TWM502531U - Turntable structure of multi-axes processor - Google Patents

Description

Multi-axis machine rotary table structure

The present invention relates to a turntable structure of a processing machine, and more particularly to a turntable structure of a multi-axis processing machine in which a peripheral equidistance ring is provided with a synchronous or asynchronous rotation with a turntable.

Machining is a process that uses a processing tool to change the size or performance of a workpiece. Many workpieces must be processed by multiple machining programs and processing machines to obtain the desired structure, for example, when a screw hole is to be produced on the workpiece. The workpiece must be fixed on the drilling machine for drilling, and then the workpiece can be removed and locked on a tapping machine or a tapping machine for tapping to create a screw hole on the workpiece. However, this tradition The machining method requires that the workpiece be fixed on different processing machines for processing in each machining program. Therefore, it takes a lot of time to fix the workpiece and remove the workpiece, resulting in work efficiency. Poor, and the workpiece is subjected to multiple fixing processes in different processing machines, which tends to cause wear on the fixed surface of the workpiece and the processing machine, resulting in poor processing precision.

The conventional technology "multi-station processing machine" (Republic of China patent number: M408441) is an integrated machine that allows the workpiece to be processed multiple times after being fixed once to reduce the number of times the workpiece is fixed. However, this conventional technology has a large space and the choice of tools is limited, resulting in a small number of processing types and only one workpiece per station, so the efficiency of work is limited.

The conventional technology "multi-axis machining machine" (Republic of China patent number: M435324) uses a plurality of holding units provided on a plurality of faces of a turntable to fix a plurality of workpieces, and is fixed to each side by a plurality of processing machines. The workpiece is machined. However, although the conventional technique can process a plurality of workpieces at the same time, only one surface of each workpiece can be processed. If the workpiece needs to be processed by multiple faces, each face is executed. After machining, the workpieces must be removed one by one and then fixed one by one, resulting in an increase in work efficiency depending on whether the workpiece is machined as single-sided or multi-faceted, and therefore not an ideal design.

In summary, how to provide a work efficiency and reduce the number of times the workpiece is fixed is a technical problem that needs to be solved in the field.

In order to solve the technical problems of the prior art, one of the aims of the present invention is to provide a

In order to achieve the above purpose, the present invention provides a turntable structure of a multi-axis machining machine, which is mainly provided with a plurality of rotating disks equidistantly arranged on the periphery of the main body of the turntable, and utilizes a plurality of transmission motors respectively and a main body and a plurality of rotating disk shafts. Then, the plurality of drive motors drive the main body to rotate synchronously or asynchronously with the plurality of rotating disks.

In order to achieve the above purpose, the present invention provides a turntable structure of a multi-axis processing machine, which is mainly provided with a plurality of rotating disks equidistantly arranged on the periphery of the main body of the turntable, and utilizes a main body drive motor and The main shaft is connected, and the plurality of rotating disc drive motors are respectively connected to the plurality of rotating discs through a driving clutch, and the driving rotary clutch controls the plurality of rotating discs to rotate synchronously or asynchronously with the main body.

In summary, the multi-axis machine's turntable structure of the present invention drives a fixed workpiece on a rotating disc through a main body to be processed one by one in each processing machine of the multi-axis processing machine, and drives a plurality of rotations by a plurality of rotating disc drive motors. The disc rotates asynchronously with the main body, so that the workpiece can be multi-faceted in each processing machine, effectively reducing the time for fixing the workpiece and removing the workpiece, and at the same time reducing the wear of the workpiece, thereby effectively solving the problems of the prior art. .

1‧‧‧ Subject

2‧‧‧ rotating disk

21‧‧‧Positioning holes

22‧‧‧First rotating disk

23‧‧‧Second rotating disk

24‧‧‧ Third rotating disk

25‧‧‧4th rotating disk

3‧‧‧Drive motor

31‧‧‧ body drive motor

32‧‧‧Rotary disk drive motor

4‧‧‧Drive clutch

5‧‧‧Multi-axis processing machine

51‧‧‧First processing machine

52‧‧‧Second processing machine

53‧‧‧ Third processing machine

54‧‧‧Tools

The first picture is a top view of the turntable structure of the multi-axis machine for creating the present; the second picture is a front view of the turntable structure of the multi-axis machine for creating the first; the third picture is the first embodiment and the second implementation of the creation 4 is a front view of the first embodiment of the present invention; FIG. 5 is a front view of the second embodiment of the present creation; and FIG. 6 is an application of the turntable structure of the multi-axis machining machine. The schematic diagram; and the seventh diagram is a schematic diagram of the operation of the turntable structure of the creation axis processing machine.

The specific embodiments are described below to illustrate the implementation of the present invention, but are not intended to limit the scope of the present invention.

Please refer to Figures 1~2, which is a top view and a front view of the turntable structure of the multi-axis machine. It comprises a main body 1, a plurality of rotating disks 2 and a plurality of transmission motors 3.

The aforementioned rotating disk 2 is equidistantly disposed on the periphery of the main body 1. The rotary disk 2 has at least one holder (not shown) or a positioning hole 21 for positioning at least one holder. The aforementioned transmission motor 3 is respectively coupled to the rotating disc 1 and the main body 1 for driving the main body 1 to rotate, and driving the rotating disc 2 to rotate synchronously or asynchronously with the main body 1.

Please refer to Figures 3~4, which is the first embodiment of the creation. In the first embodiment, the drive motors 3 are each axially coupled to the rotary disks 2 by a drive clutch 4. The aforementioned rotary disk 2 includes a first rotary disk 22, a second rotary disk 23, a third rotary disk 24, and a fourth rotary disk 25. The aforementioned transmission motor 3 includes a main body drive motor 31 and a plurality of rotary disk drive motors 32. The aforementioned rotary disk transport motor 32 is looped on the outer edge of the main body transport motor 31.

The aforementioned main body drive motor 31 is pivotally coupled to the main body 1. The aforementioned rotating disk drive motor 32 and the first rotating disk 22, the second rotating disk 23, the third rotating disk 24, and the fourth rotating disk 25 each have a driving clutch 4. When the first rotating disk 22, the second rotating disk 23, the third rotating disk 24, and the fourth rotating disk 25 rotate synchronously with the main body 1, the clutch 4 is driven to release the rotating disk drive motor 4 to drive the first rotating disk. 22. The second rotating disk 23, the third rotating disk 24, and the fourth rotating disk 25 are synchronously rotated when the main body rotates.

When the first rotating disk 22, the second rotating disk 23, the third rotating disk 24, and the fourth rotating disk 25 are rotated asynchronously with the main body 1, the main body driving motor 31 rotates the main body 1 to the position, and then transmits the same. The clutch 4 is driven to rotate the first rotary disk 22, the second rotary disk 23, the third rotary disk 24, and the fourth rotary disk 25 by the rotary disk drive motor 32.

Please refer to Figures 3 and 5, which are the second embodiment of the creation. The second embodiment is such that the drive motors 3 are directly coupled to the rotating disks 2. The aforementioned rotary disk 2 includes a first rotary disk 22, a second rotary disk 23, a third rotary disk 24, and a fourth rotary disk 25. The aforementioned transmission motor 3 includes a main body drive motor 31 and a plurality of rotary disk drive motors 32.

When the first rotating disk 22, the second rotating disk 23, the third rotating disk 24, and the fourth rotating disk 15 rotate synchronously with the main body 1, the rotating disk drive motor 32 drives the first rotating disk 22 and the second rotating disk. 23. The third rotating disk 24 and the fourth rotating disk 25 rotate synchronously when the main body 1 rotates. When the first rotating disk 22, the second rotating disk 23, the third rotating disk 24, and the fourth rotating disk 25 rotate asynchronously with the main body 1, the main body driving motor 31 rotates the main body 1 to the position, and then rotates. The disk drive motor 32 drives the first rotary disk 22, the second rotary disk 23, the third rotary disk 24, and the fourth rotary disk 25 to rotate.

Please refer to FIGS. 4-7, which are the application and operation descriptions of the first embodiment and the second embodiment of the present invention. The aforementioned main body 1 is disposed between a plurality of processing machines of a multi-axis machine 5. The aforementioned processing machine includes a first processing machine 51, a second processing machine 52, and a third processing machine 53. The first processing machine 51, the second processing machine 52, and the third processing machine 53 described above each have at least one cutter 54. The first rotating disk 22, the second rotating disk 23, the third rotating disk 24, and the fourth rotating disk 25 are provided on the circumference of the main body 1 at equal distances. Each of the first rotating disk 22, the second rotating disk 23, the third rotating disk 24, and the fourth rotating disk 25 has a plurality of positioning holes 21 for positioning a holder for holding a workpiece (not shown).

The aforementioned main body 1 is axially coupled to a main body drive motor 31. The first rotating disk 22, the second rotating disk 23, the third rotating disk 24, and the fourth rotating disk 25 are each pivotally coupled to a rotary disk drive motor 32. The aforementioned rotary disk transport motor 32 is looped on the outer edge of the main body transport motor 31.

The aforementioned workpiece is loaded by the position of the first rotating disk 22 of the multi-axis machine 5 and clamped on the holder of the first rotating disk 22. Then, the main body drive motor 31 drives the main body 1 to start rotating to rotate the first rotary disk 22 to the position of the first processing machine 51, and simultaneously rotates the second rotary disk 23 to the original position of the first rotary disk 22, so that the third rotary disk 24 is rotated to the original position of the second rotary disk 23, and the fourth rotary disk 25 is rotated to the original position of the third rotary disk 23.

At this time, when the first rotating disk 22, the second rotating disk 23, the third rotating disk 24, and the fourth rotating disk 25 are synchronously rotated with the main body 1, the first embodiment is driven by the main body drive motor 31 to drive the main body 1. When rotating, the clutch 4 is driven to release, and the rotary disk drive motor 32 drives the first rotary disk 22, the second rotary disk 23, the third rotary disk 24, and the fourth rotary disk 25 to rotate synchronously when the main body 1 rotates. In the second embodiment, when the main body drive motor 31 rotates the main body 1, the rotary disk drive motor 32 simultaneously drives the first rotary disk 22, the second rotary disk 23, the third rotary disk 24, and the fourth rotary disk 25 to rotate in the main body 1. Time synchronization to rotate.

When the first rotating disk 22, the second rotating disk 23, the third rotating disk 24, and the fourth rotating disk 25 are rotated asynchronously with the main body 1, the first embodiment is driven by the main body drive motor 31 to rotate the main body 1 to After the positioning, the clutch 4 is driven to release, and the rotary disk drive motor 32 drives the first rotary disk 22, the second rotary disk 23, the third rotary disk 24, and the fourth rotary disk 25 to rotate. In the second embodiment, after the main body drive motor 31 rotates the main body 1 to the position, the first rotary disk 22, the second rotary disk 23, the third rotary disk 24, and the fourth rotary disk 5 are driven by the rotary disk drive motor 32. Rotate.

Then, when the first rotary disk 22 is rotated to the position of the first processing machine 51, the workpiece held by the clamp on the first rotary disk 22 rotated to the position of the first processing machine 51 is processed by the first processing machine 51. . At this time, the first processing machine 51 needs to perform multi-faceting on the workpiece held by the clamp on the first rotating disk 22. In the processing, the first embodiment transmits the rotating disc that is coupled to the first rotating disc 22 by releasing the first rotating disc 22 and the rotating disc drive motor 32 axially coupled to the first rotating disc 2 The motor 32 drives the first rotating disk 22 to rotate, and faces the workpiece to be processed toward the first processing machine 51. The second embodiment directly rotates the first rotary disk 22 by the rotary disk drive motor 32 axially coupled to the first rotary disk 22, and faces the first processing machine 51 with the workpiece to be processed.

Then, after the first processing machine 51 finishes processing the workpiece clamped by the clamp on the first rotary disk 22, the main body drive motor 31 drives the main body 1 to rotate again, so that the first rotary disk 22, the second rotary disk 23, and the first The workpieces held by the holders on the third rotary disk 24 and the fourth rotary disk 25 are processed by the first processing machine 51, the second processing machine 52, and the third processing machine 53 one by one.

The detailed description of the preferred embodiments of the present invention is intended to be limited to the scope of the invention, and is not intended to limit the scope of the invention. The patent scope of this case.

1‧‧‧ Subject

22‧‧‧First rotating disk

23‧‧‧Second rotating disk

25‧‧‧4th rotating disk

31‧‧‧ body drive motor

32‧‧‧Rotary disk drive motor

4‧‧‧Drive clutch

Claims (6)

A turntable structure of a multi-axis machine includes: a main body; a plurality of rotating discs disposed at an outer circumference of the main body; and a plurality of transmission motors respectively coupled to the main body and the rotating discs for driving the The main body and the rotating disk rotate. The turntable structure of the multi-axis machine of claim 1, wherein the rotating disks are each provided with a plurality of positioning holes for positioning at least one of the holders. The turntable structure of the multi-axis machine of claim 1, wherein each of the rotating disks has at least one holder. A turntable structure of a multi-axis machine includes: a main body; a plurality of rotating discs, equidistant rings are disposed on a periphery of the main body, and the rotating discs are provided with a plurality of positioning holes; a main body drive motor is coupled thereto The main shaft is connected to drive the main body to rotate; the plurality of rotating disc drive motors are disposed on the outer edge of the main body drive motor, and the rotary disc drive motors are axially coupled to the rotating discs by a driving clutch. The turntable structure of the multi-axis machine according to claim 4, wherein the rotating disks are each provided with a plurality of positioning holes for positioning at least one of the holders. The turntable structure of the multi-axis machine of claim 4, wherein each of the rotating disks has at least one holder.