A method and apparatus for controlling a continuous machining process includes a robot, a machining tool, a table, and a raw parts supply mounted inside a machining cell enclosure. The table has first and second vises for holding parts. The machining tool is operated to machine a raw part in one of the vises while the robot is operated to pick a machined part from the other vise and then place another raw part into the other vise. The table can be fixed or rotatable. The robot places the picked machined parts on an exit conveyor to remove the machined parts from the enclosure.

A method for editing a machining program includes obtaining tool information specifying a tool mountable on a machine tool. A program editing window and at least one assistance window are displayed. The program editing window shows a program code of the machining program to control the machine tool. Each of the assistance window selectively shows the tool information and a control method. The tool is to be controlled according to the control method. In the program code, an insertion position at which a new code is to be inserted into the program code is specified. Selected information is selected from the tool information when the tool information is shown in the at least one assistance window. A command corresponding to the selected information is inserted into the program code at the insertion position.

A numerical control device includes an operating condition acquisition unit, an executing part acquisition unit, a stopping factor acquisition unit, an acquired information storing unit, a reduction information storing unit, a stopping factor reduction information acquisition unit configured to acquire a reduction information of a stopping time corresponding to a stopping factor information from the reduction information storing unit, and a display unit configured to display the executing part and the stopping factor information and the reduction information of the stopping time corresponding to the stopping factor information.

A numerical controller reads out an instruction block included in a machining program, obtains machining information indicating a feature of a tool path instructed by the read instruction block, and stores a machining conditions related to a movement of a tool in association with the obtained machining information. Further, the machining information obtained together with the instruction block is determined, and a machining condition in the movement of the tool instructed by the instruction block is changed based on the determined machining information and the stored machining condition.

The invention relates to a method for operating at least one machining apparatus as well as a machining system with at least one machining apparatus. Such a machining apparatus can be a machining apparatus for machining workpieces, in particular panel-shaped workpieces, which are used, for example, in the furniture and component industry.

A sub-program carried out by a numerical control unit that controls a production machine is disclosed. The numerical control unit transmits a piece of information identifying a program instruction, by means of which the sub-program was generated to a CAM system after the instruction is selected by a user through an operator interface. The numerical control unit receives, a parameterized description of the sequence of program instructions containing the selected program instruction from the CAM system. The numerical control unit outputs the parameterized description to the user via the operator interface and receives a modification of the parameterized description from the user. The numerical control unit then transmits the modified parameterized description to the CAM system and receives a modified sub-program corresponding to the modified parameterized description from the CAM system.

An apparatus for correcting a process error includes: a frame; a machining unit formed inside or outside the frame with respect to the frame and performing a predetermined process; a conveying unit formed inside or outside the frame with respect to the frame and performing predetermined conveying; a sensing mark formed on the frame, the machining unit, or the conveying unit; an imaging unit formed inside or outside the frame and creating an original image by imaging the sensing mark; and a measuring unit deriving a 3D position variation value of the frame, the machining unit, or the conveying unit by deriving an image variation value of the sensing mark by analyzing the original image transmitted from the imaging unit imaging the sensing mark formed on the frame, the machining unit, or the conveying unit.