TWI806545B - Graphic modular automatic processing integration system - Google Patents

Abstract

A graphic modular automatic processing integration system, including a human-machine interface control device connected to a processing machine's X-axis, Y-axis, Z-axis moving device and a processing head device; the processing head device can drive the selected tool according to the required speed. For processing, the Y-axis moving device must be equipped with a fixture to fix the pipe or rod for processing. More than one processing graphic button is preset on the display panel on the man-machine interface control device. The processing graphic button can be increased or decreased according to demand. Use When processing, you can process according to the processing graphic button to match the feed rate and required specifications of the selected tool. The processing graphic button is directly linked to the corresponding processing shape, and you only need to simply input the work origin to the graphic reference point Coordinates and graphic length, width, depth, quantity, interval and other necessary data can be processed quickly, achieving customized fast processing deliverers.

Description

Graphic modular automatic processing integration system

The present invention provides a technical field of pipe and rod processing machines, and especially provides a graphic modular automatic processing integration system, which mainly presets more than one processing graphic button in the display panel, and can be obtained during processing. After selecting the desired tool according to the requirement, press the button to process the graphic, and then simply input the coordinates from the working origin to the graphic reference point and the necessary data such as the length, width, depth, quantity, and interval of the graphic, and then you can perform rapid processing to meet customer requirements. Fast processing deliverer.

According to the processing, there are various types of processing according to their precision. For example, the precision of wafer processing requires a super-high-power microscope to be able to inspect it. Therefore, its processing machines may still be unavailable for tens of hundreds of billions of dollars. Furthermore, the CNC comprehensive cutting machine commonly used by quite a few machinery factories can also perform some precision machining, and the same equipment cost is quite a lot higher than some processing machines that do not require precision machining. It can be seen from the above that the demand for machining accuracy increases or decreases in the same proportion as the cost of the processing machine equipment. Therefore, if you are in the rough machining industry, it would be unwise to purchase a precision machining CNC integrated cutting machine. On the other hand, the precision machining CNC comprehensive cutting machine needs to be matched with Program processing, processing personnel need advanced program writing education, and after training, write a corresponding processing program for a processing program, and then process with its processing program, so small quantities, customized workpieces, with its CNC comprehensive cutting machining requires programming, and the processing cost is too high, too time-consuming and troublesome, and the waiting time is longer. Processors also need education and training in programming and training in processing skills. The quantity is impossible to produce, and the processing cost is too high, and customers are unwilling to pay. If the traditional processing machine is used for manual processing, it is necessary to measure the size and draw the line before the subsequent processing, which is not only laborious but also high in labor costs. , and if there is a small amount of variety, the probability of making mistakes will increase and the efficiency will decrease, so there is a need for improvement.

Therefore, in view of the problems existing in the above-mentioned conventional structures, how to develop a more ideal and practical innovative structure is what consumers are eagerly looking forward to, and it is also the goal and direction that related businesses must work hard to develop breakthroughs.

In view of this, the inventor has been engaged in the manufacture, development and design of related products for many years. After careful design and careful evaluation for the above-mentioned goals, he finally obtained a practical invention.

The main purpose of the present invention is to provide a graphic modularized automatic processing integration system, which mainly presets more than one processing graphic button in the display panel, and then selects the required tool according to the demand during processing, and then presses the processing graphic button. Then simply input the coordinates from the working origin to the graphic reference point and After the necessary data such as graphic length, width, depth, quantity, interval, etc., it can be quickly processed to achieve customized fast processing delivery.

In order to achieve the above purpose, the present invention provides a graphic modularized automatic processing integration system, which includes: a man-machine interface control device connected to one or more X-axis moving devices set on the processing machine, more than one Y-axis moving device, A Z-axis moving device and a processing head device. The aforementioned processing head device can be used for loading and unloading and driving a tool to rotate at a required speed for processing. The aforementioned Y-axis moving device must be provided with a clamp for fixing a pipe or a rod-shaped workpiece. Man-machine A display panel shall be provided on the interface control device, and more than one processing graphic button shall be preset on the aforementioned display panel, and the page may be changed to display more processing graphic buttons. In the actual processing process, more than two processing graphic buttons can be accumulated for processing. The processing graphic buttons are directly linked to the corresponding processing shapes. In this way, you only need to select the required tool and press one of the processing graphic buttons, and then simply input the working principle. After pointing to the graphic reference point coordinates and the necessary data such as the length, width, depth, quantity, and interval of the graphic, you can perform rapid processing, eliminating the tedious and complicated writing of processing programs. It is not only suitable for small-volume production but also can be customized. Fast Processing Deliverr.

Regarding the technology, means and effects used in the present invention, a preferred embodiment will be described in detail in conjunction with the drawings. It is believed that the above-mentioned purpose, structure and characteristics of the present invention can be gained a deep and specific understanding. .

10: machine

20: Man-machine interface control device

21: Display panel

22: Processing graphics button

221: round hole

222: rectangular hole

223: Oval hole

224: convex belly hole

225: square with R corner hole

226: bullet hole

23: Necessary processing data

24: Graphic reference point

25: Working origin

30: X-axis moving device

40: Y-axis moving device

41: Fixture

50: Z-axis moving device

60: Processing head device

70: Knife

80: Workpiece

90: The working origin returns to zero and starts

91: Place the workpiece to the origin of the fixture and clamp it

92:Start tool rotation

93: The tool is in contact with the right side of the workpiece and the X-axis button is pressed to teach and return to zero

94: The tool is in contact with the rear side of the workpiece, and the Y-axis button is pressed to teach and return to zero

95: The tool is in contact with the upper side of the workpiece and the Z-axis button is pressed to teach and return to zero

96: Tool X-axis moves to (plus tool radius distance) X-axis button presses teaching to return to zero

97: Tool Y axis moves to (plus tool radius distance) Y axis button presses teaching to return to zero

98: When the workpiece or tool is replaced, the Z axis re-calibrates the origin and returns to zero, and the X and Y axes remain unchanged.

99: The origin returns to zero and ends

a: start of work

b: input speed and tool diameter

c: Select the processing graphics button

d: Input datum point position data and necessary processing data

e: Repetition of the same processing requires quantity and interval data in the X or Y direction

f: end of input

g: Actual processing action

h: end

X: X-axis

Y: Y-axis

Z: Z-axis

[Fig. 1] is a left perspective perspective view of an embodiment of the present invention.

[Fig. 2] is a schematic plan view of an embodiment of the present invention in a top view direction.

[Fig. 3] is a right side perspective view of an embodiment of the present invention.

[Fig. 4] is a schematic plan view of a man-machine interface control device according to an embodiment of the present invention.

[Fig. 5] is a flow chart of returning to zero of the working origin of one embodiment of the present invention.

[Fig. 6] is a flow chart of the processing action in one embodiment of the present invention.

[Fig. 7] is a schematic diagram of processing graphics and cumulative graphics in one embodiment of the present invention.

The present invention provides a designer of a graphics modularized automatic processing integration system.

In order to enable your review committee members to have a further understanding and understanding of the purpose, features and effects of the present invention, the implementation methods and drawings are described in detail as follows:

Referring to Figures 1 to 7, the present invention provides a graphic modularized automatic processing integration system, which includes:

A human-machine interface control device 20 is connected to control one or more X-axis moving devices 30, more than one Y-axis moving device 40, one Z-axis moving device 50, and a processing head device 60 arranged on a machine platform 10. The aforementioned processing head device 60 can be used for loading and unloading and drive a cutting tool 70 to rotate according to the required speed for processing. The Y-axis moving device 40 must be provided with a clamp 41 for fixing a pipe or a rod-shaped workpiece 80; it is characterized in that:

A display panel 21 must be set on the aforementioned human-machine interface control device 20, and more than one processing graphic button 22 must be preset in the aforementioned display panel 21, and the aforementioned display panel 21 can change pages to display more aforementioned processing graphic buttons 22. Graphical buttons 22 can also be increased or decreased according to requirements. The aforementioned processing graphic buttons 22 can also accumulate more than two types of aforementioned processing graphic buttons 22 for processing in the actual processing process. The aforementioned processing graphic buttons 22 are directly connected to the corresponding processing shapes. The aforementioned processing graphic button 22 inputs a group of necessary processing data 23, including each graphic reference point 24 to a work origin 25 data and each graphic processing data, and the aforementioned work origin 25 is the right rear upper corner point of the aforementioned workpiece 80, and If you need to repeat the same graphics processing, you only need to input the quantity and interval data in the X or Y direction, and the actual processing action can be carried out after the input is completed, eliminating the tedious and complicated writing of processing programs, not only suitable for small-volume production but also customer-friendly Customized fast processing deliverers.

Referring to Figures 1 and 5, the graphical modularized automatic processing integration system described above, wherein after the aforementioned workpiece 80 is fixed to the aforementioned fixture 41, the action of returning the aforementioned working origin 25 to zero must be performed first. These include: starting at zero of the work origin 90, placing the workpiece at the origin position of the fixture and clamping 91, starting the tool rotation 92, touching the right side of the tool with the X-axis button and pressing the teaching reset 93, and contacting the Y-axis with the rear side of the tool Press the button to teach 94 to return to zero, the tool is in contact with the upper side of the workpiece on the Z axis. Press the button to teach to return to 95. Press the button to teach to return to zero 96, the Y axis of the tool moves to (plus the distance of the tool radius) the Y axis to press the button to teach to return to 97, when the workpiece or tool is replaced, the Z axis re-calibrates the origin and returns to zero, and the X and Y axes remain unchanged 98, the origin Zero to end 99.

Referring to Figures 4 and 6, the graphical modularized automatic processing integration system, where the speed (mm/sec) and the diameter of the aforementioned tool 70 need to be input before selecting the aforementioned processing graphic button 22 .

Referring to Fig. 7, the described graphics modularized automatic processing integration system, wherein the aforementioned processing graphics button 22 is a round hole 221, the aforementioned graphic reference point 24 is at the center point of the aforementioned round hole 221, and the diameter of the aforementioned round hole 221 is equal to the aforementioned Cutter 70 diameter, then aforementioned circular hole 221 aforesaid graphics processing data comprises depth; Aforesaid processing figure button 22 is circular hole 221, and diameter is greater than aforementioned cutter 70 diameters, then aforementioned circular hole 221 aforementioned graphic processing data comprises diameter and depth.

Referring to Figure 7, the graphic modularized automatic processing integration system, wherein the aforementioned processing graphic button 22 is a rectangular hole 222, the aforementioned graphic reference point 24 is at the midpoint of the right side, and the aforementioned rectangular hole 222 is used for graphic processing Data includes length, width and depth.

Referring to Figure 7, the graphic modularized automatic processing integration system, wherein the aforementioned processing graphic button 22 is an elliptical hole 223, the aforementioned graphic reference point 24 is at the midpoint of the right arc, and the aforementioned graphic processing data of the aforementioned elliptical hole 223 Including length, width and depth.

Referring to Fig. 7, the described graphical modularized automatic processing integration system, wherein the aforementioned processing graphic button 22 is a convex belly-shaped hole 224, and the aforementioned The graphic reference point 24 is at the midpoint of the right arc edge, and the aforementioned graphic processing data of the convex belly-shaped hole 224 includes the longest length, the shortest length, the widest width, the narrowest width and the depth.

Referring to Figure 7, the graphical modularized automatic processing integration system, wherein the aforementioned processing graphic button 22 is a square with an R corner hole 225, the aforementioned graphic reference point 24 is at a right angle on the right, and the aforementioned square has an R corner hole 225 The aforementioned graphic processing data includes length, width, depth, R corner radius and direction.

Referring to Figure 7, the graphical modularized automatic processing integration system, wherein the aforementioned processing graphic button 22 is a bullet-shaped hole 226, the aforementioned graphic reference point 24 is at a right angle to the right, and the aforementioned bullet-shaped hole 226 is the aforementioned graphic processing data Including length, width, depth and direction.

As shown in Figure 6, its processing action flow includes: start of work (a), input speed and tool diameter (b), select processing graphics button (c), input datum point position data and necessary processing data (d), repeat For the same processing, the quantity and interval data in the X or Y direction are required (e), the input is completed (f), the actual processing action is performed (g), and the end (h).

It can be seen from the above that the graphic modular automatic processing integration system of the present invention is indeed the first in the industry and meets the novelty requirements of the invention patent, and its comprehensive innovative design meets the progressive requirements of the invention patent, and its The main thing is to preset more than one processing graphic button in the control panel. You can process according to the processing graphic button to match the feed rate and required specifications of the selected tool. The processing graphic button is directly connected to the corresponding processing shape. Just press the button to process the graphics, and then simply input the coordinates from the origin of the work to the graphics reference point and the necessary data such as the length, width, depth, quantity, and interval of the graphics, and then you can perform fast processing, which can be customized and fast. Good industrial utilization.

The above is a specific description of the technical characteristics of the present invention for the preferred embodiments of the present invention; however, those who are familiar with this technology should be able to change and modify the present invention without departing from the spirit and principles of the present invention. Such changes and modifications shall all be covered in the scope defined by the scope of the patent application as follows.

In summary, the present invention provides a graphic modularized automatic processing integration system, which has indeed achieved all the objectives of the present invention, and the spatial form of its combined structure has not been seen in similar products, nor has it been disclosed before the application. Comply with the provisions of the Patent Law and file an application according to the law.

10: machine

20: Man-machine interface control device

21: Display panel

25: Working origin

30: X-axis moving device

40: Y-axis moving device

41: Fixture

50: Z-axis moving device

60: Processing head device

70: Knife

80: Workpiece

X: X-axis

Y: Y-axis

Z: Z-axis

Claims (9)

A graphical modular automatic processing integration system, including: A human-machine interface control device is connected to control one or more X-axis moving devices, one or more Y-axis moving devices, one Z-axis moving device and one processing head device installed on a machine table. The aforementioned processing head device can be used for loading and unloading and driving a The tool rotates according to the required speed for processing, and each of the above-mentioned Y-axis moving devices must be equipped with a clamp to fix the pipe or rod-shaped workpiece; it is characterized in that: A display panel must be provided on the aforementioned man-machine interface control device, and more than one processed graphic buttons are preset on the aforementioned display panel, and the aforementioned display panel can be changed to display more aforementioned processed graphic buttons, and the aforementioned processed graphic buttons can be adjusted according to the requirements. To increase or decrease, the above-mentioned processing graphic buttons can also accumulate two or more aforementioned processing graphic buttons for processing in the actual processing process. The aforementioned processing graphic buttons are directly connected to the corresponding processing shapes. Just press the aforementioned processing graphic buttons, and then input a set Necessary processing data, including each graphic reference point to a working origin data and each graphic processing data, the aforementioned working origin is the right rear upper corner point of the aforementioned workpiece, and if you need to repeat the same graphic processing, you only need to input X Or the number and interval data in the Y direction, the actual processing action can be performed after the input is completed. According to the graphical modularized automatic processing integration system described in Claim 1, after the aforementioned workpiece is fixed to the aforementioned fixture, the action of returning to the aforementioned work origin is required first. The graphics modularized automatic processing integration system as described in claim 2, wherein before selecting the processing graphics button, the speed and the diameter of the tool must be input first. The graphical modular automatic processing integration system as described in claim 3, wherein the aforementioned processing graphic button is a circular hole, the reference point of the aforementioned graphic is at the center point of the aforementioned circular hole, and the diameter of the aforementioned circular hole is equal to the diameter of the aforementioned tool, then the aforementioned circular hole is The graphic processing data includes depth; the aforementioned processed graphic button is a circular hole with a diameter greater than the diameter of the tool, and the aforementioned graphic processing data of the aforementioned circular hole includes diameter and depth. The graphic modularized automatic processing integration system as described in claim 3, wherein the aforementioned processing graphic button is a rectangular hole, the aforementioned graphic reference point is at the midpoint of the right side, and the aforementioned graphic processing data of the aforementioned rectangular hole includes length, width and depth . The graphics modularized automatic processing integration system as described in claim 3, wherein the processing graphics button is an ellipse hole, the reference point of the graphics is at the midpoint of the right arc edge, and the graphics processing data of the ellipse hole includes length, width and depth. The graphic modular automatic processing integration system as described in claim 3, wherein the aforementioned processing graphic button is a convex belly hole, and the aforementioned graphic base The punctual point is at the midpoint of the right arc edge, and the aforementioned graphic processing data of the convex belly hole includes the longest length, the shortest length, the widest width, the narrowest width and depth. The graphic modularized automatic processing integration system as described in claim 3, wherein the processing graphic button is a square with R corner holes, the reference point of the aforementioned graphics is at a right angle on the right, and the aforementioned square with R corner holes The aforementioned graphic processing data includes length, Width, depth, R corner radius and direction. The graphic modularized automatic processing integration system as described in claim 3, wherein the aforementioned processing graphic button is a bullet-shaped hole, the aforementioned graphic reference point is at a right angle on the right, and the aforementioned graphic processing data of the aforementioned bullet-shaped hole includes length, width, depth and direction.

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