Intelligent material guiding structure of resin grinding wheel

Abstract

This invention relates to the field of grinding wheel processing technology, and in particular to an intelligent material guiding structure for resin grinding wheels, comprising a base plate, a mold, and a feeding assembly. The feeding assembly includes a feeding connector and a metering component. A pre-storage vibration assembly is provided at the outer end of the feeding connector, and a feeding vibration assembly is provided on the outer wall of the feeding cylinder. When feeding is required into the mold, the raw material is fed into the upper end of the feeding connector. At this time, the pre-storage vibration assembly is activated, which drives the feeding connector and the metering component to move downwards until they contact the mold. At this time, the metering component switches, and a fixed amount of raw material between the feeding connector and the metering component is fed into the interior of the mold, achieving quantitative feeding. The feeding vibration assembly continuously vibrates the feeding assembly and the mold to avoid insufficient feeding. After feeding is completed, the pre-storage vibration assembly continuously vibrates the feeding connector and the metering component to avoid insufficient pre-stored raw material.

Description

Technical Field

[0001] This invention relates to the field of grinding wheel processing technology, and in particular to an intelligent material guiding structure for resin grinding wheels. Background Technology

[0002] Resin grinding wheels are high-efficiency grinding tools made by binding abrasives with resin as a binder. Their core advantages are good self-sharpening properties, excellent elasticity, less tendency to burn workpieces, and the ability to be made into ultra-thin or high-speed types.

[0003] In the production and processing of resin grinding wheels, the mixed resin grinding wheel raw materials need to be injected into the mold. Under high temperature and high pressure conditions, the resin and the grinding particles are combined to form a solid resin grinding wheel. During this process, the raw materials need to be introduced into the mold.

[0004] In the process of using existing technology, when feeding materials into the mold, it is necessary to fill the mold completely without leaving any gaps. Therefore, it is necessary to manually measure a certain amount of raw materials and then feed them into the mold and continuously compact them. This process is cumbersome and difficult to implement.

[0005] Based on this, the present invention designs an intelligent material guiding structure for resin grinding wheels to solve the above problems. Summary of the Invention

[0006] In view of the difficulty in quantitatively adding raw materials to molds in the above or existing technologies, the present invention is proposed.

[0007] Therefore, the purpose of this invention is to provide an intelligent material guiding structure for resin grinding wheels.

[0008] As a preferred embodiment of the intelligent material guiding structure of the resin grinding wheel of the present invention, it includes a base plate; A mold is disposed above the base plate and a feeding assembly is disposed at the end of the mold. The feeding assembly includes a feeding connector disposed at the end of the mold and a metering component disposed inside the feeding connector. The feeding connector includes a feeding cylinder disposed at the end of the mold, a first upper closing ramp disposed on the inner wall of the feeding cylinder, and a first lower closing ramp disposed on the inner wall of the feeding cylinder below the first upper closing ramp. The metering component includes a switching column disposed inside the feeding cylinder, a second upper closing ramp disposed at the end of the switching column, and a second lower closing ramp disposed at the end of the switching column; A pre-stored material vibration component is provided on the outer wall of the feeding cylinder; The switching column is located between the first upper closed slope and the first lower closed slope.

[0009] As a preferred embodiment of the intelligent material guiding structure of the resin grinding wheel of the present invention, the feeding connector further includes a first material guiding ramp, the first material guiding ramp is disposed on the inner wall of the feeding cylinder above the first upper closed ramp, a connecting hole is provided at the mold end below the feeding cylinder, a connecting post is provided at the end of the feeding cylinder, and the connecting post is disposed inside the connecting hole.

[0010] As a preferred embodiment of the intelligent material guiding structure of the resin grinding wheel of the present invention, the metering component further includes a positioning slide rod, the end of the switching column is provided with a positioning slide rod, the end of the feeding cylinder is provided with a bracket, the positioning slide rod passes through the bracket, a second material guiding slope is provided on the outer wall of the switching column above the second upper closed slope and above the second lower closed slope, and a material storage groove is opened in the middle of the switching column.

[0011] As a preferred embodiment of the intelligent material guiding structure of the resin grinding wheel of the present invention, the pre-stored material shaking component includes a driving component, the driving component is disposed on the top of the bottom plate outside the upper cylinder, and a first shaking component is disposed on the outer wall of the upper cylinder.

[0012] As a preferred embodiment of the intelligent material guiding structure of the resin grinding wheel of the present invention, the driving component includes an arched frame, an arched frame is provided on the top of the bottom plate on the outer side of the feed cylinder, a C-shaped support frame is provided on the outer wall of the feed cylinder, the C-shaped support frame is provided on the inner wall of the arched frame, a motor is provided at the end of the arched frame, a threaded rod is provided at the end of the motor, a first slider is provided on the inner wall of the C-shaped support frame, the threaded rod passes through the first slider, a limiting guide rod is provided inside the arched frame, and the limiting guide rod passes through the first slider.

[0013] In a preferred embodiment of the intelligent material guiding structure of the resin grinding wheel of the present invention, the first vibration component includes a first mounting vertical plate, the arched frame is provided with the first mounting vertical plate, the first mounting vertical plate has a first clearance groove in the middle, the first clearance groove has a first limiting groove in the middle, the end of the first mounting vertical plate is provided with a vibration protrusion, the outer wall of the feed cylinder is provided with a support plate, the end of the support plate is provided with a first limiting slide rod, the outer wall of the feed cylinder on the inner side of the support plate is provided with a protrusion, and the end of the protrusion contacts the end of the vibration protrusion.

[0014] As a preferred embodiment of the intelligent material guiding structure of the resin grinding wheel of the present invention, a material feeding vibration component is provided on the outer wall of the feeding cylinder.

[0015] As a preferred embodiment of the intelligent material guiding structure of the resin grinding wheel of the present invention, the feeding vibration component includes a clearance member, which is disposed on the outer wall of the feeding cylinder, and a second vibration member is disposed on the end of the bottom plate below the mold.

[0016] As a preferred embodiment of the intelligent material guiding structure of the resin grinding wheel of the present invention, the receptive component includes a sliding groove, the sliding groove being formed on the outer wall of the feeding cylinder, a second slider being provided inside the sliding groove, the outer wall of the second slider being provided on the inner wall of the C-shaped support frame, a second mounting vertical plate being provided on the inner wall of the arched frame, a second limiting groove being formed on the side wall of the second mounting vertical plate, a second limiting slide rod being provided on the outer wall of the C-shaped support frame, and the end of the second limiting slide rod being provided inside the second limiting groove.

[0017] As a preferred embodiment of the intelligent material guiding structure of the resin grinding wheel of the present invention, the second vibration component includes a second clearance groove, the bottom plate below the mold is provided with a second clearance groove, the second mounting vertical plate below the second limiting groove is provided with a wave-shaped vibration groove, and the end of the second limiting slide rod is disposed inside the wave-shaped vibration groove.

[0018] The beneficial effects of the intelligent material guiding structure of the resin grinding wheel of the present invention are as follows: When it is necessary to feed material into the mold, the raw material is fed into the upper end of the feeding connector. At this time, the pre-stored material shaking component is activated. The pre-stored material shaking component drives the feeding connector and the metering component to move downwards until they contact the mold. At this time, under the switching of the metering component, a fixed amount of raw material between the feeding connector and the metering component is fed into the interior of the mold, realizing quantitative feeding. At this time, the feeding component and the mold are continuously shaken by the feeding shaking component to avoid insufficient feeding. After feeding is completed, the feeding connector and the metering component are continuously shaken by the pre-stored material shaking component to avoid insufficient pre-stored raw material. Attached Figure Description

[0019] To more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings used in the following description of the embodiments will be briefly introduced. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0020] Figure 1 This is a schematic diagram of the overall structure of the intelligent material guiding structure for a resin grinding wheel according to the present invention. Figure 1 .

[0021] Figure 2 This is a schematic diagram of the overall structure of the intelligent material guiding structure for a resin grinding wheel according to the present invention. Figure 2 .

[0022] Figure 3 This is a schematic diagram of the chute structure of the intelligent material guiding structure for a resin grinding wheel according to the present invention.

[0023] Figure 4 This is a schematic diagram of the connecting pin structure of the intelligent material guiding structure of a resin grinding wheel according to the present invention.

[0024] Figure 5 This is a schematic diagram of the storage tank structure of the intelligent material guiding structure for a resin grinding wheel according to the present invention.

[0025] Figure 6 This is a schematic diagram of the second slider structure of the intelligent material guiding structure for a resin grinding wheel according to the present invention.

[0026] Figure 7 This is a schematic diagram of the shaking protrusion structure of the intelligent material guiding structure of a resin grinding wheel according to the present invention.

[0027] Figure 8 This is a schematic diagram of the wave-shaped vibration groove structure of the intelligent material guiding structure of a resin grinding wheel according to the present invention.

[0028] The labels in the diagram represent: 1. Base plate; 2. Feeding assembly; 21. Feeding connector; 211. Feeding cylinder; 212. First guide ramp; 213. First upper closed ramp; 214. First lower closed ramp; 215. Connecting hole; 216. Connecting pin; 22. Metering component; 221. Switching pin; 222. Positioning slide bar; 223. Bracket; 224. Second guide ramp; 225. Second upper closed ramp; 226. Storage trough; 227. Second lower closed ramp; 3. Pre-storage vibration assembly; 31. Drive component; 311. Arch frame; 312. Motor; 313. C-shaped support. 314. Support frame; 315. Threaded rod; 316. First slider; 32. Limiting guide rod; 32. First vibrating component; 321. First mounting vertical plate; 322. First clearance groove; 323. First limiting groove; 324. Vibrating protrusion; 325. Support plate; 326. First limiting slide rod; 327. Protrusion; 4. Feeding vibrating assembly; 41. Clearance component; 411. Slide groove; 412. Second slider; 413. Second mounting vertical plate; 414. Second limiting groove; 415. Second limiting slide rod; 42. Second vibrating component; 421. Second clearance groove; 422. Wavy vibrating groove; 5. Mold. Detailed Implementation

[0029] To make the above-mentioned objects, features and advantages of the present invention more apparent and understandable, the specific embodiments of the present invention will be described in detail below with reference to the accompanying drawings.

[0030] Many specific details are set forth in the following description in order to provide a full understanding of the invention. However, the invention may also be practiced in other ways different from those described herein, and those skilled in the art can make similar extensions without departing from the spirit of the invention. Therefore, the invention is not limited to the specific embodiments disclosed below.

[0031] Secondly, the term "one embodiment" or "embodiment" as used herein refers to a specific feature, structure, or characteristic that may be included in at least one implementation of the present invention. The phrase "in one embodiment" appearing in different places in this specification does not necessarily refer to the same embodiment, nor is it a single or selective embodiment that is mutually exclusive with other embodiments.

[0032] Example 1, referring to Figures 1 to 5 This is the first embodiment of the present invention. This embodiment provides an intelligent material guiding structure for a resin grinding wheel, which can realize quantitative feeding of raw materials, and includes a base plate 1. Specifically, the mold 5 is set above the base plate 1 and the feeding assembly 2 is set at the end of the mold 5. The feeding assembly 2 includes a feeding connector 21 set at the end of the mold 5 and a metering component 22 set inside the feeding connector 21. Furthermore, a mold 5 is slidably connected above the base plate 1, and a feeding component 2 is connected to the upper end of the mold 5; The feeding assembly 2 includes a feeding connector 21, the lower end of which is connected to the upper end of the mold 5, and a metering component 22 is connected inside the feeding connector 21. Specifically, the feeding connector 21 includes a feeding cylinder 211 disposed at the end of the mold 5, a first upper closing ramp 213 disposed on the inner wall of the feeding cylinder 211, and a first lower closing ramp 214 disposed on the inner wall of the feeding cylinder 211 below the first upper closing ramp 213. Furthermore, the feeding connector 21 includes a feeding cylinder 211, the lower end of the feeding cylinder 211 is in contact with the upper end of the mold 5, the upper end of the inner wall of the feeding cylinder 211 is fixedly connected with a first upper closing ramp 213, and the lower end of the inner wall of the feeding cylinder 211 is fixedly connected with a first lower closing ramp 214. Specifically, the metering component 22 includes a switching column 221 disposed inside the feed cylinder 211, a second upper closing ramp 225 disposed at the end of the switching column 221, and a second lower closing ramp 227 disposed at the end of the switching column 221. Furthermore, the metering component 22 includes a switching column 221. The switching column 221 is provided inside the feeding cylinder 211. A second upper closing slope 225 is provided on the upper outer wall of the switching column 221, and a second lower closing slope 227 is provided on the lower outer wall of the switching column 221. The second upper closing slope 225 is in close contact with the first upper closing slope 213, and the second lower closing slope 227 is in close contact with the first lower closing slope 214. Specifically, a pre-stored material shaking component 3 is provided on the outer wall of the feeding cylinder 211; The switching column 221 is located between the first upper closed ramp 213 and the first lower closed ramp 214; Furthermore, a pre-stored material vibration component 3 is connected to the outer wall of the feeding cylinder 211; Specifically, the feeding connector 21 also includes a first guiding ramp 212, which is disposed on the inner wall of the feeding cylinder 211 above the first upper closed ramp 213. A connecting hole 215 is provided at the end of the mold 5 below the feeding cylinder 211, and a connecting post 216 is provided at the end of the feeding cylinder 211. The connecting post 216 is disposed inside the connecting hole 215. Furthermore, the feeding connector 21 also includes a first guiding ramp 212. The lower end of the first guiding ramp 212 is fixedly connected to the upper end of the first upper closed ramp 213. The first guiding ramp 212 is fixedly connected to the inner wall of the feeding cylinder 211. The upper end of the mold 5 below the feeding cylinder 211 is provided with several sets of connecting holes 215. The bottom of the feeding cylinder 211 is fixedly connected with several sets of connecting pins 216 corresponding to the connecting holes 215. The connecting pins 216 are inserted into the inside of the connecting holes 215. Specifically, the metering component 22 also includes a positioning slide rod 222, the end of the switching column 221 is provided with a positioning slide rod 222, the end of the upper feed cylinder 211 is provided with a bracket 223, the positioning slide rod 222 passes through the bracket 223, the outer wall of the switching column 221 above the second upper closed slope 225 and above the second lower closed slope 227 is provided with a second guiding slope 224, and a storage trough 226 is opened in the middle of the switching column 221; Furthermore, the quantitative component 22 also includes a positioning slide rod 222. The top of the switching column 221 is fixedly connected to the positioning slide rod 222. The upper end of the feeding cylinder 211 is fixedly connected to the bracket 223. The positioning slide rod 222 passes through the bracket 223 and is slidably connected to the bracket 223. A second guiding slope 224 is provided on the outer wall of the switching column 221 above the second upper closing slope 225 and the upper end of the second lower closing slope 227. A storage groove 226 is provided on the switching column 221 between the second lower closing slope 227 and the second upper closing slope 225. The bottom of the switching column 221 is in contact with the top of the mold 5. A heating device is installed inside the switching column 221; In use, when resin grinding wheels need to be produced, the pre-stored material vibration component 3 is activated. The pre-stored material vibration component 3 drives the upper material cylinder 211 to move downwards, and the upper material cylinder 211 drives the switching column 221 to move downwards. When the bottom of the switching column 221 contacts the top of the mold 5, the switching column 221 moves upwards relative to the upper material cylinder 211 under the obstruction of the mold 5. When the upper material cylinder 211 drives the connecting pin 216 to be inserted into the connecting hole 215, the second lower closing slope 227 disengages from the first lower closing slope 214 and the second upper closing slope 225 fits against the first upper closing slope 213. This causes the lower opening of the upper material cylinder 211 to open and the upper opening of the upper material cylinder 211 to be closed by the second upper closing slope. When slope 225 is blocked, the material between the inner wall of the feeding cylinder 211 and the outer wall of the switching column 221 and inside the storage tank 226 falls into the mold 5 through the gap between the first lower closing slope 214 and the second lower closing slope 227 under the guidance of the second guiding slope 224 above the second lower closing slope 227. At this time, due to the blocking of the first upper closing slope 213 and the second upper closing slope 225, the material on the first guiding slope 212 will not fall into the mold 5. Thus, when feeding, only a fixed amount of material between the inner wall of the feeding cylinder 211 and the outer wall of the switching column 221 and inside the storage tank 226 will be fed into the mold 5. At this time, the fixed amount of material inside the mold 5 can be achieved. When feeding is complete, the pre-stored material shaking component 3 is activated, causing the feeding cylinder 211 to move upward. Simultaneously, the switching column 221 remains stationary under gravity. When the feeding cylinder 211 moves to the point where the first lower closing slope 214 and the second lower closing slope 227 are in contact, the first upper closing slope 213 and the second upper closing slope 225 separate. At this point, the lower part of the feeding cylinder 211 is blocked by the first lower closing slope 214 and the second lower closing slope 227, and the opening above the feeding cylinder 211 opens. At this time, the material above the first guiding slope 212, guided by the first guiding slope 212 and the second guiding slope 224, passes through the first upper closing slope 213 and the second... The gap between the upper closed ramp 225 enters the space between the feeding cylinder 211 and the switching column 221 and the storage tank 226. Since the opening below the feeding cylinder 211 is blocked, the space between the feeding cylinder 211 and the switching column 221 and the storage tank 226 are filled with material, realizing the pre-storage of a quantitative material. This allows the material to be filled into the mold 5 in the next feeding. Repeating the above operation can realize the feeding of raw materials in a quantitative manner. Under the heating action of the heating device in the switching column 221, the pre-stored material will be preheated, thus ensuring the temperature of the material before proceeding to the next process and preventing the material from solidifying due to cooling. After the material is fed into mold 5, it is sent to the next process for extrusion and shaping.

[0033] Example 2, refer to Figures 1 to 7This is the second embodiment of the present invention, which differs from the previous embodiment in that it includes a pre-stored material shaking component 3; Specifically, the pre-stored material shaking assembly 3 includes a driving component 31, which is disposed on the top of the bottom plate 1 outside the feed cylinder 211, and a first shaking component 32 is disposed on the outer wall of the feed cylinder 211. Furthermore, the pre-stored material shaking assembly 3 includes a driving component 31, which is connected to the top of the bottom plate 1 on the outside of the upper material cylinder 211, and a first shaking component 32 is connected to the outer wall of the upper material cylinder 211. Specifically, the driving component 31 includes an arched frame 311. An arched frame 311 is provided on the top of the bottom plate 1 on the outer side of the feeding cylinder 211. A C-shaped support frame 313 is provided on the outer wall of the feeding cylinder 211. The C-shaped support frame 313 is provided on the inner wall of the arched frame 311. A motor 312 is provided at the end of the arched frame 311. A threaded rod 314 is provided at the end of the motor 312. A first slider 315 is provided on the inner wall of the C-shaped support frame 313. The threaded rod 314 passes through the first slider 315. A limiting guide rod 316 is provided inside the arched frame 311. The limiting guide rod 316 passes through the first slider 315. Furthermore, the drive component 31 includes an arched frame 311. The arched frame 311 is connected to the top of the bottom plate 1 on the outer side of the feed cylinder 211. A C-shaped support frame 313 is rotatably connected to the outer wall of the feed cylinder 211. The C-shaped support frame 313 is slidably connected to the inner wall of the arched frame 311. A motor 312 is fixedly connected to the top of the arched frame 311. The output end of the motor 312 passes through the top plate of the arched frame 311 and is fixedly connected to a threaded rod 314. The lower end of the threaded rod 314... Rotary connection to the top of the base plate 1, two sets of first sliders 315 are slidably connected to the inner wall of the C-shaped support frame 313, threaded rod 314 passes through one set of first sliders 315 and is threadedly connected to the first sliders 315, and a limiting guide rod 316 is fixedly connected to the inner top of the arched frame 311, the lower end of the limiting guide rod 316 passes through another set of first sliders 315 and is fixedly connected to the top of the base plate 1, and the limiting guide rod 316 is slidably connected to the first sliders 315; Specifically, the first shaking component 32 includes a first mounting vertical plate 321. The arched frame 311 is provided with the first mounting vertical plate 321. The first mounting vertical plate 321 has a first clearance groove 322 in the middle and a first limiting groove 323 in the middle. The end of the first mounting vertical plate 321 is provided with a shaking protrusion 324. The outer wall of the feeding cylinder 211 is provided with a support plate 325. The end of the support plate 325 is provided with a first limiting slide rod 326. The outer wall of the feeding cylinder 211 inside the support plate 325 is provided with a protrusion 327. The end of the protrusion 327 contacts the end of the shaking protrusion 324. Furthermore, the first vibration component 32 includes a first mounting vertical plate 321. The inner top of the arched frame 311 is fixedly connected to the first mounting vertical plate 321. A first clearance groove 322 is provided in the middle of the first mounting vertical plate 321. First limiting grooves 323 are provided on the first mounting vertical plates 321 at both ends of the first clearance groove 322. Several sets of vibration protrusions 324 are fixedly connected to the end of the first mounting vertical plate 321 near the feeding cylinder 211. On the side wall of the feeding cylinder 211 near the first mounting vertical plate 321... Two sets of parallel support plates 325 are fixedly connected. A first limiting slide rod 326 is fixedly connected between the ends of the two sets of support plates 325 away from the feeding cylinder 211. The first limiting slide rod 326 passes through the first clearance groove 322 and the first limiting groove 323 and is slidably connected to the first clearance groove 322 and the first limiting groove 323. A protrusion 327 is fixedly connected to the outer wall of the feeding cylinder 211 between the two sets of support plates 325. The end of the protrusion 327 away from the feeding cylinder 211 is slidably connected to the shaking protrusion 324. During use, after feeding is complete, the motor 312 is started. The motor 312 drives the first slider 315 and the C-shaped support frame 313 to move upward via the first slider 315. The C-shaped support frame 313 drives the feeding cylinder 211 to move upward. When the feeding cylinder 211 moves to the point where the first lower closing ramp 214 and the second lower closing ramp 227 are in contact, the first limiting slide rod 326 moves into the interior of the first relief groove 322. At this time, the protrusion 327 moves to the point of contacting the vibration protrusion 324. At this time, the feeding cylinder 211 continues to move upward, and at the same time, the feeding cylinder 211 drives the protrusion 327 to move upward. The feeding cylinder 211 is rotatably connected to the inner wall of the C-shaped support frame 313. Therefore, under the collision of the shaking protrusion 324, the protrusion 327 shakes continuously, so that the material above the first guide slope 212 is continuously shaken down between the first upper closed slope 213 and the second upper closed slope 225 and into the space between the feeding cylinder 211 and the switching column 221. As the feeding cylinder 211 is continuously shaken by the collision of the protrusion 327 and the shaking protrusion 324, the material between the feeding cylinder 211 and the switching column 221 is continuously compacted, so that there will be no gaps between the materials and the problem of insufficient material quantity. As the feeding cylinder 211 moves downward, the protrusion 327 will continue to collide with and shake the protrusion 324, thus further compacting the temporarily stored material and ensuring that there are no gaps between the quantitative materials. When the feeding cylinder 211 drives the first limiting slide bar 326 to move into the first limiting groove 323, the feeding cylinder 211 is in a vertical state under the limit of the first limiting groove 323. At this time, the connecting pin 216 is located above the connecting hole 215, thus achieving the positioning and alignment of the feeding cylinder 211 and the mold 5. The feeding cylinder 211 continues to move downward and drives the connecting pin 216 to be inserted into the connecting hole 215, thus completing the docking of the feeding cylinder 211 and the mold 5.

[0034] Example 2, refer to Figures 1 to 3 and Figures 6 to 8 This is the second embodiment of the present invention, which differs from the previous embodiment in that it includes a feeding vibration component 4; Specifically, a feeding vibration component 4 is provided on the outer wall of the feeding cylinder 211; The feeding vibration component 4 includes a relief component 41, which is disposed on the outer wall of the feeding cylinder 211, and a second vibration component 42 is disposed on the end of the bottom plate 1 below the mold 5. Furthermore, a feeding vibration component 4 is connected to the outer wall of the feeding cylinder 211; The feeding vibration component 4 includes a relief component 41, which is connected to the outer wall of the feeding cylinder 211. The upper end of the bottom plate 1 below the mold 5 is connected to a second vibration component 42. Specifically, the clearance member 41 includes a slide groove 411, which is formed on the outer wall of the feed cylinder 211. A second slider 412 is provided inside the slide groove 411. The outer wall of the second slider 412 is provided on the inner wall of the C-shaped support frame 313. A second mounting vertical plate 413 is provided on the inner wall of the arched frame 311. A second limiting groove 414 is formed on the side wall of the second mounting vertical plate 413. A second limiting slide rod 415 is provided on the outer wall of the C-shaped support frame 313. The end of the second limiting slide rod 415 is provided inside the second limiting groove 414. Furthermore, the clearance member 41 includes a groove 411. The inner sidewalls of the feeding cylinder 211 on both sides of the C-shaped support frame 313 are provided with grooves 411. The interior of each groove 411 is slidably connected to a second slider 412. The outer wall of the second slider 412 is rotatably connected to the C-shaped support frame 313 through a pivot. The C-shaped support frame 313 is rotatably connected to the feeding cylinder 211 through the second slider 412. The inner wall of the arched frame 311 is fixedly connected to a second mounting vertical plate 413. The sidewall of the second mounting vertical plate 413 is provided with a second limiting groove 414. The sidewall of the C-shaped support frame 313 near the second mounting vertical plate 413 is fixedly connected to a second limiting slide rod 415. The end of the second limiting slide rod 415 is slidably connected in the second limiting groove 414. Specifically, the second shaking component 42 includes a second clearance groove 421. The second clearance groove 421 is provided on the end of the bottom plate 1 below the mold 5. A wave-shaped shaking groove 422 is provided on the second mounting vertical plate 413 below the second limiting groove 414. The end of the second limiting slide rod 415 is located inside the wave-shaped shaking groove 422. Furthermore, the second shaking component 42 includes a second clearance groove 421. The bottom plate 1 below the mold 5 has a second clearance groove 421 at its upper end. The lower end of the mold 5 is slidably connected inside the second clearance groove 421. A wave-shaped shaking groove 422 is provided on the side wall of the second mounting vertical plate 413 below the second limiting groove 414. The end of the second limiting slide rod 415 is slidably connected inside the wave-shaped shaking groove 422. During use, when the feeding cylinder 211 just contacts the mold 5, the second slider 412 is located at the uppermost end of the slide groove 411, and at this time, the second limiting slide rod 415 is located at the junction of the second limiting groove 414 and the wave-shaped vibration groove 422. At this time, the motor 312 continues to drive the C-shaped support frame 313 to move downward through the threaded rod 314. The C-shaped support frame 313 drives the second limiting slide rod 415 to move into the inside of the wave-shaped vibration groove 422. At this time, the limiting slide rod 415 is located in the wave-shaped vibration groove 422. The lower second limit slide bar 415 drives the C-shaped support frame 313 to vibrate back and forth. At this time, the C-shaped support frame 313 drives the feeding cylinder 211 and the mold 5 to vibrate back and forth under the yielding of the second relief groove 421. This causes the material between the feeding cylinder 211 and the switching column 221 to be continuously shaken and fall into the interior of the mold 5. The material inside the mold 5 is continuously compacted and flattened under the continuous shaking, realizing the automatic shaking and compaction of the material, avoiding the problem of insufficient feeding caused by the accumulation of material. When the material feeding of mold 5 is completed, motor 312 drives the second slider 412 to move upward through C-shaped support frame 313. When the second slider 412 moves to the uppermost end of slide 411, it drives the feeding cylinder 211 to continue to move upward. At this time, the next batch of raw materials can be quantitatively fed.

[0035] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and are not intended to limit it. Although the present invention has been described in detail with reference to preferred embodiments, those skilled in the art should understand that modifications or equivalent substitutions can be made to the technical solutions of the present invention without departing from the spirit and scope of the technical solutions of the present invention, and all such modifications or substitutions should be covered within the scope of the claims of the present invention.

Claims

1. An intelligent material guiding structure of resinoid grinding wheel, characterized in that: Including the base plate (1); and, A mold (5) is disposed above the base plate (1), and a feeding assembly (2) is disposed at the end of the mold (5). The feeding assembly (2) includes a feeding connector (21) disposed at the end of the mold (5) and a metering component (22) disposed inside the feeding connector (21). The feeding connector (21) includes a feeding cylinder (211) disposed at the end of the mold (5), a first upper closing ramp (213) disposed on the inner wall of the feeding cylinder (211), and a first lower closing ramp (214) disposed on the inner wall of the feeding cylinder (211) below the first upper closing ramp (213); and, The metering component (22) includes a switching column (221) disposed inside the feed cylinder (211), a second upper closing ramp (225) disposed at the end of the switching column (221), and a second lower closing ramp (227) disposed at the end of the switching column (221); and, The outer wall of the feeding cylinder (211) is provided with a pre-stored material shaking component (3); wherein, The switching column (221) is located between the first upper closed slope (213) and the first lower closed slope (214).

2. The resinoid grinding wheel intelligent material guiding structure according to claim 1, characterized in that: The feeding connector (21) also includes a first guiding ramp (212), which is located on the inner wall of the feeding cylinder (211) above the first upper closed ramp (213). A connecting hole (215) is provided at the end of the mold (5) below the feeding cylinder (211), and a connecting post (216) is provided at the end of the feeding cylinder (211). The connecting post (216) is located inside the connecting hole (215).

3. The resinoid wheel intelligent material guiding structure according to claim 2, characterized in that: The metering component (22) also includes a positioning slide rod (222). The end of the switching column (221) is provided with a positioning slide rod (222). The end of the upper feed cylinder (211) is provided with a bracket (223). The positioning slide rod (222) passes through the bracket (223). A second guide slope (224) is provided on the outer wall of the switching column (221) above the second upper closed slope (225) and above the second lower closed slope (227). A storage trough (226) is opened in the middle of the switching column (221).

4. The intelligent material guiding structure of the resin grinding wheel according to claim 3, characterized in that: The pre-stored material shaking component (3) includes a driving component (31), which is located on the top of the bottom plate (1) outside the feed cylinder (211), and a first shaking component (32) is provided on the outer wall of the feed cylinder (211).

5. The resinoid wheel intelligent material guiding structure according to claim 4, characterized in that: The driving component (31) includes an arched frame (311). An arched frame (311) is provided on the top of the bottom plate (1) on the outer side of the feed cylinder (211). A C-shaped support frame (313) is provided on the outer wall of the feed cylinder (211). The C-shaped support frame (313) is provided on the inner wall of the arched frame (311). A motor (312) is provided at the end of the arched frame (311). A threaded rod (314) is provided at the end of the motor (312). A first slider (315) is provided on the inner wall of the C-shaped support frame (313). The threaded rod (314) passes through the first slider (315). A limit guide rod (316) is provided inside the arched frame (311). The limit guide rod (316) passes through the first slider (315).

6. The resinoid wheel intelligent material guiding structure according to claim 5, characterized in that: The first shaking component (32) includes a first mounting vertical plate (321). The arched frame (311) is provided with the first mounting vertical plate (321). The first mounting vertical plate (321) has a first clearance groove (322) in the middle. The first clearance groove (322) has a first limiting groove (323) in the middle. The end of the first mounting vertical plate (321) is provided with a shaking protrusion (324). The outer wall of the feeding cylinder (211) is provided with a support plate (325). The end of the support plate (325) is provided with a first limiting slide rod (326). The outer wall of the feeding cylinder (211) inside the support plate (325) is provided with a protrusion (327). The end of the protrusion (327) contacts the end of the shaking protrusion (324).

7. The resinoid wheel intelligent material guiding structure according to claim 6, characterized in that: The outer wall of the feeding cylinder (211) is provided with a feeding vibration component (4).

8. The resinoid wheel's intelligent material guiding structure according to claim 7, characterized in that: The feeding vibration component (4) includes a relief component (41), which is disposed on the outer wall of the feeding cylinder (211), and a second vibration component (42) is disposed on the end of the bottom plate (1) below the mold (5).

9. The resinoid wheel intelligent material guiding structure according to claim 8, characterized in that: The clearance component (41) includes a slide groove (411), which is opened on the outer wall of the feed cylinder (211). A second slider (412) is provided inside the slide groove (411). The outer wall of the second slider (412) is provided on the inner wall of the C-shaped support frame (313). A second mounting vertical plate (413) is provided on the inner wall of the arched frame (311). A second limiting groove (414) is opened on the side wall of the second mounting vertical plate (413). A second limiting slide rod (415) is provided on the outer wall of the C-shaped support frame (313). The end of the second limiting slide rod (415) is provided inside the second limiting groove (414).

10. The resinoid wheel's intelligent material guiding structure according to claim 9, characterized in that: The second shaking component (42) includes a second clearance groove (421). The second clearance groove (421) is provided on the end of the bottom plate (1) below the mold (5). A wave-shaped shaking groove (422) is provided on the second mounting vertical plate (413) below the second limiting groove (414). The end of the second limiting slide bar (415) is located inside the wave-shaped shaking groove (422).

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