Information transmission holographic imaging device for eye trauma based on remote diagnosis and treatment

Abstract

The invention belongs to the field of imaging devices, and particularly relates to an information transmission holographic imaging device for eye trauma based on remote diagnosis and treatment, and the device comprises an assembling mechanism which comprises at least two fixing assemblies and two trapezoidal grooves; the fine adjustment mechanism is used for finely adjusting the shooting angle of the holographic image device, the fine adjustment mechanism comprises an adjusting handle, the adjusting handle is fixedly connected with at least four connecting rods, and an adjusting disc used for limiting the movement range of the second adjusting rod is embedded in the adjusting handle; through a mechanical limiting structure of the fine adjustment mechanism, an annular adjusting groove of an adjusting disc, transition fit of a movable ring and an adjusting groove and spherical rotating connection of a spherical sleeve and a connecting ring are utilized, and the structures supplement each other, so that the imaging camera can be manually and finely adjusted in angle, and the shooting visual angle can be accurately controlled through a shifting piece without motor driving; the problems that handheld shooting is low in precision and prone to deviation are solved, the image collection accuracy of the eye trauma tiny focus is improved, and reliable data support is provided for remote diagnosis and treatment.

Description

Technical Field

[0001] This invention relates to the field of imaging devices, specifically a holographic imaging device for information transmission in remote diagnosis and treatment of ocular trauma. Background Technology

[0002] Ocular trauma is a common clinical emergency, and the accuracy of its diagnosis highly depends on high-resolution, multi-angle ocular imaging data. In remote areas, primary clinics, or emergency rescue scenarios (such as ambulances and disaster sites), high-quality ophthalmic medical resources are scarce, making remote diagnosis and treatment a core means of solving this problem.

[0003] However, existing remote ocular trauma imaging devices have the following key shortcomings: Most existing devices employ motor-driven angle adjustment structures paired with heavy-duty fixation brackets, resulting in generally large weight and size. This makes them difficult to transport quickly to space-constrained scenarios such as ambulances and temporary treatment tents, leading to low deployment efficiency in emergency situations and missing the golden time for ocular trauma diagnosis and treatment. Furthermore, when using portable imaging devices, the images are typically taken handheld. Ocular trauma lesions are often distributed in small areas of the eye, requiring precise angle control. Handheld shooting without angle limiting mechanisms makes it difficult to accurately focus on the lesion area, easily leading to missed or misdiagnosed lesions due to perspective deviation, affecting the accuracy of remote diagnosis and treatment. Finally, the fixation structure of existing devices is mostly of a single form, unable to flexibly adjust the device height and shooting direction according to the shooting environment, such as the patient's sitting or lying position, or the different heights of the treatment table. This weak adaptability further reduces diagnostic efficiency. Summary of the Invention

[0004] To overcome the shortcomings of existing technologies, such as poor portability, insufficient angle adjustment accuracy, and weak scene adaptability of existing ocular trauma imaging devices, this invention proposes a holographic imaging device for information transmission of ocular trauma based on remote diagnosis and treatment.

[0005] The technical solution adopted by this invention to solve its technical problem is: a holographic imaging device for information transmission in remote diagnosis and treatment of ocular trauma, comprising: An assembly mechanism, comprising at least two fixed components and two trapezoidal slots; A fine-tuning mechanism for fine-tuning the shooting angle of a holographic imaging device. The fine-tuning mechanism includes an adjustment handle, which is fixedly connected to at least four connecting rods. The adjustment handle is fitted with an adjustment disc for limiting the range of motion of a second adjustment rod. The adjustment disc has an adjustment groove, and a movable ring is fitted through the gap between the adjustment grooves. The movable ring is sleeved and slidably installed around the second adjustment rod. An adaptation mechanism is engaged with fixed components via trapezoidal slots. The adaptation mechanism includes a connecting frame, four ball-head bases, and four second linkage rods. The second linkage rods are respectively longitudinally hinged to the middle of the connecting rod and fixed to the top of the four sliders. The sliders are movably mounted on the limiting guide rods. The sliders move to drive the second linkage rods and connecting rods to achieve position adjustment. Trapezoidal locking blocks are fixedly connected to both sides of the connecting frame. The ball-head bases are located inside the connecting frame and have turning slots. Turning rods are rotatably mounted in the turning slots. The turning rods are connected to a housing, and the housing contains a limiting guide rod.

[0006] The remote information transmission module is used for remote transmission of holographic images.

[0007] Preferably, the fine-tuning mechanism further includes a connecting ring, on the top of which four connecting rods are fixedly installed. The connecting ring has a spherical groove, and a spherical sleeve is rotatably installed through the spherical groove. The spherical sleeve is fixedly installed on the lower middle outer surface of the imaging camera. A second adjusting rod is fixedly installed on the top of the imaging camera. A paddle is fixedly installed on the top of the second adjusting rod, and the second adjusting rod is slidably installed in the adjusting groove of the adjusting plate.

[0008] Preferably, the adaptation mechanism uses a locking structure consisting of a threaded bolt, a conical block, a pressing plate, a first linkage rod, a movable plate, a spring, and a friction plate. The slider has a degree of freedom of movement on the limiting guide rod, thereby indirectly fixing the steering rod and preventing it from rotating in the steering groove of the ball head base, which would cause the imaging camera to deviate.

[0009] Preferably, friction plates are slidably mounted on both sides of the inner cavity of each housing, and a plurality of springs are connected to the other side of each friction plate, with the other side of the plurality of springs connected to a movable plate.

[0010] Preferably, each of the movable plates is connected to a first linkage rod on one side, and a pressing plate is fixed to the other side of each of the two first linkage rods. The two pressing plates are movably installed in the inner cavity of the slider.

[0011] Preferably, the slider has a threaded groove and is threadedly connected to a threaded bolt that is compatible with it. A conical block is movably sleeved on the bottom of the threaded bolt through a flat key groove. The threaded bolt and the threaded groove of the slider generate a threaded engagement to link the conical block for lifting and lowering. The conical block is movably installed in the inner cavity of the slider.

[0012] Preferably, the assembly mechanism further includes a fixing plate, on the top of which two fixing sleeves are fixedly installed. Movable sleeves are slidably installed in the inner cavities of the two fixing sleeves, and first adjusting rods are slidably installed in the inner cavities of the two movable sleeves.

[0013] Preferably, the top of the first adjusting rod is movably fitted with two fixing components, one of which is fixedly installed with two three-step trapezoidal threaded rings, and the two three-step trapezoidal threaded rings are threadedly connected to a matching three-step internal threaded sleeve.

[0014] Preferably, each of the two fixing components has a trapezoidal groove, and each of the two trapezoidal grooves is slidably engaged with a trapezoidal engaging block on the adapting mechanism.

[0015] Preferably, a storage box is placed on the top of the fixing plate, the storage box is used to store the fine-tuning mechanism and the adaptation mechanism, and a remote information transmission module is also fixed on the top of the fixing plate.

[0016] The advantages of this invention are: 1. This invention utilizes the mechanical limiting structure of the fine-tuning mechanism, the annular adjustment groove of the adjustment disc, the transition fit between the movable ring and the adjustment groove, and the spherical rotation connection between the spherical sleeve and the connecting ring. The structures complement each other, enabling the imaging camera to be manually and precisely adjusted in angle. The shooting angle can be accurately controlled by a lever without the need for motor drive, solving the problems of low accuracy and easy deviation in handheld shooting. This improves the accuracy of image acquisition of small lesions in ocular trauma and provides reliable data support for remote diagnosis and treatment. 2. This invention, through the multi-directional linkage design of the adaptive mechanism, combines the sliding cooperation between the slider and the limiting guide rod, the locking structure between the friction plate and the spring, and the multi-angle rotation between the steering rod and the ball head base to form a large-angle orientation adjustment of the imaging camera. Combined with the height adjustment function of the assembly mechanism, it can adapt to scenarios such as patient sitting posture, lying posture, and different height treatment tables, solving the problem of weak scenario adaptability of existing devices and improving the flexibility of remote diagnosis and treatment. 3. Through the modular design of the assembly mechanism, this invention enables rapid assembly and folding storage of the device, solving the problems of large size and poor portability of existing devices, and improving the deployment efficiency of the device in emergency scenarios. Attached Figure Description

[0017] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0018] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is an exploded view of the overall structure of the present invention; Figure 3 This is an exploded cross-sectional view of the fine-tuning mechanism structure of the present invention; Figure 4 This is a schematic diagram of the structural transformation of the fine-tuning mechanism of the present invention; Figure 5 This is a schematic diagram of the adaptive mechanism structure of the present invention; Figure 6 This is a schematic cross-sectional view of the shell structure of the present invention; Figure 7 This is a schematic cross-sectional view of the slider structure of the present invention; Figure 8 This is an exploded view of the slider structure of the present invention; Figure 9 This is a schematic diagram illustrating the effect of the adaptive mechanism structure of the present invention; Figure 10 This is an exploded view of the assembly mechanism structure of the present invention; Figure 11 For the present invention Figure 10 Enlarged schematic diagram of the structure at point A in the middle; Figure 12 This is a schematic diagram showing the overall structural transformation of the present invention; Figure 13 This is a schematic diagram of the overall structure of the present invention for folding and storage.

[0019] In the diagram: 100, Assembly mechanism; 110, Fixing plate; 120, Placement box; 130, Fixing sleeve; 131, First-order trapezoidal threaded ring; 132, First-order internal threaded sleeve; 133, Movable sleeve; 134, Second-order trapezoidal threaded ring; 135, Second-order internal threaded sleeve; 140, First adjusting rod; 141, Fixing assembly; 142, Third-order trapezoidal threaded ring; 143, Third-order internal threaded sleeve; 144, Trapezoidal groove; 150, Magnetic base; 151, Silicone pad; 200. Fine-tuning mechanism; 210. Adjustment handle; 211. Connecting rod; 220. Connecting ring; 230. Adjustment disc; 231. Adjustment groove; 232. Movable ring; 240. Spherical sleeve; 241. Second adjustment rod; 242. Paddle; 243. Imaging camera; 300. Adaptive mechanism; 310. Connecting frame; 320. Trapezoidal snap-fit ​​block; 330. Ball head base; 331. Steering rod; 332. Housing; 333. Limiting guide rod; 340. Slider; 341. Threaded bolt; 342. Knob; 343. Conical block; 344. Extrusion plate; 345. First linkage rod; 346. Movable plate; 347. Spring; 348. Friction plate; 350. Second linkage rod; 400. Remote information transmission module. Detailed Implementation

[0020] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0021] like Figure 1 and Figure 2 As shown, a holographic imaging device for information transmission in remote diagnosis and treatment of ocular trauma includes an assembly mechanism 100, a fine-tuning mechanism 200, an adaptation mechanism 300, and a remote information transmission module 400. The adaptation mechanism 300 is movably attached to the top of the assembly mechanism 100, and the fine-tuning mechanism 200 is movably mounted on the top of the adaptation mechanism 300. The remote information transmission module 400 for remote transmission is also installed on the assembly mechanism 100. Furthermore, when existing equipment captures holographic images of eye injuries, it typically uses mechanical positioning of the camera angle and then drives a motor to move the imaging probe. However, this method results in a large overall weight and space requirement, making it inconvenient to carry and limiting its application scenarios. During use, the assembly mechanism 100 adjusts the overall height through the sliding engagement of the fixed sleeve 130 and the movable sleeve 133, and the movable sleeve 133 and the first adjusting rod 140. The fixed component 141 fixes the position of the adapting mechanism 300 through the three-step trapezoidal threaded ring 142 and the three-step internal threaded sleeve 143. The adapting mechanism 300 achieves large-angle orientation adjustment of the fine-tuning mechanism 200 through the sliding of the slider 340 on the limiting guide rod 333 and the rotation of the steering rod 331 on the ball head base 330. The threaded bolt 341 drives the conical block 343 to rise and fall, and the linkage of the extrusion plate 344, the first linkage rod 345, the movable plate 346 and the spring 347 adjusts the friction plate 348 to lock the slider 340. The fine adjustment mechanism 200 moves the second adjustment rod 241 by moving the paddle 242 at the top of the second adjustment rod 241, so that the second adjustment rod 241 slides in the adjustment groove 231 and drives the imaging camera 243 to rotate in the connecting ring 220 through the ball sleeve 240, so as to achieve fine adjustment of the shooting angle. The remote information transmission module 400 transmits holographic images. like Figure 3As shown, an adjustment plate 230 is installed on the fine-tuning mechanism 200, and is fixedly supported by adjustment handles 210 on all four sides. The adjustment plate 230 has an adjustment groove 231, and there is a lateral gap in the adjustment groove 231. The lateral gap between the adjustment grooves 231 is used to transition fit with the movable ring 232, so that the movable ring 232 can move in the lateral gap of the adjustment groove 231. At the same time, due to the contact stress generated by the transition fit, the movable ring 232 will be restricted in its movement when there is no external force interference. A second adjustment rod 241 is also longitudinally arranged in the adjustment groove 231. The operator can move the second adjustment rod 241 in the annular adjustment groove 231 by moving the lever 242. In the 31-fold movement, a movable ring 232 is fitted around the second adjusting rod 241. The second adjusting rod 241 and the movable ring 232 are in clearance fit to prevent the second adjusting rod 241 from tilting during movement and causing motion interference to the movable ring 232. The adjusting disk 230 is fixed around its perimeter by the adjusting handle 210. The adjusting handle 210 fixes the connecting ring 220 through four connecting rods 211, making the adjusting disk 230 and the connecting ring 220 parallel and aligned, while providing corresponding support and fixation for both. The connecting ring 220 has a spherical groove, which is adapted to the spherical sleeve 240 fixed on the outer surface of the imaging camera 243. In summary, as shown above... Figure 4 As shown, when a person moves the lever 242 to make the second adjusting rod 241 move in a circular motion in the adjusting groove 231 of the adjusting plate 230, the bottom of the second adjusting rod 241 is fixed to the imaging camera 243, which in turn causes the imaging camera 243 to rotate in a corresponding manner through the ball sleeve 240 in the spherical groove of the connecting ring 220, thus finely adjusting the shooting angle of the imaging camera 243. When the imaging camera 243 moves to the required angle, the person stops moving the lever 242, and the contact stress generated by the lateral gap between the movable ring 232 and the adjusting groove 231 limits the second adjusting rod 241 to the required position in the adjusting groove 231. like Figure 5 and Figure 6 As shown, the two sides of the connecting frame 310 are fixed by trapezoidal snap-fit ​​blocks 320. The connecting frame 310 is an equilateral rectangle, and four ball head bases 330 are fixed on the inner side of the center. Each of the four ball head bases 330 has a turning groove. The ball head end of the turning rod 331 is movably embedded in the turning groove of the ball head base 330, so that the ball head end of the turning rod 331 can rotate in the turning groove of the ball head base 330. The other end of the turning rod 331 is connected to the outer surface of the housing 332. When the housing 332 is away from the center of the connecting frame 310, the ball head end of the turning rod 331 moves freely in the ball head base 330. like Figure 6 and Figure 7As shown, two friction plates 348 are slidably installed in the inner cavity of the housing 332. The back of the friction plates 348 is fixed to the movable plate 346 by several springs 347. At this time, under the action of the springs 347, the friction plates 348 apply positive pressure to the inner wall of the housing 332, so that static friction is generated between the friction plates 348 and the housing 332. This force, together with the balancing force of the springs 347, keeps the slider 340 stationary and has no tendency to move. like Figure 7 As shown, while the spring 347 applies pressure to the friction plate 348, the spring 347 also applies corresponding pressure to the movable plate 346. The two movable plates 346 are respectively connected to the pressing plate 344 through two first linkage rods 345. The first linkage rods 345 pass through the slider 340 and can link the pressing plate 344 and the movable plate 346 to move at equal distances. When the pressing plate 344 moves in the inner cavity of the slider 340, it can adjust the positive pressure of the friction plate 348 against the inner wall of the housing 332, thereby generating greater friction. like Figure 7 As shown, the slider 340 is threadedly connected to a threaded bolt 341 via a threaded groove. The top of the threaded bolt 341 has a knob 342 for rotation. When the knob 342 is rotated, the slider 340 and the threaded bolt 341 engage threadedly, thereby allowing the threaded bolt 341 to rotate and rise on the slider 340. Figure 8 As shown, a circular flat key is fixed to the bottom of the threaded bolt 341, and a circular groove is provided on the conical block 343 for the circular flat key to move. When the threaded bolt 341 rotates and moves up and down, the conical block 343 is driven to move synchronously through the circular groove of the flat key. However, when the threaded bolt 341 rotates, due to the structural design of the flat key moving within the circular groove, the rotational power cannot be transmitted to the conical block 343. Figure 7 As shown, when the operator rotates the knob 342, the threaded engagement between the threaded bolt 341 and the slider 340 drives the conical block 343 to move up and down. The conical block 343 is positioned between the two extrusion plates 344. In summary, when the conical block 343 descends, the shape and structure of the conical block 343 cause the two extrusion plates 344 to move apart to the sides, increasing the preload on the extrusion plates 344. Under the transmission of the first linkage rod 345, the movable plate 346, and the spring 347, the positive pressure of the friction plate 348 on the inner wall of the housing 332 is increased, so that the slider 340 needs to be subjected to a greater force to move on the limiting guide rod 333. Conversely, when the two extrusion plates 344 retract inward, the slider 340 only needs to be subjected to a small force to move on the limiting guide rod 333. like Figure 6As shown, after the imaging camera 243 completes large-angle positioning by rotating within the ball joint base 330 via the steering rod 331, the spatial position of the steering rod 331 is rigidly linked to the slider 340 through the housing 332, the limiting guide rod 333, and the slider 340. The degree of freedom of the slider 340 directly determines the displacement possibility of the housing 332, thereby limiting the rotation tendency of the steering rod 331, such as... Figure 7 As shown, the spring 347 provides continuous elastic pressure to the friction plate 348, keeping the friction plate 348 in contact with the inner wall of the housing 332. When the conical block 343 is raised or lowered by adjusting the threaded bolt 341, the pressure of the spring 347 on the friction plate 348 can be further amplified or reduced, thereby changing the static friction between the friction plate 348 and the housing 332. When the static friction is sufficient to counteract the rotational torque of the steering rod 331, the slider 340 is firmly locked on the limit guide rod 333, and the housing 332 cannot be displaced by the slider 340. Due to the position restriction of the housing 332, the ball end of the steering rod 331 cannot rotate in the steering groove of the ball base 330, thus achieving stable fixation of the angle of the imaging camera 243. In summary, such as Figure 9 As shown, when an operator applies external force to the adjusting handle 210, the four second linkage rods 350 are longitudinally hinged to the four connecting rods 211. When the adjusting handle 210 is tilted to one side by external force, the second linkage rods 350 corresponding to the tilt angle move in a circular motion around the hinge point of the connecting rods 211, as shown. Figure 6 As shown, the second linkage rod 350, unaffected by tilt, links with the housing 332 via the slider 340, causing the steering rod 331, fixed on one side of the housing 332, to rotate within the steering groove of the ball joint base 330, changing the parallel angle between the housing 332 and the ball joint base 330. Simultaneously, the second linkage rod 350, affected by the tilt angle, changes the vertical angle between the housing 332 and the ball joint base 330, allowing the imaging camera 243 to adjust and locate the eye injury at a large angle. When it moves to the desired position, as... Figure 6 and Figure 7 As shown, the friction plate 348 generates positive pressure on the inner cavity of the housing 332. At this time, the second linkage rod 350, which is not subject to external force, will not be able to drive the slider 340 to move on the limiting guide rod 333, thus limiting the position of the adjusting handle 210. like Figure 10As shown, the assembly mechanism 100 is provided with a fixing plate 110. Two fixing sleeves 130 are fixed on the top of the fixing plate 110, and a stepped threaded ring 131 is fixed on the top of each of the two fixing sleeves 130. The two stepped threaded rings 131 are equipped with a stepped internal threaded sleeve 132 that matches them. The stepped threaded rings 131 can be threaded by rotating the stepped internal threaded sleeve 132, thereby locking or loosening the movable sleeve 133 fitted inside the fixing sleeve 130. The top of the movable sleeve 133 is also provided with a second-stage stepped threaded ring 134 and a second-stage internal threaded sleeve 135 that are the same shape but different in size as the stepped threaded rings 131 and the stepped internal threaded sleeve 132. These can limit the position of the first adjusting rod 140 sliding inside the movable sleeve 133. like Figure 11 As shown, two movable fixing components 141 are sleeved on the outer surface of the first adjusting rod 140. Each fixing component 141 has a trapezoidal groove 144. The two fixing components 141 are adapted to the trapezoidal locking block 320 on the connecting frame 310. Personnel can push the trapezoidal locking block 320 into the trapezoidal groove 144 along one side of the fixing component 141, so that the trapezoidal locking block 320 is locked and fixed to the trapezoidal groove 144. When both sides of the connecting frame 310 are locked by the fixing components 141, the sleeve ends of the two fixing components 141 are connected to the outer surface of the first adjusting rod 140, as shown. Figure 10 and Figure 12 As shown, after the two fixed components 141 are connected to the first adjusting rod 140, the positions of the fine-tuning mechanism 200 and the adaptation mechanism 300 can be flexibly adjusted. When the personnel are positioned, the fine-tuning mechanism 200 and the adaptation mechanism 300 can be limited by the cooperation between the three-step trapezoidal threaded ring 142 on one of the fixed components 141 and the three-step internal threaded sleeve 143. At the same time, since the docking points of the first adjusting rod 140 and the movable sleeve 133 are different, the fine-tuning mechanism 200 and the adaptation mechanism 300 can be adjusted accordingly to change them to longitudinal or transverse. In order to prevent obstacles in the position space from blocking the fixed plate 110, the position of the first adjusting rod 140 on the movable sleeve 133 can be flipped so that the bottom of the fine-tuning mechanism 200 and the adaptation mechanism 300 avoids obstacles, thereby adapting to the environment for shooting. like Figure 10 and Figure 13 As shown, this device can also be disassembled and stored. The fine-tuning mechanism 200 and the adaptation mechanism 300 can be removed from the fixing assembly 141, and the fine-tuning mechanism 200 and the adaptation mechanism 300 can be placed in the placement box 120 for protection and storage. The placement box 120 can be placed on the top of the fixing plate 110 or any other position. Multiple rubber clips are fixedly installed on the fixing plate 110. The rubber is malleable and can be used to lock and limit the first adjusting rod 140, so that the first adjusting rod 140 is fixed to the top of the fixing plate 110 to prevent it from moving. like Figure 10 As shown, four magnetic bases 150 are also fixedly installed at the bottom of the fixed plate 110. Each of the four magnetic bases 150 has a silicone pad 151 at its bottom. The silicone pad 151 directly contacts the ground, which increases the friction with the ground to prevent slipping. On the other hand, its softness reduces the rigidity of the overall contact with the ground, thus buffering the ground that is prone to shaking, such as in an ambulance. Under the magnetic force of the magnetic base 150, it can form a magnetic connection with the magnetic ground, which can prevent the entire device from shaking on unstable ground. The remote information transmission module 400 is directly connected to the imaging camera 243 of the fine-tuning mechanism 200 via a data cable. When the fine-tuning mechanism 200 adjusts the imaging camera 243 to the optimal shooting angle via the lever 242, the holographic image captured by the imaging camera 243 will be transmitted to the remote diagnosis and treatment terminal in real time via the data cable. The bottom of the fixing plate 110 of the assembly mechanism 100 is reserved with a lithium battery mounting slot, and the remote information transmission module 400 can be electrically connected to the lithium battery via a power cable.

[0022] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the claimed invention.

Claims

1. A holographic imaging device for information transmission in remote diagnosis and treatment of ocular trauma, characterized in that: The utility model relates to a kind of holographic image device, including: Assembly mechanism (100), it includes at least two fixed components (141) and two trapezoidal slots (144); Fine adjustment mechanism (200), for fine adjustment holographic image device shooting angle, the fine adjustment mechanism (200) includes adjusting handle (210), the adjusting handle (210) is fixedly connected with at least four connecting rods (211), the adjusting handle (210) is embedded with the adjusting disc (230) for the second adjusting rod (241) range definition, the adjusting disc (230) is opened with adjusting groove (231), and movable ring (232) is transition fitted by the gap between adjusting groove (231), the movable ring (232) is set and slidingly installed around second adjusting rod (241); Adaptation mechanism (300), by trapezoidal slot (144) is clamped between fixed components (141), the adaptation mechanism (300) includes connecting frame (310), four ball head pedestals (330) and four second linkages (350), the second linkages (350) are respectively vertically hinged in the middle of connecting rod (211) and are fixedly connected to the top of four sliders (340), the slider (340) is through and movably installed on limiting guide rod (333), by slider (340) movable drive second linkage (350) and connecting rod (211) realize position adjustment;The two sides of the connecting frame (310) are fixedly connected with trapezoidal clamping block (320), the ball head pedestal (330) is located inside connecting frame (310) and is opened with steering groove, the steering groove is rotatably installed with steering rod (331), the steering rod (331) is connected with shell (332), the shell (332) is equipped with limiting guide rod (333) inside; Remote information transmission module (400), for remote transmission holographic image.

2. The information transmission holographic image device for eye trauma based on remote diagnosis and treatment according to claim 1, characterized in that: The fine adjustment mechanism (200) further includes connecting ring (220), the connecting ring (220) top fixedly installed with four connecting rods (211), the connecting ring (220) is opened with spherical groove, and rotatably installed with spherical sleeve (240) by spherical groove, the spherical sleeve (240) is fixedly installed on the middle lower part outer surface of imaging camera (243), the top of the imaging camera (243) is fixedly installed with second adjusting rod (241), the top of the second adjusting rod (241) is fixedly installed with dial tab (242), the second adjusting rod (241) is slidingly installed in the adjusting groove (231) opened in adjusting disc (230).

3. The information transmission holographic image device for eye trauma based on remote diagnosis and treatment according to claim 1, characterized in that: The adaptation mechanism (300) is indirectly fixed steering rod (331) by the activity freedom degree of slider (340) on limiting guide rod (333), avoid its rotation in the steering groove of ball head pedestal (330) and cause imaging camera (243) to deviate.

4. The information transmission holographic image device for eye trauma based on remote diagnosis and treatment according to claim 3, characterized in that: The inner cavity of each shell (332) is slidably provided with a friction plate (348), and the other side of each friction plate (348) is connected with a plurality of springs (347), and the other side of the plurality of springs (347) is connected with a movable plate (346).

5. The information transmission hologram device for eye trauma based on remote diagnosis and treatment according to claim 4, characterized in that: One side of each movable plate (346) is connected with a first linkage rod (345), and the other side of the two first linkage rods (345) is respectively fixedly provided with a pressing plate (344), and the two pressing plates (344) are movably installed in the inner cavity of the sliding block (340).

6. The information transmission hologram device for eye trauma based on remote diagnosis and treatment according to claim 5, characterized in that: The sliding block (340) is provided with a threaded groove, and a threaded bolt (341) matched with the threaded groove is threadedly connected, the bottom of the threaded bolt (341) is movably sleeved with a tapered block (343) through a flat key circular groove, the threaded bolt (341) is threadedly connected with the threaded groove of the sliding block (340), and the tapered block (343) is movably installed in the inner cavity of the sliding block (340).

7. The information transmission hologram device for eye trauma based on remote diagnosis and treatment according to claim 1, characterized in that it comprises: The assembly mechanism (100) further comprises a fixed plate (110), the top of the fixed plate (110) is fixedly provided with two fixed sleeves (130), the inner cavities of the two fixed sleeves (130) are slidably provided with movable sleeves (133), and the inner cavities of the two movable sleeves (133) are slidably provided with first adjusting rods (140).

8. The information transmission hologram device for eye trauma based on remote diagnosis and treatment according to claim 7, characterized in that: The top of the first adjusting rod (140) is movably sleeved with two fixed components (141), one of the two fixed components (141) is fixedly provided with two three-step thread rings (142), and the two three-step thread rings (142) are threadedly connected with three-step internal thread sleeves (143) matched with the two three-step thread rings (142).

9. The information transmission hologram device for eye trauma based on remote diagnosis and treatment according to claim 8, characterized in that: The two fixed components (141) are respectively provided with trapezoidal grooves (144), and the two trapezoidal grooves (144) are respectively slidably connected with trapezoidal clamping blocks (320) on the adaptive mechanism (300).

10. The information transmission hologram device for eye trauma based on remote diagnosis and treatment according to claim 7, characterized in that: The top of the fixed plate (110) is provided with a placing box (120), the placing box (120) is used for placing the fine adjustment mechanism (200) and the adaptive mechanism (300), and the top of the fixed plate (110) is further provided with a remote information transmission module (400).

Images