CN201097202Y - A graphic interactive programming device - Google Patents

Abstract

The utility model discloses a graphic interactive type programming device, which is used for an open type digital control system. The utility model comprises a program compiler, and a human-computer interactive interface, a program storage unit and a process strategy base which are respectively and mutually connected with the program compiler, wherein the program compiler is used for realizing code conversion; the human-computer interactive interface is used for realizing the compiling and the editing of a program, and part drawings for the user to select are arranged on the interface, and can be provided for the user to fill in parameters; the program storage unit is used for storing the G code compiled through the program compiler well; the process strategy base is used for storing process flow. The operation and the process technology frequently met in the digital control processing are abstracted through the programming device, and summarized into simple programming instructions, the compilation to a part processing program can be greatly simplified, the capacity of program files is shortened, programming personnel are not required to bear in mind multiple programming instructions and a complex programming process any longer, the working efficiency is enhanced, and the labor is reduced.

Description

A graphical interactive programming device

technical field

The utility model relates to a graphical interactive programming device, in particular to a graphical interactive programming device for an open numerical control system.

technical background

The traditional numerical control system adopts the programming method of text input, which puts forward higher requirements for programmers. It is necessary to know the specific format of each instruction, the parameters required by the instruction, the specific meaning of each parameter, and the processing technology. The interface is complex. , Turning into personnel needs to keep in mind numerous programming instructions and complicated programming processes, which reduces efficiency and requires a large labor force.

Contents of the invention

The purpose of the utility model is to overcome the defects of the prior art, and provide a graphical interactive programming device, which abstracts the operations and processing techniques often encountered in numerical control machining, and summarizes them into simple programming instructions, which can be greatly improved. Simplify the preparation of parts processing programs, shorten the capacity of program files, improve work efficiency and reduce labor.

The technical solution for achieving the above purpose is: a graphical interactive programming device for an open numerical control system, which includes a program compiler, and a human-computer interaction interface, a program storage unit, and a program compiler respectively connected to the program compiler. A library of process strategies where:

The program compiler is used to realize code conversion, that is, to detect the syntax of the code displayed on the human-computer interaction interface and the parameters filled in by the user, and read the corresponding part graphics stored in the process strategy library by reading the part graphics selected by the user in the human-computer interaction interface. After the technological process, compile the technological process into a G code that can be recognized by the open numerical control system and store it in the program storage unit;

The human-computer interaction interface is used to implement program writing and editing. The interface has part graphics for users to choose, and users can fill in parameters;

The program storage unit is used to store the G code compiled by the program compiler;

The process strategy library is used to store the process flow, that is, the processing process flow corresponding to the part graphics in the human-computer interaction interface.

The above-mentioned graphical interactive programming device, wherein, the interface of the human-computer interaction interface is divided into a programming area, a parameter input area and an operation button area, wherein the parameter input area is used to input the parameters required by the parts, and the operation button area It is used to select and edit part graphics, and the programming area is used to display the parameters entered in the parameter input area.

In the above-mentioned graphical interactive programming device, the process strategy library includes a general module and/or a positioning module and/or a drilling module and/or a milling module.

The above-mentioned graphical interactive programming device, wherein, the general module includes an initialization program submodule, a working plane setting submodule, an absolute value programming submodule, an incremental value programming submodule, a program end submodule, and an unconditional stop submodule , cancel the cycle sub-module.

In the graphical interactive programming device above, the positioning module includes a linear positioning mode sub-module, a freely programmable positioning sub-module, a rectangular positioning mode sub-module, a full-circle positioning mode sub-module, and an arc positioning mode sub-module.

The above-mentioned graphical interactive programming device, wherein the drilling module includes a centering submodule, a drilling submodule, a drilling submodule, a deep drilling submodule, a boring submodule, a tapping submodule, a thread cutting submodule, and a drilling submodule. submodule.

In the graphical interactive programming device above, the milling module includes a plane milling submodule, a rectangular slot submodule, an annular slot submodule, a rectangular journal submodule, a circular journal submodule, and a keyway submodule.

The beneficial effects of the utility model are: the utility model has a very simplified and friendly programming interface and programming method, programmers no longer need to keep in mind numerous programming instructions and complicated programming processes, and the human-computer interaction interface clearly displays the processing technology and Steps, and the specific meaning of each relevant parameter is marked, the programmer only needs to fill in the corresponding parameter value in the dialog box, and the final processing program file is automatically generated by the system without using any G code, which is easy to operate.

Description of drawings

Fig. 1 is the structural representation of the utility model;

Fig. 2 is the structural representation of the process strategy storehouse of the present utility model;

Fig. 3 is a schematic diagram of the human-computer interaction interface of the present invention.

Detailed ways

The utility model will be further described below in conjunction with accompanying drawing.

Please refer to Fig. 1 to Fig. 3, a kind of graphical interactive programming device of the present utility model is shown in the figure, is used for open numerical control system, comprises a program compiler 2, and is connected with this program compiler 2 respectively Human-computer interaction interface 3, program storage unit 4, process strategy library 1,

in:

The program compiler 2 is used to realize code conversion, that is, to detect the syntax of the code displayed on the human-computer interaction interface 3 and the parameters filled in by the user, and to read the part graphics selected by the user in the human-computer interaction interface 3 by reading the process strategy library 1 After storing the corresponding technological process in the computer, compile the technological process into a G code that the open numerical control system can recognize and store it in the program storage unit 4;

The human-computer interaction interface 3 is used to realize the writing and editing of the program. The interface has part graphics for the user to choose, and can be used for the user to fill in the parameters. The interface of the human-computer interaction interface 3 is divided into a programming area 31 and a parameter input area. Area 32 and operation button area 33, wherein the parameter input area 32 is used to input the parameters required by the part, the operation button area 33 is used to select the part graphics and edit the part graphics, and the programming area 31 is used to display the parameters input in the parameter input area. parameter;

The program storage unit 4 is used to store the G code compiled by the program compiler 2;

The process strategy library 1 is used to store the process flow, that is, the processing process flow corresponding to the part graphics in the human-computer interaction interface 3. In this embodiment, the process strategy library 1 includes a general module 11, a positioning module 12, and a drilling module 13 , milling module 14, wherein:

General module 11, including initialization program submodule 111, setting working plane submodule 112, absolute value programming submodule 113, incremental value programming submodule 114, program end submodule 115, unconditional stop submodule 116, cancel cycle submodule 117 ;

The positioning module 12 includes a linear positioning mode submodule 121, a freely programmable positioning submodule 122, a rectangular positioning mode submodule 123, a full circle positioning mode submodule 124, and an arc positioning mode submodule 125;

The drilling module 13 includes a centering submodule 131, a drilling submodule 132, a drilling submodule 133, a deep drilling submodule 134, a boring submodule 135, a tapping submodule 136, and a thread cutting submodule 137;

The milling module 14 includes a plane milling submodule 141 , a rectangular groove submodule 142 , an annular groove submodule 143 , a rectangular journal submodule 144 , a circular journal submodule 145 , and a keyway submodule 146 .

The above embodiments are only used for illustrating the utility model, rather than limiting the protection scope of the utility model. Those skilled in the art, without departing from the spirit and scope of the present utility model, can also make various changes or modifications, and all equivalent technical solutions should also belong to the scope of protection of the present utility model. defined by the respective claims.

Claims (7)

1. A graphical interactive programming device, which is used for open numerical control systems, is characterized in that it includes a program compiler, and a human-computer interaction interface, a program storage unit, and a process strategy library that are respectively connected with the program compiler, in: The program compiler is used to realize code conversion, that is, to detect the syntax of the code displayed on the human-computer interaction interface and the parameters filled in by the user, and read the corresponding part graphics stored in the process strategy library by reading the part graphics selected by the user in the human-computer interaction interface. After the technological process, compile the technological process into a G code that can be recognized by the open numerical control system and store it in the program storage unit; The human-computer interaction interface is used to implement program writing and editing. The interface has part graphics for users to choose, and users can fill in parameters; The program storage unit is used to store the G code compiled by the program compiler; The process strategy library is used to store the process flow, that is, the processing process flow corresponding to the part graphics in the human-computer interaction interface. 2. The graphical interactive programming device according to claim 1, wherein the interface of the human-computer interaction interface is divided into a programming area, a parameter input area and an operation button area, wherein the parameter input area is used for inputting The parameters required by the parts, the operation button area is used to select and edit the part graphics, and the programming area is used to display the parameters entered in the parameter input area. 3. The graphical interactive programming device according to claim 1, characterized in that, the process strategy library includes a general module and/or a positioning module and/or a drilling module and/or a milling module. 4. The graphic interactive programming device according to claim 3, characterized in that, said general module includes an initialization program submodule, a working plane submodule, an absolute value programming submodule, an incremental value programming submodule, Program end submodule, unconditional stop submodule, cancel cycle submodule. 5. The graphical interactive programming device according to claim 3, wherein the positioning module includes a linear positioning mode sub-module, a freely programmable positioning sub-module, a rectangular positioning mode sub-module, and a full circle positioning mode sub-module. Module, arc positioning mode sub-module. 6. The graphical interactive programming device according to claim 3, wherein the drilling module includes a centering submodule, a drilling submodule, a drilling submodule, a deep drilling submodule, and a boring submodule. module, tapping sub-module, thread cutting sub-module. 7. The graphical interactive programming device according to claim 3, wherein the milling module comprises a plane milling submodule, a rectangular slot submodule, an annular slot submodule, a rectangular journal submodule, a circular journal submodule module, keyway sub-module.