Computer type whole shoe anti-slip machine

Abstract

The utility model relates to the technical field of non-slip testing machines, and discloses a computer type whole shoe non-slip machine which comprises a testing mechanism, the testing mechanism comprises a base and a testing machine at the top end of the base, and one side of the testing machine is connected with a traction assembly with a hook head and used for traction movement of a shoe body; the placement mechanism comprises a mounting plate, the mounting plate is embedded in the base on one side of the traction assembly, at least two springs are connected to the mounting plate and are symmetrical, test plates with different test surfaces are stacked at the top ends of the springs, and the stacked test plates are jacked to the top end of an inverted L-shaped plate by adopting the springs. Compared with the prior art, according to the device, the test plates can be replaced more quickly, the effect is more obvious when more different test plates exist, and in addition, the mechanism is simple in structure, easy and convenient to operate and convenient to use by workers.

Description

Technical Field

[0001] The utility model relates to the technical field of anti-skid testing machines, in particular to a computerized anti-skid machine for whole shoes. Background Art

[0002] Although the existing static anti-slip testing machines are constantly innovating and developing and basically meet people's needs, there is still room for improvement.

[0003] For example, the patent document with announcement number CN210604333U discloses a static sole anti-slip testing machine, in which a test seat is installed on the top of the test seat base, and fixed clamps are installed at each top corner of the side of the test seat, and limiting grooves are provided in the middle ends of the inner sides of the four fixed clamps, and fixing holes are provided at both ends of the inner sides of the four fixed clamps, and fixed plug rods are embedded and installed in the fixing holes. A test plate is embedded and installed on the top surface of the test seat at the inner position of the four fixed clamps, and a moving block is provided in the middle of the top of the test board near the test box. The structure is scientific and reasonable, and is safe and convenient to use. Through the fixed clamps, limiting grooves, fixing holes and fixed plug rods, different types of test plates can be quickly fixedly connected to the test seat, so that the moving block can be tested on test boards of different materials, thereby improving the test range of the testing machine and the reliability of the test results of the specimens.

[0004] Although the above-mentioned anti-slip testing machine can quickly disassemble and install different test plates by quickly replacing components, a single test requires the use of multiple test plates with different surfaces. It is still relatively complicated to replace multiple test plates in turn. The overall testing process still has room for optimization and there are still certain inconveniences in actual use. Therefore, a computerized whole-shoe anti-slip machine is urgently needed to solve the above problems. Utility Model Content

[0005] In order to overcome the above-mentioned technical problems, the purpose of the utility model is to provide a computerized whole shoe anti-slip machine to solve the above-mentioned anti-slip testing machine proposed in the above-mentioned background technology. Although different test plates can be quickly disassembled and installed by quickly replacing components, a single test requires the use of multiple test plates with different surfaces. It is still relatively complicated to replace multiple test plates in turn. The overall test process still has room for optimization, and there are still certain inconveniences in actual use.

[0006] The utility model provides the following technical solutions: a computerized shoe anti-slip machine, comprising a testing mechanism, the testing mechanism comprising a base and a testing machine at the top thereof, and a traction assembly with a hook head connected to one side of the testing machine, for traction movement of the shoe body;

[0007] The placing mechanism comprises a mounting plate, and the mounting plate is embedded in a base installed on one side of the traction component, at least two springs are connected to the mounting plate and are symmetrical, test plates with different test surfaces are stacked on the top of the springs, and the number of the test plates is at least three, and two symmetrical inverted L-shaped plates are connected to the outer side of the mounting plate for blocking the topmost spring.

[0008] To implement the above technical solution, a spring is used to lift the stacked test plates to the top of the inverted L-shaped plate. When replacing, it is only necessary to pull out the top test plates in turn to allow the lower test plates to leak out. Compared with the prior art, the device can replace the test plates more quickly and the effect is more obvious when there are more different test plates. In addition, the mechanism has a simple structure and is easy to operate, making it easy for staff to use.

[0009] Furthermore, the test surface of the test board is in a parallel embedded shape, and the top of the test surface is lower than the top of the test board.

[0010] The above technical solution is implemented to avoid abrasion of the test surface of the lower test plate when the test plate is pulled out.

[0011] Furthermore, a hand-holding hole is provided on the test plate, and the number of the hand-holding hole is at least one.

[0012] Implementing the above technical solution makes it easy to pull out the test board.

[0013] Furthermore, a positioning plate and a blocking plate are respectively connected to both sides of the mounting plate, the positioning plate is located on the side close to the traction component, and the top end is flush with the top end of the inverted L-shaped plate, the blocking plate is located on the side away from the traction component, and gaps are reserved above and below the spring and at both ends of the inverted L-shaped plate, the upper gap can only allow one spring to pass through, and the lower gap can allow stacked springs to pass through.

[0014] By implementing the above technical solution, the positioning plate facilitates the neat stacking of multiple test plates, and the spring can block the test plate below the top layer to prevent it from moving with the movement of the test plate on the top layer.

[0015] Furthermore, the top end of the spring is connected to an auxiliary frame.

[0016] Implementing the above technical solution makes it easy to press down multiple springs.

[0017] Furthermore, a rubber ring is connected below the auxiliary frame, and a positioning hook is connected to the mounting plate below the rubber ring for hooking and limiting.

[0018] Implementing the above technical solution makes it easy to keep the spring in the extruded position.

[0019] Technical effects and advantages of the utility model:

[0020] 1. The utility model uses a spring to lift the stacked test plates to the top of the inverted L-shaped plate. When replacing, it is only necessary to pull out the uppermost test plate in turn to allow the lower test plates to leak out.

[0021] 2. Compared with the prior art, the utility model is faster in replacing the test board, and the effect is more obvious when there are more different test boards. In addition, the mechanism has a simple structure and is easy to operate, which is convenient for staff to use. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 It is a three-dimensional schematic diagram of the overall structure of the utility model from the left side when viewed from above.

[0023] Figure 2 It is a right side top view of the overall structure of the utility model.

[0024] Figure 3 It is a top perspective schematic diagram of the placement mechanism structure of the utility model in an exploded state.

[0025] Figure 4 It is a top perspective schematic diagram of the test board structure of the utility model.

[0026] The accompanying drawings are marked as follows: 1. test mechanism; 110. base; 111. testing machine; 112. traction assembly; 2. placement mechanism; 210. test plate; 211. inverted L-shaped plate; 212. mounting plate; 213. spring; 214. positioning plate; 215. blocking plate; 216. auxiliary frame; 217. rubber ring; 218. positioning hook; 219. hand buckle hole. DETAILED DESCRIPTION

[0027] The technical solution of the present invention will be clearly and completely described below in conjunction with the accompanying drawings of the present invention.

[0028] Embodiment 1:

[0029] Refer to the attached drawings in the specification Figure 1-3 The utility model provides a computerized shoe anti-slip machine, including a testing mechanism 1, the testing mechanism 1 includes a base 110 and a testing machine 111 at the top thereof, and a traction assembly 112 with a hook head is connected to one side of the testing machine 111 for traction movement of the shoe body;

[0030] The placing mechanism 2 comprises a mounting plate 212, and the mounting plate 212 is embedded in the base 110 on one side of the traction component 112. At least two springs 213 are connected to the mounting plate 212 in a symmetrical shape. Test plates 210 with different test surfaces are stacked on the top of the springs 213, and the number of the test plates 210 is at least three. Two symmetrical inverted L-shaped plates 211 are connected to the outer side of the mounting plate 212 to block the uppermost spring 213. Positioning plates 214 and blocking plates 215 are connected to the two sides of the mounting plate 212 respectively. The plate 214 is located on the side close to the traction component 112, and the top end is flush with the top end of the inverted L-shaped plate 211. The blocking plate 215 is located on the side away from the traction component 112, and the spring 213 and the upper and lower ends of the inverted L-shaped plate 211 are reserved with gaps. The upper gap can only allow one spring 213 to pass through, and the lower gap can allow the stacked springs 213 to pass through. The top of the spring 213 is connected to an auxiliary frame 216, and a rubber ring 217 is connected to the bottom of the auxiliary frame 216. A positioning hook 218 is connected to the mounting plate 212 below the rubber ring 217 for hooking and limiting.

[0031] When in use, the auxiliary frame 216 is pressed down until the rubber ring 217 is hooked on the positioning hook 218, and then multiple test boards 210 are stacked and placed above the auxiliary frame 216 through the gap below the blocking plate 215. Then, the hook limit of the rubber ring 217 and the positioning hook 218 is released, so that the spring 213 releases its elastic potential energy and pushes the stacked test boards 210 upward until they are blocked by the top of the inverted L-shaped plate 211.

[0032] During the test, place the shoe body on the test board 210, then hook the hook of the traction component 112 into the shoe, start the traction component 112 to pull the shoe body to move, and let the sole move on the test surface of the test board 210 until the base 110 automatically records the data. When replacing, you only need to pull out the top test board 210. At this time, the elasticity of the spring 213 will move the lower test board 210 to the top again. Repeat the operation to test again.

[0033] Embodiment 2:

[0034] Refer to the attached drawings in the specification Figure 4 The difference between the second embodiment and the first embodiment is that the test surface of the test board 210 is parallel and embedded, and the top of the test surface is lower than the top of the test board 210. The test board 210 is provided with a hand-hook hole 219, and the number of the hand-hook hole 219 is at least one.

[0035] When pulling, insert fingers into the hand buckle holes 219 and then pull the test board 210 outwards.

Claims

1. A computerized shoe anti-slip machine, comprising a testing mechanism (1), wherein the testing mechanism (1) comprises a base (110) and a testing machine (111) at the top thereof, and a traction assembly (112) with a hook head is connected to one side of the testing machine (111) for traction movement of a shoe body, characterized in that: A placement mechanism (2), the placement mechanism (2) comprising a mounting plate (212), wherein the mounting plate (212) is embedded in a base (110) mounted on one side of a traction component (112), at least two springs (213) are connected to the mounting plate (212) and are symmetrical, a test plate (210) with different test surfaces is stacked on the top of the spring (213), and the number of the test plates (210) is at least three, and two symmetrical inverted L-shaped plates (211) are connected to the outer side of the mounting plate (212) for blocking the uppermost spring (213).

2. The computerized shoe anti-slip machine according to claim 1 is characterized in that: The test surface of the test board (210) is in a parallel embedded shape, and the top of the test surface is lower than the top of the test board (210).

3. The computerized shoe anti-slip machine according to claim 2 is characterized in that: The test plate (210) is provided with a hand-grip hole (219), and the number of the hand-grip hole (219) is at least one.

4. The computerized shoe anti-slip machine according to claim 1 is characterized in that: The two sides of the mounting plate (212) are respectively connected with a positioning plate (214) and a blocking plate (215); the positioning plate (214) is located on a side close to the traction assembly (112), and the top end is flush with the top end of the inverted L-shaped plate (211); the blocking plate (215) is located on a side away from the traction assembly (112); and notches are reserved at the upper and lower ends of the spring (213) and the upper and lower ends of the inverted L-shaped plate (211); the upper notch can only allow one spring (213) to pass through, and the lower notch can allow stacked springs (213) to pass through.

5. The computerized shoe anti-slip machine according to claim 4 is characterized in that: The top end of the spring (213) is connected to an auxiliary frame (216).

6. The computerized shoe anti-slip machine according to claim 5, characterized in that: A rubber ring (217) is connected below the auxiliary frame (216), and a positioning hook (218) is connected to the mounting plate (212) below the rubber ring (217) for hooking and limiting.

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