Adjusting device and detection equipment
By designing an adjustment device for CT equipment, the synchronous motion adjustment mechanism drives the installation component movement, the problem of inconvenient adjustment and easy damage to the grating installation position is solved, and flexible and convenient adjustment of the grating position is achieved.
Patent Information
- Application Number
- CN202510435737.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-04-08
- Publication Date
- 2025-05-30
AI Technical Summary
The installation position of the grating in existing CT equipment is inconvenient to adjust and is prone to damage.
An adjustment device is designed, including an installation component, a first adjustment mechanism and a second adjustment mechanism. The installation component is driven to move through a synchronously moving adjustment to achieve flexible adjustment of the grating position.
It realizes convenient and flexible adjustment of the grating position, avoiding damage to the grating during the adjustment process.
Smart Images

Figure CN120065444A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of detection equipment, and in particular, to an adjusting device and a detection equipment. Background Art
[0002] CT equipment irradiates an object or a human body with an X-ray beam, and determines whether dangerous goods are carried or diagnoses diseases according to the scanned image. CT equipment is widely used in the security inspection field and the medical field. The grating assembly is an important component of CT equipment. The grating assembly includes multiple groups of gratings, and the installation positions of the multiple groups of gratings have an important impact on the quality of the scanned image.
[0003] In the related art, for some relatively fragile workpieces, such as the gratings installed in CT equipment, the gratings are mostly fixed to the frame of the CT equipment by screwing. When adjusting the installation position of the gratings, directly moving the gratings is likely to damage the gratings and is not conducive to flexible adjustment of the positions of the gratings. Summary of the Invention
[0004] In view of this, embodiments of the present invention provide an adjusting device and a detection equipment, which are used to solve the problems that the installation position of the gratings in the existing detection equipment is inconvenient to adjust and the gratings are easily damaged during the adjustment process.
[0005] In a first aspect, embodiments of the present invention provide an adjusting device, including:
[0006] An installation assembly, including a first installation member and a second installation member arranged at intervals, for installing a workpiece;
[0007] A first adjusting mechanism, connected to the first installation member, configured to perform a linear motion along a first direction and / or a linear motion along a second direction; and
[0008] A second adjusting mechanism, connected to the second installation member, configured to perform a linear motion along the first direction and / or a linear motion along the second direction,
[0009] wherein, the first adjusting mechanism and the second adjusting mechanism can move synchronously to drive the first installation member and the second installation member to move along the first direction and / or the second direction, so as to adjust the position of the workpiece.
[0010] According to an embodiment of the present invention, the adjusting device further includes:
[0011] A first rotating connecting piece, connecting the first installation member and the first adjusting mechanism, and the installation assembly can rotate around a first axis of the first rotating connecting piece to drive the workpiece to perform a rotational motion; and / or
[0012] The second rotating connecting member connects the second mounting member and the second adjusting mechanism, and the mounting assembly can rotate around the second axis of the second rotating connecting member to drive the workpiece to perform a rotational motion.
[0013] According to an embodiment of the present invention, the first adjusting mechanism includes:
[0014] A first sliding assembly, including a first slide rail and a first sliding member that are slidably connected, and the first sliding member is connected to the first mounting member;
[0015] A second sliding assembly, including a second slide rail and a second sliding member that are slidably connected, and the first slide rail is connected to the second sliding member;
[0016] A first mounting seat, including a first fixing portion and a first bearing portion connected to the first fixing portion, and the second slide rail is provided on the first bearing portion; and
[0017] A first driving assembly for driving the first sliding member to slide along the first slide rail and driving the second sliding member to slide along the second slide rail; and / or
[0018] The second adjusting mechanism includes:
[0019] A third sliding assembly, including a third slide rail and a third sliding member that are slidably connected, and the third sliding member is connected to the second mounting member;
[0020] A fourth sliding assembly, including a fourth slide rail and a fourth sliding member that are slidably connected, and the third slide rail is connected to the fourth sliding member;
[0021] A second mounting seat, including a second fixing portion and a second bearing portion connected to the second fixing portion, and the fourth slide rail is provided on the second bearing portion; and
[0022] A second driving assembly for driving the third sliding member to slide along the third slide rail and driving the fourth sliding member to slide along the fourth slide rail,
[0023] wherein, the length directions of the first slide rail and the third slide rail are parallel to the first direction, and the length directions of the second slide rail and the fourth slide rail are parallel to the second direction.
[0024] According to an embodiment of the present invention, the first adjusting mechanism further includes a first guiding seat, the first guiding seat is connected to the second sliding member, the first guiding seat includes a first guiding block and a first limiting block that are oppositely arranged, and the first guiding block is provided with a first guiding hole;
[0025] One end of the first sliding member protrudes to form a first abutting portion, and the first abutting portion is located between the first guiding block and the first limiting block;
[0026] The first driving component includes a first adjusting member and a first elastic member. The first adjusting member is disposed on the first guiding block and abuts against the first abutting portion. The first adjusting member can move along the axis direction of the first guiding hole. The first elastic member is clamped between the first abutting portion and the first limiting block;
[0027] Applying an external force to the first adjusting member, the first abutting portion moves towards or away from the first limiting block, driving the first sliding member to slide along the first sliding rail.
[0028] According to an embodiment of the present invention, a first guiding rod is provided on a side of the first abutting portion facing the first limiting block. The first limiting block is provided with a first through hole. The first guiding rod passes through the first through hole, and the first elastic member is sleeved on the first guiding rod.
[0029] According to an embodiment of the present invention, the first guiding seat further includes a second guiding block, and the second guiding block is provided with a second guiding hole;
[0030] The first driving component further includes a second adjusting member. The second adjusting member is disposed on the second guiding block and abuts against the first fixing portion. The second adjusting member can move along the axis direction of the second guiding hole;
[0031] Applying an external force to the second adjusting member, the first guiding seat moves towards or away from the first fixing portion, driving the second sliding member to slide along the second sliding rail.
[0032] According to an embodiment of the present invention, the first driving component further includes a second elastic member. One end of the second elastic member is connected to the first fixing portion, and the other end is connected to the second sliding member.
[0033] According to an embodiment of the present invention, the first sliding member includes a first connecting portion, a first sliding portion, and a first slider. The first connecting portion is connected to the first mounting member, and the first slider is disposed on a side of the first sliding portion facing the first fixing portion;
[0034] The second sliding member includes a second connecting portion, a second sliding portion, and a second slider. The first sliding rail and the first guiding seat are disposed on the second connecting portion, and the second slider is disposed on a side of the second sliding portion facing the first bearing portion;
[0035] The first bearing part is provided with a first avoidance opening, and the two second slide rails are arranged on two opposite sides of the first avoidance opening; the second sliding part is provided with a second avoidance opening, and the two second sliding blocks are arranged on two opposite sides of the second avoidance opening; the first sliding part passes through the first avoidance opening and the second avoidance opening.
[0036] According to an embodiment of the present invention, the second adjusting mechanism further includes a second guiding seat, the second guiding seat is connected to the fourth sliding member, the second guiding seat includes a third guiding block and a second limiting block arranged oppositely, and the third guiding block is provided with a third guiding hole;
[0037] One end of the third sliding member protrudes to form a second abutting portion, and the second abutting portion is located between the third guiding block and the second limiting block;
[0038] The second driving assembly includes a third adjusting member and a third elastic member, the third adjusting member is arranged on the third guiding block and abuts against the second abutting portion, the third adjusting member can move along the axis direction of the third guiding hole, and the third elastic member is clamped between the second abutting portion and the second limiting block;
[0039] Applying an external force to the third adjusting member, the second abutting portion moves towards or away from the second limiting block, driving the third sliding member to slide along the third slide rail.
[0040] According to an embodiment of the present invention, a second guiding rod is arranged on a side of the second abutting portion facing the second limiting block, the second limiting block is provided with a second through hole, the second guiding rod passes through the second through hole, and the third elastic member is sleeved on the second guiding rod.
[0041] According to an embodiment of the present invention, the second guiding seat further includes a fourth guiding block, and the fourth guiding block is provided with a fourth guiding hole;
[0042] The second driving assembly further includes a fourth adjusting member, the fourth adjusting member is arranged on the fourth guiding block and abuts against the second fixing portion, and the fourth adjusting member can move along the axis direction of the fourth guiding hole;
[0043] Applying an external force to the fourth adjusting member, the second guiding seat moves towards or away from the second fixing portion, driving the fourth sliding member to slide along the fourth slide rail.
[0044] According to an embodiment of the present invention, the second driving assembly further includes a fourth elastic member, one end of the fourth elastic member is connected to the second fixing portion, and the other end is connected to the fourth sliding member.
[0045] According to an embodiment of the present invention, the third sliding member includes a third connecting portion, a third sliding portion, and a third slider. The third connecting portion is connected to the second mounting member, and the third slider is disposed on a side of the third sliding portion facing the second fixing portion.
[0046] The fourth sliding member includes a fourth connecting portion, a fourth sliding portion, and a fourth slider. The third sliding rail and the second guiding seat are disposed on the fourth connecting portion, and the fourth slider is disposed on a side of the fourth sliding portion facing the second bearing portion.
[0047] The second bearing portion is provided with a third avoidance opening, and two of the fourth sliding rails are disposed on opposite sides of the third avoidance opening; the fourth sliding portion is provided with a fourth avoidance opening, and two of the fourth sliders are disposed on opposite sides of the fourth avoidance opening; the third sliding portion passes through the third avoidance opening and the fourth avoidance opening.
[0048] According to an embodiment of the present invention, the first mounting member and the first sliding member are detachably connected;
[0049] The second mounting member and the third sliding member are detachably connected;
[0050] The first mounting member and the first sliding member are in a separable state, and the second mounting member and the second sliding member are in a separable state. The first sliding member slides along the first sliding rail, and can drive the mounting assembly and the workpiece to rotate around the second axis; and
[0051] The third sliding member slides along the third sliding rail, and can drive the mounting assembly and the workpiece to rotate around the first axis.
[0052] In a second aspect, an embodiment of the present invention provides a detection device, including:
[0053] A detection component, having opposite first and second sides;
[0054] An inlet channel component, disposed on the first side of the detection component; and
[0055] An outlet channel component, disposed on the second side of the detection component;
[0056] Wherein, the detection component includes:
[0057] A support frame, configured with a detection channel;
[0058] A radiation source, disposed on the support frame;
[0059] A detector, disposed on the support frame and oppositely arranged with the radiation source;
[0060] The above-mentioned adjusting device is arranged on the inner wall surface of the support frame; and
[0061] A grating is arranged on the adjusting device.
[0062] According to an embodiment of the present invention, the detection device includes a plurality of adjusting devices, and the plurality of adjusting devices are arranged at intervals on the inner wall surface of the support frame.
[0063] The adjusting device and the detection device provided by the embodiment of the present invention can at least achieve the following technical effects: The workpiece is installed on the installation component, the first adjusting mechanism and the second adjusting mechanism are respectively connected to the first installation part and the second installation part, and the first adjusting mechanism and the second adjusting mechanism perform linear motion along the first direction and / or the second direction, driving the installation component and the workpiece to move along the first direction and / or the second direction, which can not only flexibly and conveniently adjust the position of the workpiece, but also avoid damaging the workpiece. BRIEF DESCRIPTION OF THE DRAWINGS
[0064] Through the following description of the embodiments of the present invention with reference to the drawings, the above and other objects, features and advantages of the present invention will become clearer. In the drawings:
[0065] Figure 1 Schematically shows a structural diagram of an adjusting device according to an embodiment of the present invention;
[0066] Figure 2 Schematically shows a front view of an adjusting device according to an embodiment of the present invention;
[0067] Figure 3 Schematically shows a top view of an adjusting device according to an embodiment of the present invention;
[0068] Figure 4 Schematically shows an exploded view of an adjusting device according to an embodiment of the present invention;
[0069] Figure 5 Schematically shows one of the structural diagrams of a detection device according to an embodiment of the present invention;
[0070] Figure 6 Schematically shows another structural diagram of a detection device according to an embodiment of the present invention;
[0071] Figure 7 Schematically shows a partial structural diagram of a detection component according to an embodiment of the present invention;
[0072] Reference Signs:
[0073] 400: Adjusting device;
[0074] 410: First adjusting mechanism; 411: First sliding component; 4111: First sliding member; 41111: First connecting portion; 41112: First sliding portion; 41113: First slider; 41114: First abutting portion; 41115: First guide rod; 4112: First slide rail; 412: Second sliding component; 4121: Second sliding member; 41211: Second connecting portion; 41212: Second sliding portion; 41213: Second slider; 41214: Second avoiding opening; 4122: Second slide rail; 413: First mounting seat; 4131: First fixing portion; 4132: First bearing portion; 4133: First avoiding opening; 414: First driving component; 4141: First adjusting member; 4142: First elastic member; 4143: Second adjusting member; 4144: Second elastic member; 415: First guide seat; 4151: First guide block; 4152: First limiting block; 4153: Second guide block;
[0075] 420: Second adjusting mechanism; 421: Third sliding component; 4211: Third sliding member; 42111: Third connecting portion; 42112: Third sliding portion; 42113: Third slider; 42114: Second abutting portion; 42115: Second guide rod; 4212: Third slide rail; 422: Fourth sliding component; 4221: Fourth sliding member; 42211: Fourth connecting portion; 42212: Fourth sliding portion; 42213: Fourth slider; 42214: Fourth avoiding opening; 4222: Fourth slide rail; 423: Second mounting seat; 4231: Second fixing portion; 4232: Second bearing portion; 4233: Third avoiding opening; 424: Second driving component; 4241: Third adjusting member; 4242: Third elastic member; 4243: Fourth adjusting member; 4244: Fourth elastic member; 425: Second guide seat; 4251: Third guide block; 4252: Second limiting block; 4253: Fourth guide block;
[0076] 430: Mounting component; 431: First mounting member; 4311: First fixing plate; 4312: Second fixing plate; 432: Second mounting member; 440: First rotating connecting member; 450: Second rotating connecting member;
[0077] 100: Inlet channel component; 101: First opening; 110: Inlet channel; 200: Outlet channel component; 201: Second opening; 210: Outlet channel;
[0078] 300: Detection component; 31: Support frame; 32: Radiation source; 33: Detector; 34: First grating; 341: First cross arm; 342: First vertical arm; 35: Second grating; 351: Second cross arm; 352: Second vertical arm; 36: Adjustable grating; 361: Movable cross arm; 362: Movable vertical arm; 310: Detection channel;
[0079] 500: Conveyor component; 600: First support frame; 700: Second support frame; 800: Grating. Detailed implementation manner
[0080] To make the objectives, technical solutions and advantages of the present invention clearer and more understandable, the following further elaborates on the present invention in detail with reference to specific embodiments and the accompanying drawings. Obviously, the described embodiments are some but not all of the embodiments of the present invention. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts fall within the scope of protection of the present invention.
[0081] The terms used herein are merely for describing specific embodiments and are not intended to limit the present invention. The terms "including", "comprising", etc. used herein indicate the presence of the described features, steps, operations and / or components, but do not exclude the presence or addition of one or more other features, steps, operations or components.
[0082] In the description of the present invention, it should be noted that, unless otherwise clearly defined and limited, the terms "installed", "connected", "connected" should be understood in a broad sense. For example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be directly connected or indirectly connected through an intermediate medium, and it can be the communication inside two components. For those of ordinary skill in the art, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.
[0083] In the prior art, for some relatively fragile workpieces, when adjusting the installation position of the workpiece, directly moving the workpiece is likely to damage the workpiece, and careful operation is required during the process of adjusting the position of the workpiece, which brings certain difficulties to the adjustment or maintenance work. An embodiment of the present invention provides an adjustment device, which realizes the quick and convenient adjustment of the installation position of the workpiece by adjusting the installation component for fixing the workpiece, and will not damage the workpiece.
[0084] The following combines Figures 1 to 7 Describe the adjustment device 400 of the embodiments of the present invention.
[0085] As Figures 1 to 4As shown in the figure, the adjusting device 400 provided by an embodiment of the present invention includes a mounting assembly 430, a first adjusting mechanism 410, and a second adjusting mechanism 420. The mounting assembly 430 includes a first mounting member 431 and a second mounting member 432 which are spaced apart and are used for mounting a workpiece. The first adjusting mechanism 410 is connected to the first mounting member 431 and is configured to perform a linear motion along a first direction and / or a linear motion along a second direction. The second adjusting mechanism 420 is connected to the second mounting member 432 and is configured to perform a linear motion along the first direction and / or a linear motion along the second direction. Wherein, the first adjusting mechanism 410 and the second adjusting mechanism 420 can move synchronously to drive the first mounting member 431 and the second mounting member 432 to move along the first direction and / or the second direction so as to adjust the position of the workpiece. The first direction is as Figure 3 shown by the D1 direction in Figure 2 the figure, and the second direction is as
[0086] shown by the D2 direction in the figure. Exemplarily, the mounting assembly 430 is used for mounting a workpiece, and the workpiece includes fragile articles such as a grating 800. The mounting of the grating 800 will be described below by taking the application of the grating 800 in a detection device as an example. The grating 800 is a narrow strip-shaped plate body. As Figure 5 、 Figure 6 and Figure 7 shown, the detection device includes a detection component 300, an inlet channel component 100 located on the first side of the detection component 300, and an outlet channel component 200 located on the second side of the detection component 300. The first side and the second side are opposite sides of the detection component 300.
[0087] The detection component 300 includes a support frame 31 and a detection assembly. A detection channel 310 is formed inside the support frame 31, and the detection assembly is mounted on the support frame 31. The detection assembly includes a radiation source 32, a detector 33, and a grating assembly. The radiation source 32 and the detector 33 are arranged opposite to each other. The radiation source 32 can be mounted at the lower left corner position of the support frame 31, and the detector 33 is mounted at the upper right corner position of the support frame 31. The grating assembly includes a plurality of gratings, and the number of gratings is set according to actual requirements. For example, the number of gratings is three, and the three gratings are a first grating 34, a second grating 35, and an adjustable grating 36 respectively.
[0088] The first grating 34 and the second grating 35 are arranged close to the radiation source 32, the first grating 34 and the second grating 35 are spaced apart, the first grating 34 includes a first cross arm 341 and a first vertical arm 342, and the second grating 35 includes a second cross arm 351 and a second vertical arm 352. The adjustable grating 36 is arranged close to the detector 33, and the adjustable grating 36 includes a movable cross arm 361 and a movable vertical arm 362. The first cross arm 341, the second cross arm 351, and the movable cross arm 361 are parallel to each other, and the first vertical arm 342, the second vertical arm 352, and the movable vertical arm 362 are parallel to each other.
[0089] When installing the grating assembly, first install the first grating 34 and the second grating 35 on the fixing frame, complete the alignment and adjustment work of the first grating 34 and the second grating 35 in the laboratory, and then install the fixing frame on the support frame 31. Then install the adjustable grating 36 on the adjusting device 400, install the adjusting device 400 inside the support frame 31, and finely adjust the adjustable grating 36 relative to the first grating 34 and the second grating 35. The adjustment effect of the adjustable grating 36 can only be judged by the scanning imaging result. During the debugging process, the position of the adjustable grating 36 is adjusted multiple times through the first adjusting mechanism 410 and the second adjusting mechanism 420 to make the quality of the scanned image reach the expected effect. The structure of the adjusting device 400 will be described in detail below.
[0090] The installation component 430 includes a first installation part 431 and a second installation part 432. The first installation part 431 and the second installation part 432 are arranged at intervals in the third direction, and the third direction is perpendicular to the first direction and the second direction. The length direction of the grating is consistent with the first direction, the thickness direction of the grating is consistent with the second direction, and the width direction of the grating is consistent with the third direction. The structures of the first installation part 431 and the second installation part 432 are the same.
[0091] For example, the first installation part 431 includes a first fixing plate 4311 and a second fixing plate 4312. The first fixing plate 4311 is provided with a first fixing hole, and the second fixing plate 4312 is provided with a second fixing hole. The first fixing hole is a threaded hole, and the second fixing hole is a through hole. The structure of the second installation part 432 is the same as that of the first installation part 431 and will not be described in detail. Place the grating 800 on the two first fixing plates 4311, then place the two second fixing plates 4312 above the grating 800. Along the width direction of the grating 800, the right side area of the grating 800 is clamped between the first fixing plate 4311 and the second fixing plate 4312, and the left side area of the grating 800 is clamped between the first fixing plate 4311 and the second fixing plate 4312. Screw the screw into the second fixing hole and the first fixing hole, and the first fixing plate 4311 and the second fixing plate 4312 are connected by the screw, so that the grating 800 is fixed between the two first fixing plates 4311 and the two second fixing plates 4312. The number of the first fixing holes and the second fixing holes is set according to actual needs. For example, two first fixing holes are provided on each first fixing plate 4311, and two second fixing holes are provided on each second fixing plate 4312. It can be understood that the area between the first installation part 431 and the second installation part 432 makes the middle area of the grating 800 located outside the installation component 430. Therefore, during the process of the ray passing through the grating 800, the installation component 430 will not interfere with the ray.
[0092] Further, an L-shaped limiting groove is recessed on the first fixing plate 4311, and one groove wall surface of the limiting groove is a limiting surface. An L-shaped limiting portion is formed on the second fixing plate 4312. The grating 800 is placed on the first fixing plate 4311, the bottom surface of the grating 800 is attached to one groove wall surface of the limiting groove, and the two side surfaces of the grating 800 are respectively attached to or close to the limiting surfaces of the two first fixing plates 4311. The limiting portion of the second fixing plate 4312 and the limiting groove of the first fixing plate 4311 form a limiting fit. The grating 800 is fixed between the two first fixing plates 4311 and the two second fixing plates 4312, and the two limiting surfaces can effectively prevent the grating 800 from moving in its width direction, improving the stability of the installation of the grating 800.
[0093] Further, a notch is formed on the second fixing plate 4312, and a through hole is provided at a position on the first fixing plate 4311 opposite to the notch. A first connection hole is provided on the first adjusting mechanism 410, and a fastener passes through the through hole and the first connection hole to realize the connection between the first adjusting mechanism 410 and the first mounting member 431. A second connection hole is provided on the second adjusting mechanism 420, and a fastener passes through the through hole and the second connection hole to realize the connection between the second adjusting structure and the second mounting member 432. The fastener includes a bolt and a nut.
[0094] The first adjusting mechanism 410 can be a synchronous belt drive mechanism, a lead screw nut drive mechanism, an electric push rod, a cylinder or other mechanisms capable of performing linear reciprocating motion. The second adjusting mechanism 420 can be a synchronous belt drive mechanism, a lead screw nut drive mechanism, an electric push rod, a cylinder or other mechanisms capable of performing linear reciprocating motion. The first adjusting mechanism 410 and the second adjusting mechanism 420 can perform linear motion synchronously along the first direction, and the first adjusting mechanism 410 and the second adjusting mechanism 420 can perform linear motion synchronously along the second direction.
[0095] Due to the constraints of the manufacturing process, the size of the grating cannot be made very large. Therefore, the movable cross arm 361 of the adjustable grating 36 is usually composed of multiple spliced gratings, and the movable vertical arm 362 is usually composed of multiple spliced gratings. The adjustment of the installation positions of the multiple gratings of the movable cross arm 361 will be described. A plurality of adjusting devices 400 are sequentially installed on the top wall surface of the support frame 31, and a grating 800 is installed on each adjusting device 400.
[0096] The first adjusting mechanism 410 and the second adjusting mechanism 420 perform linear motion along the first direction, driving the mounting assembly 430 and the grating 800 to perform linear motion along the first direction, and can adjust the position of the grating 800 along the first direction. By adjusting the position of the grating 800 along the first direction, it is ensured that the gap between two adjacent gratings 800 is small enough along the length direction of the movable cross arm 361.
[0097] The first adjustment mechanism 410 and the second adjustment mechanism 420 move linearly along the second direction, driving the mounting assembly 430 and the grating to move linearly along the second direction, and can adjust the position of the grating 800 along the second direction. By adjusting the position of the grating 800 along the second direction, it is ensured that the vertical distance between the movable cross arm 361 and the second cross arm 351 meets the requirements. It can be understood that multiple adjustment devices 400 are sequentially installed on the side wall surface of the support frame 31. By adjusting the position of the grating 800 along the first direction, it is ensured that the gap between two adjacent gratings 800 is small enough along the length direction of the movable vertical arm 362. By adjusting the position of the grating 800 along the second direction, it is ensured that the horizontal distance between the movable vertical arm 362 and the second vertical arm 352 meets the requirements.
[0098] The grating 800 is fixed on the mounting assembly 430. The first mounting member 431 is connected to the first adjustment mechanism 410, and the second mounting member 432 is connected to the second adjustment mechanism 420. The first adjustment mechanism 410 and the second adjustment mechanism 420 move linearly along the first direction and can adjust the gap between two adjacent gratings. The first adjustment mechanism 410 and the second adjustment mechanism 420 move linearly along the second direction and can adjust the vertical distance and the horizontal distance between the adjustable grating 36 and the second grating 35. During the whole adjustment process, there is no need to directly move the grating 800. The movement of the mounting assembly 430 drives the grating 800 to move, which can not only flexibly and conveniently adjust the position of the grating 800, but also effectively protect the grating.
[0099] In the embodiment of the present invention, the workpiece is mounted on the mounting assembly 430. The first adjustment mechanism 410 and the second adjustment mechanism 420 are respectively connected to the first mounting member 431 and the second mounting member 432. The first adjustment mechanism 410 and the second adjustment mechanism 420 move linearly along the first direction and / or the second direction, driving the mounting assembly 430 and the workpiece to move along the first direction and / or the second direction, which can not only flexibly and conveniently adjust the position of the workpiece, but also avoid damaging the workpiece.
[0100] Such as Figures 1 to 4As shown, in an alternative embodiment, the first adjustment mechanism 410 includes a first sliding assembly 411, a second sliding assembly 412, a first mounting seat 413, and a first driving assembly 414. The first sliding assembly 411 includes a first sliding rail 4112 and a first sliding member 4111 that are slidably connected, and the first sliding member 4111 is connected to the first mounting member 431. The second sliding assembly 412 includes a second sliding rail 4122 and a second sliding member 4121 that are slidably connected, and the first sliding rail 4112 is connected to the second sliding member 4121. The first mounting seat 413 includes a first fixing portion 4131 and a first bearing portion 4132 connected to the first fixing portion 4131, and the second sliding rail 4122 is disposed on the first bearing portion 4132. The first driving assembly 414 is configured to drive the first sliding member 4111 to slide along the first sliding rail 4112 and to drive the second sliding member 4121 to slide along the second sliding rail 4122.
[0101] The second adjustment mechanism 420 includes a third sliding assembly 421, a fourth sliding assembly 422, a second mounting seat 423, and a second driving assembly 424. The third sliding assembly 421 includes a third sliding rail 4212 and a third sliding member 4211 that are slidably connected, and the third sliding member 4211 is connected to the second mounting member 432. The fourth sliding assembly 422 includes a fourth sliding rail 4222 and a fourth sliding member 4221 that are slidably connected, and the third sliding rail 4212 is connected to the fourth sliding member 4221. The second mounting seat 423 includes a second fixing portion 4231 and a second bearing portion 4232 connected to the second fixing portion 4231, and the fourth sliding rail 4222 is disposed on the second bearing portion 4232. The second driving assembly 424 is configured to drive the third sliding member 4211 to slide along the third sliding rail 4212 and to drive the fourth sliding member 4221 to slide along the fourth sliding rail 4222.
[0102] Exemplarily, the first sliding member 4111 includes a first connecting portion 41111 and a first sliding portion 41112. The first connecting portion 41111 is a plate-like body, the first connecting portion 41111 is in contact with the first fixing plate 4311, and the first connecting portion 41111 and the first fixing plate 4311 can be connected by screwing. For example, through holes are provided on the first fixing plate 4311, and first connecting holes are provided on the first connecting portion 41111. The first connecting holes can be through holes or threaded holes. For example, when the first connecting hole is a through hole, a bolt passes through the through hole on the first fixing plate 4311 and the first connecting hole of the first connecting portion 41111, and a nut is screwed on to realize the connection between the first connecting portion 41111 and the first fixing plate 4311. On the side of the first sliding portion 41112 facing the first sliding rail 4112, a first slider 41113 is provided, and the first slider 41113 is slidably connected to the first sliding rail 4112.
[0103] The length direction of the first slide rail 4112 is consistent with the first direction, and the length direction of the first slide rail 4112 is the sliding direction of the first slider 4111.
[0104] The second sliding assembly 412 includes a second slide rail 4122 and a second slider 4121 that are slidably connected. The length direction of the second slide rail 4122 is consistent with the second direction, and the length direction of the second slide rail 4122 is the sliding direction of the second slider 4121.
[0105] The first mounting seat 413 includes a first fixing portion 4131 and a first bearing portion 4132. Both the first fixing portion 4131 and the first bearing portion 4132 can be plate-like bodies. The first fixing portion 4131 and the first bearing portion 4132 are perpendicular to each other. The first fixing portion 4131 can be connected to the inner wall surface of the support frame 31 by welding, screwing, etc. The second slide rail 4122 can be connected to the first bearing portion 4132 by screwing.
[0106] The first driving assembly 414 includes two driving members. One driving member is connected to the first slider 4111 and is used to drive the first slider 4111 to slide along the first slide rail 4112. The other driving member is connected to the second slider 4121 and is used to drive the second slider 4121 to slide along the second slide rail 4122.
[0107] The two driving members can be motors, and the first slider 4111 and the second slider 4121 are driven to slide by the motors. The two driving members can be micrometers, and the rotation of the micrometers drives the first slider 4111 and the second slider 4121 to slide.
[0108] The second slider 4121 includes a second connecting portion 41211 and a second sliding portion 41212. The second connecting portion 41211 and the second sliding portion 41212 are perpendicular to each other. The second connecting portion 41211 is parallel to the first fixing portion 4131. The first slide rail 4112 and the second connecting portion 41211 can be connected by screwing. A second slider 41213 is provided on the side of the second sliding portion 41212 facing the first bearing portion 4132, and the second slider 41213 is slidably connected to the second slide rail 4122.
[0109] Exemplarily, the second adjusting mechanism 420 can have the same structure as the first adjusting mechanism 410. For the structure of the third sliding assembly 421, reference can be made to the description of the first sliding assembly 411. The third slider 4211 includes a third connecting portion 42111 and a third sliding portion 42112. The third connecting portion 42111 can be connected to the first fixing plate 4311 by screwing. A third slider 42113 is provided on the side of the third sliding portion 42112 facing the third slide rail 4212, and the third slider 42113 is slidably connected to the third slide rail 4212.
[0110] The length direction of the third slide rail 4212 is parallel to the length direction of the first slide rail 4112, and the length direction of the third slide rail 4212 is the sliding direction of the third sliding member 4211.
[0111] The fourth sliding assembly 422 includes a fourth slide rail 4222 and a fourth sliding member 4221 which are slidably connected. The length direction of the fourth slide rail 4222 is parallel to the length direction of the second slide rail 4122, and the length direction of the fourth slide rail 4222 is the sliding direction of the fourth sliding member 4221.
[0112] The second mounting seat 423 includes a second fixing portion 4231 and a second bearing portion 4232. Both the second fixing portion 4231 and the second bearing portion 4232 can be plate-like bodies. The second fixing portion 4231 and the second bearing portion 4232 are perpendicular to each other. The second fixing portion 4231 can be connected to the inner wall surface of the support frame 31 by means of welding, screwing, etc. The fourth slide rail 4222 can be connected to the second bearing portion 4232 by means of screwing.
[0113] The second driving assembly 424 includes two driving members. One driving member is connected to the third sliding member 4211 for driving the third sliding member 4211 to slide along the third slide rail 4212, and the other driving member is connected to the fourth sliding member 4221 for driving the fourth sliding member 4221 to slide along the fourth slide rail 4222.
[0114] The two driving members can be motors to drive the third sliding member 4211 and the fourth sliding member 4221 to slide. The two driving members can be micrometer heads to drive the third sliding member 4211 and the fourth sliding member 4221 to slide by the rotation of the micrometer heads.
[0115] The fourth sliding member 4221 includes a fourth connecting portion 42211 and a fourth sliding portion 42212. The fourth connecting portion 42211 and the fourth sliding portion 42212 are perpendicular to each other. The fourth connecting portion 42211 is parallel to the second fixing portion 4231. The third slide rail 4212 and the fourth connecting portion 42211 can be connected by means of screwing. On the side of the fourth sliding portion 42212 facing the second bearing portion 4232, a fourth slider 42213 is provided, and the fourth slider 42213 is slidably connected to the fourth slide rail 4222.
[0116] The first driving assembly 414 and the second driving assembly 424 drive the first sliding member 4111 to slide along the first slide rail 4112 and the third sliding member 4211 to slide along the third slide rail 4212, driving the installation assembly 430 and the workpiece to move linearly along the first direction, and adjusting the position of the workpiece along the first direction. The first driving assembly 414 and the second driving assembly 424 drive the second sliding member 4121 to slide along the second slide rail 4122 and the fourth sliding member 4221 to slide along the fourth slide rail 4222, driving the installation assembly 430 and the workpiece to move linearly along the second direction, and adjusting the position of the workpiece along the second direction. The position of the workpiece along the first direction and the second direction is adjusted by four sets of sliding structures of the first sliding assembly 411, the second sliding assembly 412, the third sliding assembly 421 and the fourth sliding assembly 422. The overall structure of the adjustment mechanism is compact, the space occupied is small, the adjustment precision of the sliding structure is high, and the position of the workpiece can be accurately adjusted and slightly adjusted.
[0117] like Figures 1 to 4 As shown, in an optional embodiment, the first adjustment mechanism 410 also includes a first guide seat 415, the first guide seat 415 is connected to the second sliding member 4121, the first guide seat 415 includes a first guide block 4151 and a first stop block 4152 arranged opposite to each other, the first guide block 4151 is provided with a first guide hole, and the axial direction of the first guide hole is parallel to the first direction. One end of the first sliding member 4111 is convexly provided with a first abutment portion 41114, and the first abutment portion 41114 is located between the first guide block 4151 and the first stop block 4152. The first driving assembly 414 includes a first adjustment member 4141 and a first elastic member 4142, the first adjustment member 4141 is provided on the first guide block 4151, and abuts against the first abutment portion 41114, the first adjustment member 4141 can move along the axial direction of the first guide hole, and the first elastic member 4142 is sandwiched between the first abutment portion 41114 and the first stop block 4152. When an external force is applied to the first adjusting member 4141 , the first abutting portion 41114 moves toward or away from the first limiting block 4152 , driving the first sliding member 4111 to slide along the first sliding rail 4112 .
[0118] Exemplarily, the first guide seat 415 is approximately U-shaped and is disposed on a side of the second connecting portion 41211 of the second sliding member 4121 away from the first fixing portion 4131. The first guide seat 415 includes a first guide block 4151 and a first limit block 4152 that are spaced apart.
[0119] A first abutting portion 41114 is protrudingly formed on one end face of the first sliding portion 41112 in a direction away from the mounting assembly 430. The first abutting portion 41114 is located in the region between the first guiding block 4151 and the first limiting block 4152. A first guiding hole is provided on the first guiding block 4151, and the first adjusting member 4141 is installed at the first guiding hole. The first adjusting member 4141 includes a micrometer head. Define this micrometer head as the first micrometer head. The first micrometer head includes a knob and a measuring rod, and the measuring rod passes through the first guiding hole. The first adjusting member 4141 can also be an adjusting screw.
[0120] The first elastic member 4142 can be a columnar spring. The first micrometer head abuts against one side surface of the first abutting portion 41114, and the first elastic member 4142 abuts against the other side surface of the first abutting portion 41114.
[0121] When the knob of the first micrometer head is screwed clockwise, the measuring rod of the first micrometer head moves in the first direction towards the direction close to the first limiting block 4152. The measuring rod exerts a thrust on the first abutting portion 41114 towards the side facing the first limiting block 4152, so that the first sliding portion 41112 slides along the first slide rail 4112. At this time, the first elastic member 4142 is compressed and in an energy storage state.
[0122] When the knob of the first micrometer head is screwed counterclockwise, the measuring rod of the first micrometer head moves in the first direction away from the first limiting block 4152. The first elastic member 4142 releases energy, and the resilience of the first elastic member 4142 exerts a thrust on the first abutting portion 41114 towards the side away from the first limiting block 4152, so that the first sliding portion 41112 slides along the first slide rail 4112.
[0123] The first micrometer head and the first elastic member 4142 respectively abut against the two side surfaces of the first abutting portion 41114. During the process of adjusting the first micrometer head, the acting force of the first elastic member 4142 on the first abutting portion 41114 enables the first micrometer head to always bear a reverse pressure, which can effectively eliminate the thread pair clearance of the first micrometer head and ensure the accuracy of position adjustment.
[0124] The adjustment accuracy of the first micrometer head is high, and the adjustment accuracy of the first micrometer head can reach the micron level. By adjusting the position of the grating in the first direction with the first micrometer head, it can ensure that the gap between two adjacent gratings is small enough.
[0125] By applying a rotational motion to the first differential head, the first sliding member 4111 slides along the first slide rail 4112 towards one end of the first slide rail 4112. In addition, the resilience of the first elastic member 4142 enables the first sliding member 4111 to slide along the first slide rail 4112 towards the other end of the first slide rail 4112. Through the cooperation of the first differential head and the first elastic member 4142, the first sliding member 4111 is driven to slide along the first slide rail 4112. The operator only needs to apply a rotational motion to the first differential head to achieve the sliding of the first sliding member 4111, which is convenient to operate and is conducive to accurately adjusting the position of the workpiece.
[0126] As Figures 1 to 4 shown, in an alternative embodiment, the second adjustment mechanism 420 further includes a second guide base 425. The second guide base 425 is connected to the fourth sliding member 4221. The second guide base 425 includes a relatively arranged third guide block 4251 and a second limiting block 4252. The third guide block 4251 is provided with a third guide hole, and the axial direction of the third guide hole is parallel to the first direction. One end of the third sliding member 4211 protrudes to form a second abutting portion 42114, and the second abutting portion 42114 is located between the third guide block 4251 and the second limiting block 4252. The second driving assembly 424 includes a third adjusting member 4241 and a third elastic member 4242. The third adjusting member 4241 is disposed on the third guide block 4251 and abuts against the second abutting portion 42114. The third adjusting member 4241 can move along the axial direction of the third guide hole, and the third elastic member 4242 is clamped between the second abutting portion 42114 and the second limiting block 4252. By applying an external force to the third adjusting member 4241, the second abutting portion 42114 moves towards or away from the second limiting block 4252, driving the third sliding member 4211 to slide along the third slide rail 4212.
[0127] Exemplarily, the second guide base 425 is approximately U-shaped, and the second guide base 425 is installed on the side of the fourth connecting portion 42211 of the fourth sliding member 4221 that faces away from the second fixing portion 4231. The second guide base 425 includes a third guide block 4251 and a second limiting block 4252 that are spaced apart.
[0128] A second abutting portion 42114 is formed by protruding from one end face of the third sliding portion 42112 in a direction away from the mounting assembly 430. The second abutting portion 42114 is located in the region between the third guide block 4251 and the second limiting block 4252. A third guide hole is provided on the third guide block 4251, and the third adjusting member 4241 is installed at the third guide hole. The third adjusting member 4241 includes a differential head, and this differential head is defined as the third differential head. The third differential head includes a knob and a measuring rod, and the measuring rod passes through the third guide hole. The third adjusting member 4241 can also be an adjusting screw.
[0129] The third elastic member 4242 can be a columnar spring. The third micrometer abuts against one side of the second abutting portion 42114, and the third elastic member 4242 abuts against the other side of the second abutting portion 42114.
[0130] When the knob of the third micrometer is screwed clockwise, the measuring rod of the third micrometer moves in the first direction towards the direction close to the second limiting block 4252. The measuring rod exerts a thrust force on the second abutting portion 42114 towards the side facing the second limiting block 4252, so that the third sliding portion 42112 slides along the third slide rail 4212. At this time, the third elastic member 4242 is compressed and in an energy storage state.
[0131] When the knob of the third micrometer is screwed counterclockwise, the measuring rod of the third micrometer moves in the first direction away from the second limiting block 4252. The third elastic member 4242 releases energy, and the resilience of the third elastic member 4242 exerts a thrust force on the second abutting portion 42114 towards the side away from the second limiting block 4252, so that the third sliding portion 42112 slides along the third slide rail 4212.
[0132] The third micrometer and the third elastic member 4242 respectively abut against the two sides of the second abutting portion 42114. During the adjustment process of the third micrometer, the acting force of the third elastic member 4242 on the second abutting portion 42114 enables the third micrometer to always bear a reverse pressure, which can effectively eliminate the thread pair clearance of the third micrometer and ensure the accuracy of position adjustment.
[0133] The adjustment accuracy of the third micrometer is high, and the adjustment accuracy of the third micrometer can reach the micron level. By adjusting the position of the grating in the first direction through the third micrometer, it can ensure that the gap between two adjacent gratings is small enough.
[0134] By applying a rotational action to the third micrometer, the third sliding member 4211 slides along the third slide rail 4212 towards one end of the third slide rail 4212. In addition, the resilience of the third elastic member 4242 enables the third sliding member 4211 to slide along the third slide rail 4212 towards the other end of the third slide rail 4212. Through the cooperation of the third micrometer and the third elastic member 4242, the third sliding member 4211 is driven to slide along the third slide rail 4212. The operator only needs to apply a rotational action to the third micrometer to realize the sliding of the second sliding member 4121, which is convenient to operate and is beneficial to realizing the precise adjustment of the workpiece position.
[0135] Specifically, the operator applies rotational movements to the first differential head and the third differential head with both hands respectively. The first sliding member 4111 slides along the first slide rail 4112 under the action of the first differential head and the first elastic member 4142. At the same time, the third sliding member 4211 slides along the third slide rail 4212 under the action of the third differential head and the third elastic member 4242, driving the mounting assembly 430 and the workpiece to move in the first direction. There is no need to set a power source, the structure is simple, and the operation is convenient.
[0136] As Figure 3 and Figure 4 shown, in an alternative embodiment, a first guide rod 41115 is provided on a side of the first abutting portion 41114 facing the first limiting block 4152. The first limiting block 4152 is provided with a first through hole, and the first guide rod 41115 passes through the first through hole. The first elastic member 4142 is sleeved on the first guide rod 41115.
[0137] Exemplarily, the first guide rod 41115 is provided on a side of the first abutting portion 41114 facing the first limiting block 4152. The first guide rod 41115 passes through the first through hole in the first limiting block 4152 and is connected to the first abutting portion 41114. The first guide rod 41115 can be connected to the first abutting portion 41114 by screwing or welding. The axial direction of the first guide rod 41115 is parallel to the axial direction of the first guide hole.
[0138] The first elastic member 4142 is sleeved on the first guide rod 41115, and the first guide rod 41115 guides the movement of the first sliding member 4111. In addition, the first elastic member 4142 is sleeved on the first guide rod 41115. During the process of the first elastic member 4142 being compressed and deformed or releasing energy, the first guide rod 41115 guides the deformation of the first elastic member 4142, ensuring that the first elastic member 4142 deforms along its axial direction and preventing the first elastic member 4142 from shifting during the deformation process.
[0139] As Figure 3 and Figure 4 shown, in an alternative embodiment, a second guide rod 42115 is provided on a side of the second abutting portion 42114 facing the second limiting block 4252. The second limiting block 4252 is provided with a second through hole, and the second guide rod 42115 passes through the second through hole. The third elastic member 4242 is sleeved on the second guide rod 42115.
[0140] Exemplarily, the second guiding rod 42115 is disposed on the side of the second abutting portion 42114 facing the second limiting block 4252. The second guiding rod 42115 passes through the second through hole in the second limiting block 4252 and is connected to the second abutting portion 42114. The second guiding rod 42115 can be connected to the second abutting portion 42114 by screwing or welding. The axial direction of the second guiding rod 42115 is parallel to the axial direction of the third guiding hole.
[0141] The third elastic member 4242 is sleeved on the second guiding rod 42115, and the second guiding rod 42115 guides the movement of the third sliding member 4211. In addition, the third elastic member 4242 is sleeved on the second guiding rod 42115. During the process of the third elastic member 4242 being compressed and deformed or releasing energy, the second guiding rod 42115 guides the deformation of the third elastic member 4242, ensuring that the third elastic member 4242 deforms along its axial direction and preventing the third elastic member 4242 from shifting during the deformation process.
[0142] As Figures 2 to 4 shown, in an alternative embodiment, the first guiding seat 415 further includes a second guiding block 4153, and the second guiding block 4153 is provided with a second guiding hole. The first driving assembly 414 further includes a second adjusting member 4143. The second adjusting member 4143 is disposed on the second guiding block 4153 and abuts against the first fixing portion 4131. The second adjusting member 4143 can move along the axial direction of the second guiding hole. By applying an external force to the second adjusting member 4143, the first guiding seat 415 moves towards or away from the first fixing portion 4131, driving the second sliding member 4121 to slide along the second slide rail 4122.
[0143] Exemplarily, the first guiding seat 415 further includes a second guiding block 4153 on the same side as the first guiding block 4151 and the first limiting block 4152. The second guiding block 4153 is provided with a second guiding hole, and the axial direction of the second guiding hole is parallel to the second direction.
[0144] The second adjusting member 4143 is installed at the second guiding hole. The second adjusting member 4143 includes a differential head, which is defined as the second differential head. The second differential head includes a knob and a measuring rod. The measuring rod passes through the second guiding hole and abuts against the first fixing portion 4131.
[0145] By screwing the knob of the second differential head in the clockwise direction, the second sliding portion 41212 slides along the second slide rail 4122 towards the direction close to the first fixing portion 4131. By screwing the knob of the second differential head in the counterclockwise direction, the second sliding portion 41212 slides along the second slide rail 4122 towards the direction away from the first fixing portion 4131. By applying a rotational action to the second differential head, the second sliding member 4121 is driven to slide along the second slide rail 4122, and the operation is convenient.
[0146] As Figures 2 to 4 shown, in an alternative embodiment, the second guide seat 425 further includes a fourth guide block 4253, and the fourth guide block 4253 is provided with a fourth guide hole. The second driving assembly 424 further includes a fourth adjusting member 4243, and the fourth adjusting member 4243 is disposed on the fourth guide block 4253 and abuts against the second fixing portion 4231. The fourth adjusting member 4243 is capable of moving along the axial direction of the fourth guide hole. By applying an external force to the fourth adjusting member 4243, the second guide seat 425 moves in a direction closer to or farther from the second fixing portion 4231, driving the fourth sliding member 4221 to slide along the fourth slide rail 4222.
[0147] Exemplarily, the second guide seat 425 further includes a fourth guide block 4253 on the same side as the third guide block 4251 and the second limiting block 4252. The fourth guide block 4253 is provided with a fourth guide hole, and the axial direction of the fourth guide hole is parallel to the second direction.
[0148] The fourth adjusting member 4243 is installed at the fourth guide hole. The fourth adjusting member 4243 includes a differential head, which is defined as the fourth differential head. The fourth differential head includes a knob and a measuring rod. The measuring rod passes through the fourth guide hole and abuts against the second fixing portion 4231.
[0149] By screwing the knob of the fourth differential head in the clockwise direction, the fourth sliding portion 42212 slides along the fourth slide rail 4222 in a direction closer to the second fixing portion 4231. By screwing the knob of the fourth differential head in the counterclockwise direction, the fourth sliding portion 42212 slides along the fourth slide rail 4222 in a direction away from the second fixing portion 4231. By applying a rotational action to the second differential head, the fourth sliding member 4221 is driven to slide along the fourth slide rail 4222, and the operation is convenient.
[0150] The adjustment accuracy of the second differential head is high, and the adjustment accuracy of the second differential head can reach the micron level. The adjustment accuracy of the fourth differential head is high, and the adjustment accuracy of the fourth differential head can reach the micron level. By adjusting the position of the grating in the second direction through the second differential head and the fourth differential head, the vertical distance between the movable cross arm 361 and the second cross arm 351 can be finely adjusted, and at the same time, the horizontal distance between the movable vertical arm 362 and the second vertical arm 352 can be finely adjusted.
[0151] Specifically, the operator applies rotational actions to the second differential head and the fourth differential head with both hands respectively. The second sliding member 4121 slides along the second slide rail 4122 under the guiding action of the second differential head. At the same time, the fourth sliding member 4221 slides along the fourth slide rail 4222 under the guiding action of the fourth differential head, driving the mounting assembly 430 and the workpiece to move in the second direction. There is no need to set a power source, the structure is simple, the operation is convenient, and the position of the workpiece can be finely adjusted in the second direction.
[0152] As Figures 2 to 4 shown, in an alternative embodiment, the first driving assembly 414 further includes a second elastic member 4144. One end of the second elastic member 4144 is connected to the first fixing portion 4131, and the other end is connected to the second sliding member 4121.
[0153] Exemplarily, a connecting block is provided at one end of the second connecting portion 41211 away from the second sliding portion 41212. One screw is installed on the side of the first fixing portion 4131, and one screw is installed on the side of the connecting block. The two screws are arranged at intervals in the vertical direction. The second elastic member 4144 includes a tension spring. One hook of the tension spring is fixed on the screw of the first fixing portion 4131, and the other hook of the tension spring is fixed on the screw of the connecting block.
[0154] During the process of the second sliding member 4121 moving along the second slide rail 4122 towards or away from the first fixing portion 4131, the pulling force of the tension spring causes the second differential head to always bear a pulling force, which can effectively eliminate the thread pair clearance of the second differential head and ensure the accuracy of position adjustment in the second direction.
[0155] As Figures 2 to 4 shown, in an alternative embodiment, the second driving assembly 424 further includes a fourth elastic member 4244. One end of the fourth elastic member 4244 is connected to the second fixing portion 4231, and the other end is connected to the fourth sliding member 4221.
[0156] Exemplarily, a connecting block is provided at one end of the fourth connecting portion 42211 away from the fourth sliding portion 42212. One screw is installed on the side of the second fixing portion 4231, and one screw is installed on the side of the connecting block. The two screws are arranged at intervals in the vertical direction. The fourth elastic member 4244 includes a tension spring. One hook of the tension spring is fixed on the screw of the second fixing portion 4231, and the other hook of the tension spring is fixed on the screw of the connecting block.
[0157] During the process of the fourth sliding member 4221 moving along the fourth slide rail 4222 towards or away from the second fixing portion 4231, the pulling force of the tension spring causes the fourth differential head to always bear a pulling force, which can effectively eliminate the thread pair clearance of the fourth differential head and ensure the accuracy of position adjustment in the second direction.
[0158] As Figures 1 to 4As shown, in an alternative embodiment, the first sliding member 4111 includes a first connecting portion 41111, a first sliding portion 41112, and a first slider 41113. The first connecting portion 41111 is connected to the first mounting member 431, and the first slider 41113 is disposed on the side of the first sliding portion 41112 facing the first fixing portion 4131. The second sliding member 4121 includes a second connecting portion 41211, a second sliding portion 41212, and a second slider 41213. The first sliding rail 4112 and the first guiding seat 415 are disposed on the second connecting portion 41211, and the second slider 41213 is disposed on the side of the second sliding portion 41212 facing the first bearing portion 4132. The first bearing portion 4132 is provided with a first avoidance opening 4133, and two second sliding rails 4122 are disposed on opposite sides of the first avoidance opening 4133. The second sliding portion 41212 is provided with a second avoidance opening 41214, and two second sliders 41213 are disposed on opposite sides of the second avoidance opening 41214. The first sliding portion 41112 passes through the first avoidance opening 4133 and the second avoidance opening 41214.
[0159] Exemplarily, a first avoidance opening 4133 is formed in the middle region of the first bearing portion 4132, and the width of the first avoidance opening 4133 is slightly larger than the width of the first sliding portion 41112. The two second sliding rails 4122 are located on opposite sides of the first avoidance opening 4133.
[0160] A second avoidance opening 41214 is formed in the middle region of the second sliding portion 41212. The width of the second avoidance opening 41214 is slightly larger than the width of the second sliding portion 41212. The two second sliders 41213 are located on opposite sides of the second avoidance opening 41214, and the second slider 41213 is mounted on the side of the second sliding portion 41212 facing the first bearing portion 4132. By turning the knob of the second differential head, the two second sliders 41213 slide along the two second sliding rails 4122, which helps to ensure the smoothness of the movement of the second sliding member 4121 in the second direction.
[0161] In addition, avoidance openings for accommodating the first sliding portion 41112 are provided on the first bearing portion 4132 and the second sliding member 4121. The first sliding portion 41112 passes through the first avoidance opening 4133 and the second avoidance opening 41214, which is beneficial to the compactness of the overall structure of the first sliding assembly 411, the second sliding assembly 412, and the first mounting seat 413, and further beneficial to the miniaturization of the first adjusting mechanism 410.
[0162] Such as Figures 1 to 4As shown, in an alternative embodiment, the third sliding member 4211 includes a third connecting portion 42111, a third sliding portion 42112, and a third slider 42113. The third connecting portion 42111 is connected to the second mounting member 432, and the third slider 42113 is disposed on the side of the third sliding portion 42112 facing the second fixing portion 4231. The fourth sliding member 4221 includes a fourth connecting portion 42211, a fourth sliding portion 42212, and a fourth slider 42213. The third slide rail 4212 and the second guide seat 425 are disposed on the fourth connecting portion 42211, and the fourth slider 42213 is disposed on the side of the fourth sliding portion 42212 facing the second bearing portion 4232. The second bearing portion 4232 is provided with a third avoidance opening 4233, and two fourth slide rails 4222 are disposed on opposite sides of the third avoidance opening 4233. The fourth sliding portion 42212 is provided with a fourth avoidance opening 42214, and two fourth sliders 42213 are disposed on opposite sides of the fourth avoidance opening 42214. The third sliding portion 42112 passes through the third avoidance opening 4233 and the fourth avoidance opening 42214.
[0163] Exemplarily, a third avoidance opening 4233 is formed in the middle region of the second bearing portion 4232, and the width of the third avoidance opening 4233 is slightly larger than the width of the third sliding portion 42112. Two fourth slide rails 4222 are located on opposite sides of the third avoidance opening 4233.
[0164] A fourth avoidance opening 42214 is formed in the middle region of the fourth sliding portion 42212. The width of the fourth avoidance opening 42214 is slightly larger than the width of the fourth sliding portion 42212. Two fourth sliders 42213 are located on opposite sides of the fourth avoidance opening 42214, and the fourth slider 42213 is mounted on the side of the fourth sliding portion 42212 facing the second bearing portion 4232. By turning the knob of the fourth differential head, the two fourth sliders 42213 slide along the two fourth slide rails 4222, which helps to ensure the smooth movement of the fourth sliding member 4221 in the second direction.
[0165] In addition, avoidance openings for accommodating the third sliding portion 42112 are provided on the second bearing portion 4232 and the fourth sliding member 4221. The third sliding portion 42112 passes through the third avoidance opening 4233 and the fourth avoidance opening 42214, which is beneficial to the compactness of the overall structure of the third sliding assembly 421, the fourth sliding assembly 422, and the second mounting seat 423, and further beneficial to the miniaturization of the second adjustment mechanism 420.
[0166] As Figure 1As shown, in an alternative embodiment, the adjusting device 400 further includes a first rotating connector 440 and a second rotating connector 450. The first rotating connector 440 connects the first mounting member 431 and the first adjusting mechanism 410. The mounting assembly 430 can rotate about a first axis of the first rotating connector 440 to drive the workpiece to perform a rotational movement. The second rotating connector 450 connects the second mounting member 432 and the second adjusting mechanism 420. The mounting assembly 430 can rotate about a second axis of the second rotating connector 450 to drive the workpiece to perform a rotational movement.
[0167] Exemplarily, the first rotating connector 440 includes a first rotating shaft. Coaxial shaft holes are provided on a second fixing plate 4312, a first fixing plate 4311, and a first connecting portion 41111 of a first sliding member 4111. The first rotating shaft passes through the shaft holes on the second fixing plate 4312, the first fixing plate 4311, and the first connecting portion 41111. Limit members can be installed at both ends of the first rotating shaft to limit its axial direction. For example, external threads are formed at both ends of the first rotating shaft, and the limit members are nuts that are screwed onto the external threads to limit the axial movement of the first rotating shaft.
[0168] The second rotating connector 450 includes a second rotating shaft. Coaxial shaft holes are provided on a second fixing plate 4312, a first fixing plate 4311, and a third connecting portion 42111 of a third sliding member 4211. The second rotating shaft passes through the shaft holes on the second fixing plate 4312, the first fixing plate 4311, and the third connecting portion 42111. Limit members can be installed at both ends of the second rotating shaft to limit its axial direction. For example, external threads are formed at both ends of the second rotating shaft, and the limit members are nuts that are screwed onto the external threads to limit the axial movement of the second rotating shaft.
[0169] In an alternative embodiment, the first mounting member 431 and the first sliding member 4111 are detachably connected by a first fastener. The second mounting member 432 and the third sliding member 4211 are detachably connected by a second fastener. When the first mounting member 431 and the first sliding member 4111 are in a separable state, and the second mounting member 432 and the second sliding member 4121 are in a separable state, the first sliding member 4111 slides along the first slide rail 4112, which can drive the mounting assembly 430 and the workpiece to rotate about the second axis; and the third sliding member 4211 slides along the third slide rail 4212, which can drive the mounting assembly 430 and the workpiece to rotate about the first axis.
[0170] Exemplarily, through holes are provided on the first fixing plate 4311, and first connection holes are provided on the first sliding member 4111. The first fastener includes a bolt and a nut. The bolt passes through the through hole and the first connection hole, and the nut is screwed on to achieve the separable connection between the first mounting member 431 and the first sliding member 4111. Through holes are provided on the first fixing plate 4311, and second connection holes are provided on the second sliding member 4121. The second fastener includes a bolt and a nut. The bolt passes through the through hole and the second connection hole, and the nut is screwed on to achieve the separable connection between the second mounting member 432 and the second sliding member 4121. The first connection hole and the second connection hole can also be threaded holes, and the first fastener and the second fastener are screws.
[0171] The rotation adjustment of the workpiece will be described in detail below.
[0172] Loosen the two screws connecting the first fixing plate 4311 and the first sliding member 4111 and the two screws connecting the first fixing plate 4311 and the third sliding member 4211. Keep the second adjustment mechanism 420 stationary, and rotate the first differential head on the first adjustment mechanism 410 in the clockwise direction. The first sliding member 4111 moves along the first slide rail 4112 towards one end of the first slide rail 4112. The first rotating shaft moves along the first direction with the first sliding member 4111, driving the mounting assembly 430 and the grating 800 to rotate around the second axis of the second rotating shaft, realizing the clockwise rotation adjustment of the grating 800. Rotate the first differential head on the first adjustment mechanism 410 in the counterclockwise direction. The first sliding member 4111 moves along the first slide rail 4112 towards the other end of the first slide rail 4112. The first rotating shaft moves along the first direction with the first sliding member 4111, driving the mounting assembly 430 and the grating 800 to rotate around the second axis of the second rotating shaft, realizing the counterclockwise rotation adjustment of the grating 800.
[0173] It can be understood that by keeping the first adjustment mechanism 410 stationary and rotating the third differential head on the second adjustment mechanism 420 in the clockwise or counterclockwise direction, the third sliding member 4211 moves along the third slide rail 4212. The second rotating shaft moves along the first direction with the third sliding member 4211, driving the mounting assembly 430 and the grating 800 to rotate around the first axis of the first rotating shaft, realizing the clockwise or counterclockwise rotation adjustment of the grating 800.
[0174] Due to factors such as manufacturing tolerances, when the grating 800 is installed on the adjustment device 400, there may be a problem that the central plane of the grating 800 is offset by a certain angle relative to the central plane of the mounting assembly 430. By rotating the grating 800, the alignment degree of two adjacent gratings 800 is adjusted to ensure that the end faces of two adjacent gratings 800 are aligned.
[0175] Further, during the translation of the first rotating shaft along with the first sliding member 4111, the distance between the first rotating shaft and the second rotating shaft will change. Both of the two shaft holes connecting the first fixing plate 4311 and the second fixing plate 4312 of the mounting assembly 430 to the first rotating shaft are set as long holes, ensuring that the mounting assembly 430 can rotate at an appropriate angle around the second axis.
[0176] During the translation of the second rotating shaft along with the third sliding member 4211, the distance between the second rotating shaft and the first rotating shaft will change. The two shaft holes connecting the first fixing plate 4311 and the second fixing plate 4312 of the mounting assembly 430 to the second rotating shaft are set as long holes, ensuring that the mounting assembly 430 can rotate at an appropriate angle around the first axis.
[0177] As Figure 5 、 Figure 6 and Figure 7 shown, an embodiment of the present invention further provides a detection device, which includes a detection component 300, an inlet channel component 100, and an outlet channel component 200. The detection component 300 has opposite first and second sides; the inlet channel component 100 is disposed on the first side of the detection component 300, and the outlet channel component 200 is disposed on the second side of the detection component 300. The detection component 300 includes a support frame 31, and the support frame 31 is configured with a detection channel 310. A radiation source 32 is disposed on the support frame 31; a detector 33 is disposed on the support frame 31 and is disposed opposite to the radiation source 32. An adjustment device 400 is disposed on the inner wall surface of the support frame 31; a grating 800 is disposed on the adjustment device 400.
[0178] Exemplarily, the inlet channel component 100 is configured with an inlet channel 110, the detection component 300 is configured with a detection channel 310, the outlet channel component 200 is configured with an outlet channel 210, and the inlet channel 110, the detection channel 310, and the outlet channel 210 are in communication with each other.
[0179] The inlet channel component 100 includes a first carrier and a first shielding member. The first carrier can be a hollow square body. The first carrier defines the inlet channel 110. One end of the first carrier close to the detection component 300 is provided with a first opening 101, and the first opening 101 is in communication with the detection channel 310. The first shielding member is detachably connected to the first carrier, and the first shielding member can open or block the first opening 101.
[0180] The first shielding member and the first carrier can be connected by a screwing method, a clamping method, or a sliding connection method. When the first shielding member opens the first opening 101, since the first opening 101 is in communication with the detection channel 310, operators can debug or repair the grating assembly in the detection channel 310 at the first opening 101, which is beneficial to the convenience of operation. When the first shielding member blocks the first opening 101, the inlet channel 110 is a closed channel.
[0181] The outlet channel component 200 includes a second carrier and a second shielding member. The second carrier can be a hollow square body. The second carrier defines an outlet channel 210. One end of the second carrier close to the detection component 300 is provided with a second opening 201. The second opening 201 communicates with the detection channel 310. The second shielding member is detachably connected to the second carrier, and the second shielding member can open or shield the second opening 201.
[0182] The second shielding member and the second carrier can be connected by screwing, clamping or sliding connection. When the second shielding member opens the second opening 201, since the second opening 201 communicates with the detection channel 310, operators can debug or repair the grating assembly in the detection channel 310 at the second opening 201, which is beneficial to the convenience of operation. When the second shielding member shields the second opening 201, the outlet channel 210 is a closed channel.
[0183] The detection device further includes a conveying component 500. The conveying component 500 includes a driving roller, a driven roller and a conveyor belt. The conveyor belt is sleeved on the driving roller and the driven roller. The conveyor belt sequentially passes through the inlet channel 110, the detection channel 310 and the outlet channel 210, and conveys the object to be detected through the movement of the conveyor belt.
[0184] The detection device further includes a first support frame 600 and a second support member 700. The first support frame 600 is used to support the inlet channel component 100, and the second support frame 700 is used to support the outlet channel component 200. The first support frame 600 and the second support frame 700 can both be formed by welding profiles. For example, both the first support frame 600 and the second support frame 700 are formed by welding multiple square steel pipes.
[0185] The radiation source 32 can be installed at the lower left corner position of the support frame 31, and the detector 33 is installed at the upper right corner position of the support frame 31. The grating assembly includes multiple gratings. For example, the grating assembly includes a first grating 34, a second grating 35 and an adjustable grating 36.
[0186] The first grating 34 and the second grating 35 are arranged close to the radiation source 32, the adjustable grating 36 is arranged close to the detector 33, and the detection area is between the second grating 35 and the adjustable grating 36. The first grating 34 includes a first cross arm 341 and a first vertical arm 342, and the second grating 35 includes a second cross arm 351 and a second vertical arm 352. The adjustable grating 36 includes a movable cross arm 361 and a movable vertical arm 362.
[0187] The movable cross arm 361 is assembled by multiple gratings, and the movable vertical arm 362 is also assembled by multiple gratings. For example, the movable cross arm 361 is assembled by four gratings, and the movable vertical arm 362 is assembled by three gratings.
[0188] Four adjusting devices 400 are successively arranged on the top wall surface of the support frame 31, and each adjusting device 400 is equipped with a grating 800. Three adjusting devices 400 are successively arranged on one side wall surface of the support frame 31, and each adjusting device 400 is equipped with a grating 800. The structure of the adjusting device 400 is as described above and will not be elaborated here.
[0189] The adjustment of the grating installed on the adjusting device 400 on the top wall surface will be described below.
[0190] The operator is below the adjusting device 400 and simultaneously applies a rotating action to the first differential head and the third differential head. The first sliding member 4111 slides along the first slide rail 4112, and at the same time, the third sliding member 4211 slides along the third slide rail 4212, driving the mounting assembly 430 and the grating 800 to move in the first direction, adjusting the position of the grating 800 in the first direction to ensure that the gap between two adjacent gratings 800 is small enough.
[0191] The operator is below the adjusting device 400 and simultaneously applies a rotating action to the second differential head and the fourth differential head. The second sliding member 4121 slides along the second slide rail 4122, and at the same time, the fourth sliding member 4221 slides along the fourth slide rail 4222, driving the mounting assembly 430 and the grating 800 to move in the second direction, adjusting the position of the grating 800 in the second direction to ensure that the vertical distance between the movable cross arm 361 and the second cross arm 351 meets the requirements.
[0192] The adjustment of the grating installed on the adjusting device 400 on the side wall surface will be described below.
[0193] The operator is beside the adjusting device 400 and simultaneously applies a rotating action to the first differential head and the third differential head. The first sliding member 4111 slides along the first slide rail 4112, and at the same time, the third sliding member 4211 slides along the third slide rail 4212, driving the mounting assembly 430 and the grating 800 to move in the first direction, adjusting the position of the grating 800 in the first direction to ensure that the gap between two adjacent gratings 800 is small enough.
[0194] The operator is beside the adjusting device 400 and simultaneously applies a rotating action to the second differential head and the fourth differential head. The second sliding member 4121 slides along the second slide rail 4122, and at the same time, the fourth sliding member 4221 slides along the fourth slide rail 4222, driving the mounting assembly 430 and the grating 800 to move in the second direction, adjusting the position of the grating 800 in the second direction to ensure that the horizontal distance between the movable vertical arm 362 and the second vertical arm 352 meets the requirements.
[0195] The grating 800 is installed on the installation component 430. The first adjustment mechanism 410 and the second adjustment mechanism 420 are respectively connected to the first installation part 431 and the second installation part 432. The first adjustment mechanism 410 and the second adjustment mechanism 420 perform linear motion along the first direction and / or the second direction, driving the installation component 430 and the grating 800 to move along the first direction and / or the second direction, which can not only flexibly and conveniently adjust the position of the grating 800, but also avoid damaging the grating 800.
[0196] The detection device with the above adjustment device 400 can not only flexibly and conveniently adjust the position of the adjustable grating 36 to ensure the quality of the scanned image, but also effectively avoid damaging the adjustable grating 36.
[0197] As described above, it is only a specific embodiment of the present invention, but the protection scope of this application is not limited thereto. Any changes or substitutions made within the spirit and principle of the present invention should be covered by the protection scope of this application. Therefore, the protection scope of this application shall be subject to the protection scope of the claims.
Claims
1. A regulating device, characterized in that: include: A mounting assembly, comprising a first mounting member and a second mounting member disposed at intervals, for mounting a workpiece; A first adjustment mechanism, connected to the first mounting member, configured to perform linear motion along a first direction and / or to perform linear motion along a second direction; as well as A second adjustment mechanism is connected to the second mounting member and is configured to perform linear motion along the first direction and / or along the second direction. The first adjusting mechanism and the second adjusting mechanism can move synchronously to drive the first mounting member and the second mounting member to move along the first direction and / or the second direction to adjust the position of the workpiece.
2. The adjustment device according to claim 1, wherein: The adjusting device also includes: a first rotating connection member, connecting the first mounting member and the first adjusting mechanism, wherein the mounting assembly can rotate around a first axis of the first rotating connection member to drive the workpiece to rotate; and / or The second rotating connecting member connects the second mounting member and the second adjusting mechanism, and the mounting assembly can rotate around the second axis of the second rotating connecting member to drive the workpiece to rotate.
3. The adjustment device according to claim 2, wherein: The first adjustment mechanism comprises: A first sliding assembly comprises a first sliding rail and a first sliding member which are slidably connected, wherein the first sliding member is connected to the first mounting member; A second sliding assembly comprises a second sliding rail and a second sliding member which are slidably connected, wherein the first sliding rail is connected to the second sliding member; A first mounting seat comprises a first fixing portion and a first bearing portion connected to the first fixing portion, and the second slide rail is disposed on the first bearing portion; and a first driving assembly, configured to drive the first sliding member to slide along the first sliding rail, and drive the second sliding member to slide along the second sliding rail; and / or The second adjustment mechanism comprises: A third sliding assembly comprises a third sliding rail and a third sliding member which are slidably connected, and the third sliding member is connected to the second mounting member; A fourth sliding assembly comprises a fourth sliding rail and a fourth sliding member which are slidably connected, wherein the third sliding rail is connected to the fourth sliding member; A second mounting seat, comprising a second fixing portion and a second bearing portion connected to the second fixing portion, the fourth slide rail being disposed on the second bearing portion; and a second driving assembly, for driving the third sliding member to slide along the third slide rail, and driving the fourth sliding member to slide along the fourth slide rail, The length directions of the first slide rail and the third slide rail are parallel to the first direction, and the length directions of the second slide rail and the fourth slide rail are parallel to the second direction.
4. The adjustment device according to claim 3, wherein: The first adjustment mechanism further includes a first guide seat, the first guide seat is connected to the second sliding member, the first guide seat includes a first guide block and a first limit block which are arranged opposite to each other, and the first guide block is provided with a first guide hole; A first abutment portion is convexly formed at one end of the first sliding member, and the first abutment portion is located between the first guide block and the first limiting block; The first driving assembly includes a first adjusting member and a first elastic member, the first adjusting member is arranged on the first guide block and abuts against the first abutting portion, the first adjusting member can move along the axial direction of the first guide hole, and the first elastic member is sandwiched between the first abutting portion and the first limiting block; When an external force is applied to the first adjusting member, the first abutting portion moves toward or away from the first limiting block, driving the first sliding member to slide along the first sliding rail.
5. The adjustment device according to claim 4, wherein: A first guide rod is provided on a side of the first abutting portion facing the first limiting block, the first limiting block is provided with a first through hole, the first guide rod passes through the first through hole, and the first elastic member is sleeved on the first guide rod.
6. The adjustment device according to claim 4, wherein: The first guide seat further comprises a second guide block, and the second guide block is provided with a second guide hole; The first driving assembly further includes a second adjusting member, which is disposed on the second guide block and abuts against the first fixing portion, and the second adjusting member can move along the axial direction of the second guide hole; When an external force is applied to the second adjusting member, the first guide seat moves toward or away from the first fixing portion, driving the second sliding member to slide along the second sliding rail.
7. The adjustment device according to claim 6, wherein: The first driving assembly further includes a second elastic member, one end of the second elastic member is connected to the first fixing portion, and the other end of the second elastic member is connected to the second sliding member.
8. The adjusting device according to any one of claims 4 to 7, wherein: The first sliding member includes a first connecting portion, a first sliding portion and a first sliding block, the first connecting portion is connected to the first mounting member, and the first sliding block is arranged on a side of the first sliding portion facing the first fixing portion; The second sliding member includes a second connecting portion, a second sliding portion and a second sliding block, the first sliding rail and the first guide seat are arranged on the second connecting portion, and the second sliding block is arranged on a side of the second sliding portion facing the first bearing portion; The first bearing portion is provided with a first avoidance opening, and two second slide rails are arranged on opposite sides of the first avoidance opening; the second sliding portion is provided with a second avoidance opening, and two second slide blocks are arranged on opposite sides of the second avoidance opening; the first sliding portion passes through the first avoidance opening and the second avoidance opening.
9. The adjustment device according to claim 3, wherein: The second adjustment mechanism further includes a second guide seat, the second guide seat is connected to the fourth sliding member, the second guide seat includes a third guide block and a second limit block arranged opposite to each other, and the third guide block is provided with a third guide hole; A second abutment portion is convexly formed at one end of the third sliding member, and the second abutment portion is located between the third guide block and the second limiting block; The second driving assembly includes a third adjusting member and a third elastic member, wherein the third adjusting member is disposed on the third guide block and abuts against the second abutting portion, the third adjusting member can move along the axial direction of the third guide hole, and the third elastic member is sandwiched between the second abutting portion and the second limiting block; When an external force is applied to the third adjusting member, the second abutting portion moves toward or away from the second limiting block, thereby driving the third sliding member to slide along the third sliding rail.
10. The adjustment device according to claim 9, wherein: A second guide rod is provided on a side of the second abutting portion facing the second limiting block, the second limiting block is provided with a second through hole, the second guide rod passes through the second through hole, and the third elastic member is sleeved on the second guide rod.
11. The adjustment device according to claim 9, wherein: The second guide seat further comprises a fourth guide block, and the fourth guide block is provided with a fourth guide hole; The second driving assembly further includes a fourth adjusting member, which is disposed on the fourth guide block and abuts against the second fixing portion, and can move along the axial direction of the fourth guide hole; When an external force is applied to the fourth adjusting member, the second guide seat moves toward or away from the second fixing portion, driving the fourth sliding member to slide along the fourth slide rail.
12. The adjustment device according to claim 11, wherein: The second driving assembly further includes a fourth elastic member, one end of the fourth elastic member is connected to the second fixing portion, and the other end of the fourth elastic member is connected to the fourth sliding member.
13. The adjusting device according to any one of claims 9 to 12, wherein: The third sliding member comprises a third connecting portion, a third sliding portion and a third sliding block, wherein the third connecting portion is connected to the second mounting member, and the third sliding block is arranged on a side of the third sliding portion facing the second fixing portion; The fourth sliding member comprises a fourth connecting portion, a fourth sliding portion and a fourth sliding block, the third sliding rail and the second guide seat are arranged on the fourth connecting portion, and the fourth sliding block is arranged on a side of the fourth sliding portion facing the second bearing portion; The second bearing portion is provided with a third avoidance opening, and the two fourth sliding rails are arranged on two opposite sides of the third avoidance opening; the fourth sliding portion is provided with a fourth avoidance opening, and the two fourth sliding blocks are arranged on two opposite sides of the fourth avoidance opening; the third sliding portion passes through the third avoidance opening and the fourth avoidance opening.
14. The adjustment device according to claim 3, wherein: The first mounting member is detachably connected to the first sliding member; The second mounting member is detachably connected to the third sliding member; The first mounting member and the first sliding member are in a separable state, and the second mounting member and the second sliding member are in a separable state, and the first sliding member slides along the first slide rail to drive the mounting assembly and the workpiece to rotate around the second axis; and The third sliding member slides along the third sliding rail, and can drive the mounting assembly and the workpiece to rotate around the first axis.
15. A detection device, characterized in that: include: A detection member having a first side and a second side opposite to each other; an inlet channel component, disposed on a first side of the detection component; as well as An outlet channel component is disposed on the second side of the detection component; Wherein, the detection component comprises: A support frame is constructed with a detection channel; a radiation source, disposed on the support frame; A detector, arranged on the support frame and opposite to the radiation source; The adjusting device according to any one of claims 1 to 14, arranged on the inner wall surface of the supporting frame; and The grating is arranged on the adjusting device.
16. The detection device according to claim 15, wherein: The detection device comprises a plurality of adjustment devices, and the plurality of adjustment devices are arranged at intervals on the inner wall surface of the support frame.
Citation Information
Cited By
Optical lens mounting device and mounting method
CN121165278A