Movable locking structure for preventing deviation position of bridge type four-axis movable bottom die tool

Abstract

The utility model relates to the field of locking structures, in particular to a movable locking structure used for a bridge type four-axis movable bottom die tool and capable of preventing position deviation. The technical problems that for a bridge type four-axis movable bottom die tool, sampling, fixing, mounting and locking are adopted, due to the fact that the bottom die tool deviates in the machining or transporting process, a locking structure of the bottom die tool is damaged and loosened, and the locking effect is affected are solved. According to the technical scheme, the movable locking structure for preventing the deviation position of the bridge type four-axis movable bottom die tool comprises a carrier module, a movable aluminum plate, a sliding block and a guide rail locking module; the movable aluminum plate is arranged on the carrying frame module in a linear sliding mode, stable bearing can be achieved, the transverse balance performance can be improved, the sliding blocks are located at the positions, close to the edges, of the bottoms of the two sides of the movable aluminum plate and can be used for sliding operation to keep the movable aluminum plate above stable, and the guide rail locking module is located at the rear ends of the sliding blocks. The locking device can be used for preventing movable locking at the offset position, and the overall locking operation is improved.

Description

Technical Field

[0001] The utility model relates to the field of locking structures, in particular to a movable locking structure for preventing offset position of a bridge-type four-axis movable bottom mold tooling. Background Art

[0002] The bridge-type four-axis mobile bottom mold tooling is a tooling equipment specially used for bridge construction or related fields. It combines the bridge structure with the four-axis mobile function, providing high efficiency for bridge construction. When installing the bottom mold tooling, the precise installation and positioning of each component should be ensured, especially the key components such as the supporting structure and the guide device. Through precise measurement and adjustment, the offset problem caused by installation error can be reduced. The bridge-type four-axis mobile bottom mold tooling should be regularly maintained and inspected to timely discover and solve potential problems. Check whether the fasteners of the tooling are loose and whether the supporting structure is intact to ensure that the tooling is in good working condition. The existing bridge-type four-axis mobile bottom mold tooling is sampled, fixed, installed and locked during use. Due to the offset of the bottom mold tooling during processing or transportation, its locking structure is damaged and loosened, affecting the locking effect; so we proposed a movable locking structure for the bridge-type four-axis mobile bottom mold tooling to prevent offset position, so as to solve the above problems. Utility Model Content

[0003] In order to overcome the problem that the locking structure of the bridge-type four-axis movable bottom mold tooling is damaged and loosened due to the displacement of the bottom mold tooling during processing or transportation, thus affecting the locking effect, the sampling is fixed and installed to lock it.

[0004] The technical solution of the utility model is: a movable locking structure for preventing offset position of a bridge-type four-axis movable bottom mold tooling, comprising a carrier module, a movable aluminum plate, a slider and a guide rail locking module; a plurality of groups of load-bearing movable aluminum plates are linearly slidably arranged on the carrier module, two groups of sliders for sliding are linearly arranged at the bottom of both sides of the movable aluminum plate near the edge, and a guide rail locking module for movable locking to prevent offset position is arranged at the rear end of the slider.

[0005] Preferably, a linear sliding device is provided on the carrier module through the movable aluminum plate, which can stabilize the load-bearing and increase the lateral balance performance. The sliders are located at the bottom of both sides of the movable aluminum plate near the edge and can be used for sliding operation to keep the upper movable aluminum plate stable. The guide rail locking module is located at the rear end of the slider and can be used to prevent the offset position and movable locking to improve the overall locking operation.

[0006] Preferably, the carrier module includes a table, a slide rail, a first connecting frame and a second connecting frame. The first connecting frames are arranged in two groups relatively parallel to each other, and multiple groups of second connecting frames are linearly arranged between the two groups of first connecting frames. A table is provided at the upper end of the first connecting frame, and a slide rail is provided at the upper end of the table. Pin holes are linearly opened on the upper end of the slide rail. The calibration column is inserted through the guide hole, the pin hole and the connecting hole in sequence as needed, so that it can be fixed and positioned as a whole.

[0007] Preferably, a cross slot is provided on the top of the movable aluminum plate, a cross fixing frame is adapted to be provided at the center of the cross slot, mounting holes are provided around the cross fixing frame, and connection holes are provided at both ends of the movable aluminum plate. The cross fixing frame can be used for weighing connection.

[0008] Preferably, a clamping plate is provided on the inner side of the slider, and the guide rail locking module includes a balancing box, a disassembly bolt, a movable clamp, a sleeve block, a first bidirectional threaded rod, a second bidirectional threaded rod, a positioning block, an adjustment shaft, an adjustment handle, a driver and a scale bar. A guide hole is provided in a linear array on the top of the balancing box, and disassembly bolts are symmetrically provided on one side of the balancing box, and the disassembly operation can be performed using the disassembly bolts.

[0009] Preferably, a slide groove is opened on the balance box in parallel with the upper and lower sides on the same plane as the disassembly bolt, and the first two-way threaded rod and the second two-way threaded rod are respectively provided on the upper and lower sides of the balance box. Positioning blocks are provided in the centers of the first two-way threaded rod and the second two-way threaded rod, and a sleeve block is sleeved on the first two-way threaded rod and the second two-way threaded rod. A vibration sensor is provided inside the sleeve block, and a flashing light is provided at the outer end of the vibration sensor. The synchronous vibration sensor feeds back to the flashing light along with the clamping force, thereby improving the overall locking operation performance.

[0010] Preferably, a movable clamp is provided at the lower end of the sleeve block, a clamping groove is provided on the inner side of the movable clamp, an adjustment shaft connected to the movable clamp is passed through the center of the balance box, and an adjustment handle is provided at the outer end of the adjustment shaft. The adjustment handle can be used to drive the first bidirectional threaded rod and the second bidirectional threaded rod to rotate.

[0011] Preferably, a driver is provided in the center of the adjusting handle. The driver drives the adjusting handle so that its adjusting shaft drives the first bidirectional threaded rod and the second bidirectional threaded rod to rotate and drive the movable clamping jaws to open and close the clamping. A scale bar is provided in an annular direction along the outer side of the adjusting shaft on the balance box. The operating performance can be obtained by observing the rotation state of the scale bar.

[0012] Beneficial effects of the utility model:

[0013] 1. According to the previous bridge-type four-axis mobile bottom mold tooling, the sample is fixedly installed and locked. Due to the offset of the bottom mold tooling during processing or transportation, the locking structure is damaged and loosened, affecting the locking effect. The difference is that through the mobile aluminum plate, a linear sliding is provided on the carrier module, which can stabilize the load and increase the lateral balance performance. The slider is located at the bottom of both sides of the mobile aluminum plate near the edge, which can be used for sliding operation to keep the upper mobile aluminum plate stable. The guide rail locking module is located at the rear end of the slider, which can be used to prevent the offset position from being movable and locked, thereby improving the overall locking operation.

[0014] 2. When locking, move the aluminum plate through the slider to slide along the slide rail, and insert the calibration column through the guide hole, the pin hole and the connecting hole in sequence as needed, so that it can be fixed and positioned as a whole. As the whole moves, the driver drives the adjustment handle so that its adjustment shaft drives the first two-way threaded rod and the second two-way threaded rod to rotate and drive the movable clamp to open and close the clamping rail, observe the rotation state of the scale bar, and the synchronous vibration sensor feeds back to the flashing light along with the clamping force to improve the overall locking operation performance. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the overall structure of the utility model;

[0016] Figure 2 It is a schematic diagram of the carrier module of the utility model;

[0017] Figure 3 It is a schematic diagram of the movable aluminum plate of the utility model;

[0018] Figure 4 It is a schematic diagram of the guide rail locking module of the utility model.

[0019] Explanation of the accompanying drawings: 1. Carrier module; 2. Moving aluminum plate; 3. Sliding block; 4. Guide rail locking module; 101. Table; 102. Slide rail; 103. Pin hole; 104. First connecting frame; 105. Second connecting frame; 201. Cross slot; 202. Cross fixing frame; 203. Mounting hole; 204. Connecting hole; 301. Clamping plate; 401. Balance box; 402. Guide hole; 403. Slide groove; 404. Disassembly bolt; 405. Movable clamping claw; 406. Clamping groove; 407. Bushing block; 408. First bidirectional threaded rod; 409. Second bidirectional threaded rod; 410. Positioning block; 411. Adjusting shaft; 412. Adjusting handle; 413. Driver; 414. Scale bar. DETAILED DESCRIPTION

[0020] The utility model is further described below in conjunction with the accompanying drawings and embodiments.

[0021] See also Figure 1-2The utility model provides an embodiment: a movable locking structure for preventing offset position of a bridge-type four-axis movable bottom mold tooling, comprising a carrier module 1, a movable aluminum plate 2, a slider 3 and a guide rail locking module 4; a plurality of groups of load-bearing movable aluminum plates 2 are linearly slidably arranged on the carrier module 1, two groups of sliding sliders 3 are linearly arranged at the bottom of both sides of the movable aluminum plate 2 near the edge, and a guide rail locking module 4 for movable locking to prevent offset position is arranged at the rear end of the slider 3.

[0022] See also Figure 2-4 In the present embodiment, the carrier module 1 comprises a table 101, a slide rail 102, a first connecting frame 104 and a second connecting frame 105. The first connecting frame 104 is arranged in two groups in parallel with each other. A plurality of second connecting frames 105 are linearly arranged between the two groups of first connecting frames 104. A table 101 is arranged at the upper end of the first connecting frame 104. A slide rail 102 is arranged at the upper end of the table 101. A latch hole 103 is linearly opened on the upper part of the slide rail 102. The calibration column is sequentially inserted through the guide hole 402, the latch hole 103 and the connecting hole 204 as needed so that it can be fixed and positioned as a whole. A cross groove 201 is opened at the top of the movable aluminum plate 2. A cross fixing frame 202 is adapted to be provided at the center of the cross groove 201. The cross fixing frame 202 is provided with mounting holes 203 all around. Connection holes 204 are distributed at both ends of the movable aluminum plate 2. The cross fixing frame 202 can be used for weighing connection.

[0023] See also Figure 3-4 In this embodiment, a clamping plate 301 is provided on the inner side of the slider 3, and the guide rail locking module 4 includes a balancing box 401, a disassembly bolt 404, a movable clamping claw 405, a sleeve block 407, a first bidirectional threaded rod 408, a second bidirectional threaded rod 409, a positioning block 410, an adjustment shaft 411, an adjustment handle 412, a driver 413 and a scale bar 414. A guide hole 402 is provided in a linear array on the top of the balancing box 401, and a disassembly bolt 404 is symmetrically provided on one side of the balancing box 401. The disassembly operation can be performed by using the disassembly bolt 404. The balancing box 401 01 is provided with a slide groove 403 in parallel with the upper and lower sides on the same plane as the disassembly bolt 404, and the balance box 401 is respectively provided with a first two-way threaded rod 408 and a second two-way threaded rod 409, and a positioning block 410 is provided in the center of the first two-way threaded rod 408 and the second two-way threaded rod 409, and a sleeve block 407 is sleeved on the first two-way threaded rod 408 and the second two-way threaded rod 409, and a vibration sensor is provided inside the sleeve block 407, and a flashing light is provided at the outer end of the vibration sensor, and the synchronous vibration sensor is fed back to the flashing light along with the clamping force, so as to improve the overall locking operation performance.

[0024] See also Figure 1-4In this embodiment, a movable clamping claw 405 is provided at the lower end of the sleeve block 407, and a clamping groove 406 is provided on the inner side of the movable clamping claw 405. An adjusting shaft 411 connected to the movable clamping claw 405 is passed through the center of the balancing box 401, and an adjusting handle 412 is provided at the outer end of the adjusting shaft 411. The adjusting handle 412 can be used to drive the first bidirectional threaded rod 408 and the second bidirectional threaded rod 409 to rotate. A driver 413 is provided at the center of the adjusting handle 412. The driver 413 drives the adjusting handle 412 to make its adjusting shaft 411 drive the first bidirectional threaded rod 408 and the second bidirectional threaded rod 409 to rotate and drive the movable clamping claw 405 to open and close. A scale bar 414 is provided circumferentially along the outer side of the adjusting shaft 411 on the balancing box 401. By observing the rotation state of the scale bar 414, the operating performance can be obtained.

[0025] During operation, when locking, the movable aluminum plate 2 slides along the slide rail 102 through the slider 3, and the calibration column is inserted through the guide hole 402, the pin hole 103 and the connecting hole 204 in sequence as needed, so that it can be fixed and positioned as a whole. As the whole moves, the driver 413 drives the adjustment handle 412 so that its adjustment shaft 411 drives the first bidirectional threaded rod 408 and the second bidirectional threaded rod 409 to rotate and drive the movable clamp 405 to open and close the clamping slide rail 102, and observe the rotation state of the scale bar 414. The synchronous vibration sensor feeds back to the flashing light along with the clamping force.

[0026] Through the above steps, the moving aluminum plate 2 is linearly slidably provided on the carrier module 1, which can stabilize the load and increase the lateral balance performance. The sliders 3 are located at the bottom of both sides of the moving aluminum plate 2 near the edge and can be used for sliding operation to keep the upper moving aluminum plate 2 stable. The guide rail locking module 4 is located at the rear end of the slider 3 and can be used to prevent the offset position from being movably locked, thereby improving the overall locking operation.

[0027] The embodiments of the present invention are described in detail above in conjunction with the accompanying drawings, but the present invention is not limited to the above embodiments, and various changes can be made within the knowledge scope of those skilled in the art without departing from the purpose of the present invention.

Claims

1. A movable locking structure for preventing displacement of a bridge-type four-axis movable bottom mold tooling, comprising a carrier mold set (1); characterized in that: It also includes a movable aluminum plate (2), a slider (3) and a guide rail locking module (4); a plurality of groups of movable aluminum plates (2) are linearly slidably provided on the carrier module (1); two groups of sliders (3) for sliding are linearly provided at the bottom of both sides of the movable aluminum plate (2) near the edge; and a guide rail locking module (4) for movable locking to prevent displacement is provided at the rear end of the slider (3).

2. The movable locking structure for preventing displacement of the bridge-type four-axis movable bottom mold tooling according to claim 1 is characterized in that: The carrier module (1) comprises a table (101), a slide rail (102), a first connecting frame (104) and a second connecting frame (105); the first connecting frame (104) is arranged in two groups in parallel with each other; a plurality of second connecting frames (105) are linearly arranged between the two groups of first connecting frames (104); a table (101) is arranged at the upper end of the first connecting frame (104); a slide rail (102) is arranged at the upper end of the table (101); and a pin hole (103) is linearly opened on the upper portion of the slide rail (102).

3. The movable locking structure for preventing displacement of the bridge-type four-axis movable bottom mold tooling according to claim 1 is characterized in that: A cross slot (201) is provided on the top of the movable aluminum plate (2), a cross fixing frame (202) is adapted to be provided at the center of the cross slot (201), mounting holes (203) are provided on all sides of the cross fixing frame (202), and connection holes (204) are provided at both ends of the movable aluminum plate (2).

4. The movable locking structure for preventing displacement of the bridge-type four-axis movable bottom mold tooling according to claim 1 is characterized in that: A clamping plate (301) is provided on the inner side of the slider (3), and the guide rail locking module (4) comprises a balancing box (401), a disassembly bolt (404), a movable clamping claw (405), a sleeve block (407), a first bidirectional threaded rod (408), a second bidirectional threaded rod (409), a positioning block (410), an adjustment shaft (411), an adjustment handle (412), a driver (413) and a scale bar (414). A top linear array of the balancing box (401) is provided with guide holes (402), and one side of the balancing box (401) is symmetrically provided with disassembly bolts (404).

5. The movable locking structure for preventing displacement of the bridge-type four-axis movable bottom mold tooling according to claim 4 is characterized in that: A slide groove (403) is provided on the balance box (401) in parallel with the disassembly bolt (404) at the upper and lower sides. A first bidirectional threaded rod (408) and a second bidirectional threaded rod (409) are provided on the upper and lower sides of the balance box (401) respectively. A positioning block (410) is provided at the center of the first bidirectional threaded rod (408) and the second bidirectional threaded rod (409). A sleeve block (407) is sleeved on the first bidirectional threaded rod (408) and the second bidirectional threaded rod (409). A vibration sensor is provided inside the sleeve block (407), and a flashing light is provided at the outer end of the vibration sensor.

6. The movable locking structure for preventing displacement of the bridge-type four-axis movable bottom mold tooling according to claim 4 is characterized in that: A movable clamping claw (405) is provided at the lower end of the sleeve block (407), a clamping groove (406) is provided on the inner side of the movable clamping claw (405), an adjustment shaft (411) connected to the movable clamping claw (405) is passed through the center of the balancing box (401), and an adjustment handle (412) is provided at the outer end of the adjustment shaft (411).

7. The movable locking structure for preventing displacement of the bridge-type four-axis movable bottom mold tooling according to claim 4 is characterized in that: A driver (413) is provided at the center of the adjusting handle (412). The driver (413) drives the adjusting handle (412) so that the adjusting shaft (411) drives the first bidirectional threaded rod (408) and the second bidirectional threaded rod (409) to rotate and drive the movable clamping jaws (405) to open and close the clamping. A scale bar (414) is provided in a circumferential direction along the outer side of the adjusting shaft (411) on the balancing box (401).

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