Dental grinding all-in-one machine
The integrated tooth grinding machine design enables particle size control, improves yield and output, reduces costs, avoids cross-infection, and solves the problems in the tooth grinding process in existing technologies.
Patent Information
- Application Number
- CN202211330054.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2022-10-27
- Publication Date
- 2025-12-09
- Estimated Expiration
- 2042-10-27
AI Technical Summary
Existing technologies struggle to control particle size during tooth pulverization, resulting in low yield, low output, long processing time, high costs, and a risk of cross-infection.
The integrated tooth grinding machine, which uses a one-time crushing and two-stage grading and screening process, controls the particle size by controlling the distance between the blades and the inner wall of the container and the rotation speed, combined with filters of different pore sizes, thus avoiding cross-contamination.
It improved the yield rate, increased output, shortened processing time, reduced costs, and avoided cross-contamination.
Smart Images

Figure CN115582181B_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The present application belongs to the technical field of machinery, and particularly relates to a tooth grinding all-in-one machine. BACKGROUND
[0002] Autogenous tooth transplantation can reconstruct natural teeth to restore tooth defects, restore normal periodontal tissue and tooth body sensation in the tooth area, maintain and promote the formation and continued development of the alveolar bone in the edentulous area, avoid damage to adjacent teeth during fixed repair, and the transplanted tooth can move with orthodontics, which is especially suitable for developing individuals. Due to small trauma, short treatment cycle, low cost and high efficiency compared with porcelain teeth, autogenous tooth transplantation is widely promoted. When reconstructing teeth, the natural wisdom tooth, impacted tooth, misaligned tooth or ectopic tooth is removed, and then the tooth is crushed into particles by a tooth powder machine, and then screened. Then, the most suitable new tooth structure is designed according to the shape of the alveolar fossa of the patient's implant area and the tooth root. In the prior art, the tooth is crushed into particles by mechanical impact, shearing and other methods. However, when processing products in a certain narrow particle size range, the particle size is difficult to control due to the use of mechanical impact, shearing and other methods. Therefore, repeated impact, shearing, screening, cleaning, soaking, re-cleaning, disinfection and drying are required, which results in a very low yield, a small output, a long processing time and a high cost. Moreover, the tooth is crushed by mixing, which is prone to cross infection. SUMMARY
[0003] The present application aims to overcome the above-mentioned shortcomings and provide a tooth grinding all-in-one machine which can crush the tooth once and screen it twice, control the particle size by the rotation speed and the distance between the blade and the inner wall of the container B, has a high yield, a large output, a short processing time, a low cost and can avoid cross infection.
[0004] The present application aims to overcome the above-mentioned shortcomings and provide a tooth grinding all-in-one machine which can crush the tooth once and screen it twice, control the particle size by the rotation speed and the distance between the blade and the inner wall of the container B, has a high yield, a large output, a short processing time, a low cost and can avoid cross infection.
[0005] The present application aims to overcome the above-mentioned shortcomings and provide a tooth grinding all-in-one machine which can crush the tooth once and screen it twice, control the particle size by the rotation speed and the distance between the blade and the inner wall of the container B, has a high yield, a large output, a short processing time, a low cost and can avoid cross infection.
[0006] The rack A and the rack B can move up and down in the rack sleeve.
[0007] The hopper can rotate at the lower end of the rack B.
[0008] The rotating mechanism is composed of a rotating disc, a rotating disc seat, balls, a motor C, a ball seat, the rotating disc seat is fixedly connected with the rotating disc on the upper surface, the balls are installed on the lower surface, the ball seat is installed on the lower surface of the balls, the output shaft of the motor C is connected with the rotating disc, the motor C is installed at the lower end of the shell, and a plurality of containers A and a crushing mechanism are respectively placed in the holes arranged on the upper surface of the rotating disc.
[0009] The rotating disc can rotate.
[0010] The crushing mechanism is composed of a container B, a shaft, a motor D, a boss, a blade, a filter screen A and a filter screen B, the boss is arranged at the lower end of the container B, the filter screen A is installed on the upper surface of the boss, the filter screen B is installed on the side surface, the motor D is connected with the shaft, the shaft is connected with the bottom of the container B through a bearing at the middle part, the blade is installed at the upper end, the container B is placed in the hole arranged on the upper surface of the rotating disc, and the motor D is installed on the rotating disc.
[0011] One end of the blade is inclined upward, the other end is inclined downward, and the blade can rotate.
[0012] The upper surface of the boss is inclined.
[0013] The pore size of the filter screen A is larger than that of the filter screen B.
[0014] Compared with the prior art, the application has obvious beneficial effects; from the above technical solution, it can be known that the adding mechanism is installed on the upper end of the shell, the rotating mechanism is installed on the lower end, the crushing mechanism and the container A are respectively installed on the rotating mechanism, the rotating disc has different effects on different containers A, different functions can be realized, such as cleaning, soaking, re-cleaning, disinfection, drying and crushing and grinding integration functions. Only the patient's extracted teeth are placed in the hopper, the hopper is rotated and inclined, the motor C drives the rotating disc, the rotating disc drives the container A and the crushing mechanism to rotate to the lower side of the hopper, the extracted teeth are respectively placed in the plurality of containers A, the crushing mechanism, and the cleaning, soaking, re-cleaning, disinfection, drying and re-grinding can be realized, the distance between the blade and the inner wall of the container B is adjusted, the angle of the bent blade is adjusted, and the rotating speed of the motor D is controlled to control the crushing granularity, the pore size of the filter screen A and the filter screen B is selected, the powder particles with different diameters are separated after grinding through the filter screen A and the filter screen B, the grinding efficiency is high, the cross-infection condition can be avoided, the crushing and secondary classification and screening are realized, the particle size is controlled by the rotating speed and the distance between the blade and the inner wall of the container B, the finished product rate is high, the yield is large, the processing time is short, the cost is low, and the cross-infection can be avoided. BRIEF DESCRIPTION OF DRAWINGS
[0015] Figure 1is the structural diagram of the present application Figure 1 ;
[0016] Figure 2 is the structural diagram of the present application Figure 2 ;
[0017] Figure 3 is the structural diagram of the present application Figure 1 ;
[0018] Figure 4 is the structural diagram of the present application Figure 2 ;
[0019] Figure 5 is the structural diagram of the present application
[0020] Figure 6 is the structural diagram of the present application Figure 5 is the structural diagram of the present application
[0021] Figure 7 is the structural diagram of the present application
[0022] Figure 8 is the structural diagram of the present application Figure 7 is the sectional view of A-A
[0023] Figure 9 is the structural diagram of the present application
[0024] is the structural diagram of the present application
[0025] 1, adding mechanism, 2, door, 3, rotating mechanism, 4, crushing mechanism, 5, container A, 6, shell, 101, rack A, 102, rack B, 103, motor A, 104, gear A, 105, rack cover, 106, cover seat, 107 hopper, 108, sliding sleeve, 109, gear B, 110, motor B, 111, pin, 301, rotating disc, 302, rotating disc seat, 303, ball, 304, motor C, 305, ball seat, 401, container B, 402, shaft, 403, motor D, 404, boss, 405, blade, 406, filter screen A, 407, filter screen B. DETAILED DESCRIPTION
[0026] The following will be described in detail in combination with the preferred embodiments and the drawings, the specific embodiments, structures, features and effects of the present application.
[0027] The application discloses a tooth grinding all-in-one machine which comprises an adding mechanism 1, a rotating mechanism 3, a crushing mechanism 4, a container A 5 and a shell 6, characterized in that the upper end of the shell 6 is provided with the adding mechanism 1, the lower end of the shell 6 is provided with the rotating mechanism 3, the rotating mechanism 3 is respectively provided with the crushing mechanism 4 and the container A 5, the shell 6 is hinged with a door 2, the adding mechanism 1 is composed of a rack A 101, a rack B 102, a motor A 103, a gear A 104, a rack sleeve 105, a sleeve seat 106, a hopper 107, a sliding sleeve 108, a gear B 109, a motor B 110 and a pin 111, two rack sleeves 105 are fixedly installed on the sleeve seat 106, the two rack sleeves 105 are respectively inserted into the rack A 101 and the rack B 102, the upper end of the rack A 101 is engaged with the gear B 109, the gear B 109 is installed on the output shaft of the motor B 110, the upper end of the rack B 102 is engaged with the gear A 104, the gear A 104 is installed on the output shaft of the motor A 103, the lower end of the rack A 101 is fixedly installed with the sliding sleeve 108, the lower end of the rack B 102 is hinged with the hopper 107, the hopper 107 is installed with the pin 111, the pin 111 is slidably clamped into the sliding sleeve 108, and the sleeve seat 106 is fixedly installed on the upper end of the shell 6.
[0028] The rack A 101 and the rack B 102 can move up and down in the rack sleeve 105.
[0029] The hopper 107 can rotate at the lower end of the rack B 102.
[0030] The rotating mechanism 3 is composed of a rotating disc 301, a rotating disc seat 302, balls 303, a motor C 304 and a ball seat 305, the rotating disc 301 is fixedly connected to the upper surface of the rotating disc seat 302, the balls 303 are installed on the lower surface of the rotating disc seat 302, the ball seat 305 is installed on the lower surface of the balls 303, the output shaft of the motor C 304 is connected to the rotating disc 301, the motor C 304 is installed on the lower end of the shell 6, and the rotating disc 301 is provided with holes in the upper surface into which a plurality of the container A 5 and the crushing mechanism 4 are respectively placed.
[0031] The rotating disc 301 can rotate.
[0032] The crushing mechanism 4 is composed of a container B 401, a shaft 402, a motor D 403, a boss 404, a blade 405, a filter screen A 406 and a filter screen B 407, the boss 404 is arranged at the lower end of the container B 401, the filter screen A 406 is installed on the upper surface of the boss 404, the filter screen B 407 is installed on the side surface of the boss 404, the motor D 403 is connected to the shaft 402, the shaft 402 is connected to the bottom of the container B 401 through a bearing at the middle part, the upper end of the shaft 402 is connected to the boss 404 through a bearing, the blade 405 is installed on the upper end of the shaft 402, the container B 401 is placed into the hole arranged on the upper surface of the rotating disc 301, and the motor D 403 is installed on the rotating disc 301.
[0033] One end of the blade 405 is inclined upward, the other end is inclined downward, and the blade 405 can rotate.
[0034] The boss 404 is inclined upward.
[0035] The pore size of the filter screen A 406 is larger than that of the filter screen B 407.
[0036] In use, the start-stop and rotating speed of the motor A 103, the motor B 110, the motor C 304 and the motor D 403 are respectively controlled by the PLC, the rotating disc 301 and the rotating disc seat 302 are rotated on the ball 303 by the motor C 304, the rotating disc 301 drives the container A 5 and the crushing mechanism 4 to rotate to below the hopper 107 respectively, only the patient's extracted teeth are placed in the hopper 107, the gear A 104 and the gear B 109 are respectively driven by the motor A 103 and the motor B 110, the gear A 104 and the gear B 109 respectively drive the rack A 101 and the rack B 102 to move up and down, the pin 111 slides with the sleeve 108, the hopper 107 rotates and inclines to add teeth, the extracted teeth are respectively placed in the container A 5 and the container B 401, the shaft 402 is rotated by the motor D 403, the blade 405 is rotated by the shaft 402 to crush the extracted teeth, the extracted teeth are screened for the first time by the filter screen A 406 after crushing, the extracted teeth falling through the inclined surface of the boss 404 fall on the filter screen B 407 to be screened for the second time, the filter screen A 406 and the filter screen B 407 are respectively taken out, and three kinds of powder particles with different diameters are well separated.
[0037] The above is only a preferred embodiment of the present application, and does not limit the present application in any form. Any simple modification, equivalent change and modification of the above embodiment without departing from the technical solution content of the present application, according to the technical essence of the present application, are still within the scope of the technical solution of the present application.
Claims
1. A tooth grinding all-in-one machine, comprising an adding mechanism (1), a rotating mechanism (3), a crushing mechanism (4), a container A (5), a shell (6), characterized in that: The shell (6) upper end is provided with adding mechanism (1), lower end is provided with rotating mechanism (3), and rotating mechanism (3) is respectively provided with crushing mechanism (4) and container A (5), and shell (6) is hinged door (2), adding mechanism (1) is composed of rack A (101), rack B (102), motor A (103), gear A (104), rack sleeve (105), sleeve seat (106), hopper (107), sliding sleeve (108), gear B (109), motor B (110) and pin (111), two rack sleeves (105) are respectively fixedly installed on sleeve seat (106), and two rack sleeves (105) are respectively inserted into rack A (101) and rack B (102), the upper end of rack A (101) is engaged with gear B (109), gear B (109) is installed on the output shaft of motor B (110), the upper end of rack B (102) is engaged with gear A (104), gear A (104) is installed on the output shaft of motor A (103), the lower end of rack A (101) is fixedly installed with sliding sleeve (108), the lower end of rack B (102) is hinged with hopper (107), hopper (107) is installed with pin (111), pin (111) is slidably clamped into sliding sleeve (108), and sleeve seat (106) is fixedly installed on the upper end of shell (6);Rotating mechanism (3) is composed of rotating disc (301), rotating disc seat (302), ball (303), motor C (304) and ball seat (305), rotating disc seat (302) is fixedly connected with rotating disc (301) on the upper surface, is installed with ball (303) on the lower surface, ball (303) is installed with ball seat (305) on the lower surface, the output shaft of motor C (304) is connected with rotating disc (301), motor C (304) is installed on the lower end of shell (6), and rotating disc (301) is provided with a plurality of holes on the upper surface, a plurality of container A (5) and crushing mechanism (4) are respectively placed in the set holes;Crushing mechanism (4) is composed of container B (401), shaft (402), motor D (403), boss (404), blade (405), filter screen A (406) and filter screen B (407), boss (404) is arranged in container B (401), filter screen A (406) is installed on the upper surface of boss (404), filter screen B (407) is installed on the side, motor D (403) is connected with shaft (402), shaft (402) is connected with the bottom of container B (401) through bearing in the middle, is connected with boss (404) through bearing on the upper end, and blade (405) is installed on the upper end head, container B (401) is placed in the hole arranged on the upper surface of rotating disc (301), and motor D (403) is installed on rotating disc (301).
2. The tooth milling kiosk of claim 1, wherein: Rack A (101) and rack B (102) can move up and down in rack sleeve (105).
3. The dental miller-integrator of claim 1, wherein: Hopper (107) can rotate at the lower end head of rack B (102).
4. The tooth milling kiosk of claim 1, wherein: Rotating disc (301) can rotate.
5. The tooth milling kiosk of claim 1, wherein: Blade (405) is inclined upward at one end and downward at the other end, and can rotate.
6. The tooth milling kiosk of claim 1, wherein: The upper surface of boss (404) is inclined.
7. The tooth milling kiosk of claim 1, wherein: The aperture of the filter screen A (406) is larger than the aperture of the filter screen B (407).
Citation Information
Patent Citations
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CN207682669U
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CN213408921U
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CN218573842U