Imaging adjusting device and method

Abstract

The invention discloses an imaging adjusting device and method, and relates to the technical field related to imaging. The device comprises a plane adjusting assembly which comprises an inverted-U-shaped sliding rail piece and a magnetic strip fixed to the top of the inner side of the sliding rail piece, a sliding assembly which comprises a U-shaped plate arranged on the lower portion of the sliding rail piece in a sleeving mode and a connecting block fixed to the bottom face of the inner side of the U-shaped plate, and an arc direction adjusting assembly which comprises an arc-shaped frame located under the U-shaped plate. A toothed arc plate is fixed to the arc surface in the arc-shaped frame, and the pulling and conveying assembly comprises pulling and conveying blocks located at the two ends of the arc-shaped frame and an assembling assembly. Through cooperative work of the inclined electromagnet and the magnetic strip and control of positioning of the metal rod and the magnetic strip through the positioning electromagnet, automatic sliding of the imaging equipment is achieved, the accuracy of the moving distance is guaranteed, meanwhile, the pulling and conveying block drives the meshing relation between the positioning toothed plate and the toothed arc plate through the pull rope, the bent part is driven to conduct arc adjustment, and the machining efficiency is improved. And multi-angle irradiation treatment on an object can be realized.

Description

Technical Field

[0001] The present invention belongs to the field of imaging related technology, and in particular relates to an imaging adjustment device and method. Background Art

[0002] Optical imaging refers to the process in which a concentric light beam emitted from an object point is transformed into another concentric light beam after passing through an optical system and converges at an image point. In the medical process, in order to improve the effect of medical treatment, the imaging principle is applied to medical treatment. The medical impact is on medical treatment or medical research. It is a technology and processing process for obtaining internal tissue images of the human body or a part of the human body in a non-invasive manner. At the same time, in the process of image formation, it includes research on imaging mechanisms, imaging equipment, imaging system analysis and other issues. It can be seen from the existing public document CN109739268B that in order to facilitate imaging work, it is necessary to use corresponding imaging adjustment devices to adjust the position of the imaging equipment so that the imaging equipment can be used conveniently.

[0003] Therefore, when adjusting the position of the existing medical imaging equipment, most of them use manual dragging to move the equipment. Therefore, the accuracy of the moving distance cannot be guaranteed each time it is moved, and the imaging equipment will be offset when used. At the same time, the function of self-reset cannot be realized each time it is used. At the same time, the adjustment method adopted by the existing projection medical imaging equipment is plane adjustment. After each position adjustment of the imaging equipment, it is directly irradiated from top to bottom in its working state. Since the imaging equipment cannot be controlled to rotate at an angle, it is impossible to irradiate the object at multiple angles. To this end, we provide an imaging adjustment device and method to solve the above problems. Summary of the invention

[0004] The purpose of the present invention is to provide an imaging adjustment device and method, which realizes automatic sliding of the imaging device and ensures the accuracy of the moving distance by coordinating the tilting electromagnet and the magnetic strip and controlling the positioning of the metal rod and the magnetic strip with the positioning electromagnet. At the same time, the pulling block drives the meshing relationship between the positioning tooth plate and the tooth arc plate through the pull rope, thereby driving the bending part to adjust the arc shape, and realizing multi-angle irradiation processing of the object.

[0005] In order to solve the above technical problems, the present invention is achieved through the following technical solutions: The present invention provides an imaging adjustment device, comprising a plane adjustment component, comprising a slide rail member in an inverted U shape and a magnetic strip fixed at the top position of the inner side of the slide rail member, a sliding component, comprising a U-shaped plate sleeved at the lower position of the slide rail member and a connecting block fixed at the bottom position of the inner side of the U-shaped plate, the upper end surface of the connecting block is provided with two inverted eight-shaped inclined openings, the inside of the inclined openings are both fixed with inclined electromagnets, a linkage opening is provided inside the connecting block, a metal plate is arranged inside the linkage opening, metal rods are fixed at the four corners of the metal plate, an arc adjustment component, comprising an arc frame located directly below the U-shaped plate, a toothed arc plate is fixed to the vertical arc surface inside the arc frame, and a pulling component, comprising pulling blocks located at the two end positions of the arc frame, the pulling blocks are relative to the arc frame A release opening is provided on the end face of the device, and a winding scale spring rotatably connected to the inner wall of the pulling block is arranged inside the release opening. Two symmetrically arranged grooves are provided on the inner wall of the pulling block near the port of the release opening, and a clamping plate is arranged inside the groove. The assembly component includes a bending part outside the arc frame, an adjusting column at the lateral end of the bending part, and a positioning tooth plate at the other end of the adjusting column and meshed with the tooth arc plate. A movable hole is provided inside the adjusting column, and two pulling holes connected to the inside of the movable hole are provided on the surface side wall of the adjusting column. A circular plate located inside the movable hole is provided at one end of the positioning tooth plate, and two pull ropes respectively passing through the inside of the pull holes are fixed to the end face of the circular plate, and the other ends of the pull ropes are respectively fixedly connected to the corresponding ends of the winding scale spring.

[0006] The present invention is further configured such that two side walls of the slide rail member are provided with slide grooves, a slide bar that slides in the inner position of the slide groove is fixed to the inner wall of the U-shaped plate, a plurality of linearly evenly distributed ball holes are provided on the upper and lower end faces of the slide bar, and a ball block is rotatably arranged inside the ball hole.

[0007] The present invention is further configured such that a telescopic hole connected to the interior of the linkage port is provided at a position on the upper end surface of the connection block corresponding to the metal rod, and the end surface of the metal rod passing through the telescopic hole is flush with the upper end surface of the connection block.

[0008] The present invention is further configured such that two symmetrically arranged mounting openings connected to the interior of the linkage opening are provided inside the connecting block, two return springs respectively fixed to the top surfaces inside the mounting openings are fixed on the upper end surface of the metal plate, an adsorption opening is provided inside the connecting block located between the two mounting openings, and a positioning electromagnet for adsorbing the metal plate is fixed inside the adsorption opening.

[0009] The present invention is further configured such that square openings are provided at both end faces of the arc frame in accordance with the position of the release opening, the pull rope passes through the corresponding square openings, a sliding opening connected to the interior is provided on the surface wall of the corresponding curved part of the arc frame, a baffle connected to the surface of the arc frame is fixed on the end face of the curved part, and a sliding rod sliding in the internal position of the sliding opening is fixed between the baffle and the adjustment column.

[0010] The present invention is further configured such that a limiting hole connected to the inside of the movable hole is opened on the end face of the adjusting column, a movable rod passing through the inside of the limiting hole is fixed between the circular plate and the positioning tooth plate, and a pushing spring on the end face of the circular plate is fixed on the same end face as the pull rope.

[0011] The present invention is further configured such that two extrusion plates are fixed on the surface side of the adjusting column and are evenly distributed in an upper and lower ring shape, and locking plates are bolted on the two end surfaces inside the arc frame, and four positioning arc rods are fixed between the two locking plates and are respectively located above and below the adjusting column, and the extrusion plates are sleeved on the positioning arc rods through arc holes, and arc springs are sleeved on the positioning arc rods on both sides of the extrusion plates, and the arc springs on both sides of the extrusion plates are arranged up and down.

[0012] The present invention is further configured such that a movable hole connected to the inside of the release port is opened inside the pulling block, a compression port connected to the inside of the movable hole is opened on the end face of the pulling block, shaft ports are opened on both side walls inside the release port, and the shaft rod of the winding ruler spring is rotatably arranged in the shaft ports.

[0013] The present invention is further configured such that a pressing plate is provided at the port position of the compression port, a moving rod passing through the inner position of the moving hole is fixed between the pressing plate and the clamping plate, and a pressing spring is fixed on the end face of the pressing plate and is sleeved on the moving rod and abuts against the inner end face of the compression port.

[0014] The present invention also provides a method for using the imaging adjustment device, which is operated by the following steps: S1: Control a single tilting electromagnet to be energized, so that the magnetic force generated by the tilting electromagnet repels the magnetic strip, thereby driving the U-shaped plate to slide along the slide rail; S2: When the U-shaped plate moves to a certain position of the slide rail, the positioning electromagnet is energized, so that the positioning electromagnet adsorbs the metal plate upward, so that the metal plate drives the metal rod to be adsorbed and connected with the magnetic strip, thereby positioning the U-shaped plate; S3: At the same time, two adjacent pressing plates are pressed in the compression port to control the clamping plate to clamp the pull rope, and at this time, the pulling block is driven to move in a direction away from the arc frame, so that the pulling block drives the circular plate to move in the movable hole through the pull rope; S4: After the previous step, the circular plate will drive the positioning tooth plate and the tooth arc plate to disengage. At this time, the pulling block is continuously controlled to move, and then the pulling block will drive the adjustment column to slide in the internal position of the arc frame, thereby driving the bending part to adjust the arc.

[0015] The present invention has the following beneficial effects: A single tilting electromagnet is controlled to be energized, so that the tilting electromagnet will repel the magnetic strip, thereby pushing the U-shaped plate to slide. When the U-shaped plate needs to be controlled to move in the opposite direction, the tilting electromagnet can be controlled to be de-energized, and the other tilting electromagnet can be controlled to be energized, and then it will move in the opposite direction through the U-shaped plate. After the U-shaped plate moves to the corresponding position, the positioning electromagnet can be controlled to be energized, so that the positioning electromagnet will adsorb the metal plate upwards, and control the metal rod to adsorb the magnetic strip, and then the metal rod and the magnet will directly position the U-shaped plate, so that the U-shaped plate can be quickly stopped, and the imaging equipment can be automatically slid, thereby improving the operating efficiency of the staff and ensuring the accuracy of the moving distance.

[0016] Move the pulling block in the direction opposite to the arc frame, press the two adjacent pressing plates in the compression port, and control the clamping plate to clamp the pull rope. At this time, drive the pulling block to move away from the arc frame, so that the pulling block drives the circular plate to move in the movable hole through the pull rope, and the circular plate will drive the positioning tooth plate to disengage from the tooth arc plate. At this time, continue to control the movement of the pulling block, and then the pulling block will drive the adjusting column to slide in the internal position of the arc frame, so as to drive the bending part to adjust the arc, and realize multi-angle irradiation treatment of the object.

[0017] Of course, any product implementing the present invention does not necessarily need to achieve all of the above advantages at the same time. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings required for describing the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other accompanying drawings can be obtained based on these accompanying drawings without paying creative work.

[0019] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0020] Figure 2 It is a structural diagram of the arc frame, locking plate and gear arc plate in the present invention.

[0021] Figure 3 It is a structural diagram of the U-shaped plate, the connecting block and the tilting electromagnet in the present invention.

[0022] Figure 4 It is a structural diagram of the slide rail member in the present invention.

[0023] Figure 5 It is a structural diagram of the locking plate, the bending piece, the positioning tooth plate and the arc spring in the present invention.

[0024] Figure 6 This is a structural combination diagram of the pulling block, bending piece, positioning tooth plate and adjusting column in the present invention.

[0025] Figure 7 This is a structural combination diagram of the pulling block, winding spring and clamping plate in the present invention.

[0026] Figure 8 It is a structural combination diagram of the U-shaped plate, the connecting block, the tilting electromagnet, the positioning electromagnet, the metal plate and the ball block in the present invention.

[0027] Fig. 9 This is a structural combination diagram of the pulling block and the positioning tooth plate in the present invention.

[0028] Fig.10 It is a structural cross-sectional view of the pulling block in the present invention.

[0029] Fig.11 It is a structural diagram of the clamping plate in the present invention.

[0030] Fig.12 It is the internal structure diagram of the U-shaped plate and the connecting block in the present invention.

[0031] Fig.13 It is a structural diagram of the metal plate in the present invention.

[0032] Fig.14 This is a diagram of the internal structure of the bending piece and the adjusting column in the present invention.

[0033] In the accompanying drawings, the components represented by the reference numerals are listed as follows: 100- plane adjustment assembly, 101- slide rail, 101a- slide groove, 102- magnetic strip, 200- sliding assembly, 201- U-shaped plate, 201a- slide bar, 201b- ball mouth, 202- connecting block, 202a- linkage mouth, 202b- installation mouth, 202c- adsorption mouth, 202d- telescopic hole, 202e- tilt mouth, 203- tilt electromagnet, 204- positioning electromagnet, 205- metal plate, 205a- metal rod, 205b- reset spring, 206- ball block, 300- arc direction adjustment assembly, 301- arc frame, 301a- slide mouth, 301b- square mouth, 302- locking plate, 302a- positioning arc rod, 303- tooth arc plate, 400- Pulling assembly, 401-pulling block, 401a-releasing port, 401b-axis port, 401c-groove, 401d-moving hole, 401e-compression port, 402-winding scale spring, 403-clamping plate, 403a-moving rod, 403b-pressing plate, 403c-pressing spring, 500-assembly assembly, 501-bending part, 501a-baffle, 501b-sliding rod, 502-positioning tooth plate, 502a-movable rod, 502b-round plate, 502c-pushing spring, 502d-pull rope, 503-arc spring, 504-adjusting column, 504a-extrusion plate, 504a-1-arc hole, 504b-movable hole, 504c-pulling hole, 504d-limiting hole. DETAILED DESCRIPTION

[0034] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention. Example 1

[0035] See also Figure 1 , Figure 2 , Figure 4 , Figure 6 and Fig. 9 , which is the first embodiment of the present invention, provides an imaging adjustment device, which realizes automatic sliding of the imaging device by cooperating with the tilting electromagnet 203 and the magnetic strip 102 and controlling the positioning of the metal rod 205a and the magnetic strip 102 with the positioning electromagnet 204, thereby ensuring the accuracy of the moving distance. At the same time, the pulling block 401 drives the meshing relationship between the positioning tooth plate 502 and the tooth arc plate 303 through the pull rope 502d, thereby driving the bending piece 501 to adjust the arc shape, thereby realizing multi-angle irradiation processing of the object.

[0036] Specifically, the plane adjustment component 100 includes an inverted U-shaped slide rail 101 and a magnetic strip 102 fixed at the top position of the inner side of the slide rail 101; the sliding component 200 includes a U-shaped plate 201 sleeved at the lower position of the slide rail 101 and a connecting block 202 fixed at the inner bottom surface position of the U-shaped plate 201; the arc adjustment component 300 includes an arc frame 301 located directly below the U-shaped plate 201; the pulling component 400 includes pulling blocks 401 located at both ends of the arc frame 301; the assembly component 500 includes a bending component 501 located outside the arc frame 301, an adjustment column 504 located at the lateral end of the bending component 501, and a positioning tooth plate 502 located at the other end of the adjustment column 504 and meshing with the tooth arc plate 303; Through the setting and use of the above-mentioned structure, by controlling the sliding component 200 to slide along the plane adjustment component 100, the arc adjustment component 300 can be driven to follow the movement in the plane direction. At the same time, by operating the pulling component 400, the assembly component 500 can be driven to slide along the direction of the arc adjustment component 300, thereby realizing the adjustment of the arc direction of the bending part 501.

[0037] according to Figure 3 , Figure 7 , Figure 8 , Fig.10 and Fig.11 The upper end surface of the connecting block 202 is provided with two inverted eight-shaped inclined openings 202e, and the inclined openings 202e are fixed with inclined electromagnets 203 inside. The connecting block 202 is provided with a linkage opening 202a inside, and a metal plate 205 is arranged inside the linkage opening 202a. Metal rods 205a are fixed at the four corners of the metal plate 205. A toothed arc plate 303 is fixed to the vertical arc surface inside the arc frame 301. A release opening 401a is provided on the end surface of the pulling block 401 relative to the arc frame 301, and a winding ruler spring 402 rotatably connected to the inner wall of the pulling block 401 is arranged inside the release opening 401a. Two symmetrically arranged grooves 401c are provided on the inner wall of the pulling block 401 near the port position of the release opening 401a. A clamping plate 403 is provided inside the groove 401c, a movable hole 504b is provided inside the adjusting column 504, two pulling holes 504c connected with the movable hole 504b are provided on the surface side wall of the adjusting column 504, a circular plate 502b located inside the movable hole 504b is provided at one end of the positioning tooth plate 502, two pulling ropes 502d passing through the pulling holes 504c are fixed on the end surface of the circular plate 502b, and the other ends of the pulling ropes 502d are fixedly connected with the corresponding ends of the winding ruler spring 402, and a suction port 202c is provided inside the connecting block 202 located between the two installation ports 202b, and a positioning electromagnet 204 for adsorbing the metal plate 205 is fixed inside the suction port 202c; When using the above-mentioned structure, a single tilting electromagnet 203 is controlled to be energized, so that the tilting electromagnet 203 repels the magnetic strip 102, thereby pushing the U-shaped plate 201 to slide. When it is necessary to control the U-shaped plate 201 to move in the opposite direction, the tilting electromagnet 203 can be controlled to be powered off, and the other tilting electromagnet 203 can be controlled to be energized, and then the U-shaped plate 201 moves in the opposite direction. After the U-shaped plate 201 moves to the corresponding position, the positioning electromagnet 204 can be controlled to be energized, so that the positioning electromagnet 204 attracts the metal plate 205 upwards, and controls the metal rod 205a to attract the magnetic strip 102, and then the metal rod 205a and the magnet directly position the U-shaped plate 201, so that the U-shaped plate 201 is quickly stopped; At the same time, when it is necessary to adjust the curvature of the bending piece 501, the pulling block 401 is moved in the direction opposite to the arc frame 301, and the two adjacent pressing plates 403b are pressed in the compression port 401e, so as to control the clamping plate 403 to clamp the pull rope 502d, and at this time, the pulling block 401 is driven to move in the direction away from the arc frame 301, so that the pulling block 401 drives the circular plate 502b to move in the movable hole 504b through the pull rope 502d, and the circular plate 502b will drive the positioning tooth plate 502 to disengage from the tooth arc plate 303, and at this time, the pulling block is continuously controlled to move, and then the pulling block 401 will drive the adjusting column 504 to slide in the internal position of the arc frame 301, so as to drive the bending piece 501 to adjust the arc; When the pulling block 401 at one end pulls the adjusting column 504, the adjusting column 504 will pull the other pull rope 502d, so that the pull rope 502d pulls the winding scale spring 402, so that the winding scale spring 402 is tightened. At the same time, when the pulling block 401 is released, the winding scale spring 402 is not pulled, so the winding scale spring 402 will reset, ensuring that the pull rope 502d can be pulled stably.

[0038] Further, according to Figure 8 and Fig.12 It can be seen that a telescopic hole 202d connected to the inside of the linkage port 202a is provided at the position of the metal rod 205a corresponding to the upper end surface of the connecting block 202. The end surface of the metal rod 205a passing through the telescopic hole 202d is flush with the upper end surface of the connecting block 202. Since the metal rod 205a is in the telescopic hole 202d, the telescopic hole 202d limits the metal rod 205a, ensuring that the metal rod 205a can be stably adsorbed by the magnetic strip 102.

[0039] Further, according to Figure 4 , Fig.12 and Fig.13It can be seen that the interior of the connecting block 202 is provided with two symmetrically arranged installation openings 202b connected to the interior of the linkage opening 202a, and the upper end surface of the metal plate 205 is fixed with two return springs 205b respectively fixed to the inner top surfaces of the installation openings 202b. After the positioning electromagnet 204 adsorbs the metal plate 205, the metal plate 205 at this time moves upward in the linkage opening 202a, and then the metal plate 205 compresses the return spring 205b. When the positioning electromagnet 204 is powered off, the return spring 205b will push the metal plate 205 to move downward, and the magnetic strip 102 and the metal rod 205a will be separated from the adsorption relationship.

[0040] It should be noted that the tilting electromagnet 203 and the positioning electromagnet 204 used are both powered by an external power supply, and both are controlled by an external controller. Example 2

[0041] See also Figure 4 , Figure 8 and Fig.12 On the basis of Example 1, this embodiment ensures that the U-shaped plate 201 slides quickly and reduces the friction between the slide bar 201a and the slide groove 101a by rotating the slide bar 201a between the ball block 206 and the inner wall of the slide groove 101a.

[0042] Specifically, two side walls of the slide rail member 101 are provided with slide grooves 101a, and the inner side wall of the U-shaped plate 201 is fixed with a slide bar 201a that slides in the inner position of the slide groove 101a, and the upper and lower end surfaces of the slide bar 201a are provided with a plurality of linearly evenly distributed ball holes 201b, and a ball block 206 is rotatably arranged inside the ball hole 201b; By setting up and using the above-mentioned structure, when the U-shaped plate 201 moves along the slide rail 101, the U-shaped plate 201 will drive the slide bar 201a to slide in the slide groove 101a, and drive the ball block 206 to rotate in the ball mouth 201b. At the same time, the use of the ball block 206 can ensure that the slide bar 201a is in the slide groove 101a more conveniently and quickly, and can reduce the friction generated between the slide bar 201a and the slide groove 101a. Example 3

[0043] See also Figure 6 , Fig. 9 and Fig.14 On the basis of Example 1, this embodiment controls the resetting of the circular plate 502b by pushing the spring 502c, so that the positioning tooth plate 502 re-engages with the tooth arc plate 303, thereby limiting the position of the adjustment column 504.

[0044] Specifically, square openings 301b are provided at both end surfaces of the arc frame 301, which are consistent with the position of the release opening 401a. The pull rope 502d passes through the corresponding square opening 301b. The surface wall of the curved member 501 corresponding to the arc frame 301 is provided with a sliding opening 301a connected to the interior thereof. A baffle 501a connected to the surface of the arc frame 301 is fixed on the end surface of the curved member 501. A sliding rod 501b sliding in the internal position of the sliding opening 301a is fixed between the baffle 501a and the adjusting column 504. A limiting hole 504d connected to the interior of the movable hole 504b is provided on the end surface of the adjusting column 504. A movable rod 502a passing through the interior of the limiting hole 504d is fixed between the circular plate 502b and the positioning tooth plate 502. A pushing spring 502c located at the same end surface as the pull rope 502d is fixed on the end surface of the circular plate 502b. When the adjusting column 504 is driven inside the arc frame 301, the adjusting column 504 will drive the sliding rod 501b to slide in the internal position of the sliding mouth 301a, and thereby drive the bending rod to move along the position of the sliding mouth 301a, and the circular plate 502b will slide inside the movable hole 504b, which will drive the movable rod 502a to move inside the limiting hole 504d and compress the pushing spring 502c. Therefore, when the release block is released, the pull rope 502d no longer pulls the circular plate 502b. At this time, the circular plate 502b is pushed by the pushing spring 502c, so that the circular plate 502b is reset and moved, so that the positioning tooth plate 502 is re-engaged with the tooth arc plate 303, thereby limiting the position of the adjusting column 504. Example 4

[0045] See also Figure 2 , Figure 5 and Fig.14 On the basis of Example 1, this embodiment can quickly ensure that the adjustment column 504 can be reset in the arc frame 301 by pushing the extrusion plate 504a through the arc spring 503.

[0046] Specifically, two extrusion plates 504a are fixed on the surface side of the adjustment column 504 and are evenly distributed in an upper and lower ring shape. Locking plates 302 are bolted on both end surfaces inside the arc frame 301. Four positioning arc rods 302a are fixed between the two locking plates 302, which are respectively located above and below the adjustment column 504. The extrusion plate 504a is sleeved on the positioning arc rod 302a through an arc hole 504a-1 opened therethrough. The positioning arc rods 302a on both sides of the extrusion plate 504a are sleeved with arc springs 503, and the arc springs 503 on both sides of the extrusion plate 504a are arranged in an upper and lower direction. By setting and using the above-mentioned structure, when the adjusting column 504 is driven, the adjusting column 504 will drive the squeezing plate 504a to move along, so that the squeezing plate 504a slides along the arc rod through the arc hole 504a-1, and thereby compresses the corresponding arc spring 503. At the same time, the squeezing plate 504a will pull the arc spring 503 in the opposite direction. Therefore, when the release block is released, the arc spring 503 pushes the squeezing plate 504a and the arc spring 503 on the other side pulls the squeezing plate 504a, so as to quickly ensure that the adjusting column 504 can be reset in the arc frame 301. Example 5

[0047] See also Figure 7 , Fig.10 and Fig.11 On the basis of Example 1, this embodiment enables the pressing plate 403b to be quickly reset by pushing the pressing spring 403c against the pressing plate 403b.

[0048] Specifically, a moving hole 401d connected to the inside of the release opening 401a is provided inside the pulling block 401, a compression opening 401e connected to the inside of the moving hole 401d is provided on the end surface of the pulling block 401, shaft openings 401b are provided on both side walls inside the release opening 401a, the shaft of the winding spring 402 is rotatably arranged in the shaft opening 401b, a pressing plate 403b is arranged at the port position of the compression opening 401e, a moving rod 403a passing through the inside position of the moving hole 401d is fixed between the pressing plate 403b and the clamping plate 403, and a pressing spring 403c which is sleeved on the moving rod 403a and abuts against the inner end surface of the compression opening 401e is fixed on the end surface of the pressing plate 403b; By setting up and using the above-mentioned structure, when the pressing plate 403b is compressed toward the interior of the compression port 401e, the pressing plate 403b will control the moving rod 403a to slide in the moving hole 401d, and the clamping plate 403 will be disengaged from the groove 401c, thereby causing the two clamping plates 403 to move relative to each other in the internal position of the release port 401a, and clamp the pull rope 502d. At the same time, when the pressing plate 403b is released, the pressing spring 403c at this time pushes the pressing plate 403b to be disengaged from the compression port 401e, thereby allowing the clamping plate 403 to be reset to the groove 401c. Example 6

[0049] The present invention also provides a method for using the imaging adjustment device, which is operated by the following steps: S1: Controlling the single tilting electromagnet 203 to be energized, so that the magnetic force generated by the tilting electromagnet 203 repels the magnetic strip 102, thereby driving the U-shaped plate 201 to slide along the slide rail 101; S2: When the U-shaped plate 201 moves to a certain position of the slide rail 101, the positioning electromagnet 204 is energized, so that the positioning electromagnet 204 adsorbs the metal plate 205 upward, so that the metal plate 205 drives the metal rod 205a to be adsorbed and connected with the magnetic strip 102, thereby positioning the U-shaped plate 201; S3: At the same time, the two adjacent pressing plates 403b are pressed in the compression port 401e, so as to control the clamping plate 403 to clamp the pull rope 502d, and at this time, the pulling block 401 is driven to move away from the arc frame 301, so that the pulling block 401 drives the circular plate 502b to move in the movable hole 504b through the pull rope 502d; S4: After the previous step, the circular plate 502b will drive the positioning tooth plate 502 to disengage from the tooth arc plate 303. At this time, the pulling block is continuously controlled to move, and then the pulling block 401 will drive the adjustment column 504 to slide in the internal position of the arc frame 301, thereby driving the bending piece 501 to adjust the arc.

[0050] In the description of this specification, the description with reference to the terms "one embodiment", "example", "specific example", etc. means that the specific features, structures, materials or characteristics described in conjunction with the embodiment or example are included in at least one embodiment or example of the present invention. In this specification, the schematic representation of the above terms does not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described can be combined in any one or more embodiments or examples in a suitable manner.

[0051] The preferred embodiments of the present invention disclosed above are only used to help explain the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to only specific implementation methods. Obviously, many modifications and changes can be made according to the content of this specification. This specification selects and specifically describes these embodiments in order to better explain the principles and practical applications of the present invention, so that those skilled in the art can understand and use the present invention well. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. An imaging adjustment device, characterized in that: include, A plane adjustment component (100) comprises an inverted U-shaped slide rail member (101) and a magnetic strip (102) fixed at the top position of the inner side of the slide rail member (101); The sliding assembly (200) comprises a U-shaped plate (201) sleeved on the lower part of the slide rail member (101) and a connecting block (202) fixed on the inner bottom surface of the U-shaped plate (201); the upper end surface of the connecting block (202) is provided with two inverted eight-shaped inclined openings (202e); an inclined electromagnet (203) is fixed inside the inclined opening (202e); a linkage opening (202a) is provided inside the connecting block (202); a metal plate (205) is arranged inside the linkage opening (202a); and metal rods (205a) are fixed at the four corners of the metal plate (205); An arc direction adjustment assembly (300) comprises an arc frame (301) located directly below the U-shaped plate (201), wherein a toothed arc plate (303) is fixed to a vertical arc surface inside the arc frame (301); The pulling assembly (400) comprises a pulling block (401) located at both ends of the arc frame (301), the pulling block (401) is provided with a release opening (401a) on the end surface opposite to the arc frame (301), a winding spring (402) rotatably connected to the inner wall of the pulling block (401) is arranged inside the release opening (401a), two symmetrically arranged grooves (401c) are arranged on the inner wall of the pulling block (401) near the end of the release opening (401a), and a clamping plate (403) is arranged inside the groove (401c); and, An assembly component (500) comprises a bending member (501) located outside the arc frame (301), an adjustment column (504) located at a lateral end of the bending member (501), and a positioning tooth plate (502) located at the other end of the adjustment column (504) and meshing with the tooth arc plate (303); The adjusting column (504) is provided with a movable hole (504b) inside, and the side wall of the adjusting column (504) is provided with two pull holes (504c) connected with the inside of the movable hole (504b). One end of the positioning tooth plate (502) is provided with a circular plate (502b) located inside the movable hole (504b), and the end surface of the circular plate (502b) is fixed with two pull ropes (502d) respectively passing through the inside of the pull holes (504c), and the other ends of the pull ropes (502d) are respectively fixedly connected to the ends of the corresponding winding ruler springs (402).

2. An imaging adjustment device according to claim 1, characterized in that: The two side walls of the slide rail member (101) are provided with slide grooves (101a), the inner side wall of the U-shaped plate (201) is fixed with a slide bar (201a) that slides inside the slide groove (101a), the upper and lower end surfaces of the slide bar (201a) are provided with a plurality of ball openings (201b) that are evenly distributed in a linear manner, and a ball block (206) is rotatably arranged inside the ball opening (201b).

3. The imaging adjustment device according to claim 1, characterized in that: A telescopic hole (202d) connected to the interior of the linkage port (202a) is provided on the upper end surface of the connection block (202) at a position corresponding to the metal rod (205a), and the end surface of the metal rod (205a) passing through the telescopic hole (202d) is flush with the upper end surface of the connection block (202).

4. The imaging adjustment device according to claim 3, characterized in that: The connection block (202) has two symmetrically arranged mounting openings (202b) in communication with the linkage opening (202a), and the upper end surface of the metal plate (205) is fixed with two return springs (205b) respectively fixed to the top surfaces of the mounting openings (202b); A suction port (202c) is provided inside the connection block (202) located between the two installation ports (202b), and a positioning electromagnet (204) for sucking the metal plate (205) is fixed inside the suction port (202c).

5. The imaging adjustment device according to claim 1, characterized in that: The two end surfaces of the arc frame (301) are provided with square openings (301b) which are in the same position as the release opening (401a); the pull rope (502d) passes through the corresponding square openings (301b); the surface wall of the curved member (501) corresponding to the arc frame (301) is provided with a sliding opening (301a) which is connected to the interior thereof; the end surface of the curved member (501) is fixed with a baffle (501a) which is in contact with the surface of the arc frame (301); and a sliding rod (501b) which slides in the internal position of the sliding opening (301a) is fixed between the baffle (501a) and the adjustment column (504).

6. The imaging adjustment device according to claim 1, characterized in that: The end surface of the adjusting column (504) is provided with a limiting hole (504d) connected to the inside of the movable hole (504b); a movable rod (502a) passing through the inside of the limiting hole (504d) is fixed between the circular plate (502b) and the positioning tooth plate (502); and a pushing spring (502c) located on the same end surface as the pull rope (502d) is fixed to the end surface of the circular plate (502b).

7. The imaging adjustment device according to claim 1, characterized in that: Two extrusion plates (504a) evenly distributed in an upper and lower ring shape are fixed on the surface side of the adjusting column (504); locking plates (302) are provided on the two end surface bolts inside the arc frame (301); and four positioning arc rods (302a) respectively located above and below the adjusting column (504) are fixed between the two locking plates (302); The extrusion plate (504a) is sleeved on the positioning arc rod (302a) through an arc hole (504a-1) that is opened through the extrusion plate (504a), and arc springs (503) are sleeved on the positioning arc rods (302a) on both sides of the extrusion plate (504a), and the arc springs (503) on both sides of the extrusion plate (504a) are arranged in an upper and lower direction.

8. The imaging adjustment device according to claim 1, characterized in that: The interior of the pulling block (401) is provided with a movable hole (401d) connected to the interior of the release opening (401a); the end surface of the pulling block (401) is provided with a compression opening (401e) connected to the interior of the movable hole (401d); the inner side walls of the release opening (401a) are provided with shaft openings (401b); and the shaft rod of the winding ruler spring (402) is rotatably arranged in the shaft openings (401b).

9. The imaging adjustment device according to claim 8, characterized in that: A pressing plate (403b) is provided at the port position of the compression port (401e); a moving rod (403a) passing through the inner position of the moving hole (401d) is fixed between the pressing plate (403b) and the clamping plate (403); and a pressing spring (403c) is fixed on the end surface of the pressing plate (403b) and is sleeved on the moving rod (403a) and abuts against the inner end surface of the compression port (401e).

10. A method for using an imaging adjustment device, characterized in that: The imaging adjustment device according to any one of claims 1 to 4 is operated by the following steps: S1: controlling the single tilting electromagnet (203) to be energized to push the U-shaped plate (201) to slide along the slide rail member (101); S2: When the U-shaped plate (201) moves to a certain position of the slide rail member (101), the positioning electromagnet (204) is energized, and the positioning electromagnet (204) adsorbs the metal plate (205) upward, and the metal plate (205) drives the metal rod (205a) to be adsorbed and connected with the magnetic strip (102), thereby positioning the U-shaped plate (201); S3: At the same time, two adjacent pressing plates (403b) are pressed in the compression opening (401e), thereby controlling the clamping plate (403) to clamp the pull rope (502d), thereby driving the pulling block (401) to move in a direction away from the arc frame (301), and the pulling block (401) drives the circular plate (502b) to move in the movable hole (504b) through the pull rope (502d); S4: After the previous step, the circular plate (502b) will drive the positioning tooth plate (502) to disengage from the tooth arc plate (303), and continue to control the movement of the pulling block. The pulling block (401) will drive the adjustment column (504) to slide in the internal position of the arc frame (301), driving the bending piece (501) to adjust the arc.

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