An information transmission holographic image device based on remote diagnosis and treatment for eye injury

Abstract

The application belongs to the field of image devices, and particularly relates to an information transmission holographic image device for eye injury based on remote diagnosis and treatment, which comprises an assembling mechanism comprising at least two fixed components and two trapezoidal grooves, and a fine adjustment mechanism for fine adjustment of a shooting angle of the holographic image device, wherein the fine adjustment mechanism comprises an adjusting handle fixedly connected with at least four connecting rods, and the adjusting handle is embedded with an adjusting disc for defining the activity range of the second adjusting rod. Through the mechanical limiting structure of the fine adjustment mechanism, the transition cooperation between the annular adjusting groove of the adjusting disc, the movable ring and the adjusting groove, and the spherical rotary connection between the ball sleeve and the connecting ring, the structures complement each other, the imaging camera can be manually and finely adjusted in angle, the shooting visual angle can be accurately controlled through the dial piece without motor driving, the problem of low precision and easy deviation in handheld shooting is solved, the image collection accuracy of the small lesions of eye injury is improved, and reliable data support is provided for remote diagnosis and treatment.

Description

TECHNICAL FIELD

[0001] The present application relates to the field of image devices, in particular to an information transmission holographic image device for eye injury based on remote diagnosis and treatment. BACKGROUND

[0002] Eye injury is a common clinical emergency, and its diagnostic accuracy is highly dependent on high-definition, multi-angle eye image data. In remote areas, primary clinics or emergency rescue scenes (such as ambulances, disaster sites), high-quality ophthalmic medical resources are scarce, and remote diagnosis and treatment has become the core means to solve this problem.

[0003] However, the existing eye injury image device for remote diagnosis and treatment has the following key deficiencies: most existing devices use motor-driven angle adjustment structures with heavy fixed supports, and the overall weight and volume are generally large, which cannot be quickly transported to limited space such as ambulance compartments, temporary diagnosis and treatment tents, etc., resulting in low deployment efficiency of the device in emergency scenes, missing the golden time of eye injury diagnosis and treatment; when using a portable image device to shoot, the shooting is usually done by hand, and the eye injury lesions are often distributed in a small area of the eye, requiring the image device to achieve fine angle control. Handheld shooting and lack of angle limiting mechanism make it difficult to accurately focus on the lesion area, and easy to miss or misdiagnose the lesion due to angle deviation, affecting the accuracy of remote diagnosis and treatment; the fixed structure of the existing device is mostly single in form, and cannot flexibly adjust the device height and shooting direction according to the shooting environment, such as the patient's sitting or lying posture, or the diagnosis and treatment table of different heights, with weak scene adaptability, further reducing the diagnosis and treatment efficiency. SUMMARY

[0004] In order to make up for the deficiencies of the prior art, the existing eye injury image device has poor portability, insufficient angle adjustment accuracy and weak scene adaptability, and the present application proposes an information transmission holographic image device for eye injury based on remote diagnosis and treatment.

[0005] The technical solution adopted by the present application to solve its technical problems is: the information transmission holographic image device for eye injury based on remote diagnosis and treatment, comprising:

[0006] The assembly mechanism comprises at least two fixed components and two trapezoidal grooves, and further comprises a fixed plate, and a placement box is placed on the top of the fixed plate, and the placement box is used to place the fine adjustment mechanism and the adaptation mechanism;

[0007] The fine adjustment mechanism is used for fine adjustment of the shooting angle of the holographic image device, and comprises an adjusting handle, at least four connecting rods fixedly connected to the adjusting handle, an adjusting disc embedded in the adjusting handle and used for limiting the activity range of the second adjusting rod, adjusting grooves formed in the adjusting disc, and an activity ring transitionally matched through the gaps between the adjusting grooves and sleeved and slidingly installed around the second adjusting rod.

[0008] The adaptive mechanism is clamped between the fixed assemblies through the trapezoidal slots, and comprises a connecting frame, four ball head bases and four second linkage rods.

[0009] The remote information transmission module is used for remotely transmitting the holographic image.

[0010] Preferably, the fine adjustment mechanism further comprises a connecting ring, four connecting rods fixedly installed at the top of the connecting ring, a spherical groove formed in the connecting ring and a spherical sleeve rotationally installed through the spherical groove, the spherical sleeve being fixedly installed on the outer surface of the middle and lower part of the imaging camera, a second adjusting rod fixedly installed at the top of the imaging camera, a second adjusting rod fixedly installed at the top of the second adjusting rod, the second adjusting rod being slidingly installed in the adjusting groove formed in the adjusting disc.

[0011] Preferably, the adaptive mechanism comprises a locking structure composed of a threaded bolt, a conical block, an extrusion plate, a first linkage rod, an activity plate, a spring and a friction plate, the activity freedom of the sliding block on the limiting guide rod indirectly fixing the steering rod, so as to avoid the steering rod from rotating in the steering groove of the ball head base and causing the imaging camera to deviate.

[0012] Preferably, the inner cavities of the housings are slidingly installed with the friction plates on both sides, the other sides of the friction plates are connected with the springs, and the other sides of the springs are connected with the activity plates.

[0013] Preferably, one side of each of the activity plates is connected with the first linkage rod, the other sides of the two first linkage rods are fixedly provided with the extrusion plates, and the two extrusion plates are slidingly installed in the inner cavities of the sliding blocks.

[0014] Preferably, the sliding block is provided with a threaded groove, and a threaded bolt matched with the threaded groove is threadedly connected to the sliding block, the bottom of the threaded bolt is movably sleeved with a conical block through a flat key circular groove, the conical block is movably installed in the inner cavity of the sliding block.

[0015] Preferably, the top of the fixed plate is fixedly installed with two fixed sleeves, the inner cavities of the two fixed sleeves are slidably installed with two movable sleeves, and the inner cavities of the two movable sleeves are slidably installed with two first adjusting rods.

[0016] Preferably, the top of the first adjusting rod is movably sleeved with two fixed components, one of the two fixed components is fixedly installed with two three-step threaded rings, and the two three-step threaded rings are threadedly connected with two three-step internal threaded sleeves matched with the two three-step threaded rings.

[0017] Preferably, the two fixed components are respectively provided with trapezoidal grooves, and the two trapezoidal grooves are respectively slidably connected with trapezoidal clamping blocks on the adaptive mechanism.

[0018] Preferably, the top of the fixed plate is further fixed with a remote information transmission module.

[0019] The present application has the advantages that:

[0020] 1. The mechanical limiting structure of the fine adjustment mechanism, the transition cooperation between the annular adjusting groove of the adjusting disc, the movable ring and the adjusting groove, and the spherical rotary connection between the ball sleeve and the connecting ring, complement each other between structures, so that the imaging camera can be manually fine angle adjusted, the shooting angle can be accurately controlled through the dial piece without motor driving, the problem of low precision and easy deviation in handheld shooting is solved, the image collection accuracy of small lesions of eye trauma is improved, and reliable data support is provided for remote diagnosis and treatment.

[0021] 2. The multidirectional linkage design of the adaptive mechanism forms the large-angle orientation adjustment of the imaging camera through the sliding cooperation of the sliding block and the limiting guide rod, the locking structure of the friction plate and the spring, and the multi-angle rotation of the steering rod and the ball head base, and cooperates with the height adjustment function of the assembly mechanism to adapt to scenes such as patient sitting posture, lying posture and different height diagnosis and treatment platforms, solves the problem of weak scene adaptability of the existing device, and improves the flexibility of remote diagnosis and treatment.

[0022] 3. The modular design of the assembly mechanism realizes the rapid assembly and folding of the device, solves the problems of large size and poor portability of the existing device, and improves the deployment efficiency of the device in emergency scenes. BRIEF DESCRIPTION OF DRAWINGS

[0023] In order to make the technical solutions in the embodiments of the present application or the prior art clearer, the accompanying drawings needed in the embodiments or prior art description will be briefly introduced. Obviously, the accompanying drawings in the following description only show some embodiments of the present application, and for those skilled in the art, other drawings can be obtained based on these drawings without any creative effort.

[0024] Figure 1 It is an overall structure schematic diagram of the present application.

[0025] Figure 2 It is an overall structure explosion schematic diagram of the present application.

[0026] Figure 3 It is a fine adjustment mechanism structure explosion section schematic diagram of the present application.

[0027] Figure 4 It is a fine adjustment mechanism structure conversion schematic diagram of the present application.

[0028] Figure 5 It is an adaptation mechanism structure schematic diagram of the present application.

[0029] Figure 6 It is a shell structure section schematic diagram of the present application.

[0030] Figure 7 It is a slider structure section schematic diagram of the present application.

[0031] Figure 8 It is a slider structure explosion schematic diagram of the present application.

[0032] Figure 9 It is an adaptation mechanism structure effect display schematic diagram of the present application.

[0033] Figure 10 It is an assembly mechanism structure explosion schematic diagram of the present application.

[0034] Figure 11 It is an overall structure of the present application Figure 10 It is an enlarged schematic diagram of structure A in the present application.

[0035] Figure 12 It is an overall structure conversion schematic diagram of the present application.

[0036] Figure 13 It is an overall structure folding storage schematic diagram of the present application.

[0037] In the figure: 100, assembly mechanism; 110, fixed plate; 120, placement box; 130, fixed sleeve; 131, first stepped thread ring; 132, first internal thread sleeve; 133, movable sleeve; 134, second stepped thread ring; 135, second internal thread sleeve; 140, first adjusting rod; 141, fixed assembly; 142, third stepped thread ring; 143, third internal thread sleeve; 144, stepped groove; 150, magnetic base; 151, silica gel pad;

[0038] 200, fine adjustment mechanism; 210, adjusting handle; 211, connecting rod; 220, connecting ring; 230, adjusting disc; 231, adjusting groove; 232, movable ring; 240, ball sleeve; 241, second adjusting rod; 242, push piece; 243, imaging camera;

[0039] 300, adaptation mechanism; 310, connecting frame; 320, trapezoidal clamping block; 330, ball head base; 331, steering rod; 332, shell; 333, limiting guide rod; 340, sliding block; 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;

[0040] 400, remote information transmission module. DETAILED DESCRIPTION

[0041] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to 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. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the present application.

[0042] As shown in Figure 1 and Figure 2 , an information transmission holographic image device for eye injury based on remote diagnosis and treatment comprises an assembly mechanism 100, a fine adjustment mechanism 200, an adaptation mechanism 300, and a remote information transmission module 400. The adaptation mechanism 300 is movably clamped on the top of the assembly mechanism 100, the fine adjustment mechanism 200 is movably installed on the top of the adaptation mechanism 300, and the remote information transmission module 400 for remote transmission is further installed on the assembly mechanism 100;

[0043] Further, when the existing device performs holographic image shooting on eye injury, it usually mechanically positions the angle of the camera, and then drives the motor to drive the imaging probe to move. However, using this way, the overall weight and space occupation are large, which is not convenient to carry, and leads to certain limitations in use scenarios;

[0044] But the device in use, assembly mechanism 100 through the fixed sleeve 130 and movable sleeve 133, movable sleeve 133 and the first adjusting rod 140 sliding fit adjustment overall height, fixed components 141 through three ladder thread ring 142 and three ladder internal thread sleeve 143 fixed adaptive mechanism 300 position, adaptive mechanism 300 through the sliding block 340 in the limit guide rod 333 sliding, steering lever 331 in the ball head base 330 rotation to achieve fine adjustment mechanism 200 large angle orientation adjustment, and through the threaded bolt 341 drive tapered block 343 lifting, linkage extrusion plate 344, the first linkage rod 345, movable plate 346 and spring 347 adjust the friction plate 348 locking sliding block 340, fine adjustment mechanism 200 by the second adjusting rod 241 top dial piece 242, make the second adjusting rod 241 in the adjusting groove 231 sliding and drive imaging camera 243 through the ball sleeve 240 in the connecting ring 220 rotation, realize the angle of fine adjustment, remote information transmission module 400 transmission holographic image;

[0045] As shown in Figure 3 The fine adjustment mechanism 200 is installed with adjusting disc 230, which is fixed and supported by adjusting handle 210 around. The adjusting disc 230 is provided with adjusting groove 231, which is also provided with horizontal gap. The horizontal gap between the adjusting groove 231 and movable ring 232 is transitionally matched, so that the movable ring 232 can move in the horizontal gap of the adjusting groove 231. At the same time, the transitionally matched movable ring 232 will be limited by the contact stress when it is not disturbed by external force. The second adjusting rod 241 is longitudinally arranged in the adjusting groove 231. The second adjusting rod 241 can move in the annular adjusting groove 231 by dialing the dial piece 242. The second adjusting rod 241 is sleeved with movable ring 232 around. The second adjusting rod 241 and the movable ring 232 are gap matched to prevent the second adjusting rod 241 from tilting and interfering with the movement of the movable ring 232. The adjusting disc 230 is fixed by the adjusting handle 210 around. The adjusting handle 210 fixes the connecting ring 220 by four connecting rods 211, so that the adjusting disc 230 and the connecting ring 220 are parallel and positioned, and are supported and fixed. The connecting ring 220 is provided with spherical groove, which is matched with the spherical sleeve 240 fixed on the outer surface of the imaging camera 243. In summary, as shown in Figure 4As shown, when the personnel dial the dial piece 242 to make the second adjusting rod 241 move in the adjusting groove 231 of the adjusting disc 230, the second adjusting rod 241 is fixed at the bottom of the imaging camera 243, and the imaging camera 243 is linked to generate a corresponding rotation of the imaging camera 243 through the spherical sleeve 240 in the spherical groove of the connecting ring 220, so as to fine-tune the shooting angle of the imaging camera 243. When the imaging camera 243 moves to the required angle, the personnel stop dialing the dial piece 242, and the active ring 232 is in contact with the transverse gap in the adjusting groove 231 to generate a contact stress, so as to limit the second adjusting rod 241 in the required position in the adjusting groove 231.

[0046] As shown in Figure 5 and Figure 6 The two sides of the connecting frame 310 are fixed by the trapezoidal clamping block 320. The connecting frame 310 is an equilateral rectangle, and four ball head bases 330 are fixed on the inner sides of the center along the edges, respectively. The four ball head bases 330 are respectively provided with turning grooves, and 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 shell 332. At this time, the shell 332 is away from the center of the connecting frame 310, and the ball head end of the turning rod 331 is freely movable in the ball head base 330.

[0047] As shown in Figure 6 and Figure 7 The inner cavity of the shell 332 is slidably provided with two friction plates 348, and the back of the friction plate 348 is fixed by a plurality of springs 347 and movable plates 346. At this time, under the action of the spring 347, the friction plate 348 applies a normal pressure to the inner wall of the shell 332, so that the friction plate 348 and the shell 332 generate a static friction force. The force and the balance force of the spring 347 jointly act on the sliding block 340 to keep it stationary and have no tendency to move.

[0048] As shown in Figure 7 At the same time that the spring 347 exerts pressure on the friction plate 348, the spring 347 also exerts corresponding pressure on the movable plate 346. The two movable plates 346 are respectively butted against the extrusion plate 344 through two first linkage rods 345. The first linkage rod 345 penetrates the sliding block 340 and can link the extrusion plate 344 and the movable plate 346 to move equidistantly. When the extrusion plate 344 moves in the inner cavity of the sliding block 340, the normal pressure of the friction plate 348 to the inner wall of the shell 332 can be adjusted, thereby generating greater friction.

[0049] As shown in Figure 7As shown, the slider 340 is threadedly connected with a threaded bolt 341 matched therewith through a threaded groove, and the top of the threaded bolt 341 is provided with a knob 342 for rotating the threaded bolt 341, when the knob 342 is rotated by a person, the threaded bolt 341 is threadedly connected with the slider 340, so as to realize the rotation and lifting of the threaded bolt 341 on the slider 340, as shown in Figure 8 As shown, the bottom of the threaded bolt 341 is fixed with a round flat key, and the conical block 343 is provided with a circular groove for the movement of the round flat key, when the threaded bolt 341 is rotated and displaced upward and downward, the conical block 343 is driven to move synchronously through the flat key circular groove, and when the threaded bolt 341 is rotated, the rotary power cannot be transmitted to the conical block 343 due to the structure design of the flat key moving in the circular groove, as shown in Figure 7 As shown, when the knob 342 is rotated by a person, the conical block 343 is driven to move up and down by the threaded connection between the threaded bolt 341 and the slider 340, and the conical block 343 is arranged between the two extrusion plates 344, as described above, when the conical block 343 is lowered, the two extrusion plates 344 are expanded away from each other by the shape structure of the conical block 343, increasing the pre-tightening force of the extrusion plates 344, and under the conduction of the first linkage rod 345, the movable plate 346 and the spring 347, the normal pressure of the friction plate 348 on the inner wall of the shell 332 is increased, so that the slider 340 needs to be moved on the limiting guide rod 333 with greater force, and vice versa, when the two extrusion plates 344 are contracted inward, the slider 340 can be moved on the limiting guide rod 333 with small force;

[0050] As shown in Figure 6 When the imaging camera 243 is rotated in the ball head base 330 through the steering rod 331 to complete the large-angle positioning, the spatial position of the steering rod 331 is rigidly linked through the shell 332, the limiting guide rod 333 and the slider 340, and the activity freedom of the slider 340 directly determines the displacement possibility of the shell 332, thereby limiting the rotation trend of the steering rod 331, as shown in Figure 7 As shown, the spring 347 provides continuous elastic pressure to the friction plate 348, so that the friction plate 348 is kept in close contact with the inner cavity wall of the shell 332, when the conical block 343 is adjusted up and down through the threaded bolt 341, the pressure of the spring 347 on the friction plate 348 can be further increased or decreased, thereby changing the static friction between the friction plate 348 and the shell 332, when the static friction is sufficient to offset the rotation torque of the steering rod 331, the slider 340 is firmly locked on the limiting guide rod 333, the shell 332 cannot be displaced through the slider 340, and the ball head end of the steering rod 331 cannot be rotated in the steering groove of the ball head base 330 due to the position limitation of the shell 332, finally realizing the stable fixation of the angle of the imaging camera 243;

[0051] In combination with the above, as shown in Figure 9As 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.

[0052] like Figure 10 As 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.

[0053] 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 12As shown, two fixed components 141 can be flexibly adjusted after accessing the first adjusting rod 140, the position of the fine adjustment mechanism 200 and the adaptive mechanism 300, when the personnel is positioned, the three-step thread ring 142 on one of the fixed components 141 can be matched with the three-step internal threaded sleeve 143 to limit the position of the fine adjustment mechanism 200 and the adaptive mechanism 300, and at the same time, due to the different point positions of the first adjusting rod 140 and the movable sleeve 133, the fine adjustment mechanism 200 and the adaptive mechanism 300 can be adjusted accordingly, so that they can be changed to longitudinal or transverse, in order to prevent the position space from being blocked by the fixed plate 110, the position of the first adjusting rod 140 on the movable sleeve 133 can be turned over to avoid the bottom of the fine adjustment mechanism 200 and the adaptive mechanism 300 from the obstacle, so as to adapt to the environment for shooting;

[0054] As shown in Figure 10 With Figure 13 As shown, the device can also be disassembled and stored, the fine adjustment mechanism 200 and the adaptive mechanism 300 are removed from the fixed component 141, the fine adjustment mechanism 200 and the adaptive mechanism 300 are placed in the storage box 120 for protection and storage, the storage box 120 can be placed on the top of the fixed plate 110 or any other position, a plurality of rubber clamping blocks are fixedly installed on the fixed plate 110, the rubber has plasticity, the first adjusting rod 140 can be clamped and limited by the rubber clamping blocks, so that the first adjusting rod 140 is fixed on the top of the fixed plate 110 to prevent it from moving;

[0055] As shown in Figure 10 As shown, the bottom of the fixed plate 110 is also fixedly installed with four magnetic bases 150, the bottom of each of the four magnetic bases 150 is provided with a silica gel pad 151, which is directly in contact with the ground, on the one hand, the friction with the ground is increased to prevent slipping, and on the other hand, the softness of the silica gel pad 151 can reduce the rigid contact with the ground, that is, it can be buffered for the ground that is easy to shake in the ambulance compartment, under the magnetic force of the magnetic base 150, a magnetic force connection can be generated with the ground that has magnetism, so that the whole device can be prevented from shaking on the unstable ground;

[0056] The remote information transmission module 400 is directly connected with the imaging camera 243 of the fine adjustment mechanism 200 through a data line, when the fine adjustment mechanism 200 adjusts the imaging camera 243 to the best shooting angle through the dial piece 242, the holographic image collected by the imaging camera 243 will be transmitted to the remote diagnosis and treatment terminal in real time through the data line, the bottom of the fixed plate 110 of the assembly mechanism 100 is provided with a lithium battery mounting groove, the remote information transmission module 400 can be electrically connected with the lithium battery through a power line.

[0057] The above shows and describes the basic principles, main features and advantages of the present application. Those skilled in the art should understand that the present application is not limited to the above-mentioned embodiments, and the above-mentioned embodiments and descriptions in the specification are only to illustrate the principles of the present application. Without departing from the spirit and scope of the present application, various changes and improvements can be made to the present application, and these changes and improvements all fall within the scope of the claimed present application.

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), the assembly mechanism (100) further includes fixed plate (110), the top of the fixed plate (110) is placed with placing box (120), fine adjustment mechanism (200) and adaptation mechanism (300) are removed on fixed component (141), the placing box (120) is used to place and accommodate fine adjustment mechanism (200) and adaptation mechanism (300); Fine adjustment mechanism (200) is used 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 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 transitionally cooperated by the gap between adjusting groove (231), the movable ring (232) is sleeved and slidably installed around the second adjusting rod (241); Adaptation mechanism (300) is clamped between fixed component (141) by trapezoidal slot (144), the adaptation mechanism (300) includes connecting frame (310), four ball head pedestals (330) and four second linkages (350), the second linkage (350) is respectively longitudinally hinged in the middle of connecting rod (211) and is fixedly connected to the top of four sliders (340), the slider (340) is penetrated and movably installed on limiting guide rod (333), and the position adjustment is realized by the slider (340) movement driven second linkage (350) and connecting rod (211);The two sides of the connecting frame (310) are fixedly connected with trapezoidal clamping blocks (320), the ball head pedestal (330) is arranged at the inner side of the connecting frame (310) and is opened with steering groove, the steering rod (331) is rotatably installed in the steering groove, the steering rod (331) is connected with shell (332), the limiting guide rod (333) is arranged in the shell (332); Remote information transmission module (400) is used for remotely transmitting holographic image; The adaptation mechanism (300) is locked by the locking structure of screw bolt (341), taper block (343), extrusion plate (344), first linkage (345), movable plate (346), spring (347) and friction plate (348), the activity freedom degree of the slider (340) on the limiting guide rod (333), in turn indirectly fixed steering rod (331), avoid its rotation in the steering groove of ball head pedestal (330) and cause imaging camera (243) offset.

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 comprises a connecting ring (220) fixedly installed with four connecting rods (211) on top, a spherical groove is formed in the connecting ring (220), and a spherical sleeve (240) is rotatably installed in the spherical groove, the spherical sleeve (240) is fixedly installed on the middle and lower outer surface of an imaging camera (243), a second adjusting rod (241) is fixedly installed on the top of the imaging camera (243), a dial (242) is fixedly installed on the top of the second adjusting rod (241), and the second adjusting rod (241) is slidingly installed in an adjusting groove (231) formed in the adjusting disc (230).

3. The information transmission holographic image device for eye trauma based on remote diagnosis and treatment according to claim 2, characterized in that: The inner cavity of each shell (332) is slidingly installed with a friction plate (348) on both sides, and a plurality of springs (347) are connected to the other side of each friction plate (348), and the other side of the plurality of springs (347) is connected to a movable plate (346).

4. The information transmission holographic image device for eye trauma based on remote diagnosis and treatment according to claim 3, 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 fixedly provided with a pressing plate (344), and the two pressing plates (344) are movably installed in the inner cavity of a sliding block (340).

5. The information transmission hologram device for eye trauma based on remote diagnosis and treatment according to claim 4, characterized in that: The sliding block (340) is provided with a threaded groove and is threadedly connected with a threaded bolt (341) matched therewith, the threaded bolt (341) is movably sleeved with a tapered block (343) at the bottom through a flat key circular groove, the threaded bolt (341) is threadedly connected with the threaded groove of the sliding block (340) to movably lift the tapered block (343), and the tapered block (343) is 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 1, characterized in that it comprises: 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 slidingly installed with movable sleeves (133), and the inner cavities of the two movable sleeves (133) are slidingly installed with first adjusting rods (140).

7. The information transmission hologram device for eye trauma based on remote diagnosis and treatment according to claim 6, 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 installed 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 therewith.

8. The information transmission hologram device for eye trauma based on remote diagnosis and treatment according to claim 7, characterized in that: The two fixed components (141) are respectively provided with trapezoidal grooves (144), and the two trapezoidal grooves (144) are slidingly connected with trapezoidal clamping blocks (320) on the adaptive mechanism (300).

9. The information transmission hologram device for eye trauma based on remote diagnosis and treatment according to claim 6, characterized in that: The top of the fixed plate (110) is further fixedly provided with a remote information transmission module (400).

Images