X-ray detection device capable of being flexibly suitable for multi-split cable

Abstract

The X-ray detection device capable of being flexibly suitable for the multi-split cable comprises an X-ray machine, an imaging plate and a bearing vehicle body, the bearing vehicle body is provided with a first carrying frame and a second carrying frame, and the first carrying frame and the second carrying frame are both detachably connected with the bearing vehicle body; the distance between the first carrying frame and the second carrying frame can be adjusted; the ray machine is located on the first carrying frame, a ray emitting opening of the ray machine can rotate in the circumferential direction and / or vertically ascend and descend, the imaging plate is located on the second carrying frame, and the imaging plate is in sliding connection with the second carrying frame in the vertical direction. According to the utility model, a multi-angle and wide-range ray detection space is formed between the ray machine and the imaging plate by combining the adjustment of the distance between the first carrying frame and the second carrying frame, the circumferential / vertical adjustment of the emission port of the ray machine on the first carrying frame and the vertical lifting of the imaging plate on the second carrying frame; therefore, the multi-split cable X-ray detection device can be effectively adapted to multi-split cable X-ray detection work under various conditions.

Description

TECHNICAL FIELD

[0001] The utility model relates to multi -split cable ray detection equipment field, concretely is X -ray detection device that can be flexible applicable to multi -split cable. BACKGROUND

[0002] Traditional X -ray flaw detection device is mainly used for the flaw detection of single -split cable, in high -voltage cable construction operation, the line operation accident caused by the quality of strain clamp or joint tube compression is more common, therefore needs to carry out X -ray detection to multi -split cable.

[0003] In the prior art, since the multi -split cable needs to be accommodated between the ray machine and the imaging plate, the ray machine and the imaging plate are usually arranged respectively to adapt to the multi -split cable with different spacing, so that the layout is difficult. If the ray machine and the imaging plate are arranged in a unified manner, the spacing between the ray machine and the imaging plate is not convenient to adjust, thereby affecting the adaptation of different cable spacing, resulting in undetectable cable. Therefore, how to enhance the detection adaptation ability of multi -split cable spacing and distribution has become a problem to be solved in the field of multi -split cable ray detection equipment. SUMMARY

[0004] The utility model discloses a kind of X -ray detection devices that can be flexible applicable to multi -split cable, the spacing of the first carrying frame and the second carrying frame is adjusted to adapt to the spacing of cable with different number of split, and the detection of different cable distribution position of multi -split cable is adapted by the circumferential rotation and / or vertical lifting of the ray machine emission port and the vertical lifting of the imaging plate, to improve the adaptation ability of multi -split cable ray detection with different number of split.

[0005] The utility model mainly realizes the following technical scheme:

[0006] X -ray detection device that can be flexible applicable to multi -split cable, including ray machine, imaging plate and bearing vehicle body, the first carrying frame and the second carrying frame are equipped on the bearing vehicle body, the first carrying frame and the second carrying frame are all detachably connected with the bearing vehicle body;

[0007] The spacing between the first carrying frame and the second carrying frame can be adjusted;

[0008] The ray machine is located on the first carrying frame, and the ray emission port of the ray machine can be circumferentially rotated and / or vertically lifted, the imaging plate is located on the second carrying frame, and the imaging plate is slidably connected with the second carrying frame in vertical direction.

[0009] At present, the multi-split cable in practical application includes double-split cable, four-split cable, six-split cable or eight-split cable, and the interval between the cables is different, so the interval between the ray machine and the imaging plate needs to be adjusted to adapt to the interval between the cables, so as to ensure the normal operation of the ray detection.

[0010] In the utility model, the first carrying frame is used for carrying the ray machine, the second carrying frame is used for carrying the imaging plate, and the interval between the first carrying frame and the second carrying frame can be adjusted, so the interval between the ray machine and the imaging plate can be adjusted, thereby the interval between the cables with different split numbers can be adapted.

[0011] Because the position of the cable after splitting in different numbers is different in height and horizontal interval, the ray detection height of the ray machine and the imaging plate with fixed height has a blind area, and a plurality of cables exist in parallel, so the ray machine and the imaging plate also have a blind area of detection angle.

[0012] In the utility model, the emission port of the ray machine can be axially rotated and / or vertically lifted, so that the ray emission can be carried out at multiple angles and multiple heights, the rotation of the emission port of the ray machine can be realized by rotating the emission ray part, or the whole rotation of the ray machine can be realized, and the vertical lifting of the imaging plate can effectively adapt to the emission port of the ray machine, so that the rays emitted by the ray machine can be aligned with the imaging plate in a forward or oblique direction, and the imaging is carried out on the imaging plate.

[0013] The utility model discloses a kind of ray machines and imaging plates, the first carrying frame is used for carrying the ray machine, the second carrying frame is used for carrying the imaging plate, the interval between the first carrying frame and the second carrying frame can be adjusted, so the interval between the ray machine and the imaging plate can be adjusted, thereby the interval between the cables with different split numbers can be adapted.

[0014] Further, a plurality of bearing wheels are provided on the bearing vehicle body, the number of the bearing wheels is even, and the bearing wheels are symmetrically and uniformly distributed with the axis of the bearing vehicle body as the center line.

[0015] The interval between the bearing wheel and the axis of the bearing vehicle body can be adjusted.

[0016] The bearing wheel is arranged on the bearing vehicle body, directly contacts with the cable, and enhances the stability of the bearing vehicle body on the cable, and the bearing wheel is symmetrically arranged in double numbers, and the overall balance of the bearing vehicle body can be maintained by at least two cables.

[0017] Further, the first telescopic rod and the second telescopic rod are arranged on the bearing vehicle body, one end of the first telescopic rod is fixed with the bearing vehicle body, the other end of the first telescopic rod is provided with a first movable bearing seat, the first movable bearing seat is detachably fixed with the second carrying frame.

[0018] One end of the second telescopic rod is fixed with the bearing vehicle body, and the other end of the second telescopic rod is provided with a second movable bearing seat, and the second movable bearing seat is detachably fixed with the first carrying frame.

[0019] In the utility model, one end of the first telescopic rod is fixed with the bearing vehicle body, and the other end of the first telescopic rod can move the position of the first bearing seat in a telescopic mode, one end of the second telescopic rod is fixed with the bearing vehicle body, and the other end of the second telescopic rod can move the position of the second bearing seat in a telescopic mode, so that the spacing between the first bearing seat and the second bearing seat can be adjusted by the telescopic action of the first telescopic rod and / or the second telescopic rod, since the first telescopic rod and the second telescopic rod are independent of each other, a high degree of freedom can be obtained in the adjustment process, no matter how the distribution of the cables is, the relative stable balance state of the ray machine and the imaging plate can be ensured, so that the applicability of the utility model is improved.

[0020] Further, the first movable bearing seat and the second carrying frame, the second movable bearing seat and the first carrying frame are all provided with adjustable fixing blocks, the bottom of the adjustable fixing block is detachably fixed with the first carrying frame or the second carrying frame, the top of the adjustable fixing block is provided with a plurality of parallel convex ribs, and the convex rib is detachably fixedly connected with the first movable bearing seat or the second movable bearing seat.

[0021] The utility model discloses a first carrying frame and second carrying frame between the spacing adjustment ability of further promotion is obtained. For example, in order to guarantee the stability of the bearing vehicle body, after the extension of the first telescopic rod and the second telescopic rod is determined, the position of the first carrying frame and the second carrying frame still has a small adjustment demand, at this time, the first telescopic rod or the second telescopic rod does not need to be adjusted again, but the fixed position of the first mobile bearing seat or the second mobile bearing seat and the convex rib is changed, and the adjustment can be completed.

[0022] The utility model discloses through detachable connection's mode, can increase the flexibility of the spacing adjustment between the first carrying frame and the second carrying frame, thereby increasing the ability of the utility model discloses adapting the spacing of different number of cables.

[0023] Further, the first carrying frame includes a first bearing frame, a rotating motor is arranged in the first bearing frame, a connecting seat is fixed to the output end of the rotating motor, a mounting plate is fixed to the connecting seat, and a radiographic machine is mounted on the mounting plate.

[0024] The second carrying frame includes a second bearing frame, and the imaging plate is vertically and slidably connected to the second bearing frame.

[0025] In the utility model, the rotating motor in the first bearing frame can drive the connecting seat to rotate, the connecting seat can drive the mounting plate to rotate circumferentially, and the radiographic machine is mounted on the mounting plate, so that the position of the mounting plate can be effectively rotated by adjusting the rotating motor, thereby changing the orientation of the emission port of the radiographic machine and realizing the change of the radiographic angle.

[0026] The imaging plate is vertically and slidably connected to the second bearing frame on the second bearing frame of the second carrying frame, so that the imaging plate can perform lifting motion relative to the second bearing frame to change the height of the imaging plate and increase the detectable area range of the radiographic detection.

[0027] Further, a first lifting slide rail is arranged on the first bearing frame, a mounting seat capable of vertically lifting along the first lifting slide rail is arranged on the first lifting slide rail, and the rotating motor is fixed to the mounting seat.

[0028] The second lifting slide rail is arranged on the second bearing frame, and the imaging plate is detachably fixedly connected with the second lifting slide rail and can be lifted longitudinally on the second lifting slide rail.

[0029] In the utility model, the first lifting slide rail on the first bearing frame can drive the mounting seat to lift, and since the rotating motor is fixed on the mounting seat, the process that the first lifting slide rail drives the mounting seat to lift does not affect the rotating motor to drive the radial machine connecting seat to rotate circumferentially, on this basis, the radial machine can have the ability to rotate within the adjusting range of the first lifting slide rail.

[0030] The second lifting slide rail can realize the receiving of the radial machine emitting rays by adjusting the position of the imaging plate.

[0031] The first lifting slide rail and the second lifting slide rail in the utility model are realized by the existing electric slide rail, hydraulic lifting slide rail or pneumatic lifting slide rail.

[0032] Further, the first bearing frame is provided with a first guide inclined surface near one side of the bearing vehicle body, the second bearing frame is provided with a second guide inclined surface near one side of the bearing vehicle body, and the first guide inclined surface and the second guide inclined surface are both inclined and extended towards the bearing vehicle body.

[0033] In the utility model, in order to guarantee that the bearing vehicle body can be stably loaded on the cable, the first guide inclined surface and the second guide inclined surface jointly act to realize the alignment of the cable position, so that the bearing vehicle body can be kept stable during being placed on the cable and assist the bearing vehicle body to adjust the position.

[0034] Further, the bearing vehicle body is provided with a hoisting assembly for hoisting the bearing vehicle body, and the hoisting assembly is detachably fixedly connected with the bearing vehicle body.

[0035] In the utility model, the bearing vehicle body is hoisted through the hoisting assembly, so that the bearing vehicle body can be placed on the cable, so that the bearing vehicle body can reach the upper side of the high-altitude cable and complete the X-ray detection of the cable.

[0036] Further, the bearing vehicle body comprises a vehicle plate, the hoisting assembly comprises a fixing rod, the fixing rod is located on the vehicle plate, a plurality of limiting buckles are arranged on the vehicle plate, the limiting buckles are buckled on the fixing rod, and the limiting buckles are detachably fixed with the vehicle plate.

[0037] Both ends of the fixed rod extend upward and are connected with loading elbows, a connecting rod is fixed between the two loading elbows, a hoisting cross rod is sleeved in the loading elbow, the hoisting cross rod is in contact with the loading elbow, and both ends of the hoisting cross rod are provided with lifting rings.

[0038] In the utility model, the car plate is the main structure of the bearing vehicle body, the fixed rod is used for contacting with the car plate and utilizes the limiting buckle to complete the detachable fixed connection of the fixed rod and the car plate, so that the overall weight of the car plate can be borne by the fixed rod, the loading elbow is used as a stress point, the hoisting cross rod can be lifted to hoist the fixed rod, and the fixed rod is used for hoisting the car plate, and the lifting ring is used for being connected with external hoisting equipment, so that the hoisting cross rod is hoisted.

[0039] Further, the bearing vehicle body is provided with an outer protective shell, and the outer protective shell is buckled on the top of the bearing vehicle body.

[0040] In the utility model, the outer protective shell is used for forming an outer protective layer, so as to guarantee the collision safety of various equipment on the bearing vehicle body.

[0041] Compared with the prior art, the utility model has the following beneficial effects:

[0042] (1) The utility model discloses a kind of multi-angle X-ray detection devices, which can effectively adapt to multi-split cable X-ray detection work in multiple situations.

[0043] (2) The utility model discloses a kind of multi-angle X-ray detection devices, which can adapt to the spacing of different numbers of cables between the bearing wheel and the bearing vehicle body axis, and can realize the position movement of bearing vehicle body on cable by bearing wheel.

[0044] (3) The utility model discloses a kind of multi-angle X-ray detection devices, which can increase the flexibility of spacing adjustment between the first loading frame and the second loading frame by detachable connection, so as to increase the ability of the utility model to adapt to the spacing of different numbers of cables. DRAWINGS

[0045] The drawings described herein are used to provide further understanding of the embodiments of the utility model, constitute a part of this application, and do not constitute the limitation to the embodiments of the utility model.

[0046] Fig. 1 For the application schematic diagram of the utility model;

[0047] Fig. 2 It is the structure schematic view of not loading ray machine for the utility model;

[0048] Fig. 3 It is the structure schematic view of bearing vehicle body for the utility model;

[0049] Fig. 4 It is the overhead view of bearing vehicle body for the utility model;

[0050] Fig. 5 It is the side view for the utility model;

[0051] Fig. 6 It is the structure schematic view of second lifting slide rail for the utility model;

[0052] The name corresponding to the reference sign is: 1, first loading frame;2, ray machine;3, bearing wheel;4, outer protective shell;5, hoisting assembly;6, imaging board;7, second loading frame;8, bearing vehicle body;11, rotating motor;12, connecting seat;13, mounting plate;14, first bearing frame;15, first lifting slide rail;16, first guide inclined plane;51, connecting rod;52, loading elbow;53, lifting ring;54, hoisting cross bar;55, fixed rod;56, limit buckle;71, second guide inclined plane;72, second bearing frame;73, second lifting slide rail;81, vehicle plate;82, first telescopic rod;83, first mobile bearing seat;84, adjustable fixing block;85, second mobile bearing seat;86, second telescopic rod. DETAILED DESCRIPTION

[0053] In order to make the purpose, technical scheme and advantage of the utility model more clearly and clearly, the utility model is further explained in detail below by combining with examples and drawings, and the illustrative embodiment and its explanation of the utility model are only used to explain the utility model, and not as the limitation of the utility model.

[0054] Embodiment:

[0055] As Figs. 1-6 Indicated, the embodiment relates to a kind of X-ray detection device that can be flexibly applied to multi-split cable, including ray machine 2, imaging board 6 and bearing vehicle body 8, the first loading frame 1 and the second loading frame 7 are equipped on the bearing vehicle body 8, the first loading frame 1 and the second loading frame 7 are detachably connected with the bearing vehicle body 8;

[0056] The spacing between the first loading frame 1 and the second loading frame 7 can be adjusted;

[0057] The ray emission port of the ray machine 2 can be circumferentially rotated and / or vertically lifted, and the imaging board 6 is slidably connected with the second loading frame 7 in the vertical direction.

[0058] In actual application, in order to adapt to the cable spacing of different numbers of cables during X-ray detection, the spacing between the first mounting frame 1 and the second mounting frame 7 is adjusted to adjust the spacing between the ray machine 2 and the imaging plate 6. The bearing vehicle body 8 can be stably placed on the cable through the connection of the first mounting frame 1 and the second mounting frame 7, so that the cable to be detected, the tension clamp to be detected and the like can be conveniently placed between the ray machine 2 and the imaging plate 6, the ray machine 2 is conveniently irradiated, and the imaging plate 6 is conveniently imaged.

[0059] On this basis, since the ray emitting port of the ray machine 2 is unique, the ray emitting port of the ray machine 2 is fixed in the conventional setting, but there is a risk of detection dead angle. In the embodiment, the ray emitting port of the ray machine 2 can rotate circumferentially. The rotating mode can be that the ray emitting port is arranged in a circumferentially rotatable form, or the whole ray machine 2 is rotated to drive the ray emitting port to rotate circumferentially, so as to change the direction of ray irradiation. In the embodiment, the whole ray machine 2 is rotated to drive the ray emitting port to rotate circumferentially.

[0060] The ray machine 2 can be lifted in the vertical direction, and the imaging plate 6 can be lifted in the vertical direction, so that the ray machine 2 and the imaging plate 6 can cover a larger range of ray detection in the vertical direction, and cooperate with the circumferential rotation of the ray machine 2 to effectively widen the X-ray detection range of the embodiment.

[0061] The ray machine 2 in the embodiment is a finished product ray machine in the prior art, and the model of the ray machine 2 can be selected according to actual detection requirements. The imaging plate 6 is an imaging plate matched with the ray machine.

[0062] A plurality of bearing wheels 3 are arranged on the bearing vehicle body 8. The number of the bearing wheels 3 is an even number, and the bearing wheels 3 are uniformly distributed in a symmetrical manner with the axis of the bearing vehicle body 8 as a center line.

[0063] The spacing between the bearing wheel 3 and the axis of the bearing vehicle body 8 can be adjusted.

[0064] A first telescopic rod 82 and a second telescopic rod 86 are arranged on the bearing vehicle body 8. One end of the first telescopic rod 82 is fixed to the bearing vehicle body 8, and the other end is provided with a first movable bearing seat 83. The first movable bearing seat 83 is detachably fixed to the second mounting frame 7.

[0065] One end of the second telescopic rod 86 is fixed to the bearing vehicle body 8, and the other end is provided with a second movable bearing seat 85. The second movable bearing seat 85 is detachably fixed to the first mounting frame 1.

[0066] The adjustable fixing block 84 is detachably fixed to the bottom of the first carrier frame 1 or the second carrier frame 7, and the top of the adjustable fixing block 84 is provided with a plurality of parallel convex ribs which are detachably fixedly connected with the first movable bearing seat 83 or the second movable bearing seat 85.

[0067] In the embodiment, the bearing wheels 3 of the bearing vehicle body 8 can be carried on different cables for supporting the overall weight of the bearing vehicle body 8 through ray detection of the multi-split cable in the form of at least double splitting. Since the bearing wheels 3 need to be carried on different cables, the spacing between the bearing wheels 3 needs to be adapted to the spacing between different cables in the multi-split cable, and the spacing between the bearing wheels 3 and the axis of the bearing vehicle body 8 in the embodiment can be adjusted, so that different bearing wheels 3 can adjust different spacings to adapt to changes in the spacing between cables, such as different spacings between double-split cables and four-split cables, or changes in the spacing between two cables in a multi-split cable. The adjustment capability of the spacing between each bearing wheel 3 and the axis of the bearing vehicle body 8 in the embodiment can realize the purpose of stably bearing the overall weight of the embodiment and avoid the risk of instability in the balance of the bearing vehicle body 8 on the cable.

[0068] In the embodiment, the first movable bearing seat 83 and the second movable bearing seat 85 are independently adjusted relative to the bearing vehicle body 8 through the first telescopic rod 82 and the second telescopic rod 86. When the first telescopic rod 82 is individually elongated, the position of the first movable bearing seat 83 can be independently adjusted, and when the second telescopic rod 86 is individually elongated, the position of the second movable bearing seat 85 can be independently adjusted. The first movable bearing seat 83 is detachably fixed to the second carrier frame 7, and the second movable bearing seat 85 is detachably fixed to the first carrier frame 1, so that the spacing between the first carrier frame 1 and the axis of the bearing vehicle body 8 and the spacing between the second carrier frame 7 and the axis of the bearing vehicle body 8 can be independently adjusted. This can effectively increase the spacing adjustment mode between the first carrier frame 1 and the second carrier frame 7, so as to adapt to more types of cable widths for X-ray detection of multi-split cables and enhance the application range.

[0069] The first mobile bearing seat 83 and the second mobile bearing seat 85 can be fixed with the bearing wheel 3, so that the position of the bearing wheel 3 can be moved when the first mobile bearing seat 83 and / or the second mobile bearing seat 85 is moved, so as to adjust the distance between the two bearing wheels 3.

[0070] The convex rib on the adjustable fixing block 84 is used to limit the position of the first mobile bearing seat 83 or the second mobile bearing seat 85, so that the position of the first mobile bearing seat 83 or the second mobile bearing seat 85 can be changed by replacing the convex rib at different positions, thereby increasing the position adjustment range of the first mounting frame 1 and the second mounting frame 7, and combining the adjustment of the first telescopic rod 82 and the second telescopic rod 86, so that the embodiment has stronger adjustment capability when adjusting the distance between the radiographic machine 2 and the imaging plate 6, and is suitable for more distance adjustment modes.

[0071] The first mounting frame 1 comprises a first bearing frame 14, a rotating motor 11 is arranged in the first bearing frame 14, a connecting seat 12 is fixed to the output end of the rotating motor 11, an installation plate 13 is fixed to the connecting seat 12, and the radiographic machine 2 is installed on the installation plate 13.

[0072] The second mounting frame 7 comprises a second bearing frame 72, and the imaging plate 6 is movably connected with the second bearing frame 72.

[0073] The first bearing frame 14 is provided with a first lifting slide rail 15, and the first lifting slide rail 15 is provided with an installation seat capable of vertically moving along the first lifting slide rail 15, and the rotating motor 11 is fixed to the installation seat.

[0074] The second bearing frame 72 is provided with a second lifting slide rail 73, and the imaging plate 6 is detachably fixedly connected with the second lifting slide rail 73 and can vertically move on the second lifting slide rail 73.

[0075] In actual application, the radiographic machine 2 is installed on the installation plate 13, the position of the installation plate 13 is limited by the connecting seat 12, when the rotating motor 11 on the installation seat rotates, the connecting seat 12 can be driven to rotate circumferentially, so as to drive the installation plate 13 to overturn, and the installation plate 13 drives the radiographic machine 2 to rotate in the overturning process, so as to change the orientation of the radiographic machine 2.

[0076] When the mounting base is lifted under the action of the first lifting slide rail 15, the radiographic machine 2 is lifted, and the imaging plate 6 is lifted under the action of the second lifting slide rail 73, so that a larger radiographic detection range can be covered in the vertical range.

[0077] The first lifting slide rail 15 and the second lifting slide rail 73 in the embodiment adopt the existing electric lifting slide rail, pneumatic lifting slide rail, or hydraulic lifting slide rail, and the selected model should facilitate the scale production of the embodiment.

[0078] The rotating motor 11 in the embodiment adopts the existing motor with a rotating output shaft, and the selected model should facilitate the scale production of the embodiment.

[0079] The upper portion of the carrying vehicle body 8 is provided with a lifting assembly 5 for lifting the carrying vehicle body 8, and the lifting assembly 5 is detachably fixedly connected with the carrying vehicle body 8.

[0080] The carrying vehicle body 8 comprises a vehicle plate 81, the lifting assembly 5 comprises a fixing rod 55, the fixing rod 55 is located on the vehicle plate 81, a plurality of limiting buckles 56 are arranged on the vehicle plate 81, the limiting buckles 56 are buckled on the fixing rod 55, and the limiting buckles 56 are detachably fixed with the vehicle plate 81.

[0081] Both ends of the fixing rod 55 extend upward and are connected with a carrying elbow 52, a connecting rod 51 is fixed between the two carrying elbows 52, a lifting cross rod 54 is sleeved in the carrying elbow 52, the lifting cross rod 54 is in contact with the carrying elbow 52, and lifting rings 53 are arranged at both ends of the lifting cross rod 54.

[0082] The first carrying frame 14 is provided with a first guide inclined surface 16 on one side close to the carrying vehicle body 8, the second carrying frame 72 is provided with a second guide inclined surface 71 on one side close to the carrying vehicle body 8, and the first guide inclined surface 16 and the second guide inclined surface 71 are inclined and extend to the direction of the carrying vehicle body 8.

[0083] In the embodiment, the carrying vehicle body 8 is lifted under the action of the lifting assembly 5, the lifting rings 53 are lifted by connecting a lifting vehicle, a lifting tower, or a drone, when the lifting rings 53 are subjected to the lifting force, the carrying elbow 52 is pulled by the lifting cross rod 54, so that the lifting force is transmitted to the fixing rod 55, the connecting rod 51 is used to keep the stress of the two carrying elbows 52 uniform and ensure the spacing of the two carrying elbows 52 stable during lifting, so that the lifting of the carrying vehicle body 8 will not cause the deflection of the vehicle body.

[0084] The fixed rod 55 is driven by the lifting force, and is limited by the limiting buckle 56, so that the fixed rod 55 directly drives the lifting of the car plate 81, thereby realizing the overall lifting of the carrying vehicle body 8. When the carrying vehicle body 8 is lifted as a whole, the embodiment can complete the lifting.

[0085] When the carrying vehicle body 8 is placed on the cable, the first guide slope 16 and the second guide slope 71 first contact the cable. If there is a slight deviation in position, the placement direction is guided by the first guide slope 16 and the second guide slope 71, so that the embodiment can be stably loaded on the cable. The first guide slope 16 and the second guide slope 71 can provide effective position correction when there is a slight positional deviation during lifting and placement, thereby ensuring the safety and stability of the implementation process of the embodiment.

[0086] The carrying vehicle body 8 is provided with an outer protective shell 4, which is buckled on the top of the carrying vehicle body 8.

[0087] The outer protective shell 4 is used to form an outer protective layer, thereby ensuring the collision safety of various devices on the carrying vehicle body 8 in the utility model. The electric control equipment, wires, circuit boards and the like of the control ray machine in the embodiment are all accommodated in the outer protective shell 4.

[0088] The above specific embodiments further illustrate the purpose, technical solutions and advantages of the utility model. It should be understood that the above description is only a specific embodiment of the utility model, and is not used to limit the protection scope of the utility model. Any modification, equivalent replacement, improvement and the like within the spirit and principles of the utility model should be included in the protection scope of the utility model.

Claims

1. X-ray testing device, which is flexibly applicable to multi-split cables, comprising a radiographic machine (2) and an imaging plate (6), characterized in that, Also include the bearing vehicle body (8), the first carrying frame (1) and the second carrying frame (7) are arranged on the bearing vehicle body (8), the first carrying frame (1) and the second carrying frame (7) are all with the bearing vehicle body (8) detachable connection; The interval between the first carrying frame (1) and the second carrying frame (7) can be adjusted; The ray machine (2) is located on the first carrying frame (1), and the ray emitting port of the ray machine (2) can be circumferentially rotated and / or vertically lifted; The imaging plate (6) is located on the second carrying frame (7), and the imaging plate (6) is in sliding connection with the second carrying frame (7) in the vertical direction.

2. The X-ray inspection apparatus according to claim 1, wherein A plurality of bearing wheels (3) are arranged on the bearing vehicle body (8), the number of bearing wheels (3) is double, and the bearing wheels (3) are uniformly distributed in a central line symmetry mode with the axis of the bearing vehicle body (8) as the central line. The interval between the bearing wheel (3) and the bearing vehicle body (8) axis can be adjusted.

3. The X-ray inspection apparatus according to claim 2, characterized in that A first telescopic rod (82) and a second telescopic rod (86) are arranged on the bearing vehicle body (8), one end of the first telescopic rod (82) is fixed with the bearing vehicle body (8), the other end of the first telescopic rod (82) is provided with a first movable bearing seat (83), and the first movable bearing seat (83) is detachably fixed with the second carrying frame (7); One end of the second telescopic rod (86) is fixed with the bearing vehicle body (8), the other end of the second telescopic rod (86) is provided with a second movable bearing seat (85), and the second movable bearing seat (85) is detachably fixed with the first carrying frame (1).

4. The X-ray inspection apparatus according to claim 3, wherein Adjustable fixing blocks (84) are arranged between the first movable bearing seat (83) and the second carrying frame (7) and between the second movable bearing seat (85) and the first carrying frame (1), the bottom of the adjustable fixing block (84) is detachably fixed with the first carrying frame (1) or the second carrying frame (7), a plurality of parallel convex ribs are arranged on the top of the adjustable fixing block (84), and the convex ribs are detachably fixedly connected with the first movable bearing seat (83) or the second movable bearing seat (85).

5. The X-ray inspection apparatus of claim 1, wherein, The first carrying frame (1) comprises a first bearing frame (14), a rotating motor (11) is arranged in the first bearing frame (14), a connecting seat (12) is fixed to the output end of the rotating motor (11), an installation plate (13) is fixed on the connecting seat (12), and the ray machine (2) is installed on the installation plate (13); The second carrying frame (7) comprises a second bearing frame (72), and the imaging plate (6) is in vertical sliding connection with the second bearing frame (72).

6. The X-ray inspection apparatus according to claim 5, characterized in that A first lifting slide rail (15) is arranged on the first bearing frame (14), a mounting seat capable of being lifted longitudinally along the first lifting slide rail (15) is arranged on the first lifting slide rail (15), and the rotating motor (11) is fixed on the mounting seat; A second lifting slide rail (73) is arranged on the second bearing frame (72), and the imaging plate (6) is detachably fixedly connected with the second lifting slide rail (73) and can be vertically lifted on the second lifting slide rail (73).

7. The X-ray inspection apparatus of claim 5, wherein, The first bearing frame (14) is provided with a first guide inclined surface (16) near one side of the bearing vehicle body (8), the second bearing frame (72) is provided with a second guide inclined surface (71) near one side of the bearing vehicle body (8), and the first guide inclined surface (16) and the second guide inclined surface (71) are both inclined to the direction of the bearing vehicle body (8) and extend.

8. The X-ray inspection apparatus of claim 1, wherein, The upper side of the bearing vehicle body (8) is provided with a lifting assembly (5) for lifting the bearing vehicle body (8), and the lifting assembly (5) is detachably fixedly connected with the bearing vehicle body (8).

9. The X-ray inspection apparatus according to claim 8, characterized in that The bearing vehicle body (8) comprises a vehicle plate (81), the lifting assembly (5) comprises a fixing rod (55), the fixing rod (55) is located on the vehicle plate (81), a plurality of limiting buckles (56) are arranged on the vehicle plate (81), the limiting buckles (56) are buckled on the fixing rod (55), and the limiting buckles (56) are detachably fixed with the vehicle plate (81); Both ends of the fixing rod (55) extend upward and are connected with a carrying elbow (52), a connecting rod (51) is fixed between the two carrying elbows (52), a lifting cross rod (54) is sleeved in the carrying elbow (52), the lifting cross rod (54) is in contact with the carrying elbow (52), and both ends of the lifting cross rod (54) are provided with lifting eyes (53).

10. The X-ray inspection apparatus of claim 1, wherein, The bearing vehicle body (8) is provided with an outer protective shell (4), and the outer protective shell (4) is buckled on the top of the bearing vehicle body (8).

Images