CN211163521U - Ceramic cylinder roller through type centerless grinding device - Google Patents

Ceramic cylinder roller through type centerless grinding device Download PDF

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CN211163521U
CN211163521U CN201921923659.9U CN201921923659U CN211163521U CN 211163521 U CN211163521 U CN 211163521U CN 201921923659 U CN201921923659 U CN 201921923659U CN 211163521 U CN211163521 U CN 211163521U
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wheel
grinding
grinding wheel
sliding table
cylindrical roller
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周芬芬
姚蔚峰
李凯
夏如艇
孙枭童
秋朋园
吴继华
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Taizhou University
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Abstract

The utility model discloses a pottery cylindrical roller run-through centerless grinding processingequipment is through setting up the dresser at the guide pulley lateral part, and set up the tool electrode respectively at grinding wheel and dresser lateral part, add man-hour, adopt electrolytic mode to make the metal bond on grinding wheel and dresser surface take place the positive pole and dissolve and realize online synchronous repairment, so that emery wheel and dresser are maintained on same benchmark, thereby guarantee higher finishing precision on mechanical structure, in addition, online electrolytic dressing can avoid emery wheel surface passivation to block up, make the emery wheel keep good grinding performance for a long time, the online repairment of guide pulley simultaneously, it is stable to make guide pulley and cylindrical roller contact coefficient of friction, thereby, obtain higher cylindrical roller machining precision, guarantee cylindrical roller's surface quality, and simultaneously, obtain higher machining efficiency.

Description

Ceramic cylinder roller through type centerless grinding device
Technical Field
The utility model relates to a high-efficient, high accuracy centerless abrasive machining method and device of ceramic cylinder roller belongs to accurate and ultra-precision machining technical field.
Background
The cylindrical roller is used as a rolling body, has the capacity of bearing high load due to the linear contact between the cylindrical roller and the roller path, and is particularly suitable for the fields of mechanical equipment with large load and high-speed rotation, such as high-speed machine tool spindles, wind driven generators, rail locomotives and the like. With the development of high-speed and precise mechanical equipment main shafts, ceramic cylindrical rollers have extremely excellent comprehensive properties such as high hardness, high rigidity, high temperature resistance, corrosion resistance and the like, and are considered to be the best materials for manufacturing bearing rolling elements.
The through type centerless grinding technology is a main mode for processing the excircle of a ceramic cylindrical roller, and a processing system of the technology mainly comprises a grinding wheel (grinding wheel), a guide wheel, a supporting plate and a cylindrical roller (workpiece), wherein the grinding wheel is arranged at a certain inclination angle relative to the guide wheel. When the cylindrical roller is processed, the cylindrical roller is placed between the grinding wheel and the guide wheel, centering and supporting of the cylindrical roller are not needed by an ejector pin, the ground excircle itself serves as a positioning reference, the cylindrical roller is driven by the grinding wheel and the guide wheel to roll and linearly feed simultaneously, and materials are removed through the grinding wheel. The centerless grinding technology can process the whole cylindrical surface without clamping and positioning the roller, is easy to realize the automation of the production process and has high production efficiency.
However, in the machining process, the grinding force of a grinding area is large, the grinding temperature is high, the grinding wheel is easy to passivate and block, the grinding function of the grinding wheel is lost, the guide wheel plays roles in positioning, supporting, rotary driving and penetrating driving on the roller, the positioning and movement precision of the roller is directly influenced by the contour shape precision of the guide wheel, and the surface of the guide wheel is easy to wear due to long-term contact of the guide wheel and the roller in the machining process. These conditions are more prominent for processing high hardness, high rigidity, and wear-resistant ceramic materials. The grinding wheel dresser and the guide wheel dresser which are arranged on the centerless grinding machine are mainly diamond pens which can be independently adjusted, but because all components move independently, the introduced motion error is large, the dressing precision is low, the time consumption of the dressing process is reduced, and the machining efficiency is difficult to meet the machining requirements of high efficiency and high precision of the cylindrical roller.
Therefore, it is necessary to develop a new centerless grinding technology for ceramic cylindrical rollers to effectively solve the problems of low dressing precision of grinding wheels and guide wheels and influence on the machining precision in centerless grinding, and the problems of time consumption and influence on the machining efficiency in the dressing process.
Disclosure of Invention
In order to overcome the above-mentioned not enough that exists among the prior art, the utility model provides a pottery cylindrical roller run-through type does not have heart abrasive machining device, the device can realize high-efficient, the high accuracy abrasive machining of pottery cylindrical roller.
The technical scheme of the utility model is that: the ceramic cylindrical roller through type centerless grinding device comprises a grinding wheel, a guide wheel and a supporting plate arranged between the grinding wheel and the guide wheel; the guide wheel is inclined at a certain angle relative to the grinding wheel; the grinding wheel is arranged on the frame through a grinding wheel cross sliding table and can transversely and longitudinally move relative to the frame; the supporting plate is arranged on the rack through a supporting plate linear sliding table and can transversely move relative to the rack; the guide wheel is arranged on the support plate linear sliding table through the guide wheel linear sliding table and can transversely move relative to the table top of the support plate linear sliding table; a grinding cooling spray head is arranged above the supporting plate and connected with a grinding fluid supply device; the grinding wheel tool electrode is arranged on the side part of the grinding wheel, the dressing wheel is arranged on the side part of the guide wheel, and the dressing wheel tool electrode is arranged on the side part of the dressing wheel; the grinding wheel is a metal bond grinding wheel, and the dressing wheel is a metal bond dressing wheel; the trimming wheel is arranged on the guide wheel linear sliding table through the trimming wheel cross sliding table and can transversely and longitudinally move relative to the table top of the guide wheel linear sliding table; the grinding wheel tool electrode is arranged on the grinding wheel cross sliding table through the grinding wheel tool electrode cross sliding table and can transversely and longitudinally move relative to the table top of the grinding wheel cross sliding table; the grinding wheel tool electrode is connected with the negative electrode of the electrolytic power supply, and the main shaft of the grinding wheel is connected with the positive electrode of the electrolytic power supply through an electric brush; the trimming wheel tool electrode is arranged on the trimming wheel cross sliding table through the trimming wheel tool electrode linear sliding table and can transversely move relative to the table top of the trimming wheel cross sliding table; the trimming wheel tool electrode is connected with the negative electrode of an electrolytic power supply, and the center of the trimming wheel is connected with the positive electrode of the electrolytic power supply through an electric brush; and a grinding wheel trimming spray head is arranged above the grinding wheel tool electrode, a guide wheel trimming spray head is arranged above the trimming wheel tool electrode, and the grinding wheel trimming spray head and the guide wheel trimming spray head are respectively connected with a grinding fluid supply device.
Compared with the prior art, the ceramic cylindrical roller through type centerless grinding processing device of the utility model is characterized in that the trimming wheel is arranged at the side part of the guide wheel, and a specific electrolytic trimming component is provided for the grinding wheel and the trimming wheel, so that the metal bonding agent on the surface of the grinding wheel and the trimming wheel can be subjected to anodic dissolution in an electrolytic manner during grinding processing, the grinding wheel and the trimming wheel are subjected to online synchronous trimming, so that the grinding wheel and the trimming wheel are trimmed on the same reference, thereby ensuring higher trimming precision on a mechanical structure, in addition, the surface passivation and blockage of the grinding wheel can be avoided during online electrolytic trimming, the grinding wheel can keep good grinding performance for a long time, meanwhile, the guide wheel is trimmed online, the contact friction coefficient of the guide wheel and the cylindrical roller is stable, thereby, higher cylindrical roller processing precision is obtained, the surface quality of the cylindrical roller is ensured, and simultaneously, higher processing efficiency is obtained, the machining efficiency and machining precision of the batch production of the precise ceramic cylindrical roller are improved, a positive effect is achieved, key basic parts can be provided for a high-speed and high-precision spindle system, the rapid development of related industries such as numerical control machines, precise instruments and the like towards the high-speed, high-efficiency and high-precision direction is promoted, a high-tech industry for producing the high-precision ceramic cylindrical roller bearing in a professional mode can be formed step by step, and a new economic growth point is cultivated.
Preferably, in the ceramic cylindrical roller through centerless grinding machining device, an ultrasonic generator is arranged on the frame, the ultrasonic generator is electrically connected with the transducer through an electrical slip ring, the transducer is fixedly connected with a horn, and the horn is arranged on the frame through a horn cross sliding table; the end part of the amplitude transformer and the end part of the main shaft of the grinding wheel are correspondingly provided with a connecting and matching structure, so that the amplitude transformer can be connected with the main shaft of the grinding wheel. During machining, the amplitude transformer can be connected into the grinding wheel spindle, the ultrasonic generator sends an electric signal with ultrasonic frequency, the electric signal is converted into high-frequency mechanical vibration through the transducer, the amplitude of the mechanical vibration is expanded through the amplitude transformer and is transmitted to the grinding wheel spindle, the grinding wheel spindle obtains axial ultrasonic vibration, and the machining efficiency of centerless grinding of the ceramic cylindrical roller is further improved.
Preferably, in the ceramic cylindrical roller penetrating type centerless grinding processing device, the electrolytic power supply is a pulse electrolytic power supply. The inventor finds that the trimming precision is higher by adopting a pulse electrolysis power supply. Preferably, the output voltage of the electrolysis power supply is 5-100V.
Preferably, in the ceramic cylindrical roller through centerless grinding processing device, the guide wheel can be inclined by 5-8 degrees relative to the grinding wheel.
Drawings
Fig. 1 is a schematic view showing a state in which a ceramic cylindrical roller is ground by using the through centerless grinding apparatus of the present invention;
fig. 2 shows the best roundness value of the workpiece after machining according to the experimental example of the present invention.
The labels in the figures are: 1-grinding wheel; 2-a guide wheel; 3-a supporting plate; 4-grinding a wheel cross sliding table; 5-a frame; 6-a supporting plate linear sliding table; 7-guide wheel linear sliding table; 8-grinding wheel tool electrodes; 9-a finishing wheel; 10-a dresser wheel tool electrode; 11-grinding the cooling spray head; 12-grinding wheel tool electrode cross slide; 13-grinding fluid supply means; 14-dressing wheel tool electrode linear slide; 15-grinding wheel trimming spray head; 16-a guide wheel finishing spray head; 17-an ultrasonic generator; 18-a transducer; 19-a horn; 20-a luffing jib cross slide; 21-an electrolytic power supply; 22-dressing wheel cross slide; 23-ceramic cylindrical rollers.
Detailed Description
The following description is made with reference to the accompanying drawings and examples, but not to be construed as limiting the invention.
The utility model discloses a pottery cylindrical roller run-through centerless grinding device can be through reforming transform the acquisition to current run-through centerless grinding machine.
Referring to fig. 1, as a specific example: the ceramic cylindrical roller through type centerless grinding device comprises a grinding wheel 1, a guide wheel 2 and a supporting plate 3 arranged between the grinding wheel 1 and the guide wheel 2; the guide wheel 2 is inclined by 5 degrees relative to the grinding wheel 1; the grinding wheel 1 is arranged on the frame 5 through a grinding wheel cross sliding table 4 and can transversely and longitudinally move relative to the frame 5; the supporting plate 3 is arranged on the rack 5 through a supporting plate linear sliding table 6 and can transversely move relative to the rack 5; the guide wheel 2 is arranged on the support plate linear sliding table 6 through a guide wheel linear sliding table 7 and can transversely move relative to the table top of the support plate linear sliding table 6; a grinding cooling spray head 11 is arranged above the supporting plate 3, and the grinding cooling spray head 11 is connected with a grinding fluid supply device 13; the grinding wheel tool electrode 8 is arranged on the side of the grinding wheel 1, the dressing wheel 9 is arranged on the side of the guide wheel 2, and the dressing wheel tool electrode 10 is arranged on the side of the dressing wheel 9; the grinding wheel 1 is a metal bond grinding wheel, and the dressing wheel 9 is a metal bond dressing wheel; the trimming wheel 9 is arranged on the guide wheel linear sliding table 7 through a trimming wheel cross sliding table 22 and can transversely and longitudinally move relative to the table top of the guide wheel linear sliding table 7; the grinding wheel tool electrode 8 is arranged on the grinding wheel cross sliding table 4 through a grinding wheel tool electrode cross sliding table 12 and can transversely and longitudinally move relative to the table top of the grinding wheel cross sliding table 4; the grinding wheel tool electrode 8 is connected with the negative electrode of the electrolytic power supply 21, and the main shaft of the grinding wheel 1 is connected with the positive electrode of the electrolytic power supply 21 through an electric brush; the dressing wheel tool electrode 10 is arranged on the dressing wheel cross sliding table 22 through the dressing wheel tool electrode linear sliding table 14 and can transversely move relative to the table top of the dressing wheel cross sliding table 22; the dressing wheel tool electrode 10 is connected with the negative pole of an electrolysis power supply 21, and the center of the dressing wheel 9 is connected with the positive pole of the electrolysis power supply 21 through an electric brush; a grinding wheel dressing nozzle 15 is arranged above the grinding wheel tool electrode 8, a guide wheel dressing nozzle 16 is arranged above the dressing wheel tool electrode 10, and the grinding wheel dressing nozzle 15 and the guide wheel dressing nozzle 16 are respectively connected with a grinding fluid supply device 13.
The ultrasonic generator 17 is arranged on the rack 5, the ultrasonic generator 17 is electrically connected with the transducer 18 through an electric slip ring, the transducer 18 is fixedly connected with the amplitude transformer 19, and the amplitude transformer 19 is arranged on the rack 5 through an amplitude transformer cross sliding table 20; the end part of the amplitude transformer 19 and the end part of the main shaft of the grinding wheel 1 are correspondingly provided with a connecting and matching structure, so that the amplitude transformer 19 can be connected with the main shaft of the grinding wheel 1 (after the amplitude transformer 19 is connected with the main shaft of the grinding wheel 1, the amplitude transformer 19 needs to rotate together with the main shaft of the grinding wheel 1, so that the amplitude transformer 19 needs to be connected with a support for supporting the amplitude transformer through a bearing, and then the support is fixed on the table top of the amplitude transformer cross sliding table 20). During processing, the amplitude transformer 19 can be connected to the main shaft of the grinding wheel 1 to apply ultrasonic vibration; the amplitude transformer 19 does not need to be connected to the main shaft of the grinding wheel 1, namely the main shaft of the grinding wheel 1 does not have axial ultrasonic vibration during processing; whether or not to apply the ultrasonic vibration to the main shaft of the grinding wheel 1 is determined according to actual needs.
During machining, the grinding fluid supply device 13 supplies electrolytic grinding fluid (i.e., grinding fluid containing electrolyte). The electrolytic grinding fluid can be prepared from the following raw material components in parts by weight: 5-10% of disodium hydrogen phosphate, 4-8% of lard oil, 0.1-0.2% of chlorinated paraffin, 0.01-0.05% of antirust agent, 0.02-0.05% of mildew-proof additive, 0.01-0.02% of D-limonene (limonene), 0.03-0.06% of defoaming agent, 0.03-0.07% of surfactant and the balance of deionized water. The inventor finds that at the moment, the electrolytic grinding fluid has better cooling and electrolytic capabilities, and the lard oil in the formula plays a good lubricating role, so that the surface of the cylindrical roller can be prevented from being scratched by large-particle abrasive grains, and the grinding efficiency and quality are further guaranteed; the D-limonene in the formula enables the lard oil to be more easily dispersed, and the whole mixed system is stable, so that the electrolytic grinding fluid is not easy to deteriorate and can be recycled for a long time; in addition, the formula contains D-limonene, so that the electrolytic grinding fluid has better cleaning capacity, has the function of preventing a grinding area from being blocked, and further ensures the processing efficiency.
During processing, the clearance between the dressing wheel tool electrode 10 and the dressing wheel 9 can be controlled to be 0.5-2 mm; the gap between the grinding wheel tool electrode 8 and the grinding wheel 1 can be controlled to be 0.5-2 mm. When the electrolytic gap is 0.5-2mm, the electrolytic grinding fluid is easy to fill the whole gap area, has a certain retaining effect and is low in flow rate, so that the smooth electrolysis is further ensured. The power is electrified, the metal bonding agents on the surfaces of the grinding wheel 1 and the dressing wheel 9 are subjected to anodic dissolution, and the abrasive particles on the surfaces of the grinding wheel 1 and the dressing wheel 9 are kept sharp. The dressing wheel 9 moves back and forth along the generatrix of the guide wheel 2 while rotating, and dresses the guide wheel 2.
The electrolytic power supply 21 can adopt a pulse direct current power supply, so that higher finishing precision is obtained. The output voltage of the electrolysis power supply 21 may be 5 to 100V. The grinding wheel 1 and the guide wheel 2 can be trimmed by using the same power supply and adopting parallel connection wires; two power supplies of the same output may also be used as illustrated.
The present invention will be further explained by the following experiments.
And (3) processing a workpiece, namely a silicon nitride ceramic cylindrical roller with the size phi of 20mm × 30mm and the number of 30, wherein the initial roundness average value is 0.72 mu m, the roundness deviation is 0.078 mu m, the initial surface roughness average value is 0.186 mu m, and the roughness deviation is 0.041 mu m.
The electrolytic grinding fluid is prepared from the following raw materials in parts by weight: 8 percent of disodium hydrogen phosphate, 5 percent of lard oil, 0.1 percent of chlorinated paraffin, 0.05 percent of antirust agent, 0.05 percent of mildew-proof additive, 0.02 percent of D-limonene, 0.05 percent of defoaming agent, 0.05 percent of surfactant and 86.68 percent of deionized water.
The processing conditions are shown in Table 1:
Figure DEST_PATH_GDA0002525816360000081
the surface roughness and the shape accuracy of the machined workpiece are obviously improved, the roundness mean value is reduced to 0.257 mu m, the roundness deviation is reduced to 0.023 mu m, the roughness mean value is reduced to 0.038 mu m, the roughness deviation is reduced to 0.01 mu m, the best roundness value of the machined workpiece is 0.248 mu m (see figure 2), and the best roughness value of the machined workpiece surface is 0.026 mu m.
The experiment shows, the utility model discloses a ceramic material cylindrical roller run-through centerless abrasive machining device can realize ceramic cylindrical roller's high efficiency, high quality abrasive machining. The reduction of the deviation of the roundness value and the deviation of the roughness value shows that the roundness and the roughness after processing are gradually converged, the batch consistency is improved, the smaller the deviation value is, the better the batch consistency is, and the method is suitable for batch processing.
The above general description of the invention and the description of its specific embodiments in this application should not be construed as limiting the scope of the invention. Those skilled in the art can add, reduce or combine the technical features disclosed in the general description and/or the specific embodiments (including the examples) to form other technical solutions within the scope of the present application according to the disclosure of the present application without departing from the components of the present invention.

Claims (5)

1. The ceramic cylindrical roller through type centerless grinding device comprises a grinding wheel (1), a guide wheel (2) and a supporting plate (3) arranged between the grinding wheel (1) and the guide wheel (2); the guide wheel (2) is inclined at a certain angle relative to the grinding wheel (1); the grinding wheel (1) is arranged on the rack (5) through a grinding wheel cross sliding table (4) and can move transversely and longitudinally relative to the rack (5); the supporting plate (3) is arranged on the rack (5) through a supporting plate linear sliding table (6) and can transversely move relative to the rack (5); the guide wheel (2) is arranged on the support plate linear sliding table (6) through a guide wheel linear sliding table (7) and can transversely move relative to the table top of the support plate linear sliding table (6); a grinding cooling spray head (11) is arranged above the supporting plate (3), and the grinding cooling spray head (11) is connected with a grinding fluid supply device (13);
the method is characterized in that: the grinding wheel tool electrode (8) is arranged on the side portion of the grinding wheel (1), the dressing wheel (9) is arranged on the side portion of the guide wheel (2), and the dressing wheel tool electrode (10) is arranged on the side portion of the dressing wheel (9); the grinding wheel (1) is a metal bond grinding wheel, and the dressing wheel (9) is a metal bond dressing wheel; the trimming wheel (9) is arranged on the guide wheel linear sliding table (7) through a trimming wheel cross sliding table (22) and can transversely and longitudinally move relative to the table top of the guide wheel linear sliding table (7); the grinding wheel tool electrode (8) is arranged on the grinding wheel cross sliding table (4) through a grinding wheel tool electrode cross sliding table (12) and can transversely and longitudinally move relative to the table top of the grinding wheel cross sliding table (4); the grinding wheel tool electrode (8) is connected with the negative electrode of the electrolytic power supply (21), and the main shaft of the grinding wheel (1) is connected with the positive electrode of the electrolytic power supply (21) through an electric brush; the trimming wheel tool electrode (10) is arranged on the trimming wheel cross sliding table (22) through a trimming wheel tool electrode linear sliding table (14) and can transversely move relative to the table top of the trimming wheel cross sliding table (22); the dressing wheel tool electrode (10) is connected with the negative pole of an electrolytic power supply (21), and the center of the dressing wheel (9) is connected with the positive pole of the electrolytic power supply (21) through an electric brush; and a grinding wheel finishing sprayer (15) is arranged above the grinding wheel tool electrode (8), a guide wheel finishing sprayer (16) is arranged above the finishing wheel tool electrode (10), and the grinding wheel finishing sprayer (15) and the guide wheel finishing sprayer (16) are respectively connected with a grinding fluid supply device (13).
2. The ceramic cylindrical roller through centerless grinding apparatus according to claim 1, characterized in that: the ultrasonic generator (17) is arranged on the rack (5), the ultrasonic generator (17) is electrically connected with the transducer (18) through an electric slip ring, the transducer (18) is fixedly connected with the amplitude transformer (19), and the amplitude transformer (19) is arranged on the rack (5) through an amplitude transformer cross sliding table (20); the end part of the amplitude transformer (19) and the end part of the main shaft of the grinding wheel (1) are correspondingly provided with connecting and matching structures, so that the amplitude transformer (19) can be connected with the main shaft of the grinding wheel (1).
3. The ceramic cylindrical roller through centerless grinding apparatus according to claim 1 or 2, characterized in that: the electrolysis power supply (21) is a pulse electrolysis power supply.
4. The ceramic cylindrical roller through centerless grinding apparatus according to claim 3, characterized in that: the output voltage of the electrolysis power supply (21) is 5-100V.
5. The ceramic cylindrical roller through centerless grinding apparatus according to claim 1 or 2, characterized in that: the guide wheel (2) is inclined by 5-8 degrees relative to the grinding wheel (1).
CN201921923659.9U 2019-11-09 2019-11-09 Ceramic cylinder roller through type centerless grinding device Active CN211163521U (en)

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN113696010A (en) * 2021-09-03 2021-11-26 绍兴文理学院 Rotating disc type automatic feeding centerless grinding device and method thereof

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN113696010A (en) * 2021-09-03 2021-11-26 绍兴文理学院 Rotating disc type automatic feeding centerless grinding device and method thereof

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