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General| Type | CNC Control System |
|---|---|
| User Interface | Graphical User Interface (GUI) |
| Power Supply | 24V DC |
| Communication Ports | Ethernet |
| Programming Language | G-code |
| Number of controlled axes | 2 |
| Programmable Axes | 2 |
| Operating Temperature | 0°C to 45°C |
| Dimensions | Varies depending on configuration |
| Weight | Varies depending on configuration |
Guidelines for safe installation of the CNC unit, including power supply and environment.
Essential checks to perform before powering on the machine to ensure safe operation.
Safety measures for manual and continuous operation of the machine.
Safety guidelines for maintenance, inspection, and troubleshooting procedures.
Function to easily chamfer sharp edges using simple programs, including C-chamfering.
Function to automatically round corners using a 1/4 circle with a specified radius.
Programming chamfering for edges with angles other than 90 degrees.
Controlling servo motor torque for workpiece transfer and seating with optimal thrust.
Miscellaneous ON/OFF control and sequence control of machine operations like spindle and program stop.
Automatically compensating for geometric errors caused by tool tip radius.
Explains geometrical cutting errors and how tool nose radius compensation corrects them.
Detailed explanation of G and T codes used to activate tool nose radius compensation.
Details on G41 and G42 codes for tool nose radius compensation, including differences.
How G40 affects tool movements when canceling compensation, potentially causing over/undercuts.
Automatically offsets tool paths for required shapes in multi-processing.
Details on longitudinal (G31, G33) and end face (G32) fixed thread cutting cycles.
Important points to observe when programming thread cutting cycles, including G codes and overrides.
Detailed function, programming format, and parameters for longitudinal thread cutting.
Function and programming format for transverse thread cutting compound fixed cycles.
Selection of thread cutting mode (M32-M34) and infeed pattern (M73-M75).
Function and programming format for longitudinal grooving (G73) and transverse grooving (G74).
Function and programming format for right-hand (G77) and left-hand (G78) tapping cycles.
Comprehensive list of compound fixed cycle commands with programming formats and remarks.
Function and programming for synchronized tapping cycles (G178, G179).
LAP function enables automatic tool path generation for required part contours.
Mapping of G codes (G80-G83) to available LAP cutting modes (AP Modes I-V).
High-speed bar turning cutting between blank and finish contours for minimal tool motion.
Bar copying cutting along blank shape for reduced tool impacts and longer tool life.
High-speed bar turning for end face cutting, using blank and finish contours.
Bar copying for end face cutting, utilizing blank and finish contours.
Summary of G codes, M codes, and LAP-related parameters for automatic programming.
Function and format for continuous thread cutting, specifying depth, height, and angle.
Thread cutting along contour using G34, G35, G112, G113 with M codes for mode and infeed.
High-speed turning using blank and finish contour data for efficiency.
Bar copying cycle using blank and finish contour data for reduced tool collisions.
Cutting straight lines or arcs on workpiece end face using C and X axes.
Arc-form machining on workpiece periphery using Z and C axes.
Describes machining with two tools simultaneously, including turret selection.
Synchronizing execution timing between turrets A and B using P codes.
Using M100 for waiting synchronization of turrets A and B during simultaneous cuts.
Key considerations for efficient simultaneous 4-axis cuts, including balanced operations and interference.
Introduction to User Task Programs, their advantages, and applications.
Classification of basic functions: Control Statement, Variable, and Calculation.
Explanation of variable types: Common, Local, and System variables.
Performing arithmetic operations using constants, variables, and expressions.
Programs for continuous machining without operator intervention using automation equipment.
Enables unconditional (GOTO) and conditional (IF) branching of program sequences.
Establishes chuck/tailstock barriers to prevent tool entry and collisions.
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