G-Codes

This document describes the commands that Klipper supports. These are commands that one may enter into the OctoPrint terminal tab.

G-Code commands

Klipper supports the following standard G-Code commands:

• Move (G0 or G1): G1 [X<pos>] [Y<pos>] [Z<pos>] [E<pos>] [F<speed>]
• Dwell: G4 P<milliseconds>
• Move to origin: G28 [X] [Y] [Z]
• Turn off motors: M18 or M84
• Wait for current moves to finish: M400
• Use absolute/relative distances for extrusion: M82, M83
• Use absolute/relative coordinates: G90, G91
• Set position: G92 [X<pos>] [Y<pos>] [Z<pos>] [E<pos>]
• Set speed factor override percentage: M220 S<percent>
• Set extrude factor override percentage: M221 S<percent>
• Set acceleration: M204 S<value> OR M204 P<value> T<value>
  • Note: If S is not specified and both P and T are specified, then the acceleration is set to the minimum of P and T. If only one of P or T is specified, the command has no effect.
• Get extruder temperature: M105
• Set extruder temperature: M104 [T<index>] [S<temperature>]
• Set extruder temperature and wait: M109 [T<index>] S<temperature>
  • Note: M109 always waits for temperature to settle at requested value
• Set bed temperature: M140 [S<temperature>]
• Set bed temperature and wait: M190 S<temperature>
  • Note: M190 always waits for temperature to settle at requested value
• Set fan speed: M106 S<value>
• Turn fan off: M107
• Emergency stop: M112
• Get current position: M114
• Get firmware version: M115

For further details on the above commands see the RepRap G-Code documentation.

Klipper's goal is to support the G-Code commands produced by common 3rd party software (eg, OctoPrint, Printrun, Slic3r, Cura, etc.) in their standard configurations. It is not a goal to support every possible G-Code command. Instead, Klipper prefers human readable "extended G-Code commands". Similarly, the G-Code terminal output is only intended to be human readable - see the API Server document if controlling Klipper from external software.

If one requires a less common G-Code command then it may be possible to implement it with a custom gcode_macro config section. For example, one might use this to implement: G12, G29, G30, G31, M42, M80, M81, T1, etc.

Additional Commands

Klipper uses "extended" G-Code commands for general configuration and status. These extended commands all follow a similar format - they start with a command name and may be followed by one or more parameters. For example: SET_SERVO SERVO=myservo ANGLE=5.3. In this document, the commands and parameters are shown in uppercase, however they are not case sensitive. (So, "SET_SERVO" and "set_servo" both run the same command.)

This section is organized by Klipper module name, which generally follows the section names specified in the printer configuration file. Note that some modules are automatically loaded.

[adxl345]

The following commands are available when an adxl345 config section is enabled.

ACCELEROMETER_MEASURE

ACCELEROMETER_MEASURE [CHIP=<config_name>] [NAME=<value>]: Starts accelerometer measurements at the requested number of samples per second. If CHIP is not specified it defaults to "adxl345". The command works in a start-stop mode: when executed for the first time, it starts the measurements, next execution stops them. The results of measurements are written to a file named /tmp/adxl345-<chip>-<name>.csv where <chip> is the name of the accelerometer chip (my_chip_name from [adxl345 my_chip_name]) and <name> is the optional NAME parameter. If NAME is not specified it defaults to the current time in "YYYYMMDD_HHMMSS" format. If the accelerometer does not have a name in its config section (simply [adxl345]) then <chip> part of the name is not generated.

ACCELEROMETER_QUERY

ACCELEROMETER_QUERY [CHIP=<config_name>] [RATE=<value>] [SAMPLES=<value>] [RETURN=<value>]: queries accelerometer for the current value. If CHIP is not specified it defaults to "adxl345". If RATE is not specified, the default value is used. This command is useful to test the connection to the ADXL345 accelerometer: one of the returned values should be a free-fall acceleration (+/- some noise of the chip). The SAMPLES parameter can be set to sample multiple readings from the sensor. The readings will be averaged together. The default is to collect a single sample. The RETURN parameter can take on the values vector(the default) or tilt. In vector mode, the raw free-fall acceleration vector is returned. In tilt mode, X and Y angles of a plane perpendicular to the free-fall vector are calculated and displayed.

ACCELEROMETER_DEBUG_READ

ACCELEROMETER_DEBUG_READ [CHIP=<config_name>] REG=<register>: queries ADXL345 register "register" (e.g. 44 or 0x2C). Can be useful for debugging purposes.

ACCELEROMETER_DEBUG_WRITE

ACCELEROMETER_DEBUG_WRITE [CHIP=<config_name>] REG=<register> VAL=<value>: Writes raw "value" into a register "register". Both "value" and "register" can be a decimal or a hexadecimal integer. Use with care, and refer to ADXL345 data sheet for the reference.

[angle]

The following commands are available when an angle config section is enabled.

ANGLE_CALIBRATE

ANGLE_CALIBRATE CHIP=<chip_name>: Perform angle calibration on the given sensor (there must be an [angle chip_name] config section that has specified a stepper parameter). IMPORTANT - this tool will command the stepper motor to move without checking the normal kinematic boundary limits. Ideally the motor should be disconnected from any printer carriage before performing calibration. If the stepper can not be disconnected from the printer, make sure the carriage is near the center of its rail before starting calibration. (The stepper motor may move forwards or backwards two full rotations during this test.) After completing this test use the SAVE_CONFIG command to save the calibration data to the config file. In order to use this tool the Python "numpy" package must be installed (see the measuring resonance document for more information).

ANGLE_DEBUG_READ

ANGLE_DEBUG_READ CHIP=<config_name> REG=<register>: Queries sensor register "register" (e.g. 44 or 0x2C). Can be useful for debugging purposes. This is only available for tle5012b chips.

ANGLE_DEBUG_WRITE

ANGLE_DEBUG_WRITE CHIP=<config_name> REG=<register> VAL=<value>: Writes raw "value" into register "register". Both "value" and "register" can be a decimal or a hexadecimal integer. Use with care, and refer to sensor data sheet for the reference. This is only available for tle5012b chips.

[axis_twist_compensation]

The following commands are available when the axis_twist_compensation config section is enabled.

AXIS_TWIST_COMPENSATION_CALIBRATE

AXIS_TWIST_COMPENSATION_CALIBRATE [SAMPLE_COUNT=<value>]: Initiates the X twist calibration wizard. SAMPLE_COUNT specifies the number of points along the X axis to calibrate at and defaults to 3.

[bed_mesh]

The following commands are available when the bed_mesh config section is enabled (also see the bed mesh guide).

BED_MESH_CALIBRATE

BED_MESH_CALIBRATE [PROFILE=<name>] [METHOD=manual] [HORIZONTAL_MOVE_Z=<value>] [<probe_parameter>=<value>] [<mesh_parameter>=<value>] [ADAPTIVE=1] [ADAPTIVE_MARGIN=<value>]: This command probes the bed using generated points specified by the parameters in the config. After probing, a mesh is generated and z-movement is adjusted according to the mesh. The mesh will be saved into a profile specified by the PROFILE parameter, or default if unspecified. See the PROBE command for details on the optional probe parameters. If METHOD=manual is specified then the manual probing tool is activated - see the MANUAL_PROBE command above for details on the additional commands available while this tool is active. The optional HORIZONTAL_MOVE_Z value overrides the horizontal_move_z option specified in the config file. If ADAPTIVE=1 is specified then the objects defined by the Gcode file being printed will be used to define the probed area. The optional ADAPTIVE_MARGIN value overrides the adaptive_margin option specified in the config file.

BED_MESH_OUTPUT

BED_MESH_OUTPUT PGP=[<0:1>]: This command outputs the current probed z values and current mesh values to the terminal. If PGP=1 is specified the X, Y coordinates generated by bed_mesh, along with their associated indices, will be output to the terminal.

BED_MESH_MAP

BED_MESH_MAP: Like to BED_MESH_OUTPUT, this command prints the current state of the mesh to the terminal. Instead of printing the values in a human readable format, the state is serialized in json format. This allows octoprint plugins to easily capture the data and generate height maps approximating the bed's surface.

BED_MESH_CLEAR

BED_MESH_CLEAR: This command clears the mesh and removes all z adjustment. It is recommended to put this in your end-gcode.

BED_MESH_PROFILE

BED_MESH_PROFILE LOAD=<name> SAVE=<name> REMOVE=<name>: This command provides profile management for mesh state. LOAD will restore the mesh state from the profile matching the supplied name. SAVE will save the current mesh state to a profile matching the supplied name. Remove will delete the profile matching the supplied name from persistent memory. Note that after SAVE or REMOVE operations have been run the SAVE_CONFIG gcode must be run to make the changes to persistent memory permanent.

BED_MESH_OFFSET

BED_MESH_OFFSET [X=<value>] [Y=<value>] [ZFADE=<value]: Applies X, Y, and/or ZFADE offsets to the mesh lookup. This is useful for printers with independent extruders, as an offset is necessary to produce correct Z adjustment after a tool change. Note that a ZFADE offset does not apply additional z-adjustment directly, it is used to correct the fade calculation when a gcode offset has been applied to the Z axis.

[bed_screws]

The following commands are available when the bed_screws config section is enabled (also see the manual level guide).

BED_SCREWS_ADJUST

BED_SCREWS_ADJUST: This command will invoke the bed screws adjustment tool. It will command the nozzle to different locations (as defined in the config file) and allow one to make adjustments to the bed screws so that the bed is a constant distance from the nozzle.

[bed_tilt]

The following commands are available when the bed_tilt config section is enabled.

BED_TILT_CALIBRATE

BED_TILT_CALIBRATE [METHOD=manual] [HORIZONTAL_MOVE_Z=<value>] [<probe_parameter>=<value>]: This command will probe the points specified in the config and then recommend updated x and y tilt adjustments. See the PROBE command for details on the optional probe parameters. If METHOD=manual is specified then the manual probing tool is activated - see the MANUAL_PROBE command above for details on the additional commands available while this tool is active. The optional HORIZONTAL_MOVE_Z value overrides the horizontal_move_z option specified in the config file.

[belay]

The following commands are available when a belay config section is enabled.

QUERY_BELAY

QUERY_BELAY BELAY=<config_name>: Queries the state of the belay specified by BELAY.

BELAY_SET_MULTIPLIER

BELAY_SET_MULTIPLIER BELAY=<config_name> [HIGH=<multiplier_high>] [LOW=<multiplier_low>]: Sets the values of multiplier_high and/or multiplier_low for the belay specified by BELAY, overriding their values from the corresponding belay config section. Values set by this command will not persist across restarts.

BELAY_SET_STEPPER

BELAY_SET_STEPPER BELAY=<config_name> STEPPER=<extruder_stepper_name>: Selects the extruder_stepper whose multiplier will be controlled by the belay specified by BELAY. The multiplier for the previous stepper will be reset back to 1 before switching to the new stepper. Stepper selections made by this command will not persist across restarts. This command is only available if extruder_type is set to 'extruder_stepper' in the corresponding belay config section.

[bltouch]

The following command is available when a bltouch config section is enabled (also see the BL-Touch guide).

BLTOUCH_DEBUG

BLTOUCH_DEBUG COMMAND=<command>: This sends a command to the BLTouch. It may be useful for debugging. Available commands are: pin_down, touch_mode, pin_up, self_test, reset. A BL-Touch V3.0 or V3.1 may also support set_5V_output_mode, set_OD_output_mode, output_mode_store commands.

BLTOUCH_STORE

BLTOUCH_STORE MODE=<output_mode>: This stores an output mode in the EEPROM of a BLTouch V3.1 Available output_modes are: 5V, OD

[configfile]

The configfile module is automatically loaded.

SAVE_CONFIG

SAVE_CONFIG [RESTART=0|1]: This command will overwrite the main printer config file and restart the host software. This command is used in conjunction with other calibration commands to store the results of calibration tests. If RESTART is set to 0, no restart will be performed !!USE WITH CAUTION!!.

[delayed_gcode]

The following command is enabled if a delayed_gcode config section has been enabled (also see the template guide).

UPDATE_DELAYED_GCODE

UPDATE_DELAYED_GCODE [ID=<name>] [DURATION=<seconds>]: Updates the delay duration for the identified [delayed_gcode] and starts the timer for gcode execution. A value of 0 will cancel a pending delayed gcode from executing.

[delta_calibrate]

The following commands are available when the delta_calibrate config section is enabled (also see the delta calibrate guide).

DELTA_CALIBRATE

DELTA_CALIBRATE [METHOD=manual] [HORIZONTAL_MOVE_Z=<value>] [<probe_parameter>=<value>]: This command will probe seven points on the bed and recommend updated endstop positions, tower angles, and radius. See the PROBE command for details on the optional probe parameters. If METHOD=manual is specified then the manual probing tool is activated - see the MANUAL_PROBE command above for details on the additional commands available while this tool is active. The optional HORIZONTAL_MOVE_Z value overrides the horizontal_move_z option specified in the config file.

DELTA_ANALYZE

DELTA_ANALYZE: This command is used during enhanced delta calibration. See Delta Calibrate for details.

[display]

The following command is available when a display config section is enabled.

SET_DISPLAY_GROUP

SET_DISPLAY_GROUP [DISPLAY=<display>] GROUP=<group>: Set the active display group of an lcd display. This allows to define multiple display data groups in the config, e.g. [display_data <group> <elementname>] and switch between them using this extended gcode command. If DISPLAY is not specified it defaults to "display" (the primary display).

[display_status]

The display_status module is automatically loaded if a display config section is enabled. It provides the following standard G-Code commands:

• Display Message: M117 <message>
• Set build percentage: M73 P<percent>

Also provided is the following extended G-Code command:

• SET_DISPLAY_TEXT MSG=<message>: Performs the equivalent of M117, setting the supplied MSG as the current display message. If MSG is omitted the display will be cleared.

[dockable_probe]

In addition to the normal commands available for a [probe], the following commands are available when a dockable_probe config section is enabled (also see the Dockable Probe guide):

• ATTACH_PROBE: Move to dock and attach probe to the toolhead, the toolhead will return to its previous position after attaching.
• DETACH_PROBE: Move to dock and detach probe from the toolhead, the toolhead will return to its previous position after detaching.
• QUERY_DOCKABLE_PROBE: Respond with current probe state. This is useful for verifying configuration settings are working as intended.
• SET_DOCKABLE_PROBE AUTO_ATTACH_DETACH=0|1: Enable/Disable the automatic attaching/detaching of the probe during actions that require the probe.
• MOVE_TO_APPROACH_PROBE: Move to approach the probe dock.
• MOVE_TO_DOCK_PROBE: Move to the probe dock (this should trigger the probe to attach).
• MOVE_TO_EXTRACT_PROBE: Move to leave the dock with the probe attached.
• MOVE_TO_INSERT_PROBE: Move to insert position near the dock with the probe attached.
• MOVE_TO_DETACH_PROBE: Move away from the dock to disconnect the probe from the toolhead.
• MOVE_AVOIDING_DOCK [X=<value>] [Y=<value>] [SPEED=<value>]: Move to the defined point (absolute coordinates) avoiding the safe dock area

[dual_carriage]

The following command is available when the dual_carriage config section is enabled.

SET_DUAL_CARRIAGE

SET_DUAL_CARRIAGE CARRIAGE=[0|1] [MODE=[PRIMARY|COPY|MIRROR]]: This command will change the mode of the specified carriage. If no MODE is provided it defaults to PRIMARY. Setting the mode to PRIMARY deactivates the other carriage and makes the specified carriage execute subsequent G-Code commands as-is. COPY and MIRROR modes are supported only for CARRIAGE=1. When set to either of these modes, carriage 1 will then track the subsequent moves of the carriage 0 and either copy relative movements of it (in COPY mode) or execute them in the opposite (mirror) direction (in MIRROR mode).

SAVE_DUAL_CARRIAGE_STATE

SAVE_DUAL_CARRIAGE_STATE [NAME=<state_name>]: Save the current positions of the dual carriages and their modes. Saving and restoring DUAL_CARRIAGE state can be useful in scripts and macros, as well as in homing routine overrides. If NAME is provided it allows one to name the saved state to the given string. If NAME is not provided it defaults to "default".

RESTORE_DUAL_CARRIAGE_STATE

RESTORE_DUAL_CARRIAGE_STATE [NAME=<state_name>] [MOVE=[0|1] [MOVE_SPEED=<speed>]]: Restore the previously saved positions of the dual carriages and their modes, unless "MOVE=0" is specified, in which case only the saved modes will be restored, but not the positions of the carriages. If positions are being restored and "MOVE_SPEED" is specified, then the toolhead moves will be performed with the given speed (in mm/s); otherwise the toolhead move will use the rail homing speed. Note that the carriages restore their positions only over their own axis, which may be necessary to correctly restore COPY and MIRROR mode of the dual carraige.

[endstop_phase]

The following commands are available when an endstop_phase config section is enabled (also see the endstop phase guide).

ENDSTOP_PHASE_CALIBRATE

ENDSTOP_PHASE_CALIBRATE [STEPPER=<config_name>]: If no STEPPER parameter is provided then this command will reports statistics on endstop stepper phases during past homing operations. When a STEPPER parameter is provided it arranges for the given endstop phase setting to be written to the config file (in conjunction with the SAVE_CONFIG command).

[exclude_object]

The following commands are available when an exclude_object config section is enabled (also see the exclude object guide):

EXCLUDE_OBJECT

EXCLUDE_OBJECT [NAME=object_name] [CURRENT=1] [RESET=1]: With no parameters, this will return a list of all currently excluded objects.

When the NAME parameter is given, the named object will be excluded from printing.

When the CURRENT parameter is given, the current object will be excluded from printing.

When the RESET parameter is given, the list of excluded objects will be cleared. Additionally including NAME will only reset the named object. This can cause print failures, if layers were already skipped.

EXCLUDE_OBJECT_DEFINE

EXCLUDE_OBJECT_DEFINE [NAME=object_name [CENTER=X,Y] [POLYGON=[[x,y],...]] [RESET=1] [JSON=1]: Provides a summary of an object in the file.

With no parameters provided, this will list the defined objects known to Klipper. Returns a list of strings, unless the JSON parameter is given, when it will return object details in json format.

When the NAME parameter is included, this defines an object to be excluded.

• NAME: This parameter is required. It is the identifier used by other commands in this module.
• CENTER: An X,Y coordinate for the object.
• POLYGON: An array of X,Y coordinates that provide an outline for the object.

When the RESET parameter is provided, all defined objects will be cleared, and the [exclude_object] module will be reset.

EXCLUDE_OBJECT_START

EXCLUDE_OBJECT_START NAME=object_name: This command takes a NAME parameter and denotes the start of the gcode for an object on the current layer.

EXCLUDE_OBJECT_END

EXCLUDE_OBJECT_END [NAME=object_name]: Denotes the end of the object's gcode for the layer. It is paired with EXCLUDE_OBJECT_START. A NAME parameter is optional, and will only warn when the provided name does not match the current object.

[extruder]

The following commands are available if an extruder config section is enabled:

ACTIVATE_EXTRUDER

ACTIVATE_EXTRUDER EXTRUDER=<config_name>: In a printer with multiple extruder config sections, this command changes the active hotend.

SET_PRESSURE_ADVANCE

SET_PRESSURE_ADVANCE [EXTRUDER=<config_name>] [ADVANCE=<pressure_advance>] [SMOOTH_TIME=<pressure_advance_smooth_time>]: Set pressure advance parameters of an extruder stepper (as defined in an extruder or extruder_stepper config section). If EXTRUDER is not specified, it defaults to the stepper defined in the active hotend.

SET_EXTRUDER_ROTATION_DISTANCE

SET_EXTRUDER_ROTATION_DISTANCE EXTRUDER=<config_name> [DISTANCE=<distance>]: Set a new value for the provided extruder stepper's "rotation distance" (as defined in an extruder or extruder_stepper config section). If the rotation distance is a negative number then the stepper motion will be inverted (relative to the stepper direction specified in the config file). Changed settings are not retained on Klipper reset. Use with caution as small changes can result in excessive pressure between extruder and hotend. Do proper calibration with filament before use. If 'DISTANCE' value is not provided then this command will return the current rotation distance.

SYNC_EXTRUDER_MOTION

SYNC_EXTRUDER_MOTION EXTRUDER=<name> MOTION_QUEUE=<name>: This command will cause the stepper specified by EXTRUDER (as defined in an extruder or extruder_stepper config section) to become synchronized to the movement of an extruder specified by MOTION_QUEUE (as defined in an extruder config section). If MOTION_QUEUE is an empty string then the stepper will be desynchronized from all extruder movement.

[heated_fan]

The following command is available when a heated_fan is enabled.

SET_HEATED_FAN_TARGET

SET_HEATED_FAN_TARGET TARGET=<temperature>: Override the heater_temp setting in the heated_fan config section until Klipper is restarted. Useful for slicers to set different heated fan temperatures at different layers.

[fan_generic]

The following command is available when a fan_generic config section is enabled.

SET_FAN_SPEED

SET_FAN_SPEED FAN=config_name SPEED=<speed> This command sets the speed of a fan. "speed" must be between 0.0 and 1.0.

[filament_switch_sensor]

The following command is available when a filament_switch_sensor or filament_motion_sensor config section is enabled.

QUERY_FILAMENT_SENSOR

QUERY_FILAMENT_SENSOR SENSOR=<sensor_name>: Queries the current status of the filament sensor. The data displayed on the terminal will depend on the sensor type defined in the configuration.

SET_FILAMENT_SENSOR

For filament_switch_sensor:

SET_FILAMENT_SENSOR SENSOR=<sensor_name> [ENABLE=0|1] [RESET=0|1] [RUNOUT_DISTANCE=<mm>] [SMART=0|1] [ALWAYS_FIRE_EVENTS=0|1] [CHECK_ON_PRINT_START=0|1]: Sets values for the filament sensor. If all parameters are omitted, the current stats will be reported.
ENABLE sets the filament sensor on/off. If ENABLE is set to 0, the filament sensor will be disabled, if set to 1 it is enabled. If the state of the sensor changes, a reset will be triggered.
RESET removes all pending runout_gcodes and pauses and force a reevaluation of the sensor state.
RUNOUT_DISTANCE sets the runout_distance.
SMART sets the smart parameter.
ALWAYS_FIRE_EVENTS sets the always_fire_events parameter, if set to true, a reset of the sensor will be triggered.
CHECK_ON_PRINT_START sets the check_on_print_start parameter.

For filament_motion_sensor:

SET_FILAMENT_SENSOR SENSOR=<sensor_name> [ENABLE=0|1] [RESET=0|1] [DETECTION_LENGTH=<mm>] [SMART=0|1] [ALWAYS_FIRE_EVENTS=0|1]: Sets values for the filament sensor. If all parameters are omitted, the current stats will be reported.
ENABLE sets the filament sensor on/off. If ENABLE is set to 0, the filament sensor will be disabled, if set to 1 it is enabled. If the sensor was previously disabled and gets enabled, a reset will be triggered.
RESET resets the state of the sensor and sets it to filament detected.
DETECTION_LENGTH sets the detection_length, if the new detection length is different from the old one, a reset will be triggered.
SMART sets the smart parameter.
ALWAYS_FIRE_EVENTS sets the always_fire_events parameter, no reset will be triggered.

[firmware_retraction]

The following standard G-Code commands are available when the firmware_retraction config section is enabled. These commands allow utilizing the firmware retraction feature available in many slicers. Retraction is a strategy to reduce stringing during travel moves (non-extrusion) from one part of the print to another. Note that pressure advance should be properly configured before retraction parameters are tuned to ensure optimal results.

• G10: Retracts the filament using the currently configured parameters. If z_hop_height is set to a value greater zero, besides retracting the filament, the nozzle is lifted by set value.
• G11: Unretracts the filament using the currently configured parameters. If z_hop_height is set to a value greater zero, besides unretracting the filament, the nozzle is lowered back on the print with a vertical movement.

The following additional commands are also available.

SET_RETRACTION

SET_RETRACTION [RETRACT_LENGTH=<mm>] [RETRACT_SPEED=<mm/s>] [UNRETRACT_EXTRA_LENGTH=<mm>] [UNRETRACT_SPEED=<mm/s>] [Z_HOP_HEIGHT=<mm>]: Adjust the parameters used by firmware retraction. RETRACT_LENGTH determines the length of filament to retract (the minimum as well as standard value is 0 mm). RETRACT_SPEED determines the speed of the filament retraction move (the minimum value is 1 mm/s, the standard value is 20 mm/s). This value is typically set relatively high (>40 mm/s), except for soft and/or oozy filaments like TPU and PETG (20 to 30 mm/s). UNRETRACT_SPEED sets the speed of the filament unretract move (the minimum value is 1 mm/s, the standard value is 10 mm/s). This parameter is not particularly critical, although often lower than RETRACT_SPEED. UNRETRACT_EXTRA_LENGTH allows to add a small amount of length to the filament unretract move to prime the nozzle or to subtract a small amount of length from the filament unretract move to reduce blobbing at seams (the minimum value is -1 mm (2.41 mm3 volume for 1.75 mm filament), the standard value is 0 mm). Z_HOP_HEIGHT determines the vertical height by which the nozzle is lifted from the print to prevent collisions with the print during travel moves (the minimum value is 0 mm, the standard value is 0 mm, which disables Z-Hop moves). SET_RETRACTION is commonly set as part of slicer per-filament configuration, as different filaments require different parameter settings. The command can be issued at runtime.

GET_RETRACTION

GET_RETRACTION: Queries the current parameters used by the firmware retraction module as well as the retract state. RETRACT_LENGTH, RETRACT_SPEED, UNRETRACT_EXTRA_LENGTH, UNRETRACT_SPEED, Z_HOP_HEIGHT and RETRACTED (True, if retracted) are displayed on the terminal.

CLEAR_RETRACTION

CLEAR_RETRACTION: Clears the current retract state without extruder or motion system movement. All flags related to the retract state are reset to False and all changes to retraction parameters made via previous SET_RETRACTION commands are reset to config values. NOTE: The Module contains a lot of redundancy for safety to prevent undesired behavior. When printing from virtual SD Card, the printer state is monitored and retraction state is cleared if a print is started, canceled or finished or if a virtual SD card file is reset. When printing via GCode streaming (e.g. using OctoPrint), the retract state is cleared when the steppers are disabled (M84, typically part of end gcode and standard behavior of OctoPrint if a print is canceled) or the printer is homed (G28, typically part of start gcode). Hence, upon ending or canceling a print as well as starting a new print via GCode streaming or virtual SD card, the printer should always be in unretracted state. Nevertheless, it is recommended to add CLEAR_RETRACTION to your start and end gcode to make sure the retract state is reset before and after each print. If a print is finished or canceled while retracted and the retract state is not cleared, either via CLEAR_RETRACTION without filament or motion system movement or G11, the nozzle will stay above the requested z coordinate by the set z_hop_height.

[force_move]

The force_move module is automatically loaded, however some commands require setting enable_force_move in the printer config.

STEPPER_BUZZ

STEPPER_BUZZ STEPPER=<config_name>: Move the given stepper forward one mm and then backward one mm, repeated 10 times. This is a diagnostic tool to help verify stepper connectivity.

FORCE_MOVE

FORCE_MOVE STEPPER=<config_name> DISTANCE=<value> VELOCITY=<value> [ACCEL=<value>]: This command will forcibly move the given stepper the given distance (in mm) at the given constant velocity (in mm/s). If ACCEL is specified and is greater than zero, then the given acceleration (in mm/s^2) will be used; otherwise no acceleration is performed. No boundary checks are performed; no kinematic updates are made; other parallel steppers on an axis will not be moved. Use caution as an incorrect command could cause damage! Using this command will almost certainly place the low-level kinematics in an incorrect state; issue a G28 afterwards to reset the kinematics. This command is intended for low-level diagnostics and debugging.

SET_KINEMATIC_POSITION

SET_KINEMATIC_POSITION [X=<value>] [Y=<value>] [Z=<value>]: Force the low-level kinematic code to believe the toolhead is at the given cartesian position. This is a diagnostic and debugging command; use SET_GCODE_OFFSET and/or G92 for regular axis transformations. If an axis is not specified then it will default to the position that the head was last commanded to. Setting an incorrect or invalid position may lead to internal software errors. This command may invalidate future boundary checks; issue a G28 afterwards to reset the kinematics.

[gcode]

The gcode module is automatically loaded.

RESTART

RESTART: This will cause the host software to reload its config and perform an internal reset. This command will not clear error state from the micro-controller (see FIRMWARE_RESTART) nor will it load new software (see the FAQ).

FIRMWARE_RESTART

FIRMWARE_RESTART: This is similar to a RESTART command, but it also clears any error state from the micro-controller.

HEATER_INTERRUPT

HEATER_INTERRUPT: Interrupts a TEMPERATURE_WAIT command.

STATUS

STATUS: Report the Klipper host software status.

HELP

HELP: Report the list of available extended G-Code commands.

[gcode_arcs]

The following standard G-Code commands are available if a gcode_arcs config section is enabled:

• Arc Move Clockwise (G2), Arc Move Counter-clockwise (G3): G2|G3 [X<pos>] [Y<pos>] [Z<pos>] [E<pos>] [F<speed>] I<value> J<value>|I<value> K<value>|J<value> K<value>
• Arc Plane Select: G17 (XY plane), G18 (XZ plane), G19 (YZ plane)

[gcode_macro]

The following command is available when a gcode_macro config section is enabled (also see the command templates guide).

SET_GCODE_VARIABLE

SET_GCODE_VARIABLE MACRO=<macro_name> VARIABLE=<name> VALUE=<value>: This command allows one to change the value of a gcode_macro variable at run-time. The provided VALUE is parsed as a Python literal.

RELOAD_GCODE_MACROS

RELOAD_GCODE_MACROS: This command reads the config files and reloads all previously loaded gcode templates. It does not load new [gcode_macro] objects or unload deleted ones. Variables modified with SET_GCODE_VARIABLE remain unaffected.

[gcode_move]

The gcode_move module is automatically loaded.

GET_POSITION

GET_POSITION: Return information on the current location of the toolhead. See the developer documentation of GET_POSITION output for more information.

SET_GCODE_OFFSET

SET_GCODE_OFFSET [X=<pos>|X_ADJUST=<adjust>] [Y=<pos>|Y_ADJUST=<adjust>] [Z=<pos>|Z_ADJUST=<adjust>] [MOVE=1 [MOVE_SPEED=<speed>]]: Set a positional offset to apply to future G-Code commands. This is commonly used to virtually change the Z bed offset or to set nozzle XY offsets when switching extruders. For example, if "SET_GCODE_OFFSET Z=0.2" is sent, then future G-Code moves will have 0.2mm added to their Z height. If the X_ADJUST style parameters are used, then the adjustment will be added to any existing offset (eg, "SET_GCODE_OFFSET Z=-0.2" followed by "SET_GCODE_OFFSET Z_ADJUST=0.3" would result in a total Z offset of 0.1). If "MOVE=1" is specified then a toolhead move will be issued to apply the given offset (otherwise the offset will take effect on the next absolute G-Code move that specifies the given axis). If "MOVE_SPEED" is specified then the toolhead move will be performed with the given speed (in mm/s); otherwise the toolhead move will use the last specified G-Code speed.

SAVE_GCODE_STATE

SAVE_GCODE_STATE [NAME=<state_name>]: Save the current g-code coordinate parsing state. Saving and restoring the g-code state is useful in scripts and macros. This command saves the current g-code absolute coordinate mode (G90/G91), absolute extrude mode (M82/M83), origin (G92), offset (SET_GCODE_OFFSET), speed override (M220), extruder override (M221), move speed, current XYZ position, and relative extruder "E" position. If NAME is provided it allows one to name the saved state to the given string. If NAME is not provided it defaults to "default".

RESTORE_GCODE_STATE

RESTORE_GCODE_STATE [NAME=<state_name>] [MOVE=1 [MOVE_SPEED=<speed>]]: Restore a state previously saved via SAVE_GCODE_STATE. If "MOVE=1" is specified then a toolhead move will be issued to move back to the previous XYZ position. If "MOVE_SPEED" is specified then the toolhead move will be performed with the given speed (in mm/s); otherwise the toolhead move will use the restored g-code speed.

[hall_filament_width_sensor]

The following commands are available when the tsl1401cl filament width sensor config section or hall filament width sensor config section is enabled (also see TSLl401CL Filament Width Sensor and Hall Filament Width Sensor):

QUERY_FILAMENT_WIDTH

QUERY_FILAMENT_WIDTH: Return the current measured filament width.

RESET_FILAMENT_WIDTH_SENSOR

RESET_FILAMENT_WIDTH_SENSOR: Clear all sensor readings. Helpful after filament change.

DISABLE_FILAMENT_WIDTH_SENSOR

DISABLE_FILAMENT_WIDTH_SENSOR: Turn off the filament width sensor and stop using it for flow control.

ENABLE_FILAMENT_WIDTH_SENSOR

ENABLE_FILAMENT_WIDTH_SENSOR: Turn on the filament width sensor and start using it for flow control.

QUERY_RAW_FILAMENT_WIDTH

QUERY_RAW_FILAMENT_WIDTH: Return the current ADC channel readings and RAW sensor value for calibration points.

ENABLE_FILAMENT_WIDTH_LOG

ENABLE_FILAMENT_WIDTH_LOG: Turn on diameter logging.

DISABLE_FILAMENT_WIDTH_LOG

DISABLE_FILAMENT_WIDTH_LOG: Turn off diameter logging.

[heaters]

The heaters module is automatically loaded if a heater is defined in the config file.

TURN_OFF_HEATERS

TURN_OFF_HEATERS: Turn off all heaters.

TEMPERATURE_WAIT

TEMPERATURE_WAIT SENSOR=<config_name> [MINIMUM=<target>] [MAXIMUM=<target>]: Wait until the given temperature sensor is at or above the supplied MINIMUM and/or at or below the supplied MAXIMUM.

SET_HEATER_TEMPERATURE

SET_HEATER_TEMPERATURE HEATER=<heater_name> [TARGET=<target_temperature>]: Sets the target temperature for a heater. If a target temperature is not supplied, the target is 0.

SET_SMOOTH_TIME

SET_SMOOTH_TIME HEATER=<heater_name> [SMOOTH_TIME=<smooth_time>] [SAVE_TO_PROFILE=0|1]: Sets the smooth_time of the specified heater. If SMOOTH_TIME is omitted, the smooth_time will be reset to the value from the config. If SAVE_TO_PROFILE is set to 1, the new value will be written to the current PID_PROFILE.

[idle_timeout]

The idle_timeout module is automatically loaded.

SET_IDLE_TIMEOUT

SET_IDLE_TIMEOUT [TIMEOUT=<timeout>]: Allows the user to set the idle timeout (in seconds).

[input_shaper]

The following command is enabled if an input_shaper config section has been enabled (also see the resonance compensation guide).

SET_INPUT_SHAPER

SET_INPUT_SHAPER [SHAPER_FREQ_X=<shaper_freq_x>] [SHAPER_FREQ_Y=<shaper_freq_y>] [DAMPING_RATIO_X=<damping_ratio_x>] [DAMPING_RATIO_Y=<damping_ratio_y>] [SHAPER_TYPE=<shaper>] [SHAPER_TYPE_X=<shaper_type_x>] [SHAPER_TYPE_Y=<shaper_type_y>]: Modify input shaper parameters. Note that SHAPER_TYPE parameter resets input shaper for both X and Y axes even if different shaper types have been configured in [input_shaper] section. SHAPER_TYPE cannot be used together with either of SHAPER_TYPE_X and SHAPER_TYPE_Y parameters. See config reference for more details on each of these parameters.

[manual_probe]

The manual_probe module is automatically loaded.

MANUAL_PROBE

MANUAL_PROBE [SPEED=<speed>]: Run a helper script useful for measuring the height of the nozzle at a given location. If SPEED is specified, it sets the speed of TESTZ commands (the default is 5mm/s). During a manual probe, the following additional commands are available:

• ACCEPT: This command accepts the current Z position and concludes the manual probing tool.
• ABORT: This command terminates the manual probing tool.
• TESTZ Z=<value>: This command moves the nozzle up or down by the amount specified in "value". For example, TESTZ Z=-.1 would move the nozzle down .1mm while TESTZ Z=.1 would move the nozzle up .1mm. The value may also be +, -, ++, or -- to move the nozzle up or down an amount relative to previous attempts.

Z_ENDSTOP_CALIBRATE

Z_ENDSTOP_CALIBRATE [SPEED=<speed>]: Run a helper script useful for calibrating a Z position_endstop config setting. See the MANUAL_PROBE command for details on the parameters and the additional commands available while the tool is active.

Z_OFFSET_APPLY_ENDSTOP

Z_OFFSET_APPLY_ENDSTOP: Take the current Z Gcode offset (aka, babystepping), and subtract it from the stepper_z endstop_position. This acts to take a frequently used babystepping value, and "make it permanent". Requires a SAVE_CONFIG to take effect.

[manual_stepper]

The following command is available when a manual_stepper config section is enabled.

MANUAL_STEPPER

MANUAL_STEPPER STEPPER=config_name [ENABLE=[0|1]] [SET_POSITION=<pos>] [SPEED=<speed>] [ACCEL=<accel>] [MOVE=<pos> [STOP_ON_ENDSTOP=[1|2|-1|-2]] [SYNC=0]]: This command will alter the state of the stepper. Use the ENABLE parameter to enable/disable the stepper. Use the SET_POSITION parameter to force the stepper to think it is at the given position. Use the MOVE parameter to request a movement to the given position. If SPEED and/or ACCEL is specified then the given values will be used instead of the defaults specified in the config file. If an ACCEL of zero is specified then no acceleration will be performed. If STOP_ON_ENDSTOP=1 is specified then the move will end early should the endstop report as triggered (use STOP_ON_ENDSTOP=2 to complete the move without error even if the endstop does not trigger, use -1 or -2 to stop when the endstop reports not triggered). Normally future G-Code commands will be scheduled to run after the stepper move completes, however if a manual stepper move uses SYNC=0 then future G-Code movement commands may run in parallel with the stepper movement.

[mcp4018]

The following command is available when a mcp4018 config section is enabled.

SET_DIGIPOT

SET_DIGIPOT DIGIPOT=config_name WIPER=<value>: This command will change the current value of the digipot. This value should typically be between 0.0 and 1.0, unless a 'scale' is defined in the config. When 'scale' is defined, then this value should be between 0.0 and 'scale'.

[led]

The following command is available when any of the led config sections are enabled.

SET_LED

SET_LED LED=<config_name> RED=<value> GREEN=<value> BLUE=<value> WHITE=<value> [INDEX=<index>] [TRANSMIT=0] [SYNC=1]: This sets the LED output. Each color <value> must be between 0.0 and 1.0. The WHITE option is only valid on RGBW LEDs. If the LED supports multiple chips in a daisy-chain then one may specify INDEX to alter the color of just the given chip (1 for the first chip, 2 for the second, etc.). If INDEX is not provided then all LEDs in the daisy-chain will be set to the provided color. If TRANSMIT=0 is specified then the color change will only be made on the next SET_LED command that does not specify TRANSMIT=0; this may be useful in combination with the INDEX parameter to batch multiple updates in a daisy-chain. By default, the SET_LED command will sync it's changes with other ongoing gcode commands. This can lead to undesirable behavior if LEDs are being set while the printer is not printing as it will reset the idle timeout. If careful timing is not needed, the optional SYNC=0 parameter can be specified to apply the changes without resetting the idle timeout.

SET_LED_TEMPLATE

SET_LED_TEMPLATE LED=<led_name> TEMPLATE=<template_name> [<param_x>=<literal>] [INDEX=<index>]: Assign a display_template to a given LED. For example, if one defined a [display_template my_led_template] config section then one could assign TEMPLATE=my_led_template here. The display_template should produce a comma separated string containing four floating point numbers corresponding to red, green, blue, and white color settings. The template will be continuously evaluated and the LED will be automatically set to the resulting colors. One may set display_template parameters to use during template evaluation (parameters will be parsed as Python literals). If INDEX is not specified then all chips in the LED's daisy-chain will be set to the template, otherwise only the chip with the given index will be updated. If TEMPLATE is an empty string then this command will clear any previous template assigned to the LED (one can then use SET_LED commands to manage the LED's color settings).

[output_pin]

The following command is available when an output_pin config section or pwm_tool config section is enabled.

SET_PIN

SET_PIN PIN=config_name VALUE=<value>: Set the pin to the given output VALUE. VALUE should be 0 or 1 for "digital" output pins. For PWM pins, set to a value between 0.0 and 1.0, or between 0.0 and scale if a scale is configured in the output_pin config section.

[palette2]

The following commands are available when the palette2 config section is enabled.

Palette prints work by embedding special OCodes (Omega Codes) in the GCode file:

• O1...O32: These codes are read from the GCode stream and processed by this module and passed to the Palette 2 device.

The following additional commands are also available.

PALETTE_CONNECT

PALETTE_CONNECT: This command initializes the connection with the Palette 2.

PALETTE_DISCONNECT

PALETTE_DISCONNECT: This command disconnects from the Palette 2.

PALETTE_CLEAR

PALETTE_CLEAR: This command instructs the Palette 2 to clear all of the input and output paths of filament.

PALETTE_CUT

PALETTE_CUT: This command instructs the Palette 2 to cut the filament currently loaded in the splice core.

PALETTE_SMART_LOAD

PALETTE_SMART_LOAD: This command start the smart load sequence on the Palette 2. Filament is loaded automatically by extruding it the distance calibrated on the device for the printer, and instructs the Palette 2 once the loading has been completed. This command is the same as pressing Smart Load directly on the Palette 2 screen after the filament load is complete.

[pid_calibrate]

The pid_calibrate module is automatically loaded if a heater is defined in the config file.

PID_CALIBRATE

PID_CALIBRATE HEATER=<config_name> TARGET=<temperature> [WRITE_FILE=1] [TOLERANCE=0.02]: Perform a PID calibration test. The specified heater will be enabled until the specified target temperature is reached, and then the heater will be turned off and on for several cycles. If the WRITE_FILE parameter is enabled, then the file /tmp/heattest.csv will be created with a log of all temperature samples taken during the test. TOLERANCE defaults to 0.02 if not passed in. The tighter the tolerance the better the calibration result will be, but how tight you can achieve depends on how clean your sensor readings are. low noise readings might allow 0.01, to be used, while noisy reading might require a value of 0.03 or higher.

SET_HEATER_PID

SET_HEATER_PID HEATER=<heater_name> KP=<kp> KI=<ki> KD=<kd>: Will allow one to manually change PID parameters of heaters without a reload of the firmware. HEATER takes the short name (so for heater_generic chamber you would only write chamber)

[pid_profile]

The PID_PROFILE module is automatically loaded if a heater is defined in the config file.

HEATER generally takes the short name (so for heater_generic chamber you would only write chamber)

PID_PROFILE

PID_PROFILE LOAD=<profile_name> HEATER=<heater_name> [DEFAULT=<profile_name>] [VERBOSE=<verbosity>] [KEEP_TARGET=0|1] [LOAD_CLEAN=0|1]: Loads the given PID_PROFILE for the specified heater. If DEFAULT is specified, the Profile specified in DEFAULT will be loaded when then given Profile for LOAD can't be found (like a getOrDefault method). If VERBOSE is set to LOW, minimal info will be written in console. If set to NONE, no console outputs will be given. If KEEP_TARGET is set to 1, the heater will keep it's target temperature, if set to 0, the target temperature will be set to 0. By default the target temperature of the heater will be set to 0 so the algorithm has time to settle in. If LOAD_CLEAN is set to 1, the profile would be loaded as if the printer just started up, if set to 0, the profile will retain previous heating information. By default the information will be kept to reduce overshoot, change this value if you encounter weird behaviour while switching profiles.

PID_PROFILE SAVE=<profile_name> HEATER=<heater_name>: Saves the currently loaded profile of the specified heater to the config under the given name.

PID_PROFILE REMOVE=<profile_name> HEATER=<heater_name>: Removes the given profile from the profiles List for the current session and config if SAVE_CONFIG is issued afterwards.

PID_PROFILE SET_VALUES=<profile_name> HEATER=<heater_name> TARGET=<target_temp> TOLERANCE=<tolerance> CONTROL=<control_type> KP=<kp> KI=<ki> KD=<kd> [RESET_TARGET=0|1] [LOAD_CLEAN=0|1]: Creates a new profile with the given PID values, CONTROL must either be pid or pid_v, TOLERANCE and TARGET must be specified to create a valid profile, though the values themselves don't matter. If KEEP_TARGET is set to 1, the heater will keep it's target temperature, if set to 0, the target temperature will be set to 0. By default the target temperature of the heater will be set to 0 so the algorithm has time to settle in. If LOAD_CLEAN is set to 1, the profile would be loaded as if the printer just started up, if set to 0, the profile will retain previous heating information. By default the information will be kept to reduce overshoot, change this value if you encounter weird behaviour while switching profiles.

PID_PROFILE GET_VALUES HEATER=<heater_name>: Outputs the values of the current loaded pid_profile of the given heater to the console.

[pause_resume]

The following commands are available when the pause_resume config section is enabled:

PAUSE

PAUSE: Pauses the current print. The current position is captured for restoration upon resume.

RESUME

RESUME [VELOCITY=<value>]: Resumes the print from a pause, first restoring the previously captured position. The VELOCITY parameter determines the speed at which the tool should return to the original captured position.

CLEAR_PAUSE

CLEAR_PAUSE: Clears the current paused state without resuming the print. This is useful if one decides to cancel a print after a PAUSE. It is recommended to add this to your start gcode to make sure the paused state is fresh for each print.

CANCEL_PRINT

CANCEL_PRINT: Cancels the current print.

[print_stats]

The print_stats module is automatically loaded.

SET_PRINT_STATS_INFO

SET_PRINT_STATS_INFO [TOTAL_LAYER=<total_layer_count>] [CURRENT_LAYER= <current_layer>]: Pass slicer info like layer act and total to Klipper. Add SET_PRINT_STATS_INFO [TOTAL_LAYER=<total_layer_count>] to your slicer start gcode section and SET_PRINT_STATS_INFO [CURRENT_LAYER= <current_layer>] at the layer change gcode section to pass layer information from your slicer to Klipper.

[probe]

The following commands are available when a probe config section or bltouch config section is enabled (also see the probe calibrate guide).

PROBE

PROBE [PROBE_SPEED=<mm/s>] [LIFT_SPEED=<mm/s>] [SAMPLES=<count>] [SAMPLE_RETRACT_DIST=<mm>] [SAMPLES_TOLERANCE=<mm>] [SAMPLES_TOLERANCE_RETRIES=<count>] [SAMPLES_RESULT=median|average]: Move the nozzle downwards until the probe triggers. If any of the optional parameters are provided they override their equivalent setting in the probe config section.

QUERY_PROBE

QUERY_PROBE: Report the current status of the probe ("triggered" or "open").

PROBE_ACCURACY

PROBE_ACCURACY [PROBE_SPEED=<mm/s>] [SAMPLES=<count>] [SAMPLE_RETRACT_DIST=<mm>]: Calculate the maximum, minimum, average, median, and standard deviation of multiple probe samples. By default, 10 SAMPLES are taken. Otherwise the optional parameters default to their equivalent setting in the probe config section.

PROBE_CALIBRATE

PROBE_CALIBRATE [SPEED=<speed>] [<probe_parameter>=<value>]: Run a helper script useful for calibrating the probe's z_offset. See the PROBE command for details on the optional probe parameters. See the MANUAL_PROBE command for details on the SPEED parameter and the additional commands available while the tool is active. Please note, the PROBE_CALIBRATE command uses the speed variable to move in XY direction as well as Z.

Z_OFFSET_APPLY_PROBE

Z_OFFSET_APPLY_PROBE: Take the current Z Gcode offset (aka, babystepping), and subtract if from the probe's z_offset. This acts to take a frequently used babystepping value, and "make it permanent". Requires a SAVE_CONFIG to take effect.

[probe_eddy_current]

The following commands are available when a probe_eddy_current config section is enabled.

PROBE_EDDY_CURRENT_CALIBRATE

PROBE_EDDY_CURRENT_CALIBRATE CHIP=<config_name>: This starts a tool that calibrates the sensor resonance frequencies to corresponding Z heights. The tool will take a couple of minutes to complete. After completion, use the SAVE_CONFIG command to store the results in the printer.cfg file.

LDC_CALIBRATE_DRIVE_CURRENT

LDC_CALIBRATE_DRIVE_CURRENT CHIP=<config_name> This tool will calibrate the ldc1612 DRIVE_CURRENT0 register. Prior to using this tool, move the sensor so that it is near the center of the bed and about 20mm above the bed surface. Run this command to determine an appropriate DRIVE_CURRENT for the sensor. After running this command use the SAVE_CONFIG command to store that new setting in the printer.cfg config file.

[pwm_cycle_time]

The following command is available when a pwm_cycle_time config section is enabled.

SET_PIN

SET_PIN PIN=config_name VALUE=<value> [CYCLE_TIME=<cycle_time>]: This command works similarly to output_pin SET_PIN commands. The command here supports setting an explicit cycle time using the CYCLE_TIME parameter (specified in seconds). Note that the CYCLE_TIME parameter is not stored between SET_PIN commands (any SET_PIN command without an explicit CYCLE_TIME parameter will use the cycle_time specified in the pwm_cycle_time config section).

[query_adc]

The query_adc module is automatically loaded.

QUERY_ADC

QUERY_ADC [NAME=<config_name>] [PULLUP=<value>]: Report the last analog value received for a configured analog pin. If NAME is not provided, the list of available adc names are reported. If PULLUP is provided (as a value in Ohms), the raw analog value along with the equivalent resistance given that pullup is reported.

[query_endstops]

The query_endstops module is automatically loaded. The following standard G-Code commands are currently available, but using them is not recommended:

• Get Endstop Status: M119 (Use QUERY_ENDSTOPS instead.)

QUERY_ENDSTOPS

QUERY_ENDSTOPS: Probe the axis endstops and report if they are "triggered" or in an "open" state. This command is typically used to verify that an endstop is working correctly.

[resonance_tester]

The following commands are available when a resonance_tester config section is enabled (also see the measuring resonances guide).

MEASURE_AXES_NOISE

MEASURE_AXES_NOISE: Measures and outputs the noise for all axes of all enabled accelerometer chips.

TEST_RESONANCES

TEST_RESONANCES AXIS=<axis> OUTPUT=<resonances,raw_data> [NAME=<name>] [FREQ_START=<min_freq>] [FREQ_END=<max_freq>] [HZ_PER_SEC=<hz_per_sec>] [CHIPS=<adxl345_chip_name>] [POINT=x,y,z] [ACCEL_PER_HZ=<accel_per_hz>] [INPUT_SHAPING=[<0:1>]]: Runs the resonance test in all configured probe points for the requested "axis" and measures the acceleration using the accelerometer chips configured for the respective axis. "axis" can either be X or Y, or specify an arbitrary direction as AXIS=dx,dy, where dx and dy are floating point numbers defining a direction vector (e.g. AXIS=X, AXIS=Y, or AXIS=1,-1 to define a diagonal direction). Note that AXIS=dx,dy and AXIS=-dx,-dy is equivalent. adxl345_chip_name can be one or more configured adxl345 chip,delimited with comma, for example CHIPS="adxl345, adxl345 rpi". Note that adxl345 can be omitted from named adxl345 chips. If POINT or ACCEL_PER_HZ are specified, they will override the corresponding fields configured in [resonance_tester]. If INPUT_SHAPING=0 or not set(default), disables input shaping for the resonance testing, because it is not valid to run the resonance testing with the input shaper enabled. OUTPUT parameter is a comma-separated list of which outputs will be written. If raw_data is requested, then the raw accelerometer data is written into a file or a series of files /tmp/raw_data_<axis>_[<chip_name>_][<point>_]<name>.csv with (<point>_ part of the name generated only if more than 1 probe point is configured or POINT is specified). If resonances is specified, the frequency response is calculated (across all probe points) and written into /tmp/resonances_<axis>_<name>.csv file. If unset, OUTPUT defaults to resonances, and NAME defaults to the current time in "YYYYMMDD_HHMMSS" format.

SHAPER_CALIBRATE

SHAPER_CALIBRATE [AXIS=<axis>] [NAME=<name>] [FREQ_START=<min_freq>] [FREQ_END=<max_freq>] [HZ_PER_SEC=<hz_per_sec>] [CHIPS=<adxl345_chip_name>] [MAX_SMOOTHING=<max_smoothing>]: Similarly to TEST_RESONANCES, runs the resonance test as configured, and tries to find the optimal parameters for the input shaper for the requested axis (or both X and Y axes if AXIS parameter is unset). If MAX_SMOOTHING is unset, its value is taken from [resonance_tester] section, with the default being unset. See the Max smoothing of the measuring resonances guide for more information on the use of this feature. The results of the tuning are printed to the console, and the frequency responses and the different input shapers values are written to a CSV file(s) /tmp/calibration_data_<axis>_<name>.csv. Unless specified, NAME defaults to the current time in "YYYYMMDD_HHMMSS" format. Note that the suggested input shaper parameters can be persisted in the config by issuing SAVE_CONFIG command, and if [input_shaper] was already enabled previously, these parameters take effect immediately.

[respond]

The following standard G-Code commands are available when the respond config section is enabled:

• M118 <message>: echo the message prepended with the configured default prefix (or echo: if no prefix is configured).

The following additional commands are also available.

RESPOND

• RESPOND MSG="<message>": echo the message prepended with the configured default prefix (or echo: if no prefix is configured).
• RESPOND TYPE=echo MSG="<message>": echo the message prepended with echo:.
• RESPOND TYPE=echo_no_space MSG="<message>": echo the message prepended with echo: without a space between prefix and message, helpful for compatibility with some octoprint plugins that expect very specific formatting.
• RESPOND TYPE=command MSG="<message>": echo the message prepended with //. OctoPrint can be configured to respond to these messages (e.g. RESPOND TYPE=command MSG=action:pause).
• RESPOND TYPE=error MSG="<message>": echo the message prepended with !!.
• RESPOND PREFIX=<prefix> MSG="<message>": echo the message prepended with <prefix>. (The PREFIX parameter will take priority over the TYPE parameter)

[save_variables]

The following command is enabled if a save_variables config section has been enabled.

SAVE_VARIABLE

SAVE_VARIABLE VARIABLE=<name> VALUE=<value>: Saves the variable to disk so that it can be used across restarts. All stored variables are loaded into the printer.save_variables.variables dict at startup and can be used in gcode macros. The provided VALUE is parsed as a Python literal.

[screws_tilt_adjust]

The following commands are available when the screws_tilt_adjust config section is enabled (also see the manual level guide).

SCREWS_TILT_CALCULATE

SCREWS_TILT_CALCULATE [DIRECTION=CW|CCW] [MAX_DEVIATION=<value>] [HORIZONTAL_MOVE_Z=<value>] [<probe_parameter>=<value>]: This command will invoke the bed screws adjustment tool. It will command the nozzle to different locations (as defined in the config file) probing the z height and calculate the number of knob turns to adjust the bed level. If DIRECTION is specified, the knob turns will all be in the same direction, clockwise (CW) or counterclockwise (CCW). See the PROBE command for details on the optional probe parameters. IMPORTANT: You MUST always do a G28 before using this command. If MAX_DEVIATION is specified, the command will raise a gcode error if any difference in the screw height relative to the base screw height is greater than the value provided. The optional HORIZONTAL_MOVE_Z value overrides the horizontal_move_z option specified in the config file.

[sdcard_loop]

When the sdcard_loop config section is enabled, the following extended commands are available.

SDCARD_LOOP_BEGIN

SDCARD_LOOP_BEGIN COUNT=<count>: Begin a looped section in the SD print. A count of 0 indicates that the section should be looped indefinitely.

SDCARD_LOOP_END

SDCARD_LOOP_END: End a looped section in the SD print.

SDCARD_LOOP_DESIST

SDCARD_LOOP_DESIST: Complete existing loops without further iterations.

[servo]

The following commands are available when a servo config section is enabled.

SET_SERVO

SET_SERVO SERVO=config_name [ANGLE=<degrees> | WIDTH=<seconds>]: Set the servo position to the given angle (in degrees) or pulse width (in seconds). Use WIDTH=0 to disable the servo output.

[skew_correction]

The following commands are available when the skew_correction config section is enabled (also see the Skew Correction guide).

SET_SKEW

SET_SKEW [XY=<ac_length,bd_length,ad_length>] [XZ=<ac,bd,ad>] [YZ=<ac,bd,ad>] [CLEAR=<0|1>]: Configures the [skew_correction] module with measurements (in mm) taken from a calibration print. One may enter measurements for any combination of planes, planes not entered will retain their current value. If CLEAR=1 is entered then all skew correction will be disabled.

GET_CURRENT_SKEW

GET_CURRENT_SKEW: Reports the current printer skew for each plane in both radians and degrees. The skew is calculated based on parameters provided via the SET_SKEW gcode.

CALC_MEASURED_SKEW

CALC_MEASURED_SKEW [AC=<ac_length>] [BD=<bd_length>] [AD=<ad_length>]: Calculates and reports the skew (in radians and degrees) based on a measured print. This can be useful for determining the printer's current skew after correction has been applied. It may also be useful before correction is applied to determine if skew correction is necessary. See Skew Correction for details on skew calibration objects and measurements.

SKEW_PROFILE

SKEW_PROFILE [LOAD=<name>] [SAVE=<name>] [REMOVE=<name>]: Profile management for skew_correction. LOAD will restore skew state from the profile matching the supplied name. SAVE will save the current skew state to a profile matching the supplied name. Remove will delete the profile matching the supplied name from persistent memory. Note that after SAVE or REMOVE operations have been run the SAVE_CONFIG gcode must be run to make the changes to persistent memory permanent.

⚠️ [smart_effector]

Several commands are available when a smart_effector config section is enabled. Be sure to check the official documentation for the Smart Effector on the Duet3D Wiki before changing the Smart Effector parameters. Also check the probe calibration guide.

SET_SMART_EFFECTOR

SET_SMART_EFFECTOR [SENSITIVITY=<sensitivity>] [ACCEL=<accel>] [RECOVERY_TIME=<time>]: Set the Smart Effector parameters. When SENSITIVITY is specified, the respective value is written to the SmartEffector EEPROM (requires control_pin to be provided). Acceptable <sensitivity> values are 0..255, the default is 50. Lower values require less nozzle contact force to trigger (but there is a higher risk of false triggering due to vibrations during probing), and higher values reduce false triggering (but require larger contact force to trigger). Since the sensitivity is written to EEPROM, it is preserved after the shutdown, and so it does not need to be configured on every printer startup. ACCEL and RECOVERY_TIME allow to override the corresponding parameters at run-time, see the config section of Smart Effector for more info on those parameters.

RESET_SMART_EFFECTOR

RESET_SMART_EFFECTOR: Resets Smart Effector sensitivity to its factory settings. Requires control_pin to be provided in the config section.

[stepper_enable]

The stepper_enable module is automatically loaded.

SET_STEPPER_ENABLE

SET_STEPPER_ENABLE STEPPER=<config_name> ENABLE=[0|1]: Enable or disable only the given stepper. This is a diagnostic and debugging tool and must be used with care. Disabling an axis motor does not reset the homing information. Manually moving a disabled stepper may cause the machine to operate the motor outside of safe limits. This can lead to damage to axis components, hot ends, and print surface.

[temperature_fan]

The following command is available when a temperature_fan config section is enabled.

SET_TEMPERATURE_FAN_TARGET

SET_TEMPERATURE_FAN_TARGET temperature_fan=<temperature_fan_name> [target=<target_temperature>] [min_speed=<min_speed>] [max_speed=<max_speed>]: Sets the target temperature for a temperature_fan. If a target is not supplied, it is set to the specified temperature in the config file. If speeds are not supplied, no change is applied.

[tmcXXXX]

The following commands are available when any of the tmcXXXX config sections are enabled.

DUMP_TMC

DUMP_TMC STEPPER=<name> [REGISTER=<name>]: This command will read all TMC driver registers and report their values. If a REGISTER is provided, only the specified register will be dumped.

INIT_TMC

INIT_TMC STEPPER=<name>: This command will initialize the TMC registers. Needed to re-enable the driver if power to the chip is turned off then back on.

SET_TMC_CURRENT

SET_TMC_CURRENT STEPPER=<name> CURRENT=<amps> HOLDCURRENT=<amps>: This will adjust the run and hold currents of the TMC driver. HOLDCURRENT is not applicable to tmc2660 drivers. When used on a driver which has the globalscaler field (tmc5160 and tmc2240), if StealthChop2 is used, the stepper must be held at standstill for >130ms so that the driver executes the AT#1 calibration.

SET_TMC_FIELD

SET_TMC_FIELD STEPPER=<name> FIELD=<field> VALUE=<value> VELOCITY=<value>: This will alter the value of the specified register field of the TMC driver. This command is intended for low-level diagnostics and debugging only because changing the fields during run-time can lead to undesired and potentially dangerous behavior of your printer. Permanent changes should be made using the printer configuration file instead. No sanity checks are performed for the given values. A VELOCITY can also be specified instead of a VALUE. This velocity is converted to the 20bit TSTEP based value representation. Only use the VELOCITY argument for fields that represent velocities.

[toolhead]

The toolhead module is automatically loaded.

SET_VELOCITY_LIMIT

SET_VELOCITY_LIMIT [VELOCITY=<value>] [ACCEL=<value>] [MINIMUM_CRUISE_RATIO=<value>] [SQUARE_CORNER_VELOCITY=<value>]: This command can alter the velocity limits that were specified in the printer config file. See the printer config section for a description of each parameter.

⚠️ SET_KINEMATICS_LIMIT

SET_KINEMATICS_LIMIT [<X,Y,Z>_ACCEL=<value>] [<X,Y,Z>_VELOCITY=<value>] [SCALE=<0:1>]: change the per-axis limits.

This command is only available when kinematics is set to either limited_cartesian or limited_corexy. The velocity argument is not available on CoreXY. With no arguments, this command responds with the movement direction with the most acceleration or velocity.

[trad_rack]

The following commands are available when the trad_rack config section is enabled.

TR_HOME

TR_HOME: Homes the selector.

TR_GO_TO_LANE

TR_GO_TO_LANE LANE=<lane index>: Moves the selector to the specified lane.

TR_LOAD_LANE

TR_LOAD_LANE LANE=<lane index> [RESET_SPEED=<0|1>]: Ensures filament is loaded into the module for the specified lane by prompting the user to insert filament, loading filament from the module into the selector, and retracting the filament back into the module. If RESET_SPEED is 1, the bowden move speed used for the specified LANE will be reset to spool_pull_speed from the trad_rack config section (see bowden speeds for details on how the bowden speed settings are used). If not specified, RESET_SPEED defaults to 1.

TR_LOAD_TOOLHEAD

TR_LOAD_TOOLHEAD LANE=<lane index>|TOOL=<tool index> [MIN_TEMP=<temperature>] [EXACT_TEMP=<temperature>] [BOWDEN_LENGTH=<mm>] [EXTRUDER_LOAD_LENGTH=<mm>] [HOTEND_LOAD_LENGTH=<mm>]: Loads filament from the specified lane or tool into the toolhead*. Either LANE or TOOL must be specified. If both are specified, then LANE takes precedence. If there is already an "active lane" because the toolhead has been loaded beforehand, it will be unloaded before loading the new filament. If MIN_TEMP is specified and it is higher than the extruder's current temperature, then the extruder will be heated to at least MIN_TEMP before unloading/loading; the current extruder temperature target may be used instead if it is higher than MIN_TEMP, and if not then tr_last_heater_target may be used. If EXACT_TEMP is specified, the extruder will be heated to EXACT_TEMP before unloading/loading, regardless of any other temperature setting. If any of the optional length parameters are specified, they override the corresponding settings in the trad_rack config section.

* see the Tool Mapping document for details on the difference between lanes and tools and how they relate to each other.

T0, T1, T2, etc.

T<tool index>: Equivalent to calling TR_LOAD_TOOLHEAD TOOL=<tool index>. All of the optional parameters accepted by the TR_LOAD_TOOLHEAD command can also be used with these commands.

TR_UNLOAD_TOOLHEAD

TR_UNLOAD_TOOLHEAD [MIN_TEMP=<temperature>] [EXACT_TEMP=<temperature>]: Unloads filament from the toolhead and back into its module. If MIN_TEMP is specified and it is higher than the extruder's current temperature, then the extruder will be heated to at least MIN_TEMP before unloading; the current extruder temperature target may be used instead if it is higher than MIN_TEMP, and if not then tr_last_heater_target may be used. If EXACT_TEMP is specified, the extruder will be heated to EXACT_TEMP before unloading/loading, regardless of any other temperature setting.

TR_SERVO_DOWN

TR_SERVO_DOWN [FORCE=<0|1>]: Moves the servo to bring the drive gear down. The selector must be moved to a valid lane before using this command, unless FORCE is 1. If not specified, FORCE defaults to 0. The FORCE parameter is unsafe for normal use and should only be used when the servo is not attached to Trad Rack's carriage.

TR_SERVO_UP

TR_SERVO_UP: Moves the servo to bring the drive gear up.

TR_SET_ACTIVE_LANE

TR_SET_ACTIVE_LANE LANE=<lane index>: Tells Trad Rack to assume the toolhead has been loaded with filament from the specified lane. The selector's position will also be inferred from this lane, and the selector motor will be enabled if it isn't already.

TR_RESET_ACTIVE_LANE

TR_RESET_ACTIVE_LANE: Tells Trad Rack to assume the toolhead has not been loaded.

TR_RESUME

TR_RESUME: Completes necessary actions for Trad Rack to recover (and/or checks that Trad Rack is ready to continue), then resumes the print if all of those actions complete successfully. For example, if the print was paused due to a failed toolchange, then this command would retry the toolchange and then resume the print if the toolchange completes successfully. You will be prompted to use this command if Trad Rack has paused the print and requires user interaction or confirmation before attempting to recover and resume.

TR_LOCATE_SELECTOR

TR_LOCATE_SELECTOR: Ensures the position of Trad Rack's selector is known so that it is ready for a print. If the user needs to take an action, they will be prompted to do so and the print will be paused (for example if the selector sensor is triggered but no active lane is set). The user_wait_time config option from the trad_rack config section determines how long Trad Rack will wait for user action before automatically unloading the toolhead and resuming. In addition, the save_active_lane config option determines whether this command can infer the "active lane" from a value saved before the last restart if the selector filament sensor is triggered but no active lane is currently set. It is recommended to call this command in the print start gcode.

TR_NEXT

TR_NEXT: You will be prompted to use this command if Trad Rack requires user confirmation before continuing an action.

TR_SYNC_TO_EXTRUDER

TR_SYNC_TO_EXTRUDER: Syncs Trad Rack's filament driver to the extruder during printing, as well as during any extrusion moves within toolhead loading or unloading that would normally involve only the extruder. See the Extruder syncing document for more details. If you want the filament driver to be synced to the extruder on every startup without having to call this command, you can set sync_to_extruder to True in the trad_rack config section.

TR_UNSYNC_FROM_EXTRUDER

TR_UNSYNC_FROM_EXTRUDER: Unsyncs Trad Rack's filament driver from the extruder during printing, as well as during any extrusion moves within toolhead loading or unloading that normally involve only the extruder. This is the default behavior unless you have set sync_to_extruder to True in the trad_rack config section.

TR_SERVO_TEST

TR_SERVO_TEST [ANGLE=<degrees>]: Moves the servo to the specified ANGLE relative to the down position. If ANGLE is not specified, the servo will be moved to the up position defined by servo_up_angle from the trad_rack config section. This command is meant for testing different servo angles in order to find the correct value for servo_up_angle.

TR_CALIBRATE_SELECTOR

TR_CALIBRATE_SELECTOR: Initiates the process of calibrating lane_spacing, as well as the min, endstop, and max positions of the selector motor. You will be guided through the selector calibration process via messages in the console.

TR_SET_HOTEND_LOAD_LENGTH

TR_SET_HOTEND_LOAD_LENGTH VALUE=<value>|ADJUST=<adjust>: Sets the value of hotend_load_length, overriding its value from the trad_rack config section. Does not persist across restarts. If the VALUE parameter is used, hotend_load_length will be set to the value passed in. If the ADJUST parameter is used, the adjustment will be added to the current value of hotend_load_length.

TR_DISCARD_BOWDEN_LENGTHS

TR_DISCARD_BOWDEN_LENGTHS [MODE=[ALL|LOAD|UNLOAD]]: Discards saved values for "bowden_load_length" and/or "bowden_unload_length" (see bowden lengths for details on how these settings are used). These settings will each be reset to the value of bowden_length from the trad_rack config section, and empty dictionaries will be saved for tr_calib_bowden_load_length and tr_calib_bowden_unload_length. "bowden_load_length" and tr_calib_bowden_load_length will be affected if MODE=LOAD is specified, "bowden_unload_length" and tr_calib_bowden_unload_length will be affected if MODE=UNLOAD is specified, and all 4 will be affected if MODE=ALL is specified. If not specified, MODE defaults to ALL.

TR_ASSIGN_LANE

TR_ASSIGN_LANE LANE=<lane index> TOOL=<tool index> [SET_DEFAULT=<0|1>]: Assigns the specified LANE to the specified TOOL. If SET_DEFAULT is 1, LANE will become the default lane for the tool. If not specified, SET_DEFAULT defaults to 0.

TR_SET_DEFAULT_LANE

TR_SET_DEFAULT_LANE LANE=<lane index> [TOOL=<tool index>]: If TOOL is specified, LANE will be set as the default lane for the tool. If TOOL is not specified, LANE will be set as the default lane for its currently-assigned tool.

TR_RESET_TOOL_MAP

TR_RESET_TOOL_MAP: Resets lane/tool mapping. Each tool will be mapped to a lane group consisting of a single lane with the same index as the tool.

TR_PRINT_TOOL_MAP

TR_PRINT_TOOL_MAP: Prints a table of the lane/tool mapping to the console, with rows corresponding to tools and columns corresponding to lanes.

TR_PRINT_TOOL_GROUPS

TR_PRINT_TOOL_GROUPS: Prints a list of lanes assigned to each tool to the console. If a tool has multiple lanes assigned to it, the default lane will be indicated.

[tuning_tower]

The tuning_tower module is automatically loaded.

TUNING_TOWER

TUNING_TOWER COMMAND=<command> PARAMETER=<name> START=<value> [SKIP=<value>] [FACTOR=<value> [BAND=<value>]] | [STEP_DELTA=<value> STEP_HEIGHT=<value>]: A tool for tuning a parameter on each Z height during a print. The tool will run the given COMMAND with the given PARAMETER assigned to a value that varies with Z according to a formula. Use FACTOR if you will use a ruler or calipers to measure the Z height of the optimum value, or STEP_DELTA and STEP_HEIGHT if the tuning tower model has bands of discrete values as is common with temperature towers. If SKIP=<value> is specified, the tuning process doesn't begin until Z height <value> is reached, and below that the value will be set to START; in this case, the z_height used in the formulas below is actually max(z - skip, 0). There are three possible combinations of options:

• FACTOR: The value changes at a rate of factor per millimeter. The formula used is: value = start + factor * z_height. You can plug the optimum Z height directly into the formula to determine the optimum parameter value.
• FACTOR and BAND: The value changes at an average rate of factor per millimeter, but in discrete bands where the adjustment will only be made every BAND millimeters of Z height. The formula used is: value = start + factor * ((floor(z_height / band) + .5) * band).
• STEP_DELTA and STEP_HEIGHT: The value changes by STEP_DELTA every STEP_HEIGHT millimeters. The formula used is: value = start + step_delta * floor(z_height / step_height). You can simply count bands or read tuning tower labels to determine the optimum value.

[virtual_sdcard]

Klipper supports the following standard G-Code commands if the virtual_sdcard config section is enabled:

• List SD card: M20
• Initialize SD card: M21
• Select SD file: M23 <filename>
• Start/resume SD print: M24
• Pause SD print: M25
• Set SD position: M26 S<offset>
• Report SD print status: M27

In addition, the following extended commands are available when the "virtual_sdcard" config section is enabled.

SDCARD_PRINT_FILE

SDCARD_PRINT_FILE FILENAME=<filename>: Load a file and start SD print.

SDCARD_RESET_FILE

SDCARD_RESET_FILE: Unload file and clear SD state.

[z_thermal_adjust]

The following commands are available when the z_thermal_adjust config section is enabled.

SET_Z_THERMAL_ADJUST

SET_Z_THERMAL_ADJUST [ENABLE=<0:1>] [TEMP_COEFF=<value>] [REF_TEMP=<value>]: Enable or disable the Z thermal adjustment with ENABLE. Disabling does not remove any adjustment already applied, but will freeze the current adjustment value - this prevents potentially unsafe downward Z movement. Re-enabling can potentially cause upward tool movement as the adjustment is updated and applied. TEMP_COEFF allows run-time tuning of the adjustment temperature coefficient (i.e. the TEMP_COEFF config parameter). TEMP_COEFF values are not saved to the config. REF_TEMP manually overrides the reference temperature typically set during homing (for use in e.g. non-standard homing routines) - will be reset automatically upon homing.

⚠️ [z_calibration]

The following commands are available when a z_calibration config section is enabled (also see the Z-Calibration guide):

• CALIBRATE_Z: This calibrates the current offset between the nozzle and the print surface.
• PROBE_Z_ACCURACY [PROBE_SPEED=<mm/s>] [LIFT_SPEED=<mm/s>] [SAMPLES=<count>] [SAMPLE_RETRACT_DIST=<mm>]: Calculate the maximum, minimum, average, median, and standard deviation of multiple probe samples. By default, 10 SAMPLES are taken. Otherwise the optional parameters default to their equivalent setting in the z_calibration or probe config section. Note that appropriate macros and/or configurations are needed to attach and detach a mag-probe for these commands!

[z_tilt]

The following commands are available when the z_tilt config section is enabled.

Z_TILT_ADJUST

Z_TILT_ADJUST [HORIZONTAL_MOVE_Z=<value>] [<probe_parameter>=<value>] [INCREASING_THRESHOLD=<value>]: This command will probe the points specified in the config and then make independent adjustments to each Z stepper to compensate for tilt. See the PROBE command for details on the optional probe parameters. The optional HORIZONTAL_MOVE_Z value overrides the horizontal_move_z option specified in the config file. INCREASING_THRESHOLD sets the increasing_threshold parameter of z_tilt. The follwing commands are availabe when the parameter "extra_points" is configured in the z_tilt_ng section:

• Z_TILT_CALIBRATE [AVGLEN=<value>]: This command does multiple probe runs similar to Z_TILT_ADJUST, but with the additional points given in "extra_points". This leads to a more balanced bed adjustment in case the bed is not perfectly flat. The command averages the error over multiple runs and continues until the error does not decrease any further. It calculates values for the z_offsets config parameter, which will in turn be used by T_TILT_ADJUST to achieve the same accuracy without the extra points.
• Z_TILT_AUTODETECT [AVGLEN=<value>] [DELTA=<value>]: This command determines the positions of the pivot points for each stepper motor. It works silimar to Z_TILT_CALIBRATE, but it probes the bed with intential small misalgnments of the steppers. The amount of misalignment can be configured with the DELTA paramter. It iterates until the calculated positions cannot be improved any further. This is can be lengthy procedure. IMPORTANT: For the Z_TILT_CALIBRATE and Z_TILT_AUTODETECT commands to work the numpy package has to be installed via ~/klippy-env/bin/pip install -v numpy.