot, completing the corresponding electrical connection. If processing mechanism 2 is not inserted or locking assembly 22 is released, goldfinger 41 is physically disconnected from the display 1 port to prevent accidental contact or electrical shorts.

[0131] The user presses the pressing portion 251 to release the locking mechanism. The gold finger 41 automatically exits the slot under the action of the contact spring, disconnecting all electrical contacts to prevent electrostatic breakdown, arc damage, and malfunction.

[0132] The user inserts processing mechanism 2 into display 1. As the insertion progresses, gold finger 41 engages the port of display 1, and the contact terminal elastically presses against the surface of gold finger 41. Simultaneously, the stopper slot and stopper assembly 3 lock processing mechanism 2. Locking assembly 22 actuates, locking processing mechanism 2. The electrical connection is now complete, and the AI processing module can begin data exchange, image analysis, and other functions.

[0133] In a specific embodiment, the outer surface of the protective shell 21 is configured as a smooth antibacterial surface that contacts the air.

[0134] Specifically, the smooth antibacterial surface refers to a continuous, flat, low-roughness material covering layer provided on the outer surface of the protective shell 21, and has the function of inhibiting bacteria, sterilizing or blocking bacteria adhesion.

[0135] The outer surface of the protective shell 21 has a surface roughness Ra ≤ 0.2 μm, meeting medical surface standards. The continuous surface structure is seamless, without indentations or joints. The smooth antimicrobial surface is not exposed to the air during normal operation of the device. It is only exposed to the air when the processing mechanism 2 is unlocked and separated from the display 1, and is directly exposed to airborne microorganisms.

[0136] The antimicrobial surface covers the entire exposed exterior area of the protective shell 21, including the outer edge of the grip 261, the sidewalls of the pressing portion 251, and the sides and top of the shell that are in direct contact with air. The antimicrobial surface can be formed by integral injection molding, post-molding surface spraying, or lamination of multiple layers of composite materials.

[0137] Thus, the beneficial effects of the above-mentioned AI analysis interactive terminal all-in-one machine 100 are as follows:

[0138] By providing only one locking assembly 22, the contact surface with the human body is reduced, and the key disinfection area is reduced;

[0139] In order to prevent the locking component 22 from causing the processing mechanism 2 to tilt during disassembly or installation, a limiting component 3 is provided. The limiting component 3 is slidably connected along the limiting groove provided on the shell, and the first limiting groove 11 and the second limiting groove 12 provided opposite to the limiting groove are fitted with the limiting component 3 to fix the disassembly direction or installation direction of the protective shell 21;

[0140] Furthermore, by providing the electrical connection component gold finger 41 which is easier to disinfect, the electrical connection component gold finger 41 has more planar structures compared to other electrical connection structures, making it easier to disinfect.

[0141] The above is only an implementation method of the present application. It should be pointed out that for ordinary technicians in this field, improvements can be made without departing from the creative concept of the present application, but these all fall within the scope of protection of the present application.

Claims

1. An AI analysis interactive terminal all-in-one, comprising a plurality of displays respectively configured in various departments of a hospital and used to display image algorithm processing, and a processing mechanism detachably connected thereto; characterized in that: The processing mechanism includes: a protective shell detachably connected to the display in any department; A locking assembly is connected to the protective shell. In the locked state, the locking assembly and the display are abutted and locked. In the unlocked state, the locking assembly is unlocked and separated from the display. The processing mechanism is disinfected and connected to the display of any department. The locking assembly includes: an abutment member connected to the protective shell and abutted and locked with the display; A connecting member connected to the protective shell, wherein the abutting member is sleeved and slidably connected to the connecting member; A pressing member is vertically and slidably connected to the connecting member and partially extends outside the display, which is referred to as a pressing portion, and a user presses the pressing portion; A grip member connected to the protective shell, the locking assembly and the grip member extending to the same side of the display, and the locking assembly is located within the grip member; In the unlocked state, the locking assembly and the gripping member in contact with the human body, and the protective shell in contact with airborne bacteria are disinfected areas, wherein each processing mechanism is provided with only one locking assembly; The abutment member includes a contraction groove, which is set as an isosceles right triangle, and an equilateral side is arranged parallel to the connecting member, and a first 45° angle is close to the pressing portion, and a second 45° angle is away from the pressing portion; The pressing member includes a connecting post, the connecting post is located in the shrinkage groove and passes through the shrinkage groove, and the connecting post is slidably connected along one side of the shrinkage groove; Press the pressing portion, and the pressing member moves in a direction opposite to the pressing direction, and the pressing member drives the connecting post to move from the second 45° angle to the first 45° angle, and the connecting post drives the connecting member to move until it abuts and locks against the display; The pressing portion is pressed, and the pressing member moves along the pressing direction. The pressing member drives the connecting post to move from the first 45° angle to the second 45° angle. The connecting post drives the connecting member to move to be unlocked and separated from the display.

2. The AI analysis interactive terminal according to claim 1 is characterized in that: The contraction groove includes a rounded corner portion, and the rounded corner portions are respectively located at the included angles of an equilateral triangle. The diameter of the rounded corner portion is recorded as A1, and the diameter of the connecting column is recorded as A2, which satisfies the relationship: A1≥A2.

3. The AI analysis interactive terminal according to claim 1, characterized in that: The gripping member comprises: A grip portion, which is in contact with the user and is arranged in the same direction as the pressing member, is fixedly connected to an outer surface of the protective shell, and is located outside the display; A hollow portion is formed between the grip portion and the protective shell, and the pressing portion is located in the hollow portion.

4. The AI analysis interactive terminal according to claim 3 is characterized in that: The protective shell includes: a first limiting groove, arranged along the pressing direction and opened on the other outer surface of the protective shell, wherein the first outer surface of the protective shell and the other outer surface of the protective shell are vertically connected, and a notch of the first limiting groove faces the display; a second limiting groove, provided along the pressing direction and opened on the protective shell, and located on the opposite side of the other outer surface of the protective shell, wherein the grip portion is located between the first limiting groove and the second limiting groove; A fixing groove is provided in each of the first limiting groove and the second limiting groove.

5. The AI analysis interactive terminal according to claim 4 is characterized in that: The all-in-one machine further includes a limiting assembly for locking the protective shell and the display, and the limiting assembly includes: A limiting portion is provided in the first limiting groove and the second limiting groove, respectively. The limiting portion is slidably connected along the first limiting groove and the second limiting groove to be fitted with the fixing groove, and the limiting portion is used for locking; The telescopic portion has one end connected to the display and the other end connected to the limiting portion.

6. The AI analysis interactive terminal according to claim 5, characterized in that: The depth of the first limiting groove is recorded as L1, the depth of the second limiting groove is recorded as L2, and the depth of the fixing groove is recorded as L3, which satisfies the relationship: L1=½L3; L2=½L3.

7. The AI analysis interactive terminal according to claim 1, characterized in that: The all-in-one machine further includes a gold finger for connecting the processing mechanism and the electrical connection component of the display; The gold finger is fixedly connected to the protective shell, the gold finger is arranged opposite to the gripping piece, and the gold finger is pluggably connected to the display; In the locked state, the gold finger is electrically connected to the display; In the unlocked state, the gold finger is separated from the display.

8. The AI analysis interactive terminal according to claim 1, characterized in that: The outer surface of the protective shell is set as a smooth antibacterial surface, which is in contact with the air.

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