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New Backup on boot - 16/04/25 - 14:15:33

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pi committed 2025-04-16 14:15:36 +01:00
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.gitignore
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.env
secrets.conf
*.swp
*.tmp
printer-[0-9]*_[0-9]*.cfg
*.bak
*.bkp
*.csv
*.zip
README.md
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# Klipper-Backup 💾
Klipper backup script for manual or automated GitHub backups
This backup is provided by [Klipper-Backup](https://github.com/Staubgeborener/klipper-backup).
printer_data/config/BTT/btt_ebb2209usb.cfg
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# This file contains common pin mappings for the BIGTREETECH EBB USB board.
# To use this config, the firmware should be compiled for the RP2040 with "USB".
# The "EBB Can" micro-controller will be used to control the components on the nozzle.
# See docs/Config_Reference.md for a description of parameters.
[mcu EBB]
serial: /dev/serial/by-id/usb-Klipper_rp2040_5044340310A5581C-if00
[temperature_sensor EBB_NTC]
sensor_type: Generic 3950
sensor_pin: EBB:gpio27
[lis2dw]
cs_pin: EBB:gpio1
spi_bus: spi0a
axes_map: z,x,y
[resonance_tester]
probe_points: 175, 175, 20
accel_chip: lis2dw
[extruder]
step_pin: EBB:gpio18
dir_pin: !EBB:gpio19
enable_pin: !EBB:gpio17
gear_ratio: 50:10
microsteps: 16
rotation_distance: 22.6789511
full_steps_per_rotation: 200
nozzle_diameter: 0.600
filament_diameter: 1.750
heater_pin: EBB:gpio7
pullup_resistor: 2200 # 2.2K
sensor_type: PT1000
sensor_pin: EBB:gpio26
max_extrude_cross_section: 5
min_temp: 0
max_temp: 350
#sensor_type: MAX31865
#sensor_pin: EBB:gpio9
#spi_bus: spi1a
#rtd_nominal_r: 1000
#rtd_reference_r: 4300
#rtd_num_of_wires: 2
#rtd_use_50Hz_filter: True
[tmc2209 extruder]
uart_pin: EBB:gpio20
run_current: 0.650
stealthchop_threshold: 999999
#[fan] # fan1
#pin: EBB:gpio14
[heater_fan hotend_fan] # fan2
pin: EBB:gpio14
heater: extruder
heater_temp: 50.0
#[fan_generic fan3]
#pin: EBB:gpio5
#[fan_generic 4W_FAN]
#pin: EBB:gpio16
#tachometer_pin: EBB:gpio12
#tachometer_ppr: 1
[filament_switch_sensor toolhead_switch_sensor]
switch_pin: EBB:gpio13
pause_on_runout: True
runout_gcode:
PAUSE # [pause_resume] is required in printer.cfg
M117 Toolhead Filament switch runout
insert_gcode:
M117 Toolhead Filament switch inserted
printer_data/config/BTT/btt_eddy.cfg
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[mcu eddy]
serial: /dev/serial/by-id/usb-Klipper_rp2040_504450612086291C-if00 # This is the serial address of your eddy probe. This can be found by using the terminal of your klipper instance (typically through SSH) and using the command ```ls /dev/serial/by-id```
restart_method: command
[probe_eddy_ng btt_eddy]
sensor_type: btt_eddy
i2c_mcu: eddy
i2c_bus: i2c0f
x_offset: 0 # INSERT VALUE FOR YOUR PROBE POSITION
y_offset: 36 # INSERT VALUE FOR YOUR PROBE POSITION
reg_drive_current: 15
tap_target_z: -0.6
tap_start_z: 3
tap_mode: butter
tap_threshold: 135
tap_samples: 5
tap_max_samples: 10
tap_samples_stddev: 0.025
tap_speed: 2
tap_adjust_z: -0.225
[temperature_sensor btt_eddy_mcu]
sensor_type: temperature_mcu
sensor_mcu: eddy
min_temp: 10
max_temp: 100
[temperature_sensor btt_eddy]
sensor_type: Generic 3950
sensor_pin: eddy:gpio26
printer_data/config/BTT/btt_runoutv2.cfg
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[filament_switch_sensor switch_sensor]
switch_pin: ^PG10
pause_on_runout: True
runout_gcode:
PAUSE # [pause_resume] is required in printer.cfg
M117 Filament switch runout
insert_gcode:
M117 Filament switch inserted
[filament_motion_sensor encoder_sensor]
switch_pin: ^PG11
detection_length: 5.0 #2.88 minimum
extruder: extruder
pause_on_runout: True
runout_gcode:
PAUSE # [pause_resume] is required in printer.cfg
M117 Filament encoder runout
insert_gcode:
M117 Filament encoder inserted
printer_data/config/CUSTOM/bed_mesh.cfg
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[bed_mesh]
mesh_min = 10, 40
mesh_max = 340, 335
speed = 200
horizontal_move_z = 2
probe_count = 10,10
algorithm = bicubic
##[(7x7)-1] / 2 = 24
##[(5x5)-1] / 2 = 12
##[(9x9)-1] / 2 = 40
#relative_reference_index: 40
#zero_reference_position: 175, 175
#relative_reference_index: 15
split_delta_z = 0.0125
[gcode_macro QUAD_GANTRY_LEVEL]
rename_existing: _QUAD_GANTRY_LEVEL
gcode:
STATUS_LEVELING
SAVE_GCODE_STATE NAME=STATE_QGL
BED_MESH_CLEAR
# If QGL has not been done yet, correct for any major skew first
# at 8mm height
{% if not printer.quad_gantry_level.applied %}
_QUAD_GANTRY_LEVEL horizontal_move_z=8 retry_tolerance=1
{% endif %}
# Compelte with a full QGL at the configured height
_QUAD_GANTRY_LEVEL
RESTORE_GCODE_STATE NAME=STATE_QGL
#####################################################################
# Macros
#####################################################################
## customize BED MESH CALIBRATE gcode
## use BED_MESH_STORE -> generate MESH and save immediately and park in the middle
## use BED_MESH_STORE PARK=false -> generate MESH and save immediately
## use BED_MESH_STORE SAVE=false -> generate MESH and save it later
## use BED_MESH_STORE SAVE=false PARK=false -> would be most likely be used in your macros
[gcode_macro BED_MESH_STORE]
description: Generate a mesh, name it and run save_config if requested
variable_save_at_end: 'false'
gcode:
##### set default parameter value #####
{% set save = params.SAVE|default('true') %}
{% set park = params.PARK|default('true') %}
############# Get user defines #############
{% set center = printer["gcode_macro _USER_VARIABLE"].center %}
{% set z_hop = printer["gcode_macro _USER_VARIABLE"].z_hop %}
{% set bed_temp = printer.heater_bed.target|int %}
##### define plate name: Voron (default) or flexplate name #####
{% set plate_name = 'Voron' %}
{% if 'save_variables' in printer.configfile.config %}
{% if printer.save_variables.variables.plate_array is defined %}
{% set plate_index = printer.save_variables.variables.plate_index|int %}
{% set plate_name = printer.save_variables.variables.plate_array[plate_index][0] %}
{% endif %}
{% endif %}
##### join everything to a single mesh name #####
{% set mesh_name = "Voron-Bed_Temp-" + bed_temp|string + "C" %}
##### end of definitions #####
BED_MESH_CALIBRATE
BED_MESH_PROFILE SAVE={mesh_name}
BED_MESH_PROFILE REMOVE=default
{% if park|lower == 'true' %}
G90 ; set absolute
G0 Z{z_hop} F1800 ; move nozzle to z high first
G0 X{center[0]} Y{center[1]} F18000 ; home to get toolhead in the middle
{% endif %}
{% if save|lower == 'true' %}
_PRINT_AR T="BED_MESH: Save Config!"
SAVE_CONFIG
{% else %}
_PRINT_AR T="BED_MESH: Save Config after print done"
SET_GCODE_VARIABLE MACRO=BED_MESH_STORE VARIABLE=save_at_end VALUE='"true"'
{% endif %}
## use BED_MESH_LOAD -> load an existing MESH
## use BED_MESH_LOAD AUTO=true -> load an existing MESH or generate a new one and prepare it to be saved after print end
[gcode_macro BED_MESH_LOAD]
description: Load an existing mesh or generate a new one
gcode:
##### set default parameter value #####
{% set auto = params.AUTO|default('false') %}
{% set bed_temp = printer.heater_bed.target|int %}
##### join everything to a single mesh name #####
{% set mesh_name = "Voron-Bed_Temp-" + bed_temp|string + "C" %}
##### end of definitions #####
{% if printer.configfile.config["bed_mesh " + mesh_name] is defined %}
BED_MESH_CLEAR
BED_MESH_PROFILE LOAD={mesh_name}
_PRINT_AR T="{"BED_MESH: " + mesh_name + " loaded"}"
{% else %}
{% if auto|lower == 'true' %}
_PRINT_AR T="{"BED_MESH: " + mesh_name + " needs to be generated"}"
BED_MESH_STORE SAVE=false PARK=false
{% else %}
_PRINT_AR T="{"BED_MESH ERROR: " + mesh_name + " not defined"}"
{% endif %}
{% endif %}
## add this to your PRINT_END to save a mesh if needed 10 seconds after print ended
## UPDATE_DELAYED_GCODE ID=_BED_MESH_SAVE DURATION=10
[delayed_gcode _BED_MESH_SAVE]
gcode:
{% if printer["gcode_macro BED_MESH_STORE"].save_at_end == 'true' %}
_PRINT_AR T="BED_MESH: Save Config!"
SAVE_CONFIG
{% endif %}
printer_data/config/CUSTOM/homing.cfg
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# Note you may need to add the following to your printer.cfg somewhere (without the comments of course) for the Kinematic position stuff below to work.
#[force_move]
#enable_force_move: True
#[safe_z_home]
#home_xy_position: 175, 175
#speed: 150.0
#z_hop: 2
#z_hop_speed: 15.0
#move_to_previous: False
[gcode_macro _HOME_X]
gcode:
# Home
{% set RUN_CURRENT_X = printer.configfile.settings['tmc2209 stepper_x'].run_current|float %}
{% set RUN_CURRENT_Y = printer.configfile.settings['tmc2209 stepper_y'].run_current|float %}
{% set HOME_CURRENT = 0.49 %}
SET_TMC_CURRENT STEPPER=stepper_x CURRENT={HOME_CURRENT}
SET_TMC_CURRENT STEPPER=stepper_y CURRENT={HOME_CURRENT}
SET_KINEMATIC_POSITION X=5
G91
G1 X-5 F1200
#G4 P2000
#M400 to finish all pending moves/process the buffer
M400
G28 X
# Move away
G91
G1 X-5 F1200
SET_TMC_CURRENT STEPPER=stepper_x CURRENT={RUN_CURRENT_X}
SET_TMC_CURRENT STEPPER=stepper_y CURRENT={RUN_CURRENT_Y}
[gcode_macro _HOME_Y]
gcode:
{% set RUN_CURRENT_X = printer.configfile.settings['tmc2209 stepper_x'].run_current|float %}
{% set RUN_CURRENT_Y = printer.configfile.settings['tmc2209 stepper_y'].run_current|float %}
{% set HOME_CURRENT = 0.49 %}
SET_TMC_CURRENT STEPPER=stepper_x CURRENT={HOME_CURRENT}
SET_TMC_CURRENT STEPPER=stepper_y CURRENT={HOME_CURRENT}
SET_KINEMATIC_POSITION Y=5
G91
G1 Y-5 F1200
#G4 P2000
#M400 to finish all pending moves/process the buffer
M400
# Home
G28 Y
# Move away
G91
G1 Y-5 F1200
# Wait just a second… (give StallGuard registers time to clear)
SET_TMC_CURRENT STEPPER=stepper_x CURRENT={RUN_CURRENT_X}
SET_TMC_CURRENT STEPPER=stepper_y CURRENT={RUN_CURRENT_Y}
[homing_override]
axes: xyz
gcode:
{% set home_all = 'X' not in params and 'Y' not in params and 'Z' not in params %}
SET_KINEMATIC_POSITION Z=0
G1 Z5 F1200
{% if home_all or 'X' in params %}
_HOME_X
{% endif %}
{% if home_all or 'Y' in params %}
_HOME_Y
{% endif %}
{% if home_all or 'Z' in params %}
G90
G1 X{ printer.toolhead.axis_maximum.x/2 } Y{ printer.toolhead.axis_maximum.y/2 } F4500
G28 Z
G1 Z10 F1500
{% endif %}
[gcode_macro _CG28]
description: Homing only if necessary
gcode:
{% if "xyz" not in printer.toolhead.homed_axes %}
G28
{% endif %}
printer_data/config/CUSTOM/nozzle_scrub.cfg
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#######################################################################################################################################
# Sample macro config to be used in conjunction with the Decontaminator Purge Bucket & Nozzle Scrubber mod. Created by Hernsl
# (hernsl#8860 on Discord) and edited by Edwardyeeks (edwardyeeks#6042 on Discord). Several ideas that made it as features by
# Deutherius (deutherius#3295 on Discord).
# The goal of this macro is to provide a nozzle scrubbing and purging routine that is easily copied/referenced into your printer.cfg.
# Users can simply change parameters and enable/disable options in the first half. Descriptions are plentiful, making this macro
# look huge but informative and are laid out in sequence to be read first describing the line below; PLEASE READ CAREFULLY.
# This sample config assumes the following: The user has implemented the default decontaminator purge bucket & nozzle scrubber mod
# for the VORON 1/2. It can be tweaked to customised purge bucket geometries and brushes.
# Features in this macro: option of putting the bucket at the rear or front of the bed. Purge routine that can be enabled/disabled.
# By default, bucket is located at rear left of bed and purge routine is enabled. The purge and scrubbing routine is randomized
# in either left or right bucket to ensure as even as possible distribution of filament gunk.
# Default parameters are set for safe speeds and movements. Where necessary, tweak the parameters for the nozzle scrub procedure
# to fit your printer.
# To avoid adding length of lines to your main printer.cfg config file, one can upload a config file separately into klipper and
# include it into the main printer config. Upload nozzle_scrub.cfg to the same directory as printer.cfg. Usually, it is in /home/pi/.
# Users of Fluidd, Mainsail and other klipper front ends would find it under /home/pi/klipper_config/.
# Once uploaded, add the following to your printer.cfg in the Macros section: [include /home/pi/nozzle_scrub.cfg]
# Those running Fluidd, Mainsail and other front ends will need to use the following location instead:
# [include /home/pi/klipper_config/nozzle_scrub.cfg]
#######################################################################################################################################
# Name of the macro is clean_nozzle.
[gcode_macro clean_nozzle]
# If you are putting your purge bucket at the rear left of the bed as per default installation, enable True on your location_bucket_rear
# variable. If you want to put your purge bucket elsewhere (perhaps the front), then set it to False. See diagrams and description
# further below on how to set your XY position.
variable_location_bucket_rear: True
# If you want the purging routine in your bucket enabled, set to True (and vice versa).
variable_enable_purge: True
# These parameters define your filament purging. The retract variable is used to retract right after purging to prevent unnecessary
# oozing. Some filament are particularly oozy and may continue to ooze out of the nozzle for a second or two after retracting. The
# ooze dwell variable makes allowance for this. Update as necessary. If you decided to not enable purge, you can ignore this section.
variable_purge_len: 10 ; Amount of filament, in mm, to purge.
variable_purge_spd: 150 ; Speed, in mm/min, of the purge.
variable_purge_temp_min: 240 ; Minimum nozzle temperature to permit a purge. Otherwise, purge will not occur.
variable_purge_ret: 2 ; Retract length, in mm, after purging to prevent slight oozing. Adjust as necessary.
variable_ooze_dwell: 2 ; Dwell/wait time, in seconds, after purging and retracting.
# Adjust this so that your nozzle scrubs within the brush. Currently defaulted to be a lot higher for safety. Be careful not to go too low!
variable_brush_top: .3
# These parameters define your scrubbing, travel speeds, safe z clearance and how many times you want to wipe. Update as necessary. Wipe
# direction is randomized based off whether the left or right bucket is randomly selected in the purge & scrubbing routine.
variable_clearance_z: 5 ; When traveling, but not cleaning, the clearance along the z-axis between nozzle and brush.
variable_wipe_qty: 7 ; Number of complete (A complete wipe: left, right, left OR right, left, right) wipes.
variable_prep_spd_xy: 3000 ; Travel (not cleaning) speed along x and y-axis in mm/min.
variable_prep_spd_z: 1500 ; Travel (not cleaning) speed along z axis in mm/min.
variable_wipe_spd_xy: 5000 ; Nozzle wipe speed in mm/min.
# These parameters define the size of the brush. Update as necessary. A visual reference is provided below. Note that orientation of
# parameters remain the same whether bucket is at rear or front.
#
# ← brush_width →
# _________________ ↑
# | | ↑ If you chose location_bucket_rear = True, Y position is acquired
# brush_start (x) | | brush_depth from your stepper_y position_max. Adjust your brush physically in
# |_________________| ↓ Y so that the nozzle scrubs within the brush.
# (y) ↓
# brush_front
# __________________________________________________________
# PRINTER FRONT
#
#
## For V1.8, you may need to measure where your brush is on the x axis and input manually into any of the variable_brush_start uncommented.
## For V2.4 250mm build, uncomment this below:
#variable_brush_start: 25
## For V2.4 300mm build, uncomment this below:
#variable_brush_start: 50
## For V2.4 350mm build, uncomment this below:
variable_brush_start: 230
# This value is defaulted from brush location in CAD (rear left). Change if your brush width is different.
variable_brush_width: 52
## These are only used if location_bucket_rear is False. You specify a custom location in y axis for your brush - see diagram above. ##
variable_brush_front: 0
variable_brush_depth: 0
# These parameters define the size of your purge bucket. Update as necessary. If you decided to not enable purge, you can ignore
# this section. A visual reference is provided below. Note that orientation of parameters remain the same whether bucket is at rear
# or front.
#
# bucket_gap
# ← ---- →
# __________________________________________
# | | | |
# | | | |
# bucket_start (x) | |______| |
# | | | |
# | | | |
# |_________________|. . . |_________________|
# ← ------------- → ← ------------- →
# bucket_left_width bucket_right_width
# _______________________________________________________________________________________
# PRINTER FRONT
#
## For V2.4 250mm build, uncomment below
#variable_bucket_left_width: 42
## For V2.4 300mm build, uncomment below
#variable_bucket_left_width: 67
## For V2.4 350mm build, uncomment below
#variable_bucket_left_width: 92
variable_bucket_left_width: 40
# These values are defaulted from bucket geometry in CAD (rear left location). Change only if you're using a custom bucket.
#variable_bucket_right_width: 40
variable_bucket_right_width: 92
variable_bucket_gap: 22
# For V1.8, you may need to measure where your bucket start is and input into bucket_start. Otherwise, a value of 0 is for a default
# installation of purge bucket at rear left.
variable_bucket_start: 200
###############################################################################################################################################
###############################################################################################################################################
### From here on, unless you know what you're doing, it's recommended not to change anything. Feel free to peruse the code and reach out to me
### (edwardyeeks#6042) on Discord if you spot any problems!
###############################################################################################################################################
###############################################################################################################################################
# Placeholder. The variable will later be set to contain, at random, a number representing the left or right bucket.
variable_bucket_pos: 1
gcode:
# First, check if the axes are homed.
{% if "xyz" in printer.toolhead.homed_axes %}
## Save the gcode state in this macro instance.
SAVE_GCODE_STATE NAME=clean_nozzle
STATUS_CLEANING
## Set to absolute positioning.
G90
## Grab max position of Y-axis from config to use in setting a fixed y position for location_bucket_rear = True.
{% set Ry = printer.configfile.config["stepper_y"]["position_max"]|float %}
## Check if user enabled purge option or not.
{% if enable_purge %}
### Randomly select left or right bin for purge. 0 = left, 1 = right
SET_GCODE_VARIABLE MACRO=clean_nozzle VARIABLE=bucket_pos VALUE={(range(2) | random)}
### Raise Z for travel.
G1 Z{brush_top + clearance_z} F{prep_spd_z}
### Check if user chose to use rear location.
{% if location_bucket_rear %}
G1 Y{Ry} F{prep_spd_xy}
{% else %}
G1 Y{brush_front + (brush_depth / 2)} F{prep_spd_xy}
{% endif %}
### Position for purge. Randomly selects middle of left or right bucket. It references from the middle of the left bucket.
G1 X{bucket_start + (bucket_left_width / (2 - bucket_pos)) + (bucket_pos * bucket_gap) + (bucket_pos * (bucket_right_width / 2))}
### Perform purge if the temp is up to min temp. If not, it will skip and continue executing rest of macro. Small retract after
### purging to minimize any persistent oozing at 5x purge_spd. G4 dwell is in milliseconds, hence * 1000 in formula.
{% if printer.extruder.temperature >= purge_temp_min %}
M83 ; relative mode
G1 E{purge_len} F{purge_spd}
G1 E-{purge_ret} F{purge_spd * 5}
G4 P{ooze_dwell * 1000}
G92 E0 ; reset extruder
{% endif %}
{% endif %}
## Position for wipe. Either left or right of brush based off bucket_pos to avoid unnecessary travel.
G1 Z{brush_top + clearance_z} F{prep_spd_z}
G1 X{brush_start + (brush_width * bucket_pos)} F{prep_spd_xy}
## Check if user chose to use rear location.
{% if location_bucket_rear %}
G1 Y{Ry}
{% else %}
G1 Y{brush_front + (brush_depth / 2)}
{% endif %}
## Move nozzle down into brush.
G1 Z{brush_top} F{prep_spd_z}
## Perform wipe. Wipe direction based off bucket_pos for cool random scrubby routine.
{% for wipes in range(1, (wipe_qty + 1)) %}
G1 X{brush_start + (brush_width * (1 - bucket_pos))} F{wipe_spd_xy}
G1 X{brush_start + (brush_width * bucket_pos)} F{wipe_spd_xy}
{% endfor %}
## Clear from area.
M117 Cleaned!
G1 Z{brush_top + clearance_z} F{prep_spd_z}
##G1 X{bucket_left_width / 4} F{prep_spd_xy}
G1 X{bucket_left_width * 3} F{prep_spd_xy}
## Restore the gcode state to how it was before the macro.
RESTORE_GCODE_STATE NAME=clean_nozzle
{% else %}
## raise error will stop any macros that clean_nozzle is referenced in from proceeding for safety.
{ action_raise_error("Please home your axes!") }
M117 Please home first!
{% endif %}
printer_data/config/CUSTOM/set_material.cfg
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[gcode_macro SET_MATERIAL]
description: Dynamically adjust chamber temps, fans, and behavior based on material
# === OVERVIEW ===
# This macro sets print parameters based on the selected filament type.
# It includes logic for fan control, pressure advance tuning, and chamber temperature management.
# Each material is uniquely handled with comments, proper defaults, and warnings where applicable.
#
# === WHY USE THIS ===
# - Ensures consistent print settings per material
# - Automatically adjusts temperature and environment conditions
# - Reduces manual tuning between material changes
# - Helps enforce safety (drying warnings, chamber heat warnings, etc.)
#
# === HOW TO USE ===
# Call the macro with:
# SET_MATERIAL MATERIAL=<your_material>
#
# Example:
# SET_MATERIAL MATERIAL=ABS
#
# === SETUP REQUIREMENTS ===
# You MUST configure:
# - A chamber temperature sensor (e.g., temperature_sensor chamber_combined_mean)
# - A bed heater (e.g., heater_bed)
# - Optionally, a chamber heater (e.g., heater_generic chamber_heater)
# - A chamber circulation fan (e.g., nevermore_fan)
#
# === PARAMETERS ===
# MATERIAL: Name of the filament material preset to apply
# Supported: PLA, ABS, PETG, ASA, PC, PA, PEEK, PEK, TPU, etc.
# Extended support for exotic blends like ESD-ABS, PVDF, MetalFill, Foam PLA
#
# === NOTES ===
# - Each material includes chamber temp, fan speed, PA, and smoothing settings
# - Some materials apply Z offset compensation or recommend special nozzle/hardware
# - Certain blocks include warnings (e.g., "dry before use" or "use hardened nozzle")
# - If you do not have a chamber heater, set `ACTIVE_CHAMBER_HEATING = False`
# - You can expand this macro to include more materials as needed
# - Unknown materials fall back to a safe PLA-like default
#
# === ADVANCED ===
# This macro can be tied into slicer startup G-code or multi-material toolchanging macros.
# You can also use it in combination with filament sensors or manual menu macros.
gcode:
{% set CHAMBER_SENSOR = "temperature_sensor chamber_combined_mean" %}
{% set BED_HEATER = "heater_bed" %}
{% set BED_FAN = "nevermore_fan" %}
{% set ACTIVE_CHAMBER_HEATING = False %} # Set to True if you have a dedicated chamber heater configured
{% set CHAMBER_HEATER = "chamber_heater" if ACTIVE_CHAMBER_HEATING else "" %}
{% set MATERIAL = params.MATERIAL|default("PLA")|string %}
# --- Chamber-less Materials ---
{% if MATERIAL in ['PLA', 'PLA-CF', 'PE', 'PE-CF'] %}
# PLA: Easy to print, low warping, no chamber needed. CF = carbon fiber, stiffer and more abrasive.
{% set message = "Material: " ~ MATERIAL ~ " | PA: 0.035 | Chamber: 25°C" %}
RESPOND MSG="{message}"
M141 S25
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.5
SET_PA PA=0.035 SMOOTH=0.04
{% elif MATERIAL in ['PLA+', 'SILK-PLA'] %}
# PLA+: Stronger, tougher PLA. Silk PLA has glossy finish but may string more.
{% set message = "Material: " ~ MATERIAL ~ " | PA: 0.038 | Chamber: 25°C" %}
RESPOND MSG="{message}"
M141 S25
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.5
SET_PA PA=0.038 SMOOTH=0.04
{% elif MATERIAL in ['PVDF', 'PVDF-CF', 'PVDF-GF'] %}
# PVDF: Chemical-resistant and strong. Requires high chamber temps and dry storage.
{% set message = "Material: " ~ MATERIAL ~ " | PA: 0.055 | Chamber: 90°C | ⚠️ Moisture-sensitive. Dry before use." %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET=90 SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.055 SMOOTH=0.045
{% elif MATERIAL in ['ESD-PLA', 'ESD-ABS', 'ESD-PC', 'ESD-PEEK'] %}
# ESD-safe filaments for sensitive electronics. Can be brittle, dry before use.
{% set chamber_temp = 60 if 'PLA' in MATERIAL else 80 %}
{% set pa_val = 0.04 if 'PLA' in MATERIAL else 0.05 %}
{% set message = "Material: " ~ MATERIAL ~ " | PA: " ~ pa_val|string ~ " | Chamber: " ~ chamber_temp|string ~ "°C | ⚠️ Dry before use for best performance." %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={chamber_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA={pa_val} SMOOTH=0.045
{% elif MATERIAL == 'LW-PLA' %}
# LW-PLA: Lightweight PLA expands with heat. MUST reduce flow to ~65% manually.
{% set message = "Material: LW-PLA | PA: 0.03 | Chamber: 25°C | Reminder: Set flow to ~65%" %}
RESPOND MSG="{message}"
M141 S25
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.2
SET_PA PA=0.03 SMOOTH=0.04
{% elif MATERIAL == 'PLA-FOAM' %}
# PLA-FOAM: Similar to LW-PLA, foams up at extrusion temps. Lower flow ~60%.
{% set message = "Material: PLA-FOAM | PA: 0.03 | Chamber: 25°C | Reminder: Set flow to ~60%" %}
RESPOND MSG="{message}"
M141 S25
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.3
SET_PA PA=0.03 SMOOTH=0.04
{% elif MATERIAL in ['PETG', 'PETG-GF', 'PETG-CF', 'PET-CF'] %}
# PETG: Good strength/flexibility, more durable than PLA. May string. CF/GF are abrasive.
{% set message = "Material: " ~ MATERIAL ~ " | PA: 0.03 | Chamber: 40°C" %}
RESPOND MSG="{message}"
M141 S40
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.5
SET_PA PA=0.03 SMOOTH=0.05
SET_GCODE_OFFSET Z=0.02 # PETG can be sticky; lift Z slightly to prevent nozzle drag
{% elif MATERIAL in ['ABS', 'ABS+', 'ABS-GF', 'ABS-CF'] %}
# ABS: Tough and heat-resistant, good for functional parts. Warps easily—requires enclosed chamber.
# CF (Carbon Fiber) / GF (Glass Fiber) versions are more rigid and very abrasive.
{% set target_temp = 60 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: " ~ MATERIAL ~ " | PA: 0.05 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.05 SMOOTH=0.045
{% elif MATERIAL in ['ASA', 'ASA+', 'ASA-GF', 'ASA-CF', 'ASA-Aero'] %}
# ASA: UV-resistant alternative to ABS. Great for outdoor parts. Needs similar chamber temps to ABS.
# ASA-GF and ASA-CF are even more rigid and more abrasive.
{% set target_temp = 60 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: " ~ MATERIAL ~ " | PA: 0.05 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.05 SMOOTH=0.045
{% elif MATERIAL == 'HIPS' %}
# HIPS: Used primarily as a dissolvable support for ABS. Requires similar chamber temps.
# ⚠️ Requires limonene bath for dissolution. Keep dry. May warp without chamber.
{% set target_temp = 60 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: HIPS | PA: 0.045 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL ~ " | ⚠️ Dissolves in limonene. Keep dry." %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.045 SMOOTH=0.045
{% elif MATERIAL == 'BVOH' %}
# BVOH: Superior water-soluble support material. Less stringy than PVA but still moisture sensitive.
# ⚠️ Store in drybox. Dissolves faster in warm water. Do not overcool during print.
{% set message = "Material: BVOH | PA: 0.035 | Chamber: 25°C | ⚠️ Store dry. Dissolves in water." %}
RESPOND MSG="{message}"
M141 S25
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.2
SET_PA PA=0.035 SMOOTH=0.04
{% elif MATERIAL == 'PP' %}
# PP: Light and chemical-resistant. Warps easily and has poor adhesion. Needs chamber and special bed surface.
# ⚠️ Use PP-specific bed surface. Avoid cooling drafts. May require brim or raft.
{% set target_temp = 55 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: PP | PA: 0.04 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL ~ " | ⚠️ Warps easily. PP bed surface recommended." %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.04 SMOOTH=0.045
{% elif MATERIAL == 'PPSU' %}
# PPSU: High-performance thermoplastic. Chemical and heat-resistant. Needs very hot chamber and drying.
# ⚠️ Print with hardened nozzle. Needs chamber and high temps. Store dry.
{% set target_temp = 100 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: PPSU | PA: 0.055 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL ~ " | ⚠️ Needs high temp & dry storage" %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.055 SMOOTH=0.045
{% elif MATERIAL == 'ULTEM' or MATERIAL == 'PEI' %}
# ULTEM / PEI: Extremely strong. High temp aerospace/engineering plastic. Needs chamber + hardened nozzle.
# ⚠️ Only for high-end printers. Dry thoroughly. Print hot.
{% set target_temp = 120 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: ULTEM/PEI | PA: 0.06 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL ~ " | ⚠️ Industrial use only. Dry & hot." %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.06 SMOOTH=0.05
{% elif MATERIAL == 'POLYMAX-PC' %}
# Polymaker PolyMax PC: Easier-to-print Polycarbonate blend. Good strength and clarity. Less prone to warping.
# ⚠️ Still requires chamber and hardened nozzle for long-term use.
{% set target_temp = 60 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: PolyMax PC | PA: 0.05 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL ~ " | ⚠️ Tough and clear. Handle like PC." %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.05 SMOOTH=0.045
{% elif MATERIAL == 'ULTRAFUSE-PAHT-CF15' %}
# BASF Ultrafuse PAHT CF15: High-temp nylon, 15% carbon fiber. Stiff, light, durable.
# ⚠️ Dry thoroughly. Use hardened nozzle. Requires chamber.
{% set target_temp = 70 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: Ultrafuse PAHT CF15 | PA: 0.06 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL ~ " | ⚠️ High strength & very abrasive." %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.06 SMOOTH=0.045
{% elif MATERIAL == 'PRUSAMENT-PETG-CF' %}
# Prusament PETG CF: Stiffer than normal PETG, reduced warping, excellent layer adhesion.
# ⚠️ Abrasive. Use hardened nozzle. Watch for brittle breakages if overcooled.
{% set message = "Material: Prusament PETG-CF | PA: 0.04 | Chamber: 45°C | ⚠️ Abrasive. Great dimensional stability." %}
RESPOND MSG="{message}"
M141 S45
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.4
SET_PA PA=0.04 SMOOTH=0.045
{% elif MATERIAL == 'PRUSAMENT-PLA-TOUGH' %}
# Prusament PLA Tough: Improved impact resistance vs. standard PLA. Still easy to print.
{% set message = "Material: Prusament PLA Tough | PA: 0.038 | Chamber: 25°C | Tougher than normal PLA." %}
RESPOND MSG="{message}"
M141 S25
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.5
SET_PA PA=0.038 SMOOTH=0.04
{% elif MATERIAL in ['TPU-SOFT', 'TPU-85A'] %}
# TPU-Soft: Ultra-flexible variant. Requires extremely slow printing and short retractions.
# ⚠️ Direct drive required. Reduce speed to <20mm/s. Keep dry to avoid stringing.
{% set message = "Material: TPU-SOFT | PA: 0.055 | Chamber: 30°C | ⚠️ Print very slowly. Direct drive only." %}
RESPOND MSG="{message}"
M141 S30
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.3
SET_PA PA=0.055 SMOOTH=0.035
SET_GCODE_OFFSET Z=0.02
{% elif MATERIAL == 'PA12-GF' %}
# PA12-GF: Glass-fiber filled Nylon 12. High strength, dimensional stability, very abrasive.
# ⚠️ Requires dry storage. Use hardened nozzle. Enclosure strongly recommended.
{% set target_temp = 70 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: PA12-GF | PA: 0.06 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL ~ " | ⚠️ Dry thoroughly, very abrasive." %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.06 SMOOTH=0.045
{% elif MATERIAL == 'BREAKAWAY' %}
# Breakaway: Rigid support material that peels away instead of dissolving. Great with ABS, ASA, PETG.
# ⚠️ Store dry. Avoid excessive cooling. Easy to print, good layer adhesion.
{% set message = "Material: Breakaway | PA: 0.035 | Chamber: 35°C | ⚠️ Peel-away support. Store dry." %}
RESPOND MSG="{message}"
M141 S35
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.3
SET_PA PA=0.035 SMOOTH=0.045
{% elif MATERIAL == 'NGEN' %}
# ColorFabb nGen: Easy-to-print PETG-like with smoother finish and less stringing. Based on Amphora AM3300.
{% set message = "Material: nGen | PA: 0.035 | Chamber: 30°C | Smoother than PETG, low stringing." %}
RESPOND MSG="{message}"
M141 S30
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.5
SET_PA PA=0.035 SMOOTH=0.045
{% elif MATERIAL == 'COLORFABB-HT' %}
# ColorFabb HT: High-temp, semi-crystalline Amphora-based copolyester. Tough and heat-resistant.
{% set target_temp = 60 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: ColorFabb HT | PA: 0.045 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL ~ " | Tough and heat-tolerant. Dry before use." %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.045 SMOOTH=0.045
{% elif MATERIAL == 'PPS' %}
# PPS: Exceptional chemical resistance, dimensional stability, and flame retardance. Used in automotive/aerospace.
{% set target_temp = 95 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: PPS | PA: 0.06 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL ~ " | ⚠️ Industrial. Dry thoroughly. Print hot." %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.06 SMOOTH=0.05
{% elif MATERIAL in ['PVDF-BLEND', 'KYNAR', 'SOLEF'] %}
# PVDF Blend: Enhanced versions of PVDF for strength/flexibility. Used in semiconductors, chemical labs.
{% set target_temp = 85 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: PVDF Blend | PA: 0.055 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL ~ " | ⚠️ Chemical resistant. Dry required." %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.055 SMOOTH=0.045
{% elif MATERIAL == 'CARBONX-PC' %}
# CarbonX CFR-PC+: Carbon fiber-reinforced PC with excellent stiffness and heat performance.
# ⚠️ Use hardened nozzle. Dry before use. Requires enclosure.
{% set target_temp = 65 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: CarbonX PC+ | PA: 0.055 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL ~ " | ⚠️ High stiffness, abrasive." %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.055 SMOOTH=0.045
{% elif MATERIAL == 'ESUN-ABS+' %}
# eSun ABS+: Modified ABS with lower warping and easier layer adhesion. Still benefits from chamber heat.
{% set target_temp = 55 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: eSun ABS+ | PA: 0.045 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL ~ " | Easier than regular ABS." %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.045 SMOOTH=0.045
{% elif MATERIAL == 'RAISE3D-PLA+' %}
# Raise3D PLA+: Tougher PLA variant optimized for layer adhesion and strength.
{% set message = "Material: Raise3D PLA+ | PA: 0.038 | Chamber: 25°C | Tougher PLA with good printability." %}
RESPOND MSG="{message}"
M141 S25
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.5
SET_PA PA=0.038 SMOOTH=0.04
{% elif MATERIAL in ['PA', 'PA-GF', 'PA-CF', 'PAHT-CF', 'PA12-CF'] %}
# Nylon (PA): Strong, flexible, and wear-resistant. Extremely moisture-sensitive — dry before printing!
# CF = Carbon Fiber, GF = Glass Fiber, PAHT = high-temp nylon. Abrasive: use a hardened nozzle.
{% set target_temp = 65 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: " ~ MATERIAL ~ " | PA: 0.06 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL ~ " | ⚠️ Dry thoroughly before use" %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.06 SMOOTH=0.045
{% elif MATERIAL in ['PC', 'PC-CF', 'PCTG'] %}
# PC (Polycarbonate): Very strong and heat resistant. Needs hot chamber. Tends to warp and absorb moisture.
# PC-CF is stiffer and more rigid. PCTG is a more forgiving blend.
{% set target_temp = 60 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: " ~ MATERIAL ~ " | PA: 0.055 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.055 SMOOTH=0.045
{% elif MATERIAL in ['PC-ABS', 'PCABS'] %}
# PC-ABS: Blend of PC and ABS. Easier to print than pure PC. Still wants a hot chamber and enclosure.
{% set target_temp = 70 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: " ~ MATERIAL ~ " | PA: 0.055 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.055 SMOOTH=0.045
{% elif MATERIAL == 'PEEK' %}
# PEEK: Ultra high-performance. Requires extremely hot chamber (110°C+). Dry thoroughly before use.
# Used in aerospace, medical, and industrial applications. Hardened nozzle & all-metal hotend required.
{% set target_temp = 110 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: PEEK | PA: 0.06 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.06 SMOOTH=0.05
{% elif MATERIAL == 'PEK' %}
# PEK: Slightly lower-temp cousin of PEEK. Still high performance and needs special hardware.
{% set target_temp = 90 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: PEK | PA: 0.055 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.055 SMOOTH=0.05
{% elif MATERIAL == 'TPU' %}
# TPU: Flexible filament. Needs slow print speed. Watch for oozing. Can stretch during retraction.
# ⚠️ Tips: Print very slowly (15-30mm/s). Use direct drive. Avoid long Bowden tubes. Dry before use if soft or stringy.
{% set message = "Material: TPU | PA: 0.055 | Chamber: 35°C | ⚠️ Go slow, direct drive recommended" %}
RESPOND MSG="{message}"
M141 S35
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.5
SET_PA PA=0.055 SMOOTH=0.04
SET_GCODE_OFFSET Z=0.02
{% elif MATERIAL == 'TPE' %}
# TPE: Very soft rubber-like filament. Print slowly. Use direct drive extruder.
# ⚠️ Tips: Reduce retraction. Very flexible – print <25mm/s. May require increased nozzle temp. Dry before use.
{% set message = "Material: TPE | PA: 0.05 | Chamber: 30°C | ⚠️ Slow speed, direct drive only" %}
RESPOND MSG="{message}"
M141 S30
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.5
SET_PA PA=0.05 SMOOTH=0.04
SET_GCODE_OFFSET Z=0.02
{% elif MATERIAL in ['NINJAFLEX', 'NINJA-FLEX'] %}
# NinjaFlex: Ultra-flexible. Print extremely slow. Hard to control extrusion. Direct drive required.
# ⚠️ Tips: Dry well. No retraction if possible. Tight filament path. Print 10–20mm/s.
{% set message = "Material: Ninjaflex | PA: 0.045 | Chamber: 30°C | ⚠️ Print <20mm/s. No Bowden setups." %}
RESPOND MSG="{message}"
M141 S30
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.3
SET_PA PA=0.045 SMOOTH=0.035
SET_GCODE_OFFSET Z=0.02
{% elif MATERIAL in ['METALFILL', 'BRONZEFILL', 'COPPERFILL'] %}
# MetalFill: PLA blended with metal powder. Heavy, beautiful finish. Extremely abrasive—use hardened nozzle.
# ⚠️ Tips: Slower speed, hardened nozzle, check for settling in filament spool.
{% set message = "Material: " ~ MATERIAL ~ " | PA: 0.04 | Chamber: 35°C | ⚠️ Abrasive – use hardened nozzle" %}
RESPOND MSG="{message}"
M141 S35
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.5
SET_PA PA=0.04 SMOOTH=0.045
{% elif MATERIAL in ['IRONFILL', 'MAGNETICFILL'] %}
# Magnetic/iron PLA: Similar to MetalFill but can rust. Very abrasive. Hardened steel nozzle recommended.
# ⚠️ Store dry to avoid rust. May interfere with inductive sensors.
{% set message = "Material: " ~ MATERIAL ~ " | PA: 0.04 | Chamber: 35°C | ⚠️ Abrasive. Keep dry." %}
RESPOND MSG="{message}"
M141 S35
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.5
SET_PA PA=0.04 SMOOTH=0.045
{% elif MATERIAL in ['WOODFILL', 'CARBONFILL', 'KEVLARFILL'] %}
# Filled composites: Can clog if retracted too much. Lower print speeds. Use wider nozzle (0.6mm+) and hardened tip.
# ⚠️ Avoid retraction-heavy prints. Watch for clogs. WoodFill can scorch – keep nozzle temp moderate.
{% set message = "Material: " ~ MATERIAL ~ " | PA: 0.045 | Chamber: 40°C | ⚠️ Composite: Use 0.6mm+ hardened nozzle" %}
RESPOND MSG="{message}"
M141 S40
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.5
SET_PA PA=0.045 SMOOTH=0.045
{% elif MATERIAL in ['MOLDLAY', 'CASTFIL', 'CASTING'] %}
# MoldLay: Used for casting. Can be melted out like wax. Brittle and needs low chamber temps.
# ⚠️ Avoid excessive cooling. Brittle at room temp. Supports should be minimal.
{% set message = "Material: " ~ MATERIAL ~ " | PA: 0.035 | Chamber: 25°C | ⚠️ Brittle – handle gently post-print" %}
RESPOND MSG="{message}"
M141 S25
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.5
SET_PA PA=0.035 SMOOTH=0.04
{% elif MATERIAL in ['PVA', 'SUPPORT-PVA'] %}
# PVA: Water-soluble support material. Store in airtight container. Extremely moisture-sensitive.
{% set message = "Material: PVA | PA: 0.035 | Chamber: 25°C | ⚠️ Water Soluble & Moisture Sensitive" %}
RESPOND MSG="{message}"
M141 S25
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.0 # No fan to avoid drafts/drying out
SET_PA PA=0.035 SMOOTH=0.04
{% elif MATERIAL in ['PMMA', 'ACRYLIC'] %}
# PMMA: Transparent, acrylic-like. Shrinks a lot—needs chamber. Often cracks if too cold. Store dry.
{% set target_temp = 60 %}
{% set passive_wait = target_temp - 25 %}
{% set CHAMBER_LABEL = "(active heater)" if ACTIVE_CHAMBER_HEATING else "(passive via bed, will start at ≥" ~ passive_wait|string ~ "°C)" %}
{% set message = "Material: PMMA | PA: 0.04 | Chamber: " ~ target_temp|string ~ "°C " ~ CHAMBER_LABEL ~ " | ⚠️ Brittle when moist, dry thoroughly" %}
RESPOND MSG="{message}"
SET_CHAMBER_HEAT TARGET={target_temp} SENSOR="{CHAMBER_SENSOR}" HEATER={CHAMBER_HEATER} BED_HEATER={BED_HEATER} FAN={BED_FAN} ACTIVE={ACTIVE_CHAMBER_HEATING}
SET_PA PA=0.04 SMOOTH=0.045
{% else %}
# Default fallback for unknown materials
RESPOND MSG="Material: Unknown | Default PA: 0.04 | Chamber: 25°C"
M141 S25
SET_FAN_SPEED FAN={BED_FAN} SPEED=0.5
SET_PA PA=0.04 SMOOTH=0.045
{% endif %}
[gcode_macro SET_PA]
description: Set Pressure Advance for the printer
variable_pa: 0.04
# === OVERVIEW ===
# This macro sets the Pressure Advance (PA) and smoothing values for your printer.
# Pressure Advance compensates for pressure build-up in the nozzle, improving corners and extrusion consistency.
# The smoothing value reduces sudden changes by blending movement transitions.
#
# This macro is useful when tuning PA per-material or per-print, and can be used dynamically during a print or via your slicer.
#
# === HOW TO USE ===
# Call the macro with:
# SET_PA PA=<advance_value> [SMOOTH=<smoothing_value>]
#
# Example:
# SET_PA PA=0.045
# SET_PA PA=0.050 SMOOTH=0.04
#
# === PARAMETERS ===
# PA: The desired pressure advance value (required)
# SMOOTH: Optional smoothing value (default: 0.045)
#
# === NOTES ===
# - Pressure Advance tuning is material- and setup-dependent.
# - You can call this from your slicer as a custom G-code before the print starts.
# - The value is stored in a macro variable (variable_pa) so it can be referenced or reset easily.
gcode:
{% set pa = params.PA|float %}
{% set smooth = params.SMOOTH|default(0.045)|float %}
# Apply Pressure Advance and smoothing time
SET_PRESSURE_ADVANCE ADVANCE={pa} SMOOTH_TIME={smooth}
# Store the value for reference
SET_GCODE_VARIABLE MACRO=SET_PA VARIABLE=pa VALUE={pa}
# Optional: echo back confirmation (uncomment if desired)
# {% set message = "Pressure Advance set to " ~ pa|string ~ " | Smoothing: " ~ smooth|string %}
# RESPOND MSG="{message}"
[gcode_macro SET_CHAMBER_HEAT]
description: Modular chamber heating logic with active/passive support, includes safety checks and debug output
# === OVERVIEW ===
# This macro heats the chamber to a target temperature using either:
# 1. An active heater (like a dedicated chamber heater), or
# 2. Passive heating (using the bed heater).
# It controls the bed heater, an optional chamber heater, and a circulation fan.
# It will block until the target temperature is reached.
# === SAFETY WARNINGS ===
# - Ensure your chamber temperature sensor is correctly installed and reporting.
# - Watch your printer during the first few uses of this macro.
# - Passive mode may take a long time to reach temperature.
# - Don't overheat your enclosure — check max safe temps for your printer!
# === PARAMETERS ===
# TARGET : (required) Target chamber temperature in °C.
# SENSOR : (optional) Temperature sensor name (default: temperature_sensor chamber_combined_mean).
# HEATER : (optional) Chamber heater name (used only if ACTIVE=True).
# BED_HEATER : (optional) Bed heater name (default: heater_bed).
# FAN : (optional) Circulation fan name (default: nevermore_fan).
# ACTIVE : (optional) If True, uses a dedicated heater; otherwise uses passive heating.
# === USAGE ===
# SET_CHAMBER_HEAT TARGET=60 ACTIVE=True HEATER="heater_generic chamber_heater"
# SET_CHAMBER_HEAT TARGET=60 ACTIVE=False
gcode:
# === Parse Parameters ===
{% set target = params.TARGET|int %} # Desired chamber temperature
{% set sensor = params.SENSOR|default('temperature_sensor chamber_combined_mean') %} # Sensor to read chamber temp
{% set heater = params.HEATER|default('') %} # Optional active chamber heater
{% set bed_heater = params.BED_HEATER|default('heater_bed') %} # Bed heater
{% set bed_fan = params.FAN|default('nevermore_fan') %} # Circulation fan
# Normalize ACTIVE to a proper boolean
{% set active = params.ACTIVE|default("false")|lower == 'true' %} # True = use chamber heater, False = use bed only
# Calculate the temperature to wait for — passive mode waits for less (25°C below target)
{% set wait_temp = target if active else target - 25 %}
# === Initial Message ===
{% set message = "[CHAMBER HEAT] Starting chamber heat routine (Target: " ~ target|string ~ "°C, Wait: " ~ wait_temp|string ~ "°C, Mode: " ~ ("Active" if active else "Passive") ~ ")" %}
RESPOND MSG="{message}"
# Set M141 for visual tools (slicer/monitor) to track chamber temperature
M141 S{target}
# === ACTIVE MODE ===
{% if active %}
{% set message = "[CHAMBER HEAT] Activating chamber heater and bed heater to " ~ target|string ~ "°C" %}
RESPOND MSG="{message}"
# Set chamber heater temp (if provided)
{% if heater|length > 0 %}
SET_HEATER_TEMPERATURE HEATER={heater} TARGET={target}
{% endif %}
# Set bed heater to the same target (helps speed up heating)
SET_HEATER_TEMPERATURE HEATER={bed_heater} TARGET={target}
# Turn circulation fan on full to spread heat
SET_FAN_SPEED FAN={bed_fan} SPEED=1
# === PASSIVE MODE ===
{% else %}
# If the chamber is below the passive-mode target threshold
{% if printer[sensor].temperature < wait_temp %}
{% set message = "[CHAMBER HEAT] Chamber below " ~ wait_temp|string ~ "°C — passively heating via bed" %}
RESPOND MSG="{message}"
# Turn on fan at half speed (gentle circulation)
SET_FAN_SPEED FAN={bed_fan} SPEED=0.5
# Set bed heater to a high temp (120°C) to warm chamber indirectly
SET_HEATER_TEMPERATURE HEATER={bed_heater} TARGET=120
# Wait until bed reaches temperature
TEMPERATURE_WAIT SENSOR="{bed_heater}" MINIMUM=120
{% else %}
# Chamber is already close enough to the desired temperature
{% set message = "[CHAMBER HEAT] Chamber already warm enough for passive mode (" ~ printer[sensor].temperature|round(1)|string ~ "°C)" %}
RESPOND MSG="{message}"
{% endif %}
# Once warmed, run the circulation fan at full speed
SET_FAN_SPEED FAN={bed_fan} SPEED=1
{% endif %}
# === FINAL BLOCKING WAIT ===
{% set message = "[CHAMBER HEAT] Waiting for chamber to reach " ~ wait_temp|string ~ "°C..." %}
RESPOND MSG="{message}"
# Block until the chamber temp sensor reads the required temp
TEMPERATURE_WAIT SENSOR="{sensor}" MINIMUM={wait_temp}
# Confirm chamber is ready
{% set message = "[CHAMBER HEAT] Chamber ready at " ~ printer[sensor].temperature|round(1)|string ~ "°C" %}
RESPOND MSG="{message}"
[gcode_macro M106]
rename_existing: G106
description: Compresses fan speeds into 10–30% range if bed temp ≥ 70°C
# === OVERVIEW ===
# This macro overrides the default M106 behavior to apply a thermal-aware fan speed limiter.
# When the bed temperature is at or above 70°C, it compresses the part cooling fan speed range
# into a safer 10–30% range (i.e., 26–76 PWM) to reduce warping or delamination in high-temp materials.
#
# === WHY USE THIS ===
# - Prevents excessive part cooling when printing materials like ABS, ASA, or PC.
# - Helps maintain stable chamber temperatures and reduce thermal shock.
# - Minimizes curling or layer splitting due to sudden cooling on hot beds.
#
# === HOW TO USE ===
# Simply use M106 S<value> as usual in your G-code or slicer.
# The macro will automatically adjust the fan speed if needed based on bed temperature.
#
# === NOTES ===
# - This logic only applies when the bed temperature is 70°C or higher.
# - Below 70°C, full-range fan control is allowed.
# - You can customize the input/output compression range if needed.
# === PARAMETERS ===
# S: Standard fan speed in 0–255 (required by M106)
# Internal constants:
# min_input = 26 (10% of 255)
# max_input = 255 (100%)
# min_output = 26 (10%)
# max_output = 76 (30%)
gcode:
{% set fan_speed = params.S|default(0)|int %}
{% set bed_temp = printer["heater_bed"].temperature %}
{% set min_input = 26 %}
{% set max_input = 255 %}
{% set min_output = 26 %}
{% set max_output = 76 %}
{% if bed_temp >= 70 %}
# If below threshold, limit fan to the lower compressed range (10–30%)
{% if fan_speed < min_input %}
{% set compressed_speed = min_output %}
{% else %}
{% set compressed_speed = (min_output + ((fan_speed - min_input) * (max_output - min_output) / (max_input - min_input)))|int %}
{% endif %}
G106 S{compressed_speed}
{% else %}
# Below threshold, allow full fan speed as requested
G106 S{fan_speed}
{% endif %}
printer_data/config/CUSTOM/stealthburner_leds.cfg
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# Macros for setting the status leds on the Voron StealthBurner toolhead (or for any neopixel-type leds).
#
# You will need to configure a neopixel (or other addressable led, such as dotstar). See
# https://www.klipper3d.org/Config_Reference.html#neopixel for configuration details.
#####################################
# INSTRUCTIONS #
#####################################
# How to use all this stuff:
#
# 1. Copy this .cfg file into your Klipper config directory and then add [include stealthburner_leds.cfg]
# to the top of your printer.cfg in order to register the LEDs and macros with Klipper.
# 2. Define your LEDs by editing [neopixel sb_leds] below and entering the data pin from your control board
# as well as the color order.
#
# Note: RGB and RGBW are different and must be defined explicitly. RGB and RGBW are also not able to
# be mix-and-matched in the same chain. A separate data line would be needed for proper functioning.
#
# RGBW LEDs will have a visible yellow-ish phosphor section to the chip. If your LEDs do not have
# this yellow portion, you have RGB LEDs.
#
# 3. Save your config and restart Klipper.
#
# Note: We set RED and BLUE to 1.0 to make it easier for users and supporters to detect
# misconfigurations or miswiring. The default color format is for Neopixels with a dedicated
# white LED. On startup, all three SB LEDs should light up.
#
# If you get random colors across your LEDs, change the color_order to GRB and restart. Then
# omit the W for each suggested color_order in the next paragraph.
#
# If you get MAGENTA, your color order is correct. If you get CYAN, you need to use RGBW. If
# you get YELLOW, you need to use BRGW (note that BRG is only supported in the latest Klipper
# version).
#
# 4. Once you have confirmed that the LEDs are set up correctly, you must now decide where you want
# these macros called up...which means adding them to your existing gcode macros. NOTHING will happen
# unless you add the STATUS_????? macros to your existing gcode macros.
#
# Example: add STATUS_LEVELING to the beginning of your QGL gcode macro, and then add STATUS_READY
# to the end of it to set the logo LED and nozzle LEDs back to the `ready` state.
#
# Example: add STATUS_CLEANING to the beginning of your nozzle-cleaning macro, and then STATUS_READY
# to the end of it to return the LEDs back to `ready` state.
#
# 5. Feel free to change colors of each macro, create new ones if you have a need to. The macros provided below
# are just an example of what is possible. If you want to try some more complex animations, you will most
# likely have to use WLED with Moonraker and a small micro-controller
#
#####################################
# END INSTRUCTRUCTIONS #
#####################################
[neopixel sb_leds]
pin: EBB:gpio15
# The pin connected to the neopixel. This parameter must be provided.
chain_count: 3
# The number of Neopixel chips that are "daisy chained" to the
# provided pin. The default is 1 (which indicates only a single
# Neopixel is connected to the pin).
color_order: GRBW
# Set the pixel order required by the LED hardware. Options are GRB,
# RGB, GRBW, or RGBW. The default is GRB.
initial_RED: 1.0
initial_GREEN: 0.0
initial_BLUE: 1.0
initial_WHITE: 0.0
# Sets the initial LED color of the Neopixel. Each value should be
# between 0.0 and 1.0. The WHITE option is only available on RGBW
# LEDs. The default for each color is 0.#
# Most configuration for the macros can be done by modifying the variables in the _sb_vars macro
# at the start of this file.
##########
# MACROS #
##########
# The following status macros are available (these go inside of your macros):
#
# STATUS_READY
# STATUS_OFF
# STATUS_BUSY
# STATUS_HEATING
# STATUS_LEVELING
# STATUS_HOMING
# STATUS_CLEANING
# STATUS_MESHING
# STATUS_CALIBRATING_Z
#
# With additional macros for basic control:
#
# SET_NOZZLE_LEDS_ON
# SET_LOGO_LEDS_OFF
# SET_NOZZLE_LEDS_OFF
#
# Contributed by Voron discord users wile.e, Tetsunosuke, and etherwalker
[gcode_macro _sb_vars]
# User settings for the StealthBurner status leds. You can change the status colors and led
# configurations for the logo and nozzle here.
variable_colors: {
'logo': { # Colors for logo states
'busy': {'r': 0.4, 'g': 0.0, 'b': 0.0, 'w': 0.0},
'cleaning': {'r': 0.0, 'g': 0.02, 'b': 0.5, 'w': 0.0},
'calibrating_z': {'r': 0.8, 'g': 0., 'b': 0.35, 'w': 0.0},
'heating': {'r': 0.3, 'g': 0.18, 'b': 0.0, 'w': 0.0},
'homing': {'r': 0.0, 'g': 0.6, 'b': 0.2, 'w': 0.0},
'leveling': {'r': 0.5, 'g': 0.1, 'b': 0.4, 'w': 0.0},
'meshing': {'r': 0.2, 'g': 1.0, 'b': 0.0, 'w': 0.0},
'off': {'r': 0.0, 'g': 0.0, 'b': 0.0, 'w': 0.0},
'printing': {'r': 1.0, 'g': 0.0, 'b': 0.0, 'w': 0.0},
'standby': {'r': 0.01, 'g': 0.01, 'b': 0.01, 'w': 0.1},
},
'nozzle': { # Colors for nozzle states
'heating': {'r': 0.8, 'g': 0.35, 'b': 0.0, 'w':0.0},
'off': {'r': 0.0, 'g': 0.0, 'b': 0.0, 'w': 0.0},
'on': {'r': 0.8, 'g': 0.8, 'b': 0.8, 'w':1.0},
'standby': {'r': 0.6, 'g': 0.0, 'b': 0.0, 'w':0.0},
},
'thermal': {
'hot': {'r': 1.0, 'g': 0.0, 'b': 0.0, 'w': 0.0},
'cold': {'r': 0.3, 'g': 0.0, 'b': 0.3, 'w': 0.0}
}
}
variable_logo_led_name: "sb_leds"
# The name of the addressable LED chain that contains the logo LED(s)
variable_logo_idx: "1"
# A comma-separated list of indexes LEDs in the logo
variable_nozzle_led_name: "sb_leds"
# The name of the addressable LED chain that contains the nozzle LED(s). This will
# typically be the same LED chain as the logo.
variable_nozzle_idx: "2,3"
# A comma-separated list of indexes of LEDs in the nozzle
gcode:
# This section is required. Do Not Delete.
[gcode_macro _set_sb_leds]
gcode:
{% set red = params.RED|default(0)|float %}
{% set green = params.GREEN|default(0)|float %}
{% set blue = params.BLUE|default(0)|float %}
{% set white = params.WHITE|default(0)|float %}
{% set led = params.LED|string %}
{% set idx = (params.IDX|string).split(',') %}
{% set transmit_last = params.TRANSMIT|default(1) %}
{% for led_index in idx %}
{% set transmit=transmit_last if loop.last else 0 %}
set_led led={led} red={red} green={green} blue={blue} white={white} index={led_index} transmit={transmit}
{% endfor %}
[gcode_macro _set_sb_leds_by_name]
gcode:
{% set leds_name = params.LEDS %}
{% set color_name = params.COLOR %}
{% set color = printer["gcode_macro _sb_vars"].colors[leds_name][color_name] %}
{% set led = printer["gcode_macro _sb_vars"][leds_name + "_led_name"] %}
{% set idx = printer["gcode_macro _sb_vars"][leds_name + "_idx"] %}
{% set transmit = params.TRANSMIT|default(1) %}
_set_sb_leds led={led} red={color.r} green={color.g} blue={color.b} white={color.w} idx="{idx}" transmit={transmit}
[gcode_macro _set_logo_leds]
gcode:
{% set red = params.RED|default(0)|float %}
{% set green = params.GREEN|default(0)|float %}
{% set blue = params.BLUE|default(0)|float %}
{% set white = params.WHITE|default(0)|float %}
{% set led = printer["gcode_macro _sb_vars"].logo_led_name %}
{% set idx = printer["gcode_macro _sb_vars"].logo_idx %}
{% set transmit=params.TRANSMIT|default(1) %}
_set_sb_leds led={led} red={red} green={green} blue={blue} white={white} idx="{idx}" transmit={transmit}
[gcode_macro _set_nozzle_leds]
gcode:
{% set red = params.RED|default(0)|float %}
{% set green = params.GREEN|default(0)|float %}
{% set blue = params.BLUE|default(0)|float %}
{% set white = params.WHITE|default(0)|float %}
{% set led = printer["gcode_macro _sb_vars"].nozzle_led_name %}
{% set idx = printer["gcode_macro _sb_vars"].nozzle_idx %}
{% set transmit=params.TRANSMIT|default(1) %}
_set_sb_leds led={led} red={red} green={green} blue={blue} white={white} idx="{idx}" transmit={transmit}
[gcode_macro set_logo_leds_off]
gcode:
{% set transmit=params.TRANSMIT|default(1) %}
_set_logo_leds red=0 blue=0 green=0 white=0 transmit={transmit}
[gcode_macro set_nozzle_leds_on]
gcode:
{% set transmit=params.TRANSMIT|default(1) %}
_set_sb_leds_by_name leds="nozzle" color="on" transmit={transmit}
[gcode_macro set_nozzle_leds_off]
gcode:
{% set transmit=params.TRANSMIT|default(1) %}
_set_sb_leds_by_name leds="nozzle" color="off" transmit={transmit}
[gcode_macro status_off]
gcode:
set_logo_leds_off transmit=0
set_nozzle_leds_off
[gcode_macro status_ready]
gcode:
_set_sb_leds_by_name leds="logo" color="standby" transmit=0
_set_sb_leds_by_name leds="nozzle" color="standby" transmit=1
[gcode_macro status_busy]
gcode:
_set_sb_leds_by_name leds="logo" color="busy" transmit=0
set_nozzle_leds_on
[gcode_macro status_heating]
gcode:
_set_sb_leds_by_name leds="logo" color="heating" transmit=0
_set_sb_leds_by_name leds="nozzle" color="heating" transmit=1
[gcode_macro status_leveling]
gcode:
_set_sb_leds_by_name leds="logo" color="leveling" transmit=0
set_nozzle_leds_on
[gcode_macro status_homing]
gcode:
_set_sb_leds_by_name leds="logo" color="homing" transmit=0
set_nozzle_leds_on
[gcode_macro status_cleaning]
gcode:
_set_sb_leds_by_name leds="logo" color="cleaning" transmit=0
set_nozzle_leds_on
[gcode_macro status_meshing]
gcode:
_set_sb_leds_by_name leds="logo" color="meshing" transmit=0
set_nozzle_leds_on
[gcode_macro status_calibrating_z]
gcode:
_set_sb_leds_by_name leds="logo" color="calibrating_z" transmit=0
set_nozzle_leds_on
[gcode_macro status_printing]
gcode:
_set_sb_leds_by_name leds="logo" color="printing" transmit=0
set_nozzle_leds_on
printer_data/config/CUSTOM/thermistors.cfg
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[thermistor Trianglelab-NTC100K-B3950]
temperature1: 25
resistance1: 103180
temperature2: 150
resistance2: 1366.2
temperature3: 250
resistance3: 168.6
[temperature_sensor _chamber_1]
sensor_type: Trianglelab-NTC100K-B3950
sensor_pin: PF4
min_temp: 0
max_temp: 80
gcode_id: CH1
[temperature_sensor _chamber_2]
sensor_type: Trianglelab-NTC100K-B3950
sensor_pin: PF5
min_temp: 0
max_temp: 80
gcode_id: CH2
[temperature_sensor _chamber_3]
sensor_type: Trianglelab-NTC100K-B3950
sensor_pin: PF6
min_temp: 0
max_temp: 80
gcode_id: CH3
[temperature_sensor _chamber_4]
sensor_type: Trianglelab-NTC100K-B3950
sensor_pin: PF7
min_temp: 0
max_temp: 80
gcode_id: CH4
#[temperature_sensor chamber_combined_floor]
#sensor_type: temperature_combined
#sensor_list: temperature_sensor _chamber_1,temperature_sensor _chamber_2,temperature_sensor _chamber_3,temperature_sensor _chamber_4
#combination_method: min
#maximum_deviation: 999
[temperature_sensor chamber_combined_mean]
sensor_type: temperature_combined
sensor_list: temperature_sensor _chamber_1,temperature_sensor _chamber_2,temperature_sensor _chamber_3,temperature_sensor _chamber_4
combination_method: mean
maximum_deviation: 999
#[temperature_sensor chamber_combined_ceiling]
#sensor_type: temperature_combined
#sensor_list: temperature_sensor _chamber_1,temperature_sensor _chamber_2,temperature_sensor _chamber_3,temperature_sensor _chamber_4
#combination_method: max
#maximum_deviation: 999
printer_data/config/SYSTEM/KAMP_Settings.cfg
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# Below you can include specific configuration files depending on what you want KAMP to do:
#[include ./KAMP/Adaptive_Meshing.cfg] # Include to enable adaptive meshing configuration.
[include ../KAMP/Line_Purge.cfg] # Include to enable adaptive line purging configuration.
#[include ./KAMP/Voron_Purge.cfg] # Include to enable adaptive Voron logo purging configuration.
[include ../KAMP/Smart_Park.cfg] # Include to enable the Smart Park function, which parks the printhead near the print area for final heating.
[gcode_macro _KAMP_Settings]
description: This macro contains all adjustable settings for KAMP
# The following variables are settings for KAMP as a whole.
variable_verbose_enable: True # Set to True to enable KAMP information output when running. This is useful for debugging.
# The following variables are for adjusting adaptive mesh settings for KAMP.
variable_mesh_margin: 0 # Expands the mesh size in millimeters if desired. Leave at 0 to disable.
variable_fuzz_amount: 0 # Slightly randomizes mesh points to spread out wear from nozzle-based probes. Leave at 0 to disable.
# The following variables are for those with a dockable probe like Klicky, Euclid, etc. # ---------------- Attach Macro | Detach Macro
variable_probe_dock_enable: False # Set to True to enable the usage of a dockable probe. # ---------------------------------------------
variable_attach_macro: 'Attach_Probe' # The macro that is used to attach the probe. # Klicky Probe: 'Attach_Probe' | 'Dock_Probe'
variable_detach_macro: 'Dock_Probe' # The macro that is used to store the probe. # Euclid Probe: 'Deploy_Probe' | 'Stow_Probe'
# Legacy Gcode: 'M401' | 'M402'
# The following variables are for adjusting adaptive purge settings for KAMP.
variable_purge_height: 0.8 # Z position of nozzle during purge, default is 0.8.
variable_tip_distance: 0 # Distance between tip of filament and nozzle before purge. Should be similar to PRINT_END final retract amount.
variable_purge_margin: 10 # Distance the purge will be in front of the print area, default is 10.
variable_purge_amount: 30 # Amount of filament to be purged prior to printing.
variable_flow_rate: 12 # Flow rate of purge in mm3/s. Default is 12.
# The following variables are for adjusting the Smart Park feature for KAMP, which will park the printhead near the print area at a specified height.
variable_smart_park_height: 10 # Z position for Smart Park, default is 10.
gcode: # Gcode section left intentionally blank. Do not disturb.
{action_respond_info(" Running the KAMP_Settings macro does nothing, it is only used for storing KAMP settings. ")}
printer_data/config/crowsnest.conf
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#### crowsnest.conf
#### This is a typical default config.
#### Also used as default in mainsail / MainsailOS
#### See:
#### https://github.com/mainsail-crew/crowsnest/blob/master/README.md
#### for details to configure to your needs.
#####################################################################
#### #####
#### Information about ports and according URL's #####
#### #####
#####################################################################
#### #####
#### Port 8080 equals /webcam/?action=[stream/snapshot] #####
#### Port 8081 equals /webcam2/?action=[stream/snapshot] #####
#### Port 8082 equals /webcam3/?action=[stream/snapshot] #####
#### Port 8083 equals /webcam4/?action=[stream/snapshot] #####
#### #####
#### Note: These ports are default for most Mainsail #####
#### installations. To use any other port would involve #####
#### changing the proxy configuration or using directly #####
#### http://<ip>:<port>/?action=[stream/snapshot] #####
#### #####
#####################################################################
#### RTSP Stream URL: ( if enabled and supported ) #####
#### rtsp://<ip>:<rtsp_port>/stream.h264 #####
#####################################################################
[crowsnest]
log_path: /home/pi/printer_data/logs/crowsnest.log
log_level: verbose # Valid Options are quiet/verbose/debug
delete_log: false # Deletes log on every restart, if set to true
no_proxy: false
[cam 1]
mode: ustreamer # ustreamer - Provides mjpg and snapshots. (All devices)
# camera-streamer - Provides webrtc, mjpg and snapshots. (rpi + Raspi OS based only)
enable_rtsp: false # If camera-streamer is used, this enables also usage of an rtsp server
rtsp_port: 8554 # Set different ports for each device!
port: 8080 # HTTP/MJPG Stream/Snapshot Port
device: /dev/video0 # See Log for available ...
resolution: 1920x1080 # widthxheight format
max_fps: 30 # If Hardware Supports this it will be forced, otherwise ignored/coerced.
#custom_flags: # You can run the Stream Services with custom flags.
#v4l2ctl: # Add v4l2-ctl parameters to setup your camera, see Log what your cam is capable of.
printer_data/config/moonraker.conf
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[server]
host: 0.0.0.0
port: 7125
# The maximum size allowed for a file upload (in MiB). Default 1024 MiB
max_upload_size: 1024
# Path to klippy Unix Domain Socket
klippy_uds_address: ~/printer_data/comms/klippy.sock
[file_manager]
# post processing for object cancel. Not recommended for low resource SBCs such as a Pi Zero. Default False
enable_object_processing: False
[authorization]
force_logins: False
cors_domains:
https://*.backup.equipment
http://*.backup.equipment
http://*.local
http://*.lan
trusted_clients:
10.0.0.0/8
127.0.0.0/8
169.254.0.0/16
172.16.0.0/12
192.168.2.101
192.168.2.102
192.168.2.103
192.168.2.0/24
FE80::/10
::1/128
# enables partial support of Octoprint API
[octoprint_compat]
# enables moonraker to track and store print history.
[history]
# this enables moonraker announcements for mainsail
[announcements]
subscriptions:
mainsail
# this enables moonraker's update manager
[update_manager]
refresh_interval: 168
enable_auto_refresh: True
[update_manager mainsail]
type: web
channel: stable
repo: mainsail-crew/mainsail
path: ~/mainsail
[update_manager mainsail-config]
type: git_repo
primary_branch: master
path: ~/mainsail-config
origin: https://github.com/mainsail-crew/mainsail-config.git
managed_services: klipper
### moonraker-timelapse
### Don't forget to include timelapse.cfg to your printer.cfg
### Uncomment to enable moonraker-timelapse
[update_manager timelapse]
type: git_repo
primary_branch: main
path: ~/moonraker-timelapse
origin: https://github.com/mainsail-crew/moonraker-timelapse.git
managed_services: klipper moonraker
[timelapse]
## Directory where the generated video will be saved
output_path: ~/timelapse/
## Directory where ffmpeg is installed
ffmpeg_binary_path: /usr/bin/ffmpeg
# Crowsnest update_manager entry
[update_manager crowsnest]
type: git_repo
path: ~/crowsnest
origin: https://github.com/mainsail-crew/crowsnest.git
managed_services: crowsnest
install_script: tools/pkglist.sh
# Sonar update_manager entry
[update_manager sonar]
type: git_repo
path: ~/sonar
origin: https://github.com/mainsail-crew/sonar.git
primary_branch: main
managed_services: sonar
install_script: tools/install.sh
# Sonar update_manager entry
[update_manager eddy-ng]
type: git_repo
path: ~/eddy-ng
origin: https://github.com/vvuk/eddy-ng.git
primary_branch: main
managed_services: eddy-ng
install_script: ./install.sh
[update_manager Klipper-Adaptive-Meshing-Purging]
type: git_repo
channel: dev
path: ~/Klipper-Adaptive-Meshing-Purging
origin: https://github.com/kyleisah/Klipper-Adaptive-Meshing-Purging.git
managed_services: klipper
primary_branch: main
[update_manager klipper-backup]
type: git_repo
path: ~/klipper-backup
origin: https://github.com/Staubgeborener/klipper-backup.git
managed_services: moonraker
primary_branch: main
printer_data/config/printer.cfg
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# This file contains common pin mappings for the BigTreeTech OctoPus V1.
# To use this config, the firmware should be compiled for the STM32F446 with a "32KiB bootloader"
# Enable "extra low-level configuration options" and select the "12MHz crystal" as clock reference
# after running "make", copy the generated "klipper/out/klipper.bin" file to a
# file named "firmware.bin" on an SD card and then restart the OctoPus with that SD card.
# See docs/Config_Reference.md for a description of parameters.
## Voron Design VORON2 250/300/350mm BigTreeTech OctoPus V1 TMC2209 UART config
## *** THINGS TO CHANGE/CHECK: ***
## MCU paths [mcu] section
## Thermistor types [extruder] and [heater_bed] sections - See 'sensor types' list at end of file
## Z Endstop Switch location [safe_z_home] section
## Homing end position [gcode_macro G32] section
## Z Endstop Switch offset for Z0 [stepper_z] section
## Probe points [quad_gantry_level] section
## Min & Max gantry corner postions [quad_gantry_level] section
## PID tune [extruder] and [heater_bed] sections
## Fine tune E steps [extruder] section
[include ./SYSTEM/*.cfg]
[include ./BTT/*.cfg]
[include ./CUSTOM/*.cfg]
[mcu]
## [X in MOTOR0] - B Motor
## [Y in MOTOR1] - A Motor
## [E in MOTOR6] - Extruder
## Obtain definition by "ls -l /dev/serial/by-id/" then unplug to verify
##--------------------------------------------------------------------
serial: /dev/serial/by-id/usb-Klipper_stm32f446xx_360026001950534146373920-if00
restart_method: command
##--------------------------------------------------------------------
[printer]
kinematics: corexy
max_velocity: 500
max_accel: 4200 #Max 4000
#max_y_accel: 4200
#max_x_accel: 8000
#max_accel: 10000 #Testing - revert back to above line after!
#max_accel_to_decel: 10000 #Testing - revert back to above line after!
max_z_velocity: 30 #Max 15 for 12V TMC Drivers, can increase for 24V
max_z_accel: 500
square_corner_velocity: 5.0
[force_move]
enable_force_move: True
[skew_correction]
[exclude_object]
[firmware_retraction]
[gcode_arcs]
resolution: 0.1
#####################################################################
# X/Y Stepper Settings
#####################################################################
## X Stepper on MOTOR0(B Motor)
[stepper_x]
step_pin: PF13
dir_pin: PF12
enable_pin: !PF14
rotation_distance: 40
microsteps: 16
full_steps_per_rotation:200 #set to 400 for 0.9 degree stepper
endstop_pin: tmc2209_stepper_x:virtual_endstop
position_min: 0
position_endstop: 352
position_max: 352
##--------------------------------------------------------------------
homing_speed: 50 #Max 100
homing_retract_dist: 0
homing_positive_dir: true
## Make sure to update below for your relevant driver (2208 or 2209)
[tmc2209 stepper_x]
uart_pin: PC4
interpolate: False
run_current: 0.9
hold_current: 0.7
sense_resistor: 0.110
#stealthchop_threshold: 400
diag_pin: ^PG6
driver_SGTHRS: 60 #255 Most Sensitive 0 Least Sensitive
## Y Stepper on MOTOR1 (A Motor)
[stepper_y]
step_pin: PG0
dir_pin: PG1
enable_pin: !PF15
rotation_distance: 40
microsteps: 16
full_steps_per_rotation:200 #set to 400 for 0.9 degree stepper
endstop_pin: tmc2209_stepper_y:virtual_endstop
position_min: 0
position_endstop: 359
position_max: 359
##--------------------------------------------------------------------
homing_speed: 50 #Max 100
homing_retract_dist: 0
homing_positive_dir: true
## Make sure to update below for your relevant driver (2208 or 2209)
[tmc2209 stepper_y]
uart_pin: PD11
interpolate: False
run_current: 0.9
hold_current: 0.7
sense_resistor: 0.110
#stealthchop_threshold: 400
diag_pin: ^PG9
driver_SGTHRS: 63 #255 Most Sensitive 0 Least Sensitive
#####################################################################
# Z Stepper Settings
#####################################################################
## Z0 Stepper - Front Left on MOTOR2_1
[stepper_z]
step_pin: PF9
dir_pin: PF10
enable_pin: !PG2
rotation_distance: 40
gear_ratio: 80:16
microsteps: 16
endstop_pin: EBB:gpio6
## Z-position of nozzle (in mm) to z-endstop trigger point relative to print surface (Z0)
## (+) value = endstop above Z0, (-) value = endstop below
## Increasing position_endstop brings nozzle closer to the bed
## After you run Z_ENDSTOP_CALIBRATE, position_endstop will be stored at the very end of your config
#position_endstop: -0.5
##--------------------------------------------------------------------
## Uncomment below for 250mm build
#position_max: 240
## Uncomment below for 300mm build
#position_max: 290
## Uncomment below for 350mm build
position_max: 300
##--------------------------------------------------------------------
position_min: -2
homing_speed: 15
second_homing_speed: 1
homing_retract_dist: 3
## Make sure to update below for your relevant driver (2208 or 2209)
[tmc2209 stepper_z]
uart_pin: PF2
interpolate: true
run_current: 0.8
hold_current: 0.8
sense_resistor: 0.110
stealthchop_threshold: 0
## Z1 Stepper - Rear Left on MOTOR3
[stepper_z1]
step_pin: PC13
dir_pin: !PF0
enable_pin: !PF1
rotation_distance: 40
gear_ratio: 80:16
microsteps: 16
## Make sure to update below for your relevant driver (2208 or 2209)
[tmc2209 stepper_z1]
uart_pin: PE4
interpolate: true
run_current: 0.8
hold_current: 0.8
sense_resistor: 0.110
stealthchop_threshold: 0
## Z2 Stepper - Rear Right on MOTOR4
[stepper_z2]
step_pin: PE2
dir_pin: PE3
enable_pin: !PD4
rotation_distance: 40
gear_ratio: 80:16
microsteps: 16
## Make sure to update below for your relevant driver (2208 or 2209)
[tmc2209 stepper_z2]
uart_pin: PE1
interpolate: true
run_current: 0.8
hold_current: 0.80
sense_resistor: 0.110
stealthchop_threshold: 0
## Z3 Stepper - Front Right on MOTOR5
[stepper_z3]
step_pin: PE6
dir_pin: !PA14
enable_pin: !PE0
rotation_distance: 40
gear_ratio: 80:16
microsteps: 16
## Make sure to update below for your relevant driver (2208 or 2209)
[tmc2209 stepper_z3]
uart_pin: PD3
interpolate: true
run_current: 0.8
hold_current: 0.80
sense_resistor: 0.110
stealthchop_threshold: 0
#####################################################################
# Bed Heater
#####################################################################
[heater_bed]
## SSR Pin - BED_OUT
heater_pin: PA1
sensor_type: Generic 3950
sensor_pin: PF3
## Adjust Max Power so your heater doesn't warp your bed
max_power: 1.0
min_temp: 0
max_temp: 125
#control: pid
#pid_kp: 58.437
#pid_ki: 2.347
#pid_kd: 363.769
#####################################################################
# Fan Control
#####################################################################
[fan]
## Part Cooling Fan - CPAP 7040
pin: PG15
max_power: 1.0
kick_start_time: 0.05
hardware_pwm: False
cycle_time: 0.005
off_below: 0.1
[controller_fan stepper_fan]
## Controller fan - CNC_FAN2
pin: PD12
max_power: 0.9
kick_start_time: 0.5
fan_speed: 0.7
[controller_fan electronic_chamber_fans]
## Controller fan - CNC_FAN2
pin: PD13
max_power: 0.8
kick_start_time: 0.5
fan_speed: 0.4
[temperature_fan exhaust_fan]
pin: PE5
shutdown_speed: 0.0
kick_start_time: 5.0
cycle_time: 0.05
hardware_pwm: True
off_below: 0.15
sensor_type: temperature_combined
sensor_list: temperature_sensor _chamber_1, temperature_sensor _chamber_2, temperature_sensor _chamber_3, temperature_sensor _chamber_4
combination_method: mean
maximum_deviation: 999
control: pid
pid_Kp: 35.0
pid_Ki: 12
pid_Kd: 4.0
pid_deriv_time: 2.0
target_temp: 50.0
min_temp: 0
max_temp: 110
min_speed: 0.149
max_speed: 1.0
gcode_id: C
#[temperature_fan exhaust_fan]
## Exhaust fan - CNC_FAN3
#pin: PE5
#max_power: 1.0
#shutdown_speed: 0.0
#kick_start_time: 5.0
#cycle_time:0.05
#off_below:0.1
#sensor_type: temperature_combined
#sensor_list: temperature_sensor _chamber_1,temperature_sensor _chamber_2,temperature_sensor _chamber_3,temperature_sensor _chamber_4
#combination_method: mean
#maximum_deviation: 999
#min_temp: 0
#max_temp: 80
#target_temp: 35.0
#max_delta: 0.5
#max_speed: 1.0
#min_speed: 0.3
#control: watermark
#gcode_id: C
[gcode_macro M141]
gcode:
{% set s = params.S|default(0)|float %}
SET_TEMPERATURE_FAN_TARGET temperature_fan="exhaust_fan" target={s}
[fan_generic nevermore_fan]
pin: PD15
max_power: 1.0
kick_start_time: 1.0
cycle_time: 0.05
off_below: 0.13
#####################################################################
# LED Control
#####################################################################
#[output_pin caselight]
# Chamber Lighting - HE1 Connector (Optional)
#pin: PB11
#pwm:true
#shutdown_value: 0
#value:1
#cycle_time: 0.01
[output_pin daylight]
pin: PB11
pwm: True
cycle_time: 0.01
#####################################################################
# Homing and Gantry Adjustment Routines
#####################################################################
[idle_timeout]
timeout: 1800
#[safe_z_home]
## XY Location of the Z Endstop Switch
## Update -10,-10 to the XY coordinates of your endstop pin
## (such as 157,305) after going through Z Endstop Pin
## Location Definition step.
#home_xy_position:175,175
#speed:100
#z_hop:10
[quad_gantry_level]
## Use QUAD_GANTRY_LEVEL to level a gantry.
## Min & Max gantry corners - measure from nozzle at MIN (0,0) and
## MAX (250, 250), (300,300), or (350,350) depending on your printer size
## to respective belt positions
#--------------------------------------------------------------------
## Gantry Corners for 250mm Build
## Uncomment for 250mm build
#gantry_corners:
# -60,-10
# 310, 320
## Probe points
#points:
# 50,25
# 50,175
# 200,175
# 200,25
## Gantry Corners for 300mm Build
## Uncomment for 300mm build
#gantry_corners:
# -60,-10
# 360,370
## Probe points
#points:
# 50,25
# 50,225
# 250,225
# 250,25
## Gantry Corners for 350mm Build
## Uncomment for 350mm build
gantry_corners:
-60,-10
410,420
# Probe points
points:
50,25
50,275
300,275
300,25
#--------------------------------------------------------------------
speed: 200
horizontal_move_z: 2
retries: 15
retry_tolerance: 0.015
max_adjust: 5
#--------------------------------------------------------------------
[neopixel front_logo]
pin: PB0
# The pin connected to the neopixel. This parameter must be
# provided.
chain_count: 7
# The number of Neopixel chips that are "daisy chained" to the
# provided pin. The default is 1 (which indicates only a single
# Neopixel is connected to the pin).
color_order: GRB
# Set the pixel order required by the LED hardware (using a string
# containing the letters R, G, B, W with W optional). Alternatively,
# this may be a comma separated list of pixel orders - one for each
# LED in the chain. The default is GRB.
initial_RED: 1.0
initial_GREEN: 0.0
initial_BLUE: 0.0
initial_WHITE: 0.0
# See the "led" section for information on these parameters.
#--------------------------------------------------------------------
#####################################################################
# Macros
#####################################################################
[gcode_macro G32]
description: Home XYZ mesh calibrate
gcode:
STATUS_HOMING
BED_MESH_CLEAR
G28
QUAD_GANTRY_LEVEL
G1 X{ printer.toolhead.axis_maximum.x/2 } Y{ printer.toolhead.axis_maximum.y/2 } F4500
PROBE_EDDY_NG_TAP
STATUS_MESHING
BED_MESH_CALIBRATE METHOD=rapid_scan
G1 X{ printer.toolhead.axis_maximum.x/2 } Y{ printer.toolhead.axis_maximum.y/2 } Z30 F4500
STATUS_READY
#--------------------------------------------------------------------
[gcode_macro FAST_CALIBRATE]
description: Quickly home axis and mesh area to be printed. QGL if needed
gcode:
BED_MESH_CLEAR
_CG28
{% if printer.quad_gantry_level.applied|lower == 'false' %}
STATUS_LEVELING
QUAD_GANTRY_LEVEL
{% endif %}
G1 X{ printer.toolhead.axis_maximum.x/2 } Y{ printer.toolhead.axis_maximum.y/2 } F4500
PROBE_EDDY_NG_TAP
STATUS_MESHING
BED_MESH_CALIBRATE ADAPTIVE=1 METHOD=rapid_scan
[gcode_macro PRINT_START]
# Use PRINT_START for the slicer starting script - please customise for your slicer of choice
gcode:
CLEAN_NOZZLE
STATUS_PRINTING
LINE_PURGE
[gcode_macro PRINT_END]
# Use PRINT_END for the slicer ending script - please customise for your slicer of choice
gcode:
M400 ; wait for buffer to clear
G92 E0 ; zero the extruder
G1 E-10.0 F3600 ; retract filament
G91 ; relative positioning
G0 Z1.00 X20.0 Y20.0 F20000 ; move nozzle to remove stringing
TURN_OFF_HEATERS
M107 ; turn off fan
M106 S0
G1 Z5 F3000 ; move nozzle up 5mm
G90 ; absolute positioning
BED_MESH_CLEAR
SET_PIN PIN=daylight VALUE=0.0
## Thermistor Types
## "EPCOS 100K B57560G104F"
## "ATC Semitec 104GT-2"
## "NTC 100K beta 3950"
## "Honeywell 100K 135-104LAG-J01"
## "NTC 100K MGB18-104F39050L32" (Keenovo Heater Pad)
## "AD595"
## "PT100 INA826"
#*# <---------------------- SAVE_CONFIG ---------------------->
#*# DO NOT EDIT THIS BLOCK OR BELOW. The contents are auto-generated.
#*#
#*# [extruder]
#*# control = pid
#*# pid_kp = 15.921
#*# pid_ki = 3.553
#*# pid_kd = 12.717
#*#
#*# [heater_bed]
#*# control = pid
#*# pid_kp = 38.431
#*# pid_ki = 1.601
#*# pid_kd = 230.586
#*#
#*# [stepper_z]
#*# position_endstop = -0.65
#*#
#*# [input_shaper]
#*# shaper_type_x = mzv
#*# shaper_freq_x = 52.2
#*# shaper_type_y = mzv
#*# shaper_freq_y = 37.8
#*#
#*# [probe_eddy_ng btt_eddy]
#*# calibrated_drive_currents = 15
#*# calibration_version = 5
#*# tap_drive_current = 15
#*# calibration_15 = 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
printer_data/config/sonar.conf
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#### Sonar - A WiFi Keepalive daemon
####
#### Written by Stephan Wendel aka KwadFan <me@stephanwe.de>
#### Copyright 2022
#### https://github.com/mainsail-crew/sonar
####
#### This File is distributed under GPLv3
####
[sonar]
enable: false # false to disable till next reboot (will stop again if not set to true)
debug_log: false # if set to true, sonar will log ever ping with triptime and date/time
persistent_log: false # If true logs in /var/log/sonar.log, false logs to systemd
target: auto # IP Address, URL or auto as ping target
count: 3 # How often should be pinged?
interval: 60 # Ping again after X seconds
restart_threshold: 10 # If failed, restart WiFi after X seconds