CURA SLICER TUTORIAL SERIAL
CURA SLICER TUTORIAL MANUAL
CURA SLICER TUTORIAL CODE

12.44 M44: Codes debug - report codes available.

12.42 M43: Stand by on material exhausted.

12.37 M38 Compute SHA1 hash of target file.

12.35 M36.1: Return embedded thumbnail data.

12.33 M35: Upload firmware NEXTION from SD.

12.31 M33: Stop and Close File and save restart.gcode.

12.30 M33: Get the long name for an SD card file or folder.

12.29 M32: Select file and start SD print.

CURA SLICER TUTORIAL SERIAL

12.28 M31: Output time since last M109 or SD card start to serial.12.27 M30: Delete a file on the SD card.12.15 M17: Enable/Power all stepper motors.12.13 M13: Spindle on (clockwise rotation) and coolant on (flood).12.9 M8: Flood Coolant On (CNC specific).12.8 M7: Mist Coolant On (CNC specific).12.5 M4: Spindle On, Counter-Clockwise (CNC specific).12.4 M3: Spindle On, Clockwise (CNC specific).11.61 G425: Perform auto-calibration with calibration cube.11.55 G130: Set digital potentiometer value.11.54 G100: Calibrate floor or rod radius.11.51 G94: Feed Rate Mode (Units per Minute) (CNC specific).11.50 G93: Feed Rate Mode (Inverse Time Mode) (CNC specific).11.49.1 G92.x: Reset Coordinate System Offsets (CNC specific).11.45 G87: Enable babystep correction after home.11.44 G86: Disable babystep correction after home.11.42 G84: UNDO Babystep Z (move Z axis back).11.41 G83: Babystep in Z and store to EEPROM.11.40 G82: Single Z probe at current location.11.37 G80: Cancel Canned Cycle (CNC specific).11.36 G76: PINDA probe temperature calibration.11.35 G75: Print temperature interpolation.11.32 G60: Save current position to slot, Restore and Delete.11.31 G53.59: Coordinate System Select (CNC specific).11.29 G40: Compensation Off (CNC specific).11.28.4 G38.5 probe away from workpiece, stop on loss of contact.11.28.3 G38.4 probe away from workpiece, stop on loss of contact, signal error if failure.11.28.2 G38.3 probe toward workpiece, stop on contact.11.28.1 G38.2 probe toward workpiece, stop on contact, signal error if failure.11.28 G38.x Straight Probe (CNC specific).11.27 G34: Calculate Delta Height from toolhead position (DELTA).11.25.2 G33: Delta Auto Calibration (Marlin 1.1.x - MK4duo).11.25.1 G33: Measure/List/Adjust Distortion Matrix (Repetier - Redeem).11.23.2 Probe and calculate in Repetier firmware.11.23.1 Probe and calculate in Reprapfirmware.11.23 G32: Probe Z and calculate Z plane.11.21 G31: Set or Report Current Probe status.11.19 G29.2: Set Z probe head offset calculated from toolhead position.11.17.5 G29 Mesh Bed Compensation (RepRapFirmware).11.17.4 G29 Auto Bed Leveling (Repetier-Firmware).

CURA SLICER TUTORIAL MANUAL

11.17.3 G29 Manual Bed Leveling (Marlin - MK4duo).

11.17.2 G29 Unified Bed Leveling (Marlin - MK4duo).

11.17.1 G29 Auto Bed Leveling (Marlin - MK4duo).

11.9 G17.19: Plane Selection (CNC specific).

11.5 G10: Set tool Offset and/or workplace coordinates and/or tool temperatures.

Note that the key date is appearance here, not date of implementation.

CURA SLICER TUTORIAL CODE

The rule which should be followed is that later appearances of a code on this page (later than the original use of a code), are deprecated and should be changed, unless there is a good technical reason (like the general G-Code standard) why a later instance should be preferred. Unfortunately human nature being what it is, the best procedures aren't always followed, so some multiple uses of the same code exist. The rule is: add your new code here, then implement it. Nowhere in here should the same code be used for two different things there are always more numbers to use. This particular page is the master page for RepRap. This may be the best choice if you just need to run a few test lines while calibrating your printer.Īs many different firmwares exist and their developers tend to implement new features without discussing strategies or looking what others did before them, a lot of different sub-flavours for the 3D-Printer specific codes developed over the years. The final option is to just write the G-code yourself. Libraries like mecode give you precise control over the tool path, and thus are useful if you have a complex print that is not suitable for naive slicing. Another option for G-code generation is to use a lower level library like mecode. Slicers are the easiest way to go from a 3D model to a printed part, however the user sacrifices some flexibility when using them. These programs import a CAD model, slice it into layers, and output the G-code required to print each layer. One method would be to use a slicing program such as Slic3r, Skeinforge or Cura. There are a few different ways to prepare G-code for a printer.

Codes for print head movements follow the NIST RS274NGC G-code standard, so RepRap firmwares are quite usable for CNC milling and similar applications as well. The main target is additive fabrication using FFF processes. This page tries to describe the flavour of G-codes that the RepRap firmwares use and how they work.

Cura slicer tutorial