Stainless steel vacuum cup coating wear resistance detection equipment

Abstract

The invention discloses stainless steel vacuum cup coating wear resistance detection equipment, and relates to the technical field of wear resistance detection equipment.The stainless steel vacuum cup coating wear resistance detection equipment comprises a base and a testing mechanism, the testing mechanism is arranged on the outer side of the base, the testing mechanism comprises a motor bin, and the motor bin is located at the bottom of the base; a linear motor is arranged on the inner side of the motor bin, a connecting groove is formed in the inner side of the base, a connecting sliding block is slidably connected to the inner side of the connecting groove, a support is arranged at the top of the connecting sliding block, and a damping spring and a second torsional spring are combined, so that the outer side of the cup body is beaten by a hammer head, and anti-knocking data are synchronously detected; by means of the mode, manual fastening, assembling and disassembling work is reduced, an inner supporting type fixing mode is suitable for vacuum cups of most sizes, the situation that clamps are replaced due to limiting is avoided, the vacuum cups can be rapidly switched, the batch detection efficiency is improved, and the overall detection time and manpower input are shortened.

Description

Technical Field

[0001] This invention relates to the field of abrasion resistance testing equipment, specifically to abrasion resistance testing equipment for stainless steel thermos cup coatings. Background Technology

[0002] A thermos is a portable container designed specifically to maintain the temperature of its internal liquid. Its core insulation principle is based on the heat transfer blocking mechanism. This is usually achieved by setting a vacuum layer between the inner liner and the outer shell, filling it with heat insulation material, or using an inner liner material with a high thermal conductivity and low thermal conductivity. This reduces the heat exchange between the internal liquid and the external environment in three dimensions: conduction, convection, and radiation. As a result, the temperature of hot water, cold water, beverages, and other contents can be kept stable for a long time. The thermos also has practical features such as leak-proof and drop-resistant properties. It is widely used in daily office work, home life, outdoor travel, commuting, and sports, providing users with a comfortable drinking experience anytime, anywhere.

[0003] The stainless steel thermos cup coating abrasion resistance testing equipment is a testing device specifically designed to evaluate the abrasion resistance performance of the inner liner or outer surface coating of stainless steel thermos cups. Its core function is to quantitatively or qualitatively test the degree of wear, adhesion, and integrity of the coating under repeated friction by simulating friction and scratching scenarios in daily use. This determines whether the coating meets the abrasion resistance requirements for long-term use of thermos cups, providing technical support for the quality control and performance evaluation of thermos cup coatings.

[0004] However, existing equipment for testing the abrasion resistance of stainless steel thermos cup coatings has the following shortcomings: Currently available stainless steel thermos cup coating wear resistance testing equipment uses bolt-locking clamps, requiring manual leveling and tightening. Furthermore, different cup diameters and shapes necessitate clamp replacement and repositioning, hindering rapid switching, impacting batch testing efficiency, and increasing overall testing time.

[0005] Therefore, we propose a device for testing the wear resistance of stainless steel thermos cup coatings to address the problems mentioned above. Summary of the Invention

[0006] The purpose of this invention is to provide a device for testing the wear resistance of stainless steel thermos cup coatings. During testing, the thermos cup is first placed on a rack. An electric telescopic rod drives a first friction head to push the cup towards an inner support plate and position it. If the inner support plate does not extend due to differences in cup size, a linear motor drives a support bracket to move, cooperating with a reverse thrust to position the cup opening. Subsequently, a second stepper motor drives a threaded rod to drive an inner support block, pushing the inner support plate to support and fix the cup body via a contact plate. The first stepper motor drives the cup body to rotate, synchronously rubbing against the first and second friction heads to obtain wear resistance data at multiple locations. Simultaneously, the cup body rotates and contacts... The device delivers a striking hammer head with elastic impact, simultaneously testing impact resistance. Its internal support and multi-spring elastic buffer adapt to different sizes and shapes of cups, eliminating the need to change clamps and reducing manual adjustment and loading / unloading work. Integrating wear resistance and impact resistance dual testing functions, it avoids secondary errors with a single clamping, improving data correlation. The linear motor and electric telescopic rod work together to quickly adapt to different cup specifications, enhancing the continuity of batch testing. The even distribution of clamping force and friction contact design ensure accurate test data, significantly reducing testing time and manpower, and greatly improving batch testing efficiency.

[0007] To achieve the above objectives, the present invention provides the following technical solution: a stainless steel thermos cup coating wear resistance testing device, comprising a base and a testing mechanism, wherein the testing mechanism is disposed on the outside of the base; The testing mechanism includes a motor compartment located at the bottom of the base. A linear motor is installed inside the motor compartment. A connecting groove is formed inside the base, and a connecting slider is slidably connected to the inside of the connecting groove. A bracket is installed on the top of the connecting slider. Multiple sliding grooves are formed on the top of the base. Multiple sliding rods are installed at the bottom of the bracket. A sliding chamber is installed on the outside of the bracket, and the bottom of the sliding chamber is installed on the top of the other side of the sliding rod. A rotating cylinder is installed inside the bracket, and a first stepper motor is installed on the top of the sliding chamber.

[0008] Preferably, the bottom of the connecting slider is mounted on the top of the output end of the linear motor, and the plurality of sliders are slidably connected to the inner side of the slide groove.

[0009] Preferably, the output end of the first stepper motor is provided with a rotating shaft, which is rotatably connected to the inner side of the rotating cylinder. A first cup mouth pad is provided on the other side of the rotating shaft, a second cup mouth pad is provided on the other side of the first cup mouth pad, an inner cup mouth plug is provided on the other side of the second cup mouth pad, and a second stepper motor is provided on the inner side of the second cup mouth pad.

[0010] Preferably, the output end of the second stepper motor passes through the inner plug of the cup and is equipped with a threaded rod. An installation ring is installed on the outer side of the inner plug of the cup, and multiple inner support plates are rotatably connected to the inner side of the installation ring.

[0011] Preferably, a first torsion spring is fitted on both sides of the inner support plate, one end of the first torsion spring is installed inside the mounting ring, the other end of the first torsion spring is installed inside the inner support plate, and a tension spring is installed on the top of the inner support plate.

[0012] Preferably, a compression spring is installed at the top of another part of the inner support plate, and a contact plate is installed at the top of the tension spring and the compression spring.

[0013] Preferably, the bottom center of the contact plate is rotatably connected to the top of the other end of the inner support plate, and an inner support groove is provided on the inner side of the inner support plate, and a limit groove is provided on the inner side of the inner support plate.

[0014] Preferably, the limiting groove is located in the middle of the inner side of the inner support groove, an inner support block is slidably connected to the inner side of the inner support groove, a plurality of limiting strips are installed on the outer side of the inner support block, the limiting strips slide on the inner side of the limiting groove, and the inner support block is threadedly connected to the threaded rod.

[0015] Preferably, a vertical plate is installed on the top of the base, a rotating groove is installed on the top of the vertical plate, a rotating plate is rotatably mounted inside the rotating groove, a second torsion spring is sleeved on both sides of the rotating plate, one end of the second torsion spring is installed inside the rotating groove, the other end of the second torsion spring is installed inside the rotating plate, a shock-absorbing spring is installed at the bottom of the rotating plate, and a striking hammer is installed at the bottom of the shock-absorbing spring.

[0016] Preferably, the bottom of the base is provided with an electric telescopic rod, the output end of the electric telescopic rod is provided with a first friction head, the top of the base is provided with two placement racks, the top of the two placement racks is provided with a thermos cup body, the bottom of the base is provided with a plurality of second friction heads, the plurality of second friction heads are located at the bottom of the thermos cup body, and the striking hammer head is located at the top of the thermos cup body.

[0017] Compared with the prior art, the beneficial effects of the present invention are: 1. During the testing process, this invention involves placing the thermos cup on a rack. An electric telescopic rod drives the first friction head to push the cup towards the inner support plate, causing it to fit over the inner support plate and the contact plate. If, due to differences in cup shape or size, the inner support plate does not extend into the cup, but the cup is within the working range of the friction head, a linear motor is activated to drive the connecting slider, which in turn moves the bracket and slide towards the cup. This, combined with the reverse thrust of the first friction head, ensures the cup opening fits and is positioned against the cup opening pad. Subsequently, a second stepper motor drives the threaded rod to rotate, moving the inner support block and pushing the inner support plate outwards, thus supporting the cup through the contact plate. Once fixed, the first stepper motor drives the cup body to rotate, causing it to rub synchronously with the first and second friction heads to obtain wear resistance data at different locations. At the same time, the rotation of the cup body and the friction with the striking hammer head generate vibration, which, combined with the shock-absorbing spring and the second torsion spring, causes the hammer head to strike the outside of the cup body, simultaneously detecting the impact resistance data. In this way, manual fastening and unloading work is reduced, and the internal support fixing method is applicable to most sizes of insulated cups, avoiding the need for clamp replacement due to limitations, allowing for quick switching, improving batch testing efficiency, and reducing overall testing time and manpower input.

[0018] 2. In operation, the inner support block of this invention is driven by a threaded rod and guided by a limiting strip. Combined with the elastic buffering of the inner support plate, the first torsion spring, the tension spring, and the compression spring, it can adapt to the inner walls of insulated cups of different shapes and diameters. It can stably clamp the cups without changing to special clamps, reducing manual adjustments and improving batch changeover efficiency. Simultaneously, the tension and compression springs ensure real-time contact between the contact plate and the cup body, further enhancing clamping stability. The device integrates coating wear resistance testing and impact resistance testing. When the insulated cup rotates, it rubs synchronously with the first and second friction heads, while the striking hammer head is activated by the second torsion spring and the shock-absorbing spring. It achieves elastic impact, completing two tests in one clamping, avoiding secondary clamping errors, improving testing efficiency and data correlation. The dual elastic structure can also simulate actual non-rigid impact scenarios, avoiding unexpected damage and ensuring that the test results are consistent with the usage conditions. The support and slide are moved as a whole by a linear motor, and the position of the first friction head is adjusted by an electric telescopic rod, which can quickly adapt to thermos cups of different lengths and sizes, reduce manual operation, and improve the continuity of batch testing. The uniform transmission of clamping force and the cooperative design of the friction head and the rotating structure ensure the coaxiality of the cup body and the consistency of frictional contact, improving the accuracy of wear resistance test data. Attached Figure Description

[0019] Figure 1 This is a perspective view of the main structure of a stainless steel thermos cup coating wear resistance testing device according to the present invention; Figure 2 This is a three-dimensional exploded view of the structure in the stainless steel thermos cup coating wear resistance testing device of the present invention; Figure 3 This is a partial structural perspective view of a stainless steel thermos cup coating wear resistance testing device according to the present invention; Figure 4 For this Figure 3 Enlarged view of point A in the image; Figure 5 This is a split perspective view of the testing mechanism in a stainless steel thermos cup coating abrasion resistance testing device of the present invention; Figure 6 for Figure 5 Enlarged view of point B in the image.

[0020] In the diagram: 1. Base; 2. Testing mechanism; 201. Motor compartment; 202. Linear motor; 203. Bracket; 204. Connecting groove; 205. Connecting slider; 206. Slide chamber; 207. Slide groove; 208. Slide bar; 209. First stepper motor; 210. Rotating shaft; 211. First cup mouth gasket; 212. Second cup mouth gasket; 213. Cup mouth inner plug; 214. Second stepper motor; 215. Mounting ring; 216. Inner support plate; 217. First torsion spring; 218. 219. Tension spring; 220. Compression spring; 221. Contact plate; 222. Inner support groove; 222. Limiting groove; 223. Inner support block; 224. Limiting strip; 225. Vertical plate; 226. Rotating groove; 227. Rotating plate; 228. Second torsion spring; 229. Shock-absorbing spring; 230. Striking hammer head; 231. Electric telescopic rod; 232. First friction head; 233. Placement rack; 234. Second friction head; 235. Rotating cylinder; 236. Threaded rod; 3. Thermos cup body. Detailed Implementation

[0021] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0022] Example 1, according to Figure 1 - Figure 4As shown, to achieve the above objectives, the present invention provides the following technical solution: a stainless steel thermos cup coating wear resistance testing device, comprising a base 1 and a testing mechanism 2, the testing mechanism 2 being disposed on the outside of the base 1, the testing mechanism 2 including a motor compartment 201, the motor compartment 201 being located at the bottom of the base 1, a linear motor 202 being mounted on the inner side of the motor compartment 201, a connecting groove 204 being formed on the inner side of the base 1, a connecting slider 205 being slidably connected to the inner side of the connecting groove 204, a bracket 203 being mounted on the top of the connecting slider 205, a plurality of sliding grooves 207 being formed on the top of the base 1, a plurality of sliding rods 208 being mounted on the bottom of the bracket 203, and the bracket... A slide 206 is installed on the outer side of bracket 203. The bottom of slide 206 is installed on the top of the other side of slide bar 208. A rotating cylinder 235 is installed on the inner side of bracket 203. A first stepper motor 209 is installed on the top of slide 206. The bottom of connecting slider 205 is installed on the top of the output end of linear motor 202. Multiple slide bars 208 are slidably connected to the inner side of slide groove 207. A rotating shaft 210 is installed on the output end of the first stepper motor 209. The rotating shaft 210 is rotatably connected to the inner side of rotating cylinder 235. A first cup mouth pad 211 is installed on the other side of rotating shaft 210. A second cup mouth pad 212 is installed on the other side of the first cup mouth pad 211. A cup-mouth inner plug 213 is installed on the other side of the cup-mouth pad 212. A second stepper motor 214 is installed on the inner side of the second cup-mouth pad 212. The output end of the second stepper motor 214 passes through the cup-mouth inner plug 213 and is equipped with a threaded rod 236. A mounting ring 215 is installed on the outer side of the cup-mouth inner plug 213. Multiple inner support plates 216 are rotatably connected to the inner side of the mounting ring 215. A first torsion spring 217 is sleeved on both sides of the inner support plate 216. One end of the first torsion spring 217 is installed on the inner side of the mounting ring 215, and the other end of the first torsion spring 217 is installed on the inner side of the inner support plate 216. A tension spring 218 is installed on the top of the inner support plate 216. A compression spring 219 is installed at the top of another part of 16. A contact plate 220 is installed at the top of the tension spring 218 and the compression spring 219. The bottom middle of the contact plate 220 is rotatably connected to the top of the other end of the inner support plate 216. An inner support groove 221 is opened on the inner side of the inner support plate 216. A limit groove 222 is opened on the inner side of the inner support plate 216. The limit groove 222 is located in the middle of the inner side of the inner support groove 221. An inner support block 223 is slidably connected to the inner side of the inner support groove 221. Multiple limit strips 224 are installed on the outer side of the inner support block 223. The limit strips 224 slide on the inner side of the limit groove 222. The inner support block 223 is threadedly connected to the threaded rod 236.

[0023] The overall effect of Embodiment 1 is as follows: When batch testing the wear resistance of stainless steel thermos cup coatings, the thermos cups to be tested are first placed on the placement rack 233. The electric telescopic rod 231 is activated to drive the first friction head 232 to push the thermos cups towards the inner support plate 216 until the thermos cups are fitted onto the inner support plate 216 and the outside of the contact plate 220. If, due to differences in the shape and size of the thermos cups, they are already within the working range of the first friction head 232 and the second friction head 234, but the inner support plate 216 has not extended into the thermos cup, it is necessary to activate... Linear motor 202 drives connecting slider 205 to slide within connecting groove 204, causing connecting groove 204 to move bracket 203 and slide 206 toward the thermos cup until inner support plate 216 extends into the thermos cup. Simultaneously, the reverse thrust of first friction head 232 causes the cup mouth to fit against first cup mouth pad 211 or second cup mouth pad 212 to achieve positioning. Then, second stepper motor 214 is started to drive threaded rod 236 to rotate. Threaded rod 236, in conjunction with limit strip 224, drives inner support block. 223 moves inward, and the inner support block 223 pushes multiple outer inner support plates 216 outward through its own shape. The inner support plates 216 drive the contact plates 220 to move towards the inner wall of the thermos cup until the multiple contact plates 220 contact the inner wall of the thermos cup and support and fix it. After the thermos cup is fixed, the first friction head 232 contacts the thermos cup body 3, and the first stepper motor 209 is started to drive the thermos cup to rotate. The rotating thermos cup rubs synchronously with the second friction head 234 at the bottom and the first friction head 232 on the outside to complete the process. The wear resistance test is conducted by using the second friction head 234 at different positions and the first friction head 232 on the outside to obtain wear resistance data at different positions of the thermos cup. At the same time, the surface of the thermos cup vibrates due to friction with the striking hammer head 230 during rotation. With the help of the shock-absorbing spring 229 and the second torsion spring 228 on the striking hammer head 230, the striking hammer head 230 strikes the outside of the thermos cup, and the impact resistance data is detected simultaneously. After the test is completed, the second stepper motor 214 is started to reverse and release the inner support clamp of the thermos cup body 3.

[0024] Example 2, according to Figure 4 - Figure 6As shown, a vertical plate 225 is installed on the top of the base 1, and a rotating groove 226 is installed on the top of the vertical plate 225. A rotating plate 227 is rotatably mounted inside the rotating groove 226. A second torsion spring 228 is fitted on both sides of the rotating plate 227. One end of the second torsion spring 228 is installed inside the rotating groove 226, and the other end of the second torsion spring 228 is installed inside the rotating plate 227. A shock-absorbing spring 229 is installed at the bottom of the rotating plate 227, and a striking hammer head 230 is installed at the bottom of the shock-absorbing spring 229. An electric telescopic rod 231 is installed at the bottom of the base 1, and a first friction head 232 is installed at the output end of the electric telescopic rod 231. Two placement racks 233 are installed on the top of the base 1, and a thermos cup body 3 is installed on the top of the two placement racks 233. Multiple second friction heads 234 are installed at the bottom of the base 1, and the multiple second friction heads 234 are located at the bottom of the thermos cup body 3. The striking hammer head 230 is located at the top of the thermos cup body 3.

[0025] The overall effect of Embodiment 2 is as follows: Through the cooperative structure of the inner support plate 216 and the inner support block 223, combined with the elastic buffering of the first torsion spring 217, tension spring 218, and compression spring 219, it adapts to the inner wall contours of thermos cups of different shapes and diameters. Stable clamping can be achieved without changing the special clamps, solving the problem of manual clamp adjustment required in traditional equipment, improving the changeover efficiency of batch testing, and integrating coating wear resistance friction testing and impact resistance testing into the same device. This is achieved by observing the interaction between the thermos cup and the inner support block 223 during the cup's rotation. The synchronous friction of the first friction head 232 and the second friction head 234, along with the elastic impact of the striking hammer head 230 under the action of the second torsion spring 228 and the shock-absorbing spring 229, achieves simultaneous detection of wear resistance and impact resistance in a single clamping operation. This avoids secondary clamping errors caused by separate equipment testing, improving detection efficiency and data correlation. The inner support block 223, driven by the threaded rod 236 and guided by the limiting strip 224, along with the elastic linkage design of the inner support plate 216, achieves uniform transmission of clamping force, ensuring coaxiality when the thermos cup is fixed. In addition to ensuring high precision and stability, the positional layout of the first friction head 232 and the second friction head 234, in conjunction with the rotation drive structure of the thermos cup, guarantees consistent frictional contact and improves the accuracy of wear resistance test data. A linear motor 202 drives the connecting slider 205 to move the bracket 203 and the slide 206 as a whole. This, combined with the electric telescopic rod 231, adjusts the position of the first friction head 232, quickly adapting to thermos cups of different lengths and sizes. This allows the inner support plate 216 to precisely extend into the cup body and complete its positioning, reducing the need for manual centering and alignment. The adjustment operation improves the continuity of the batch testing process. The striking hammer 230, combined with the shock-absorbing spring 229 and the second torsion spring 228, forms a dual elastic structure to simulate non-rigid impact scenarios in actual use. This avoids unexpected damage to the thermos cup body 3 and coating caused by rigid impacts, while ensuring that the impact resistance test results are more consistent with actual use conditions, thus improving the practicality of the test data. In addition, the tension spring 218 and the compression spring 219 work together to achieve real-time contact between the contact plate 220 and the thermos cup body 3, increasing the stability of the inner support clamping.

[0026] The working principle of the entire device is as follows: When conducting abrasion resistance tests on the coating of stainless steel thermos cups in batches, the thermos cups to be tested are first placed on the placement rack 233. Then, the electric telescopic rod 231 is activated to drive the first friction head 232 to push the thermos cup body 3 towards the inner support plate 216 until the thermos cup body 3 fits inside the inner support plate 216 and the contact plate 220. Due to the different shapes and sizes of the thermos cup bodies 3, when the thermos cup body 3 is already within the working range of the first friction head 232 and the second friction head 234, and the inner support plate 216 is not inside the thermos cup body 3, the device is activated. The linear motor 202 drives the connecting slider 205 to slide within the connecting groove 204, causing the connecting groove 204 to move the bracket 203 and the slide 206 towards the thermos cup body 3 until the inner support plate 216 is inserted into the thermos cup body 3. Simultaneously, the reverse thrust of the first friction head 232 ensures that the mouth of the thermos cup body 3 is in contact with either the first mouth pad 211 or the second mouth pad 212, thus achieving a relatively accurate position. At this point, the second stepper motor 214 is activated to rotate the threaded rod 236, causing the threaded rod 236 to engage with the limiting strip 224. The inner support block 223 is moved inward. As the inner support block 223 moves inward, it pushes the multiple outer inner support plates 216 outward according to its shape. At this time, the multiple inner support plates 216 drive their respective contact plates 220 to move towards the inner wall of the thermos cup until the multiple contact plates 220 simultaneously contact the inner wall of the thermos cup and support it, thereby fixing the thermos cup. When the thermos cup body 3 is fixed, the first friction head 232 and the thermos cup body 3 are in contact with each other. The first stepper motor 209 is started to drive the thermos cup body 3 to rotate. The rotating thermos cup body 3 and the first friction head 232 are in contact with each other. The second friction head 234 at the bottom and the first friction head 232 on the outside rub against each other simultaneously to conduct wear resistance tests. Multiple second friction heads 234 located at different positions and the first friction head 232 on the outside simultaneously obtain the wear resistance of different positions of the thermos. While the thermos rotates, its surface vibrates as it rubs against the impact hammer 230 and the thermos body 3. The shock-absorbing spring 229 and the second torsion spring 228 on the impact hammer 230 enable the impact hammer 230 to perform a striking action on the outside of the thermos body 3, thereby simultaneously detecting its impact resistance data.

[0027] Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A stainless steel vacuum cup coating abrasion resistance detection equipment, characterized by: It include base (1) and test mechanism (2), test mechanism (2) is arranged on the outside of base (1); The test mechanism (2) includes a motor compartment (201), which is located at the bottom of the base (1), and a linear motor (202) is arranged on the inner side of the motor compartment (201), a connecting groove (204) is formed on the inner side of the base (1), a connecting sliding block (205) is slidably connected to the inner side of the connecting groove (204), a support (203) is arranged on the top of the connecting sliding block (205), a plurality of sliding grooves (207) are formed on the top of the base (1), a plurality of sliding rods (208) are arranged on the bottom of the support (203), a sliding compartment (206) is arranged on the outer side of the support (203), and the bottom of the sliding compartment (206) is arranged on the other side of the top of the sliding rod (208), a rotating drum (235) is arranged on the inner side of the support (203), and a first stepping motor (209) is arranged on the top of the sliding compartment (206).

2. The stainless steel vacuum cup coating wear resistance detection equipment according to claim 1, characterized in that: The bottom of the connecting sliding block (205) is arranged on the top of the output end of the linear motor (202), and a plurality of sliding rods (208) are slidably connected to the inner side of the sliding groove (207).

3. The stainless steel vacuum cup coating wear resistance detection equipment according to claim 1, characterized in that: The output end of the first stepping motor (209) is provided with a rotating shaft (210), the rotating shaft (210) is rotatably connected to the inner side of the rotating drum (235), a first cup mouth pad (211) is arranged on the other side of the rotating shaft (210), a second cup mouth pad (212) is arranged on the other side of the first cup mouth pad (211), a cup mouth inner plug (213) is arranged on the other side of the second cup mouth pad (212), and a second stepping motor (214) is arranged on the inner side of the second cup mouth pad (212).

4. The stainless steel vacuum cup coating wear resistance detection equipment according to claim 3, characterized in that: The output end of the second stepping motor (214) penetrates the cup mouth inner plug (213) and is provided with a threaded rod (236), the outer side of the cup mouth inner plug (213) is provided with a mounting ring (215), and a plurality of inner supporting plates (216) are rotatably connected to the inner side of the mounting ring (215).

5. The stainless steel vacuum cup coating abrasion resistance detection equipment according to claim 4, characterized in that: Both sides of the inner supporting plate (216) are provided with a first torsional spring (217), one end of the first torsional spring (217) is arranged on the inner side of the mounting ring (215), the other end of the first torsional spring (217) is arranged on the inner side of the inner supporting plate (216), and a tension spring (218) is arranged on the top of the inner supporting plate (216).

6. The stainless steel vacuum cup coating abrasion resistance detection equipment according to claim 4, characterized in that: A compression spring (219) is arranged on the other top of the inner supporting plate (216), and a contact plate (220) is arranged on the top of the tension spring (218) and the compression spring (219).

7. The stainless steel vacuum cup coating abrasion resistance detection equipment according to claim 6, characterized in that: The bottom of the contact plate (220) is rotatably connected to the other end of the top of the inner supporting plate (216), an inner supporting groove (221) is formed on the inner side of the inner supporting plate (216), and a limiting groove (222) is formed on the inner side of the inner supporting plate (216).

8. The stainless steel vacuum cup coating abrasion resistance detection equipment according to claim 7, characterized in that: The limiting groove (222) is located in the middle of the inner side of the inner support groove (221), the inner side of the inner support groove (221) is slidably connected with an inner support block (223), the outer side of the inner support block (223) is provided with a plurality of limiting strips (224), the limiting strips (224) slide in the inner side of the limiting groove (222), and the inner support block (223) is in threaded connection with a threaded rod (236).

9. The stainless steel vacuum cup coating abrasion resistance detection equipment according to claim 1, characterized in that: The top of the base (1) is provided with a vertical plate (225), the top of the vertical plate (225) is provided with a rotating groove (226), the inner side of the rotating groove (226) is rotatably provided with a rotating plate (227), both sides of the rotating plate (227) are sleeved with second torsional springs (228), one end of the second torsional spring (228) is arranged on the inner side of the rotating groove (226), the other end of the second torsional spring (228) is arranged on the inner side of the rotating plate (227), the bottom of the rotating plate (227) is provided with a damping spring (229), and the bottom of the damping spring (229) is provided with a hammer head (230).

10. The stainless steel vacuum cup coating abrasion resistance detection equipment according to claim 1, characterized in that: The bottom of the base (1) is provided with an electric telescopic rod (231), the output end of the electric telescopic rod (231) is provided with a first friction head (232), the top of the base (1) is provided with two placing racks (233), the top of the two placing racks (233) is provided with a vacuum cup body (3), the bottom of the base (1) is provided with a plurality of second friction heads (234), the plurality of second friction heads (234) are located at the bottom of the vacuum cup body (3), and the hammer head (230) is located at the top of the vacuum cup body (3).

Images