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General| Display | Color LCD |
|---|---|
| PLC | Integrated |
| Type | CNC |
| Programming | ISO, Conversational |
| Display Size | 10.4 inches |
| Interfaces | RS-232, USB, Ethernet |
| Programming Languages | ISO |
| Operating Temperature | 0 - 50°C |
| Humidity | 10 - 90% non-condensing |
Details on creating, editing, and executing part programs, including storage and transmission.
Explains DNC capabilities like directory commands, data transfer, and remote control.
Outlines the protocol for file transfer, including file naming and format conventions.
Describes the structure of a CNC program block, including header, block, and end.
Explains how to define and call local subroutines within a program for modularity.
Defines the naming conventions for machine axes according to DIN 66217 and their characteristics.
Details G functions for selecting work planes (XY, ZX, YZ) and their longitudinal axes.
Explains how to set units of measurement (mm or inches) for programming part dimensions.
Describes programming coordinates using absolute (G90) or incremental (G91) values.
Covers different coordinate systems like Cartesian, Polar, and Cylindrical for defining positions.
Explains the types of rotary axes (normal, positioning-only, Hirth) and their programming.
Details the definition and usage of work zones to restrict tool movement.
Defines key reference points like Machine Reference Zero, Part Zero, and Machine Reference Point.
Explains the process of homing machine axes using G74, either directly or via subroutine.
Describes how to program coordinates relative to the machine zero using G53.
Details methods for setting zero offsets using G92 or G54-G59 for part programming.
Explains how to set a new origin for polar coordinates using G93.
Lists G functions (G0-G319) used for defining geometry and working conditions.
Explains programming feedrates (F) in mm/min or mm/rev, including variations and limits.
Covers programming spindle speed (S) in RPM, including limits and variations.
Details how to select between the main and second spindles using G28 and G29.
Explains how to synchronize spindle speeds and positions using G77S, G78S, and G30.
Describes how to select tools (T) and their associated offsets (D) for machining.
Covers miscellaneous functions (M) for program control, spindle, tool changes, and more.
Explains rapid traverse movements (G00) for fast positioning between points.
Details linear interpolation (G01) for straight-line movements at a programmed feedrate.
Covers circular interpolation (G02, G03) for creating arcs and circles.
Explains using G06 for circular interpolation with absolute center coordinates.
Describes programming tangential arcs to the previous path using G08.
Details defining arcs using three points (start, intermediate, end) with G09.
Explains helical interpolation for creating spiral paths, combining circular and linear motion.
Describes tangential entry (G37) for smooth approach to machining paths.
Explains tangential exit (G38) for smooth departure from machining paths.
Covers automatic radius blending (G36) for rounding corners without manual calculation.
Details chamfering corners between straight lines using G39.
Explains threading operations (G33) using a tool tip and rotary encoder.
Covers programming variable pitch threads (G34) with changing pitch.
Explains moving an axis until it hits a hardstop using G52.
Describes using feedrate (F) as an inverted function of time for precise timing control.
Explains tangential control (G45) to maintain axis orientation relative to the path.
Details temporary cancellation of tangential control using G145.
Explains how G04 interrupts block preparation for analyzing status.
Details programming dwell times using G04 K for pauses in execution.
Covers programming square (G07) and round (G05, G50) corners for smooth profile transitions.
Explains the Look-Ahead function (G51) for high-speed machining of small movements.
Describes mirror image functions (G10-G14) for creating symmetrical geometry.
Explains using G72 for scaling parts to create different sizes from a single program.
Covers pattern rotation (G73) for orienting the coordinate system or programmed rotation center.
Details electronic coupling and uncoupling of axes for coordinated movements.
Explains axis toggling (G28-G29) for using multiple machining tables.
Covers tool radius compensation (G40, G41, G42) for accurate contour machining.
Explains how to start tool radius compensation, including required functions and conditions.
Illustrates different paths and blending methods for tool radius compensation.
Details how to cancel tool radius compensation using G40.
Explains changing compensation type (G41 to G42) mid-machining without cancellation.
Covers tool length compensation (G43, G44, G15) to account for differences in tool lengths.
Explains collision detection (G41 N, G42 N) to prevent tool path errors and collisions.
Explains how canned cycles are defined using G functions and their parameters.
Describes the influence zone of a canned cycle and how repetitions affect machining.
Details methods for canceling active canned cycles using G80 or other functions.
Provides general considerations for using canned cycles, including subroutines and compensation.
Discusses coordinates and general operation for various machining canned cycles.
Explains the G69 canned cycle for drilling with variable peck depth and withdrawal.
Details the G81 canned cycle for simple drilling operations, including dwell.
Describes the G82 canned cycle for drilling with a dwell at the bottom of the hole.
Explains the G83 canned cycle for deep-hole drilling with constant peck depth.
Covers the G84 canned cycle for tapping threads, including rigid tapping.
Details the G85 canned cycle for reaming operations.
Explains the G86 canned cycle for boring with withdrawal in G00.
Covers the G87 canned cycle for machining rectangular pockets, including finishing.
Details the G88 canned cycle for machining circular pockets, including finishing.
Explains the G89 canned cycle for boring with withdrawal at work feedrate (G01).
Covers the G210 canned cycle for bore milling using a helical movement.
Details the G211 cycle for inside thread milling using a helical movement.
Explains the G212 cycle for outside thread milling using a helical movement.
Describes multiple machining along a straight line using G60.
Explains multiple machining in a rectangular pattern using G61.
Details multiple machining in a grid pattern using G62.
Covers multiple machining in a circular pattern using G63.
Explains multiple machining along an arc using G64.
Details machining with an arc-chord using G65 for a single operation.
Focuses on programming 2D irregular pockets, including external and internal profiles.
Describes the optional drilling operation prior to pocket machining.
Explains the main roughing operation for irregular pockets, including path types.
Details the optional finishing operation for pocket walls and islands.
Outlines the rules for programming pocket profiles, including closures and intersections.
Explains how profiles intersect and the types of intersection (basic, advanced).
Details syntax rules for programming outside and inside pocket profiles, including geometry checks.
Lists common errors encountered during irregular pocket programming and their causes.
Provides practical examples for programming 2D pockets, including tool dimensions and code.
Covers programming 3D irregular pockets, including roughing, semi-finishing, and finishing.
Explains the 3D roughing operation, detailing path types (linear, concentric) and pass depth.
Details the optional semi-finishing operation to minimize ridges after roughing.
Describes the optional finishing operation for 3D pockets, including direction and stock.
Explains how to define 2D and 3D pocket geometry, including plane and depth profiles.
Outlines rules for programming 3D pocket profiles, including plane and depth profile definitions.
Discusses composite 3D profiles formed by intersecting contours with different depth profiles.
Explains considerations for stacking multiple profiles in 3D pockets.
Details syntax for programming 3D pocket profiles, including geometry rules and function usage.
Provides programming examples for 3D pockets, illustrating profile definitions and operations.
Lists common errors encountered in 3D pocket programming and their causes.
Explains probing movements using G75 (signal received) and G76 (signal lost).
Lists various probing canned cycles available for tool calibration, measurement, and centering.
Details the PROBE 1 cycle for calibrating tool length and radius, including wear measurement.
Explains how to calibrate tool length and measure wear, either on the shaft or at the tip.
Covers calibrating tool radius and measuring radius wear using the probing cycle.
Details the PROBE 2 cycle for calibrating the probe itself, measuring deviations.
Explains the PROBE 3 cycle for measuring surface coordinates and correcting tool offsets.
Covers the PROBE 4 cycle for measuring outside corners of a part.
Details the PROBE 5 cycle for measuring inside corners of a pocket.
Explains the PROBE 6 cycle for measuring angles on a part.
Covers the PROBE 7 cycle for measuring both corners and angles.
Details the PROBE 8 cycle for measuring hole centers and diameters.
Explains the PROBE 9 cycle for measuring boss diameters and centers.
Covers the PROBE 10 cycle for centering rectangular parts using a digital probe.
Details the PROBE 11 cycle for centering circular parts using a digital probe.
Explains the PROBE 12 cycle for calibrating the tabletop probe, reducing preparation time.
Defines the basic elements of the high-level language: reserved words, constants, and symbols.
Introduces internal variables accessible from user programs, PLC, or DNC.
Explains general purpose variables referred to by "P" followed by a number, categorized into four types.
Details variables linked to tool offset, tool, and tool magazine tables.
Covers variables related to zero offsets, including table values and presets.
Explains variables related to coordinate transformation and inclined planes using G49.
Describes read-only variables for accessing machine configuration parameters.
Details read-only variables for checking the status and limits of work zones.
Lists variables for accessing real and programmed feedrates, including override controls.
Explains variables for accessing programmed and real coordinates, including probe data.
Covers variables related to electronic handwheels, including pulse counts and multiplying factors.
Details variables for accessing sinusoidal feedback signals from axes and spindles.
Explains variables related to main spindle speed, override, limits, and position.
Covers variables for the second spindle's speed, override, limits, and position.
Describes the ASPROG variable for accessing programmed revolutions per minute for the live tool.
Details variables for reading/modifying PLC inputs, outputs, marks, registers, timers, and counters.
Explains how local parameters are assigned to subroutines and their nesting levels.
Covers variables used for data exchange via Sercos between the CNC and drives.
Describes read-only variables indicating CNC hardware configuration and model.
Details read-only variables for checking central unit configuration and board presence.
Explains read-only variables related to the selected operating mode (Automatic, Edit, JOG, etc.).
Lists other variables like tool number, program number, block number, and G/M function status.
Defines constants as fixed values that cannot be altered by a program.
Lists arithmetic, relational, logic, binary, trigonometric, and special operators used in expressions.
Explains how expressions are formed using operators, constants, parameters, and variables.
Describes assignment instructions for setting targets (parameters, variables) to expressions.
Covers instructions for displaying errors (ERROR) and messages (MSG) on the screen.
Explains instructions for enabling/disabling single block mode (ESBLK/DSBLK) and stop/feed-hold signals.
Details instructions for controlling program flow, including GOTO, RPT, and IF-ELSE statements.
Explains how to define (SUB), end (RET), call (CALL, PCALL, MCALL), and manage modal subroutines.
Covers instructions for executing probing canned cycles, initializing parameters via assignment.
Explains how to use interruption logic inputs (INT) to start subroutines and reposition axes (REPOS).
Details instructions for executing (EXEC), modal execution (MEXEC), opening (OPEN), and writing (WRITE) programs.
Discusses instructions for changing kinematics (INIPAR) by modifying machine parameters.
Covers instructions for customizing the screen display using PAGE, SYMBOL, IB, ODW, DW, SK, WKEY, SYSTEM.
Explains how to perform movements on an inclined plane using coordinate transformations.
Details defining inclined planes using G49 with various axis and angle parameters.
Covers G49 usage with swinging spindles, including the W parameter and axis selection.
Explains G49 definition for Huron type spindles, including the optional L parameter.
Provides considerations for using G49, including restrictions and cancellation methods.
Lists read-only and read-write variables related to G49 for part zero and spindle orientation.
Details global parameters P297 and P298 updated by G49, and their usage with TOOROF/TOOROS.
Demonstrates programming an inclined plane movement using G49 and other functions.
Explains moving the tool according to its coordinate system using G47.
Details TCP transformation (G48) for modifying tool orientation without changing tip position.
Provides considerations for G48, including restrictions, activation/deactivation, and coordinate display.
Explains how to turn angular transformation on (G46 S1) and off (G46 S0, G46) for incline axes.
Details freezing (suspending) angular transformations using G46 S2.
Provides a reference for ISO code programming, listing G functions and their meanings.
Summarizes program control instructions like assignment, display, flow control, subroutines, and more.
Lists and categorizes internal CNC variables associated with tools, offsets, parameters, feedrates, etc.
Provides key code references for the alphanumeric keyboard, operator panels, and monitors.
Lists available programming assistance screens, including syntax help for ISO code and high-level language.
Offers guidance on cleaning and general maintenance procedures for the CNC unit.
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