Three-station edge grinding system

Abstract

The utility model relates to a three-station edging system, which belongs to the technical field of glass edging machines, the edging machine comprises a bottom table, and a roughing station, a fine grinding and polishing station and a chamfering station which are sequentially arranged on the bottom table along the X-axis direction, the roughing station consists of two groups of rough grinding mechanisms, the fine grinding and polishing station consists of two groups of fine grinding mechanisms, and the chamfering station consists of two groups of fine grinding mechanisms. The chamfering station is composed of two sets of chamfering mechanisms, a fixed seat and three movable seats are arranged on the bottom table, one rough grinding mechanism, one fine grinding and polishing mechanism and one chamfering mechanism are sequentially arranged on the fixed seat in the X-axis direction, and the other rough grinding mechanism, the other fine grinding and polishing mechanism and the other chamfering mechanism are correspondingly arranged on the three movable seats respectively. The edge grinding machine is favorable for improving the use flexibility and the glass processing efficiency of the edge grinding machine.

Description

TECHNICAL FIELD

[0001] The utility model belongs to the technical field of glass edging machine, concretely relates to a three-station edge grinding system. BACKGROUND

[0002] The glass double-edge edging machine is a kind of machinery for processing the corresponding two edges of rectangular glass, and the common glass double-edge edging machine includes roughening station composed of two sets of rough grinding mechanisms, fine grinding station composed of two sets of fine grinding and polishing mechanisms and chamfering station composed of two sets of chamfering mechanisms.A common glass double-edge edging machine sets one set of rough grinding mechanism, one set of fine grinding and polishing mechanism and one set of chamfering mechanism on a fixed seat, sets another set of rough grinding mechanism, another set of fine grinding and polishing mechanism and another set of chamfering mechanism on a movable seat, and the movable seat can reciprocate transversely relative to the fixed seat, since the roughening station, fine grinding station and chamfering station can only be adjusted in width synchronously, the edging machine actually has only one independent edging station, and can only process a single piece of glass at a time.In order to improve the glass processing efficiency, another common glass double-edge edging machine sets one set of rough grinding mechanism, one set of fine grinding and polishing mechanism and one set of chamfering mechanism on a fixed seat, sets another set of rough grinding mechanism and another set of fine grinding and polishing mechanism on the same movable seat, and sets another set of chamfering mechanism on another movable seat, and the two movable seats can independently move relative to the fixed seat, since the roughening station and fine grinding station need to be adjusted in width synchronously, and the chamfering station can be adjusted in width independently, the glass double-edge edging machine can actually form two independent processing stations (i.e., edging station and chamfering station), and thus can process two pieces of glass with different sizes in succession. SUMMARY

[0003] The utility model discloses a three-station edge grinding system, which has three independent processing stations and can process three pieces of glass with different sizes at the same time.

[0004] The utility model discloses a three-station edge grinding system, which has three independent processing stations and can process three pieces of glass with different sizes at the same time.

[0005] A three-station edge grinding system includes a base table and, sequentially arranged along the X-axis direction on the base table, a roughening station, a fine grinding and polishing station and a chamfering station, the roughening station is composed of two groups of rough grinding mechanisms, the fine grinding and polishing station is composed of two groups of fine grinding mechanisms, and the chamfering station is composed of two groups of chamfering mechanisms, a fixed seat and three movable seats are arranged on the base table, the three movable seats are arranged side by side on the same side of the fixed seat along the X-axis direction and can independently reciprocate relative to the fixed seat along the Y-axis direction, one set of rough grinding mechanism, one set of fine grinding and polishing mechanism and one set of chamfering mechanism are sequentially arranged on the fixed seat along the X-axis direction to form an integrated edging part for processing one edge of glass, and another set of rough grinding mechanism, another set of fine grinding and polishing mechanism and another set of chamfering mechanism are correspondingly arranged on the three movable seats to form a segmented edging part for processing the other edge of glass.

[0006] The utility model discloses a three station edge grinding system, which comprises a base table, a coarse grinding mechanism, a fine grinding and polishing mechanism and a chamfering mechanism. BRIEF DESCRIPTION OF DRAWINGS

[0007] Figure 1 A three station edge grinding system overall structure plan view

[0008] Figure 2 A three station edge grinding system overall structure certain angle schematic view

[0009] Figure 3 A three station edge grinding system overall structure side view

[0010] Figure 4 A three station edge grinding system drive part connecting structure schematic view DETAILED DESCRIPTION

[0011] The utility model will be used for processing glass one side's coarse grinding mechanism, fine grinding and polishing mechanism and the chamfering mechanism are established on the same fixed seat, will be used for processing glass the other side's coarse grinding mechanism, fine grinding and polishing mechanism and the chamfering mechanism are established on three movable seats respectively, three movable seats can all be independent relative to the fixed seat transverse motion, make the width of the roughing station, fine grinding and polishing station and chamfer station can be independently adjusted, therefore can be used for processing three pieces of size different glass in succession, be favorable to improving the processing efficiency of the edge grinding machine.

[0012] As Figure 1 The utility model discloses a three station edge grinding system, which comprises a base table, a coarse grinding mechanism, a fine grinding and polishing mechanism and a chamfering mechanism.

[0013] As Figure 1 , 2As shown in FIGS. 1-4, the base table 1 is provided with a fixed seat 5 and three movable seats 6. The fixed seat 5 is in the shape of a long block and its length direction is parallel to the X axis. The three movable seats 6 are arranged side by side on the same side of the fixed seat 5 along the X axis direction. Each movable seat 6 is slidably connected to the cross beam 1.2 through a moving support 7 arranged at the bottom of each movable seat 6, so as to reciprocate relative to the fixed seat 5 along the Y axis direction. Each moving support 7 is connected with a driving part 8 for driving independent movement of the moving support 7 relative to the fixed seat 5. The driving part 8 includes a first motor 8.1, two gears 8.2 and two racks 8.3. The first motor 8.1 is fixedly arranged at the bottom of the moving support 7. The first motor 8.1 is provided with a transmission shaft 8.11 extending along the X axis and both ends of the transmission shaft 8.11 are exposed. The two gears 8.2 are fixedly arranged at both ends of the transmission shaft 8.11 respectively. The two racks 8.3 are arranged side by side along the Y axis on the side of the adjacent two cross beams 1.2 and are engaged with the two gears 8.2 respectively.

[0014] As shown in FIGS. 1-4, the base table 1 is provided with a fixed seat 5 and three movable seats 6. The fixed seat 5 is in the shape of a long block and its length direction is parallel to the X axis. The three movable seats 6 are arranged side by side on the same side of the fixed seat 5 along the X axis direction. Each movable seat 6 is slidably connected to the cross beam 1.2 through a moving support 7 arranged at the bottom of each movable seat 6, so as to reciprocate relative to the fixed seat 5 along the Y axis direction. Each moving support 7 is connected with a driving part 8 for driving independent movement of the moving support 7 relative to the fixed seat 5. The driving part 8 includes a first motor 8.1, two gears 8.2 and two racks 8.3. The first motor 8.1 is fixedly arranged at the bottom of the moving support 7. The first motor 8.1 is provided with a transmission shaft 8.11 extending along the X axis and both ends of the transmission shaft 8.11 are exposed. The two gears 8.2 are fixedly arranged at both ends of the transmission shaft 8.11 respectively. The two racks 8.3 are arranged side by side along the Y axis on the side of the adjacent two cross beams 1.2 and are engaged with the two gears 8.2 respectively. Figures 1-2 As shown in FIGS. 1-4, the base table 1 is provided with a fixed seat 5 and three movable seats 6. The fixed seat 5 is in the shape of a long block and its length direction is parallel to the X axis. The three movable seats 6 are arranged side by side on the same side of the fixed seat 5 along the X axis direction. Each movable seat 6 is slidably connected to the cross beam 1.2 through a moving support 7 arranged at the bottom of each movable seat 6, so as to reciprocate relative to the fixed seat 5 along the Y axis direction. Each moving support 7 is connected with a driving part 8 for driving independent movement of the moving support 7 relative to the fixed seat 5. The driving part 8 includes a first motor 8.1, two gears 8.2 and two racks 8.3. The first motor 8.1 is fixedly arranged at the bottom of the moving support 7. The first motor 8.1 is provided with a transmission shaft 8.11 extending along the X axis and both ends of the transmission shaft 8.11 are exposed. The two gears 8.2 are fixedly arranged at both ends of the transmission shaft 8.11 respectively. The two racks 8.3 are arranged side by side along the Y axis on the side of the adjacent two cross beams 1.2 and are engaged with the two gears 8.2 respectively.

[0015] As shown in FIGS. 1-4, the base table 1 is provided with a fixed seat 5 and three movable seats 6. The fixed seat 5 is in the shape of a long block and its length direction is parallel to the X axis. The three movable seats 6 are arranged side by side on the same side of the fixed seat 5 along the X axis direction. Each movable seat 6 is slidably connected to the cross beam 1.2 through a moving support 7 arranged at the bottom of each movable seat 6, so as to reciprocate relative to the fixed seat 5 along the Y axis direction. Each moving support 7 is connected with a driving part 8 for driving independent movement of the moving support 7 relative to the fixed seat 5. The driving part 8 includes a first motor 8.1, two gears 8.2 and two racks 8.3. The first motor 8.1 is fixedly arranged at the bottom of the moving support 7. The first motor 8.1 is provided with a transmission shaft 8.11 extending along the X axis and both ends of the transmission shaft 8.11 are exposed. The two gears 8.2 are fixedly arranged at both ends of the transmission shaft 8.11 respectively. The two racks 8.3 are arranged side by side along the Y axis on the side of the adjacent two cross beams 1.2 and are engaged with the two gears 8.2 respectively. Figures 1-3 As shown in FIGS. 1-4, the base table 1 is provided with a fixed seat 5 and three movable seats 6. The fixed seat 5 is in the shape of a long block and its length direction is parallel to the X axis. The three movable seats 6 are arranged side by side on the same side of the fixed seat 5 along the X axis direction. Each movable seat 6 is slidably connected to the cross beam 1.2 through a moving support 7 arranged at the bottom of each movable seat 6, so as to reciprocate relative to the fixed seat 5 along the Y axis direction. Each moving support 7 is connected with a driving part 8 for driving independent movement of the moving support 7 relative to the fixed seat 5. The driving part 8 includes a first motor 8.1, two gears 8.2 and two racks 8.3. The first motor 8.1 is fixedly arranged at the bottom of the moving support 7. The first motor 8.1 is provided with a transmission shaft 8.11 extending along the X axis and both ends of the transmission shaft 8.11 are exposed. The two gears 8.2 are fixedly arranged at both ends of the transmission shaft 8.11 respectively. The two racks 8.3 are arranged side by side along the Y axis on the side of the adjacent two cross beams 1.2 and are engaged with the two gears 8.2 respectively.

[0016] Six conveyor belts 9 are arranged in pairs on a fixed base 5 and three movable bases 6, that is: three of them are spaced apart on the fixed base 5 along the X-axis, and the remaining three are correspondingly arranged on the three movable bases 6. The conveyor belts 9 on the fixed base 5 are arranged as follows: three first support platforms 5.1 with their tops on the same horizontal line are arranged spaced apart along the X-axis on the inner side of the fixed base 5. Each first support platform 5.1 is equipped with a conveyor belt 9. Each conveyor belt 9 passes around the top and bottom surfaces of its respective first support platform 5.1 and is connected to the first pulleys at both ends of the first support platform 5.1 so that the conveyor belt 9 can rotate along the X-axis. The first pulley at any end of each conveyor belt 9 is connected to a first motor for driving its rotation. The transmission belts 9 on the three movable seats 6 are set as follows: a second support platform 6.1 is set on the inner side of each of the three movable seats 6 along the X-axis direction. Each second support platform 6.1 is equipped with a transmission belt 9. Each transmission belt 9 passes around the top and bottom surfaces of its respective second support platform 6.1 and is connected to the second pulleys at both ends of the second support platform 6.1 so that the transmission belt 9 can rotate along the X-axis direction. A second motor for driving its rotation is connected to the second pulley at any end of each transmission belt 9.

[0017] Three sets of support assemblies 10 are spaced apart on the base platform 1 along the X-axis and are located between the three pairs of conveyor belts 9. The three sets of support assemblies 10 have the same structure, each including a crossbar 10.1 arranged along the X-axis, a rotating wheel 10.2 spaced apart at the top of the crossbar 10.1 along the length direction, and a support rod 10.3 that fixes the crossbar 10.1 to the base platform 1. The length of the three crossbars 10.1 is approximately the same as the length of their respective movable seats 6.

[0018] Each of the three crossbars 10.1 is equipped with a sensor at both ends to detect the position of the front and rear ends of the glass, so that the glass can stop at the roughing station, fine grinding station and chamfering station.

Claims

1. A three-station edge grinding system, comprising a base platform and, sequentially arranged on the base platform along the X-axis, a roughing station, a fine grinding and polishing station, and a chamfering station, wherein the roughing station consists of two sets of rough grinding mechanisms, the fine grinding and polishing station consists of two sets of fine grinding mechanisms, and the chamfering station consists of two sets of chamfering mechanisms, characterized in that: The base has a fixed seat and three movable seats. The three movable seats are arranged side by side on the same side of the fixed seat along the X-axis and can each move independently relative to the fixed seat along the Y-axis. A set of rough grinding mechanism, a set of fine grinding and polishing mechanism and a set of chamfering mechanism are arranged sequentially on the fixed seat along the X-axis to form an integrated edge grinding section for processing one side of the glass. Another set of rough grinding mechanism, another set of fine grinding and polishing mechanism and another set of chamfering mechanism are respectively arranged on the three movable seats to form a segmented edge grinding section for processing the other side of the glass.

2. The three-station edge grinding system according to claim 1, characterized in that: The base is rectangular and includes two main beams arranged parallel to each other along the X-axis and several crossbeams connecting the two main beams.

3. The three-station edge grinding system according to claim 1, characterized in that: The mounting base is in the shape of a long block, and its length direction is parallel to the X-axis.

4. The three-station edge grinding system according to claim 1, characterized in that: Three movable seats are arranged side by side on the same side of the fixed seat along the X-axis. Each movable seat is slidably connected to the crossbeam via a movable bracket at its bottom, so as to reciprocate relative to the fixed seat along the Y-axis. Each movable bracket is connected to a drive unit for driving its independent movement relative to the fixed seat.

5. A three-station edge grinding system according to claim 4, characterized in that: The drive unit includes a first motor, two gears and two racks. The first motor is fixedly mounted on the bottom of the movable bracket. The first motor has a drive shaft running along the X-axis with both ends exposed. The two gears are fixedly mounted on both ends of the drive shaft. The two racks are horizontally mounted along the Y-axis on the sides of two adjacent crossbeams and mesh with the two gears respectively.

6. The three-station edge grinding system according to claim 1, characterized in that: The base is also equipped with sensors for detecting the position of the front and rear ends of the glass.

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