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Merge branch 'main' into AddCoolingProfile

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2
plugins/PostProcessingPlugin/Script.py
View file

@ -122,7 +122,7 @@ class Script:
if not key in line or (';' in line and line.find(key) > line.find(';')):
return default
sub_part = line[line.find(key) + 1:]
m = re.search('^-?[0-9]+\.?[0-9]*', sub_part)
m = re.search(r'^-?[0-9]+\.?[0-9]*', sub_part)
if m is None:
return default
try:

2
plugins/PostProcessingPlugin/scripts/FilamentChange.py
View file

@ -92,7 +92,7 @@ class FilamentChange(Script):
"type": "float",
"default_value": 0,
"minimum_value": 0,
"enabled": "enabled"
"enabled": "enabled and not firmware_config"
},
"retract_method":
{

232
plugins/PostProcessingPlugin/scripts/InsertAtLayerChange.py
View file

@ -1,65 +1,217 @@
# Copyright (c) 2020 Ultimaker B.V.
# Cura is released under the terms of the LGPLv3 or higher.
# Created by Wayne Porter
# Re-write in April of 2024 by GregValiant (Greg Foresi)
# Changes:
# Added an 'Enable' setting
# Added support for multi-line insertions (comma delimited)
# Added insertions in a range of layers or a single insertion at a layer. Numbers are consistent with the Cura Preview (base1)
# Added frequency of Insertion (once only, every layer, every 2nd, 3rd, 5th, 10th, 25th, 50th, 100th)
# Added support for 'One at a Time' print sequence
# Rafts are allowed and accounted for but no insertions are made in raft layers
from ..Script import Script
import re
from UM.Application import Application
class InsertAtLayerChange(Script):
def __init__(self):
super().__init__()
def getSettingDataString(self):
return """{
"name": "Insert at layer change",
"name": "Insert at Layer Change",
"key": "InsertAtLayerChange",
"metadata": {},
"version": 2,
"settings":
{
"insert_location":
"enabled":
{
"label": "When to insert",
"description": "Whether to insert code before or after layer change.",
"label": "Enable this script",
"description": "You must enable the script for it to run.",
"type": "bool",
"default_value": true,
"enabled": true
},
"insert_frequency":
{
"label": "How often to insert",
"description": "Every so many layers starting with the Start Layer OR as single insertion at a specific layer. If the print sequence is 'one_at_a_time' then the insertions will be made for every model. Insertions are made at the beginning of a layer.",
"type": "enum",
"options": {"before": "Before", "after": "After"},
"default_value": "before"
"options": {
"once_only": "One insertion only",
"every_layer": "Every Layer",
"every_2nd": "Every 2nd",
"every_3rd": "Every 3rd",
"every_5th": "Every 5th",
"every_10th": "Every 10th",
"every_25th": "Every 25th",
"every_50th": "Every 50th",
"every_100th": "Every 100th"},
"default_value": "every_layer",
"enabled": "enabled"
},
"start_layer":
{
"label": "Starting Layer",
"description": "The layer before which the first insertion will take place. If the Print_Sequence is 'All at Once' then use the layer numbers from the Cura Preview. Enter '1' to start at gcode LAYER:0. In 'One at a Time' mode use the layer numbers from the first model that prints AND all models will receive the same insertions. NOTE: There is never an insertion for raft layers.",
"type": "int",
"default_value": 1,
"minimum_value": 1,
"enabled": "insert_frequency != 'once_only' and enabled"
},
"end_layer":
{
"label": "Ending Layer",
"description": "The layer before which the last insertion will take place. Enter '-1' to indicate the entire file. Use layer numbers from the Cura Preview.",
"type": "int",
"default_value": -1,
"minimum_value": -1,
"enabled": "insert_frequency != 'once_only' and enabled"
},
"single_end_layer":
{
"label": "Layer # for Single Insertion.",
"description": "The layer before which the Gcode insertion will take place. Use the layer numbers from the Cura Preview.",
"type": "str",
"default_value": "",
"enabled": "insert_frequency == 'once_only' and enabled"
},
"gcode_to_add":
{
"label": "G-code to insert",
"description": "G-code to add before or after layer change.",
"label": "G-code to insert.",
"description": "G-code to add at start of the layer. Use a comma to delimit multi-line commands. EX: G28 X Y,M220 S100,M117 HELL0. NOTE: All inserted text will be converted to upper-case as some firmwares don't understand lower-case.",
"type": "str",
"default_value": ""
},
"skip_layers":
{
"label": "Skip layers",
"description": "Number of layers to skip between insertions (0 for every layer).",
"type": "int",
"default_value": 0,
"minimum_value": 0
"default_value": "",
"enabled": "enabled"
}
}
}"""
def execute(self, data):
gcode_to_add = self.getSettingValueByKey("gcode_to_add") + "\n"
skip_layers = self.getSettingValueByKey("skip_layers")
count = 0
for layer in data:
# Check that a layer is being printed
lines = layer.split("\n")
for line in lines:
if ";LAYER:" in line:
index = data.index(layer)
if count == 0:
if self.getSettingValueByKey("insert_location") == "before":
layer = gcode_to_add + layer
else:
layer = layer + gcode_to_add
data[index] = layer
count = (count + 1) % (skip_layers + 1)
break
return data
# Exit if the script is not enabled
if not bool(self.getSettingValueByKey("enabled")):
return data
#Initialize variables
mycode = self.getSettingValueByKey("gcode_to_add").upper()
start_layer = int(self.getSettingValueByKey("start_layer"))
end_layer = int(self.getSettingValueByKey("end_layer"))
when_to_insert = self.getSettingValueByKey("insert_frequency")
end_list = [0]
print_sequence = Application.getInstance().getGlobalContainerStack().getProperty("print_sequence", "value")
# Get the topmost layer number and adjust the end_list
if end_layer == -1:
if print_sequence == "all_at_once":
for lnum in range(0, len(data) - 1):
if ";LAYER:" in data[lnum]:
the_top = int(data[lnum].split(";LAYER:")[1].split("\n")[0])
end_list[0] = the_top
# Get the topmost layer number for each model and append it to the end_list
if print_sequence == "one_at_a_time":
for lnum in range(0, 10):
if ";LAYER:0" in data[lnum]:
start_at = lnum + 1
break
for lnum in range(start_at, len(data)-1, 1):
if ";LAYER:" in data[lnum] and not ";LAYER:0" in data[lnum] and not ";LAYER:-" in data[lnum]:
end_list[len(end_list) - 1] = int(data[lnum].split(";LAYER:")[1].split("\n")[0])
continue
if ";LAYER:0" in data[lnum]:
end_list.append(0)
elif end_layer != -1:
if print_sequence == "all_at_once":
# Catch an error if the entered End_Layer > the top layer in the gcode
for e_num, layer in enumerate(data):
if ";LAYER:" in layer:
top_layer = int(data[e_num].split(";LAYER:")[1].split("\n")[0])
end_list[0] = end_layer - 1
if top_layer < end_layer - 1:
end_list[0] = top_layer
elif print_sequence == "one_at_a_time":
# Find the index of the first Layer:0
for lnum in range(0, 10):
if ";LAYER:0" in data[lnum]:
start_at = lnum + 1
break
# Get the top layer number for each model
for lnum in range(start_at, len(data)-1):
if ";LAYER:" in data[lnum] and not ";LAYER:0" in data[lnum] and not ";LAYER:-" in data[lnum]:
end_list[len(end_list) - 1] = int(data[lnum].split(";LAYER:")[1].split("\n")[0])
if ";LAYER:0" in data[lnum]:
end_list.append(0)
# Adjust the end list if an end layer was named
for index, num in enumerate(end_list):
if num > end_layer - 1:
end_list[index] = end_layer - 1
#If the gcode_to_enter is multi-line then replace the commas with newline characters
if mycode != "":
if "," in mycode:
mycode = re.sub(",", "\n",mycode)
gcode_to_add = mycode
#Get the insertion frequency
match when_to_insert:
case "every_layer":
freq = 1
case "every_2nd":
freq = 2
case "every_3rd":
freq = 3
case "every_5th":
freq = 5
case "every_10th":
freq = 10
case "every_25th":
freq = 25
case "every_50th":
freq = 50
case "every_100th":
freq = 100
case "once_only":
the_insert_layer = int(self.getSettingValueByKey("single_end_layer"))-1
case _:
raise ValueError(f"Unexpected insertion frequency {when_to_insert}")
#Single insertion
if when_to_insert == "once_only":
# For print sequence 'All at once'
if print_sequence == "all_at_once":
for index, layer in enumerate(data):
if ";LAYER:" + str(the_insert_layer) + "\n" in layer:
lines = layer.split("\n")
lines.insert(1,gcode_to_add)
data[index] = "\n".join(lines)
return data
# For print sequence 'One at a time'
else:
for index, layer in enumerate(data):
if ";LAYER:" + str(the_insert_layer) + "\n" in layer:
lines = layer.split("\n")
lines.insert(1,gcode_to_add)
data[index] = "\n".join(lines)
return data
# For multiple insertions
if when_to_insert != "once_only":
# Search from the line after the first Layer:0 so we know when a model ends if in One at a Time mode.
first_0 = True
next_layer = start_layer - 1
end_layer = end_list.pop(0)
for index, layer in enumerate(data):
lines = layer.split("\n")
for l_index, line in enumerate(lines):
if ";LAYER:" in line:
layer_number = int(line.split(":")[1])
if layer_number == next_layer and layer_number <= end_layer:
lines.insert(l_index + 1,gcode_to_add)
data[index] = "\n".join(lines)
next_layer += freq
# Reset the next_layer for one-at-a-time
if next_layer > int(end_layer):
next_layer = start_layer - 1
# Index to the next end_layer when a Layer:0 is encountered
try:
if not first_0 and layer_number == 0:
end_layer = end_list.pop(0)
except:
pass
# Beyond the initial Layer:0 futher Layer:0's indicate the top layer of a model.
if layer_number == 0:
first_0 = False
break
return data

2
plugins/PostProcessingPlugin/scripts/PauseAtHeight.py
View file

@ -338,7 +338,7 @@ class PauseAtHeight(Script):
nbr_negative_layers += 1
#Track the latest printing temperature in order to resume at the correct temperature.
if re.match("T(\d*)", line):
if re.match(r"T(\d*)", line):
current_t = self.getValue(line, "T")
m = self.getValue(line, "M")
if m is not None and (m == 104 or m == 109) and self.getValue(line, "S") is not None:

988
plugins/PostProcessingPlugin/scripts/PurgeLinesAndUnload.py Normal file
View file

@ -0,0 +1,988 @@
# August 2024 - Designed by: GregValiant (Greg Foresi). Straightened out by: Hellaholic
#
# NOTE: You may have purge lines in your startup, or you may use this script, you should not do both. The script will attempt to comment out existing StartUp purge lines.
# 'Add Purge Lines to StartUp' Allows the user to determine where the purge lines are on the build plate, or to not use purge lines if a print extends to the limits of the build surface.
# This script will attempt to recognize and comment out purge lines in the StartUp Gcode but they should be removed if using this script.
# The setting 'Purge Line Length' is only avaialble for rectangular beds because I was too lazy to calculate the 45° arcs.
# 'Move to Start' takes an orthogonal path around the periphery before moving in to the print start location. It eliminates strings across the print area.
# 'Adjust Starting E' is a correction in the E location before the skirt/brim starts. The user can make an adjustment so that the skirt / brim / raft starts where it should.
# 'Unload' adds code to the Ending Gcode that will unload the filament from the machine. The unlaod distance is broken into chunks to avoid overly long E distances.
# Added extra moves to account for Cura adding a "Travel to Prime Tower" move that can cross the middle of the build surface.
# Added ability to take 'disallowed areas' into account.
import math
from ..Script import Script
from UM.Application import Application
from UM.Message import Message
import re
from UM.Logger import Logger
from enum import Enum
class Location(str, Enum):
LEFT = "left"
RIGHT = "right"
REAR = "rear"
FRONT = "front"
class Position(tuple, Enum):
LEFT_FRONT = ("left", "front")
RIGHT_FRONT = ("right", "front")
LEFT_REAR = ("left", "rear")
RIGHT_REAR = ("right", "rear")
class PurgeLinesAndUnload(Script):
def __init__(self):
super().__init__()
self.global_stack = Application.getInstance().getGlobalContainerStack()
self.extruder = self.global_stack.extruderList
self.end_purge_location = None
self.speed_travel = None
# This will be True when there are more than 4 'machine_disallowed_areas'
self.show_warning = False
self.disallowed_areas = self.global_stack.getProperty("machine_disallowed_areas", "value")
self.extruder = self.global_stack.extruderList
self.extruder_count = self.global_stack.getProperty("machine_extruder_count", "value")
self.bed_shape = self.global_stack.getProperty("machine_shape", "value")
self.origin_at_center = self.global_stack.getProperty("machine_center_is_zero", "value")
self.machine_width = self.global_stack.getProperty("machine_width", "value")
self.machine_depth = self.global_stack.getProperty("machine_depth", "value")
self.machine_left = 1.0
self.machine_right = self.machine_width - 1.0
self.machine_front = 1.0
self.machine_back = self.machine_depth - 1.0
self.start_x = None
self.start_y = None
def initialize(self) -> None:
super().initialize()
# Get the StartUp Gcode from Cura and attempt to catch if it contains purge lines. Message the user if an extrusion is in the startup.
startup_gcode = self.global_stack.getProperty("machine_start_gcode", "value")
start_lines = startup_gcode.splitlines()
for line in start_lines:
if "G1" in line and " E" in line and (" X" in line or " Y" in line):
Message(title="[Purge Lines and Unload]",
text="It appears that there are 'purge lines' in the StartUp Gcode. Using the 'Add Purge Lines' function of this script will comment them out.").show()
break
# 'is_rectangular' is used to disable half-length purge lines for elliptic beds.
self._instance.setProperty("is_rectangular", "value", True if self.global_stack.getProperty("machine_shape", "value") == "rectangular" else False)
self._instance.setProperty("move_to_prime_tower", "value", True if self.global_stack.getProperty("machine_extruder_count", "value") > 1 else False)
# Set the default E adjustment
self._instance.setProperty("adjust_e_loc_to", "value", -abs(round(float(self.extruder[0].getProperty("retraction_amount", "value")), 1)))
def getSettingDataString(self):
return """{
"name": "Purge Lines and Unload Filament",
"key": "PurgeLinesAndUnload",
"metadata": {},
"version": 2,
"settings":
{
"add_purge_lines":
{
"label": "Add Purge Lines to StartUp",
"description": "The purge lines can be left, right, front or back. If there are purge lines present in the StartUp Gcode remove them or comment them out before using this script. You don't want to double dip.",
"type": "bool",
"default_value": false,
"value": false,
"enabled": true
},
"purge_line_location":
{
"label": " Purge Line Location",
"description": "What edge of the build plate should have the purge lines. If the printer is 'Elliptical' then it is assumed to be an 'Origin At Center' printer and the purge lines are 90° arcs.",
"type": "enum",
"options": {
"left": "On left edge (Xmin)",
"right": "On right edge (Xmax)",
"front": "On front edge (Ymin)",
"rear": "On back edge (Ymax)"},
"default_value": "left",
"enabled": "add_purge_lines"
},
"purge_line_length":
{
"label": " Purge Line Length",
"description": "Select 'Full' for the entire Height or Width of the build plate. Select 'Half' for shorter purge lines. NOTE: This has no effect on elliptic beds.",
"type": "enum",
"options": {
"purge_full": "Full",
"purge_half": "Half"},
"default_value": "purge_full",
"enabled": "add_purge_lines and is_rectangular"
},
"border_distance":
{
"label": " Border Distance",
"description": "This is the distance from the build plate edge to the first purge line. '0' works for most printers but you might want the lines further inboard. The allowable range is -12 to 12. ⚠️ Negative numbers are allowed for printers that have 'Disallowed Areas'. You must use due caution when using a negative value.",
"type": "int",
"unit": "mm ",
"default_value": 0,
"minimum_value": -12,
"maximum_value": 12,
"enabled": "add_purge_lines"
},
"prime_blob_enable":
{
"label": " Start with Prime Blob️​",
"description": "Enable a stationary purge before starting the purge lines. Available only when purge line location is 'left' or 'front'",
"type": "bool",
"default_value": false,
"enabled": "add_purge_lines and purge_line_location in ['front', 'left']"
},
"prime_blob_distance":
{
"label": " Blob Distance️​",
"description": "How many mm's of filament should be extruded for the blob.",
"type": "int",
"default_value": 0,
"unit": "mm ",
"enabled": "add_purge_lines and prime_blob_enable and purge_line_location in ['front', 'left']"
},
"prime_blob_loc_x":
{
"label": " Blob Location X",
"description": "The 'X' position to put the prime blob. 'Origin at Center' printers might require a negative value here. Keep in mind that purge lines always start in the left front, or the right rear. Pay attention or the nozzle can sit down into the prime blob.",
"type": "int",
"default_value": 0,
"unit": "mm ",
"enabled": "add_purge_lines and prime_blob_enable and purge_line_location in ['front', 'left']"
},
"prime_blob_loc_y":
{
"label": " Blob location Y",
"description": "The 'Y' position to put the prime blob. 'Origin at Center' printers might require a negative value here. Keep in mind that purge lines always start in the left front, or the right rear. Pay attention or the nozzle can sit down into the prime blob.",
"type": "int",
"default_value": 0,
"unit": "mm ",
"enabled": "add_purge_lines and prime_blob_enable and purge_line_location in ['front', 'left']"
},
"move_to_start":
{
"label": "Circle around to layer start ⚠️​",
"description": "Depending on where the 'Layer Start X' and 'Layer Start Y' are for the print, the opening travel move can pass across the print area and leave a string there. This option will generate an orthogonal path that moves the nozzle around the edges of the build plate and then comes in to the Start Point. || ⚠️​ || The nozzle can drop to Z0.0 and touch the build plate at each stop in order to 'nail down the string'. The nozzle always raises after the touch-down. It will not drag on the bed.",
"type": "bool",
"default_value": false,
"enabled": true
},
"move_to_start_min_z":
{
"label": " Minimum Z height ⚠️​",
"description": "When moving to the start position, the nozzle can touch down on the build plate at each stop (Z = 0.0). That will stick the string to the build plate at each direction change so it doesn't pull across the print area. Some printers may not respond well to Z=0.0. You may set a minimum Z height here (min is 0.0 and max is 0.50). The string must stick or it defeats the purpose of moving around the periphery.",
"type": "float",
"default_value": 0.0,
"minimum_value": 0.0,
"maximum_value": 0.5,
"enabled": "move_to_start"
},
"adjust_starting_e":
{
"label": "Adjust Starting E location",
"description": "If there is a retraction after the purge lines in the Startup Gcode (like the 'Add Purge Lines' script here does) then often the skirt does not start where the nozzle starts. It is because Cura always adds a retraction prior to the print starting which results in a double retraction. Enabling this will allow you to adjust the starting E location and tune it so the skirt/brim/model starts right where it should. To fix a blob enter a positive number. To fix a 'dry start' enter a negative number.",
"type": "bool",
"default_value": false,
"value": false,
"enabled": true
},
"adjust_e_loc_to":
{
"label": " Starting E location",
"description": "This is usually a negative amount and often equal to the '-Retraction Distance'. This 'G92 E' adjustment changes where the printer 'thinks' the end of the filament is in relation to the nozzle. It replaces the retraction that Cura adds prior to the start of 'LAYER:0'. If retraction is not enabled then this setting has no effect.",
"type": "float",
"unit": "mm ",
"default_value": -6.5,
"enabled": "adjust_starting_e"
},
"enable_unload":
{
"label": "Unload filament at print end",
"description": "Adds an unload script to the Ending Gcode section. It goes in just ahead of the M104 S0. This scripts always unloads the active extruder. If the unload distance is greater than 150mm it will be broken into chunks to avoid tripping the excessive extrusion warning in some firmware.",
"type": "bool",
"default_value": false,
"enabled": true
},
"unload_distance":
{
"label": " Unload Distance",
"description": "The amount of filament to unload. Bowden printers usually require a significant amount and direct drives not as much.",
"type": "int",
"default_value": 440,
"unit": "mm ",
"enabled": "enable_unload"
},
"unload_quick_purge":
{
"label": " Quick purge before unload",
"description": "When printing something fine that has a lot of retractions in a short space (like lettering or spires) right before the unload, the filament can get hung up in the hot end and unload can fail. A quick purge will soften the end of the filament so it will retract correctly. This 'quick purge' will take place at the last position of the nozzle.",
"type": "bool",
"default_value": false,
"enabled": "enable_unload"
},
"move_to_prime_tower":
{
"label": "Hidden setting",
"description": "Hidden setting that enables 'move_to_prime_tower' for multi extruder machines.",
"type": "bool",
"default_value": false,
"enabled": false
},
"is_rectangular":
{
"label": "Bed is rectangular",
"description": "Hidden setting that disables 'purge line length' for elliptical beds.",
"type": "bool",
"default_value": false,
"enabled": false
}
}
}"""
def execute(self, data):
# Exit if the Gcode has already been processed.
for num in range(0, len(data)):
layer = data[num].split("\n")
for line in layer:
if ";LAYER:" in line:
break
elif "PurgeLinesAndUnload" in line:
Logger.log("i", "[Add Purge Lines and Unload Filament] has already run on this gcode.")
return data
# The function also retrieves extruder settings used later in the script
# 't0_has_offsets' is used to exit 'Add Purge Lines' and 'Circle around...' because the script is not compatible with machines with the right nozzle as the primary nozzle.
self.t0_has_offsets = False
self.init_ext_nr = self._get_initial_tool()
# Adjust the usable size of the bed per any 'disallowed areas'
self._get_build_plate_extents()
# The start location changes according to which quadrant the nozzle is in at the beginning
self.end_purge_location = self._get_real_start_point(data[1])
self.border_distance = self.getSettingValueByKey("border_distance")
self.prime_blob_enable = self.getSettingValueByKey("prime_blob_enable")
if self.prime_blob_enable:
self.prime_blob_distance = self.getSettingValueByKey("prime_blob_distance")
else:
self.prime_blob_distance = 0
# Set the minimum Z to stick the string to the build plate when Move to Start is selected.
self.touchdown_z = self.getSettingValueByKey("move_to_start_min_z")
# Mapping settings to corresponding methods
procedures = {
"add_purge_lines": self._add_purge_lines,
"move_to_prime_tower": self._move_to_prime_tower,
"move_to_start": self._move_to_start,
"adjust_starting_e": self._adjust_starting_e,
"enable_unload": self._unload_filament
}
# Run selected procedures
for setting, method in procedures.items():
if self.getSettingValueByKey(setting):
method(data)
# Format the startup and ending gcodes
data[1] = self._format_string(data[1])
data[-1] = self._format_string(data[-1])
if self.getSettingValueByKey("add_purge_lines"):
if self.show_warning:
msg_text = ("The printer has ( " + str(len(self.disallowed_areas))
+ " ) 'disallowed areas'. That can cause the area available for the purge lines to be small.\nOpen the Gcode file for preview in Cura and check the purge line location to insure it is acceptable.")
else:
msg_text = "Open the Gcode file for preview in Cura. Make sure the 'Purge Lines' don't run underneath something else and are acceptable."
Message(title="[Purge Lines and Unload]", text=msg_text).show()
return data
def _get_real_start_point(self, first_section: str) -> tuple:
last_x, last_y = 0.0, 0.0
start_quadrant = Position.LEFT_FRONT
for line in first_section.split("\n"):
if line.startswith(";") and not line.startswith(";LAYER_COUNT") or not line:
continue
if line.startswith("G28"):
last_x, last_y = 0.0, 0.0
elif line[:3] in {"G0 ", "G1 "}:
last_x = self.getValue(line, "X") if " X" in line else last_x
last_y = self.getValue(line, "Y") if " Y" in line else last_y
elif "LAYER_COUNT" in line:
break
midpoint_x, midpoint_y = (0.0, 0.0) if self.origin_at_center else (
self.machine_width / 2, self.machine_depth / 2)
if last_x <= midpoint_x and last_y <= midpoint_y:
start_quadrant = Position.LEFT_FRONT
elif last_x > midpoint_x and last_y <= midpoint_y:
start_quadrant = Position.RIGHT_FRONT
elif last_x > midpoint_x and last_y > midpoint_y:
start_quadrant = Position.RIGHT_REAR
elif last_x <= midpoint_x and last_y > midpoint_y:
start_quadrant = Position.LEFT_REAR
return start_quadrant
"""
For some multi-extruder printers.
Takes into account a 'Move to Prime Tower' if there is one and adds orthogonal travel moves to get there.
'Move to Prime Tower' does not require that the prime tower is enabled,
only that 'machine_extruder_start_position_?' is in the definition file.
"""
def _move_to_prime_tower(self, first_section: str) -> str:
if self.extruder_count == 1:
return first_section
adjustment_lines = ""
move_to_prime_present = False
prime_tower_x = self.global_stack.getProperty("prime_tower_position_x", "value")
prime_tower_y = self.global_stack.getProperty("prime_tower_position_y", "value")
prime_tower_loc = self._prime_tower_quadrant(prime_tower_x, prime_tower_y)
# Shortstop an error if Start Location comes through as None
if self.end_purge_location is None:
self.end_purge_location = Position.LEFT_FRONT
if prime_tower_loc != self.end_purge_location:
startup = first_section[1].split("\n")
for index, line in enumerate(startup):
if ";LAYER_COUNT:" in line:
try:
if startup[index + 1].startswith("G0"):
prime_move = startup[index + 1] + " ; Move to Prime Tower"
adjustment_lines = self._move_to_location("Prime Tower", prime_tower_loc)
startup[index + 1] = adjustment_lines + prime_move + "\n;---------------------[End of Prime Tower moves]\n" + startup[index]
startup.pop(index)
first_section[1] = "\n".join(startup)
move_to_prime_present = True
except IndexError:
pass
# The start_location changes to the prime tower location in case 'Move to Start' is enabled.
if move_to_prime_present:
self.end_purge_location = prime_tower_loc
return first_section
# Determine the quadrant that the prime tower rests in so the orthogonal moves can be calculated
def _prime_tower_quadrant(self, prime_tower_x: float, prime_tower_y: float) -> tuple:
midpoint_x, midpoint_y = (0.0, 0.0) if self.origin_at_center else (
self.machine_width / 2, self.machine_depth / 2)
if prime_tower_x < midpoint_x and prime_tower_y < midpoint_y:
return Position.LEFT_FRONT
elif prime_tower_x > midpoint_x and prime_tower_y < midpoint_y:
return Position.RIGHT_FRONT
elif prime_tower_x > midpoint_x and prime_tower_y > midpoint_y:
return Position.RIGHT_REAR
elif prime_tower_x < midpoint_x and prime_tower_y > midpoint_y:
return Position.LEFT_REAR
else:
return Position.LEFT_FRONT # return Default in case of no match
def _move_to_location(self, location_name: str, location: tuple) -> str:
"""
Compare the input tuple (B) with the end purge location (A) and describe the move from A to B.
Parameters:
location_name (str): A descriptive name for the target location.
location (tuple): The target tuple (e.g., ("right", "front")).
Returns:
str: G-code for the move from A to B or an empty string if no move is required.
"""
# Validate input
if len(self.end_purge_location) != 2 or len(location) != 2:
raise ValueError("Both locations must be tuples of length 2.")
# Extract components
start_side, start_depth = self.end_purge_location
target_side, target_depth = location
# Start of the moves and a comment to highlight the move
moves = [f";MESH:NONMESH---------[Circle around to {location_name}] Start from: {str(start_side)} {str(start_depth)} Go to: {target_side} {target_depth}\nG0 F600 Z2 ; Move up\n"]
# Helper function to add G-code for moves
def add_move(axis: str, position: float) -> None:
moves.append(
f"G0 F{self.speed_travel} {axis}{position} ; Start move\n"
f"G0 F600 Z{self.touchdown_z} ; Nail down the string\n"
f"G0 F600 Z2 ; Move up\n"
)
# Move to a corner
if start_side == Location.LEFT:
moves.append(f"G0 F{self.speed_travel} X{self.machine_left + 6} ; Init move\n")
elif start_side == Location.RIGHT:
moves.append(f"G0 F{self.speed_travel} X{self.machine_right - 6} ; Init move\n")
if start_depth == Location.FRONT:
add_move("Y", self.machine_front + 6)
elif start_depth == Location.REAR:
add_move("Y", self.machine_back - 6)
# Compare sides
if start_side != target_side:
if target_side == Location.RIGHT:
add_move("X", self.machine_right)
else:
add_move("X", self.machine_left)
# Compare positions
if start_depth != target_depth:
if target_depth == Location.REAR:
add_move("Y", self.machine_back)
else:
add_move("Y", self.machine_front)
if len(moves) == 1:
moves.append(f"G0 F{self.speed_travel} Y{self.start_y} ; Move to start Y\n")
# Combine moves into a single G-code string and return
return "".join(moves)
def _get_build_plate_extents(self):
"""
Machine disallowed areas can be ordered at the whim of the definition author and cannot be counted on when parsed
This determines a simple rectangle that will be available for the purge lines. For some machines (Ex: UM3) it can be a small rectangle.
If there are "extruder offsets" then use them to adjust the 'machine_right' and 'machine_back' independent of any disallowed areas.
"""
if self.bed_shape == "rectangular":
if self.disallowed_areas:
if len(self.disallowed_areas) > 4:
self.show_warning = True
mid_x = 0
mid_y = 0
left_x = -(self.machine_width / 2)
right_x = (self.machine_width / 2)
front_y = (self.machine_depth / 2)
back_y = -(self.machine_depth / 2)
for rect in self.disallowed_areas:
for corner in rect:
x = corner[0]
if mid_x > x > left_x:
left_x = x
if mid_x < x < right_x:
right_x = x
y = corner[1]
if mid_y < y < front_y:
front_y = y
if mid_y > y > back_y:
back_y = y
if self.origin_at_center:
self.machine_left = round(left_x, 2)
self.machine_right = round(right_x, 2)
self.machine_front = round(front_y, 2)
self.machine_back = round(back_y, 2)
else:
self.machine_left = round(left_x + self.machine_width / 2, 2)
self.machine_right = round(right_x + self.machine_width / 2, 2)
self.machine_front = round((self.machine_depth / 2) - front_y, 2)
self.machine_back = round((self.machine_depth / 2) - back_y, 2)
else:
if self.origin_at_center:
self.machine_left = round(-(self.machine_width / 2), 2)
self.machine_right = round((self.machine_width / 2) - self.nozzle_offset_x, 2)
self.machine_front = round(-(self.machine_depth / 2) + self.nozzle_offset_y, 2)
self.machine_back = round((self.machine_depth / 2) - self.nozzle_offset_y, 2)
else:
self.machine_left = 0
self.machine_right = self.machine_width - self.nozzle_offset_x
if self.nozzle_offset_y >= 0:
self.machine_front = 0
self.machine_back = self.machine_depth - self.nozzle_offset_y
elif self.nozzle_offset_y < 0:
self.machine_front = abs(self.nozzle_offset_y)
self.machine_back = self.machine_depth
return
# Add Purge Lines to the user defined position on the build plate
def _add_purge_lines(self, data: str):
if self.t0_has_offsets:
data[0] += "; [Purge Lines and Unload] 'Add Purge Lines' did not run because the assumed primary nozzle (T0) has tool offsets.\n"
Message(title = "[Purge Lines and Unload]", text = "'Add Purge Lines' did not run because the assumed primary nozzle (T0) has tool offsets").show()
return data
def calculate_purge_volume(line_width, purge_length, volume_per_mm):
return round((line_width * 0.3 * purge_length) * 1.25 / volume_per_mm, 5)
def adjust_for_prime_blob_gcode(retract_speed, retract_distance):
"""Generates G-code lines for prime blob adjustment."""
gcode_lines = [
f"G1 F{retract_speed} E{retract_distance} ; Unretract",
"G92 E0 ; Reset extruder\n"
]
return "\n".join(gcode_lines)
purge_location = self.getSettingValueByKey("purge_line_location")
purge_extrusion_full = True if self.getSettingValueByKey("purge_line_length") == "purge_full" else False
purge_str = ";TYPE:CUSTOM----------[Purge Lines]\nG0 F600 Z2 ; Move up\nG92 E0 ; Reset extruder\n"
purge_str += self._get_blob_code()
# Normal cartesian printer with origin at the left front corner
if self.bed_shape == "rectangular" and not self.origin_at_center:
if purge_location == Location.LEFT:
purge_len = int(self.machine_back - 20) if purge_extrusion_full else int((self.machine_back - self.machine_front) / 2)
y_stop = int(self.machine_back - 10) if purge_extrusion_full else int(self.machine_depth / 2)
purge_volume = calculate_purge_volume(self.init_line_width, purge_len, self.mm3_per_mm)
purge_str = purge_str.replace("Lines", "Lines at MinX")
# Travel to the purge start
purge_str += f"G0 F{self.speed_travel} X{self.machine_left + self.border_distance} Y{self.machine_front + 10} ; Move to start\n"
purge_str += f"G0 F600 Z0.3 ; Move down\n"
if self.prime_blob_enable:
purge_str += adjust_for_prime_blob_gcode(self.retract_speed, self.retract_dist)
# Purge two lines
purge_str += f"G1 F{self.print_speed} X{self.machine_left + self.border_distance} Y{y_stop} E{purge_volume} ; First line\n"
purge_str += f"G0 X{self.machine_left + 3 + self.border_distance} Y{y_stop} ; Move over\n"
purge_str += f"G1 F{self.print_speed} X{self.machine_left + 3 + self.border_distance} Y{self.machine_front + 10} E{round(purge_volume * 2, 5)} ; Second line\n"
# Retract if enabled
purge_str += f"G1 F{int(self.retract_speed)} E{round(purge_volume * 2 - self.retract_dist, 5)} ; Retract\n" if self.retraction_enable else ""
purge_str += "G0 F600 Z8 ; Move Up\nG4 S1 ; Wait for 1 second\n"
# Wipe
purge_str += f"G0 F{self.print_speed} X{self.machine_left + 3 + self.border_distance} Y{self.machine_front + 20} Z0.3 ; Slide over and down\n"
purge_str += f"G0 X{self.machine_left + 3 + self.border_distance} Y{self.machine_front + 35} ; Wipe\n"
self.end_purge_location = Position.LEFT_FRONT
elif purge_location == Location.RIGHT:
purge_len = int(self.machine_depth - 20) if purge_extrusion_full else int((self.machine_back - self.machine_front) / 2)
y_stop = int(self.machine_front + 10) if purge_extrusion_full else int(self.machine_depth / 2)
purge_volume = calculate_purge_volume(self.init_line_width, purge_len, self.mm3_per_mm)
purge_str = purge_str.replace("Lines", "Lines at MaxX")
# Travel to the purge start
purge_str += f"G0 F{self.speed_travel} X{self.machine_right - self.border_distance} ; Move\nG0 Y{self.machine_back - 10} ; Move\n"
purge_str += f"G0 F600 Z0.3 ; Move down\n"
if self.prime_blob_enable:
purge_str += adjust_for_prime_blob_gcode(self.retract_speed, self.retract_dist)
# Purge two lines
purge_str += f"G1 F{self.print_speed} X{self.machine_right - self.border_distance} Y{y_stop} E{purge_volume} ; First line\n"
purge_str += f"G0 X{self.machine_right - 3 - self.border_distance} Y{y_stop} ; Move over\n"
purge_str += f"G1 F{self.print_speed} X{self.machine_right - 3 - self.border_distance} Y{self.machine_back - 10} E{purge_volume * 2} ; Second line\n"
# Retract if enabled
purge_str += f"G1 F{int(self.retract_speed)} E{round(purge_volume * 2 - self.retract_dist, 5)} ; Retract\n" if self.retraction_enable else ""
purge_str += "G0 F600 Z8 ; Move Up\nG4 S1 ; Wait for 1 second\n"
# Wipe
purge_str += f"G0 F{self.print_speed} X{self.machine_right - 3 - self.border_distance} Y{self.machine_back - 20} Z0.3 ; Slide over and down\n"
purge_str += f"G0 X{self.machine_right - 3 - self.border_distance} Y{self.machine_back - 35} ; Wipe\n"
self.end_purge_location = Position.RIGHT_REAR
elif purge_location == Location.FRONT:
purge_len = int(self.machine_width) - self.nozzle_offset_x - 20 if purge_extrusion_full else int(
(self.machine_right - self.machine_left) / 2)
x_stop = int(self.machine_right - 10) if purge_extrusion_full else int(self.machine_width / 2)
purge_volume = calculate_purge_volume(self.init_line_width, purge_len, self.mm3_per_mm)
purge_str = purge_str.replace("Lines", "Lines at MinY")
# Travel to the purge start
purge_str += f"G0 F{self.speed_travel} X{self.machine_left + 10} Y{self.machine_front + self.border_distance} ; Move to start\n"
purge_str += f"G0 F600 Z0.3 ; Move down\n"
if self.prime_blob_enable:
purge_str += adjust_for_prime_blob_gcode(self.retract_speed, self.retract_dist)
# Purge two lines
purge_str += f"G1 F{self.print_speed} X{x_stop} Y{self.machine_front + self.border_distance} E{purge_volume} ; First line\n"
purge_str += f"G0 X{x_stop} Y{self.machine_front + 3 + self.border_distance} ; Move over\n"
purge_str += f"G1 F{self.print_speed} X{self.machine_left + 10} Y{self.machine_front + 3 + self.border_distance} E{purge_volume * 2} ; Second line\n"
# Retract if enabled
purge_str += f"G1 F{int(self.retract_speed)} E{round(purge_volume * 2 - self.retract_dist, 5)} ; Retract\n" if self.retraction_enable else ""
purge_str += "G0 F600 Z8 ; Move Up\nG4 S1 ; Wait for 1 second\n"
# Wipe
purge_str += f"G0 F{self.print_speed} X{self.machine_left + 20} Y{self.machine_front + 3 + self.border_distance} Z0.3 ; Slide over and down\n"
purge_str += f"G0 X{self.machine_left + 35} Y{self.machine_front + 3 + self.border_distance} ; Wipe\n"
self.end_purge_location = Position.LEFT_FRONT
elif purge_location == Location.REAR:
purge_len = int(self.machine_width - 20) if purge_extrusion_full else int(
(self.machine_right - self.machine_left) / 2)
x_stop = int(self.machine_left + 10) if purge_extrusion_full else int(self.machine_width / 2)
purge_volume = calculate_purge_volume(self.init_line_width, purge_len, self.mm3_per_mm)
purge_str = purge_str.replace("Lines", "Lines at MaxY")
# Travel to the purge start
purge_str += f"G0 F{self.speed_travel} Y{self.machine_back - self.border_distance} ; Ortho Move to back\n"
purge_str += f"G0 X{self.machine_right - 10} ; Ortho move to start\n"
purge_str += f"G0 F600 Z0.3 ; Move down\n"
if self.prime_blob_enable:
purge_str += adjust_for_prime_blob_gcode(self.retract_speed, self.retract_dist)
# Purge two lines
purge_str += f"G1 F{self.print_speed} X{x_stop} Y{self.machine_back - self.border_distance} E{purge_volume} ; First line\n"
purge_str += f"G0 X{x_stop} Y{self.machine_back - 3 - self.border_distance} ; Move over\n"
purge_str += f"G1 F{self.print_speed} X{self.machine_right - 10} Y{self.machine_back - 3 - self.border_distance} E{purge_volume * 2} ; Second line\n"
# Retract if enabled
purge_str += f"G1 F{int(self.retract_speed)} E{round(purge_volume * 2 - self.retract_dist, 5)} ; Retract\n" if self.retraction_enable else ""
purge_str += "G0 F600 Z8 ; Move Up\nG4 S1 ; Wait 1 second\n"
# Wipe
purge_str += f"G0 F{self.print_speed} X{self.machine_right - 20} Y{self.machine_back - 3 - self.border_distance} Z0.3 ; Slide over and down\n"
purge_str += f"G0 X{self.machine_right - 35} Y{self.machine_back - 3 - self.border_distance} ; Wipe\n"
self.end_purge_location = Position.RIGHT_REAR
# Some cartesian printers (BIBO, Weedo, MethodX, etc.) are Origin at Center
elif self.bed_shape == "rectangular" and self.origin_at_center:
if purge_location == Location.LEFT:
purge_len = int(self.machine_back - self.machine_front - 20) if purge_extrusion_full else abs(
int(self.machine_front - 10))
y_stop = int(self.machine_back - 10) if purge_extrusion_full else 0
purge_volume = calculate_purge_volume(self.init_line_width, purge_len, self.mm3_per_mm)
# Travel to the purge start
purge_str += f"G0 F{self.speed_travel} X{self.machine_left + self.border_distance} Y{self.machine_front + 10} ; Move to start\n"
purge_str += f"G0 F600 Z0.3 ; Move down\n"
if self.prime_blob_enable:
purge_str += adjust_for_prime_blob_gcode(self.retract_speed, self.retract_dist)
# Purge two lines
purge_str += f"G1 F{self.print_speed} X{self.machine_left + self.border_distance} Y{y_stop} E{purge_volume} ; First line\n"
purge_str += f"G0 X{self.machine_left + 3 + self.border_distance} Y{y_stop} ; Move over\n"
purge_str += f"G1 F{self.print_speed} X{self.machine_left + 3 + self.border_distance} Y{self.machine_front + 10} E{round(purge_volume * 2, 5)} ; Second line\n"
# Retract if enabled
purge_str += f"G1 F{int(self.retract_speed)} E{round(purge_volume * 2 - self.retract_dist, 5)} ; Retract\n" if self.retraction_enable else ""
purge_str += "G0 F600 Z8 ; Move Up\nG4 S1 ; Wait for 1 second\n"
# Wipe
purge_str += f"G0 F{self.print_speed} X{self.machine_left + 3 + self.border_distance} Y{self.machine_front + 20} Z0.3 ; Slide over and down\n"
purge_str += f"G0 X{self.machine_left + 3 + self.border_distance} Y{self.machine_front + 35} ; Wipe\n"
self.end_purge_location = Position.LEFT_FRONT
elif purge_location == Location.RIGHT:
purge_len = int(self.machine_back - 20) if purge_extrusion_full else int(
(self.machine_back - self.machine_front) / 2)
y_stop = int(self.machine_front + 10) if purge_extrusion_full else 0
purge_volume = calculate_purge_volume(self.init_line_width, purge_len, self.mm3_per_mm)
# Travel to the purge start
purge_str += f"G0 F{self.speed_travel} X{self.machine_right - self.border_distance} Z2 ; Move\nG0 Y{self.machine_back - 10} Z2 ; Move to start\n"
purge_str += f"G0 F600 Z0.3 ; Move down\n"
if self.prime_blob_enable:
purge_str += adjust_for_prime_blob_gcode(self.retract_speed, self.retract_dist)
# Purge two lines
purge_str += f"G1 F{self.print_speed} X{self.machine_right - self.border_distance} Y{y_stop} E{purge_volume} ; First line\n"
purge_str += f"G0 X{self.machine_right - 3 - self.border_distance} Y{y_stop} ; Move over\n"
purge_str += f"G1 F{self.print_speed} X{self.machine_right - 3 - self.border_distance} Y{self.machine_back - 10} E{purge_volume * 2} ; Second line\n"
# Retract if enabled
purge_str += f"G1 F{int(self.retract_speed)} E{round(purge_volume * 2 - self.retract_dist, 5)} ; Retract\n" if self.retraction_enable else ""
purge_str += "G0 F600 Z8 ; Move Up\nG4 S1 ; Wait for 1 second\n"
# Wipe
purge_str += f"G0 F{self.print_speed} X{self.machine_right - 3 - self.border_distance} Y{self.machine_back - 20} Z0.3 ; Slide over and down\n"
purge_str += f"G0 X{self.machine_right - 3 - self.border_distance} Y{self.machine_back - 35} ; Wipe\n"
self.end_purge_location = Position.RIGHT_REAR
elif purge_location == Location.FRONT:
purge_len = int(self.machine_right - self.machine_left - 20) if purge_extrusion_full else int(
(self.machine_right - self.machine_left) / 2)
x_stop = int(self.machine_right - 10) if purge_extrusion_full else 0
purge_volume = calculate_purge_volume(self.init_line_width, purge_len, self.mm3_per_mm)
# Travel to the purge start
purge_str += f"G0 F{self.speed_travel} X{self.machine_left + 10} Z2 ; Move\nG0 Y{self.machine_front + self.border_distance} Z2 ; Move to start\n"
purge_str += f"G0 F600 Z0.3 ; Move down\n"
if self.prime_blob_enable:
purge_str += adjust_for_prime_blob_gcode(self.retract_speed, self.retract_dist)
# Purge two lines
purge_str += f"G1 F{self.print_speed} X{x_stop} Y{self.machine_front + self.border_distance} E{purge_volume} ; First line\n"
purge_str += f"G0 X{x_stop} Y{self.machine_front + 3 + self.border_distance} ; Move over\n"
purge_str += f"G1 F{self.print_speed} X{self.machine_left + 10} Y{self.machine_front + 3 + self.border_distance} E{purge_volume * 2} ; Second line\n"
# Retract if enabled
purge_str += f"G1 F{int(self.retract_speed)} E{round(purge_volume * 2 - self.retract_dist, 5)} ; Retract\n" if self.retraction_enable else ""
purge_str += "G0 F600 Z8 ; Move Up\nG4 S1 ; Wait for 1 second\n"
# Wipe
purge_str += f"G0 F{self.print_speed} X{self.machine_left + 20} Y{self.machine_front + 3 + self.border_distance} Z0.3 ; Slide over and down\n"
purge_str += f"G0 X{self.machine_left + 35} Y{self.machine_front + 3 + self.border_distance} ; Wipe\n"
self.end_purge_location = Position.LEFT_FRONT
elif purge_location == Location.REAR:
purge_len = int(self.machine_right - self.machine_left - 20) if purge_extrusion_full else abs(
int(self.machine_right - 10))
x_stop = int(self.machine_left + 10) if purge_extrusion_full else 0
purge_volume = calculate_purge_volume(self.init_line_width, purge_len, self.mm3_per_mm)
# Travel to the purge start
purge_str += f"G0 F{self.speed_travel} Y{self.machine_back - self.border_distance} Z2; Ortho Move to back\n"
purge_str += f"G0 X{self.machine_right - 10} Z2 ; Ortho Move to start\n"
purge_str += f"G0 F600 Z0.3 ; Move down\n"
if self.prime_blob_enable:
purge_str += adjust_for_prime_blob_gcode(self.retract_speed, self.retract_dist)
# Purge two lines
purge_str += f"G1 F{self.print_speed} X{x_stop} Y{self.machine_back - self.border_distance} E{purge_volume} ; First line\n"
purge_str += f"G0 X{x_stop} Y{self.machine_back - 3 - self.border_distance} ; Move over\n"
purge_str += f"G1 F{self.print_speed} X{self.machine_right - 10} Y{self.machine_back - 3 - self.border_distance} E{purge_volume * 2} ; Second line\n"
# Retract if enabled
purge_str += f"G1 F{int(self.retract_speed)} E{round(purge_volume * 2 - self.retract_dist, 5)} ; Retract\n" if self.retraction_enable else ""
purge_str += "G0 F600 Z8 ; Move Up\nG4 S1 ; Wait for 1 second\n"
# Wipe
purge_str += f"G0 F{self.print_speed} X{self.machine_right - 20} Y{self.machine_back - 3 - self.border_distance} Z0.3 ; Slide over and down\n"
purge_str += f"G0 X{self.machine_right - 35} Y{self.machine_back - 3 - self.border_distance} ; Wipe\n"
self.end_purge_location = Position.RIGHT_REAR
# Elliptic printers with Origin at Center
elif self.bed_shape == "elliptic":
if purge_location in [Location.LEFT, Location.RIGHT]:
radius_1 = round((self.machine_width / 2) - 1, 2)
else: # For purge_location in [Location.FRONT, Location.REAR]
radius_1 = round((self.machine_depth / 2) - 1, 2)
purge_len = int(radius_1) * math.pi / 4
purge_volume = calculate_purge_volume(self.init_line_width, purge_len, self.mm3_per_mm)
if purge_location == Location.LEFT:
# Travel to the purge start
purge_str += f"G0 F{self.speed_travel} X-{round(radius_1 * .707, 2)} Y-{round(radius_1 * .707, 2)} ; Travel\n"
purge_str += f"G0 F600 Z0.3 ; Move down\n"
# Purge two arcs
purge_str += f"G2 F{self.print_speed} X-{round(radius_1 * .707, 2)} Y{round(radius_1 * .707, 2)} I{round(radius_1 * .707, 2)} J{round(radius_1 * .707, 2)} E{purge_volume} ; First Arc\n"
purge_str += f"G0 X-{round((radius_1 - 3) * .707, 2)} Y{round((radius_1 - 3) * .707, 2)} ; Move Over\n"
purge_str += f"G3 F{self.print_speed} X-{round((radius_1 - 3) * .707, 2)} Y-{round((radius_1 - 3) * .707, 2)} I{round((radius_1 - 3) * .707, 2)} J-{round((radius_1 - 3) * .707, 2)} E{purge_volume * 2} ; Second Arc\n"
purge_str += f"G1 X-{round((radius_1 - 3) * .707 - 25, 2)} E{round(purge_volume * 2 + 1, 5)} ; Move Over\n"
# Retract if enabled
purge_str += f"G1 F{int(self.retract_speed)} E{round((purge_volume * 2 + 1) - self.retract_dist, 5)} ; Retract\n" if self.retraction_enable else ""
purge_str += "G0 F600 Z5 ; Move Up\nG4 S1 ; Wait 1 Second\n"
# Wipe
purge_str += f"G0 F{self.print_speed} X-{round((radius_1 - 3) * .707 - 15, 2)} Z0.3 ; Slide Over\n"
purge_str += f"G0 F{self.print_speed} X-{round((radius_1 - 3) * .707, 2)} ; Wipe\n"
self.end_purge_location = Position.LEFT_FRONT
elif purge_location == Location.RIGHT:
# Travel to the purge start
purge_str += f"G0 F{self.speed_travel} X{round(radius_1 * .707, 2)} Y-{round(radius_1 * .707, 2)} ; Travel\n"
purge_str += f"G0 F600 Z0.3 ; Move down\n"
# Purge two arcs
purge_str += f"G3 F{self.print_speed} X{round(radius_1 * .707, 2)} Y{round(radius_1 * .707, 2)} I-{round(radius_1 * .707, 2)} J{round(radius_1 * .707, 2)} E{purge_volume} ; First Arc\n"
purge_str += f"G0 X{round((radius_1 - 3) * .707, 2)} Y{round((radius_1 - 3) * .707, 2)} ; Move Over\n"
purge_str += f"G2 F{self.print_speed} X{round((radius_1 - 3) * .707, 2)} Y-{round((radius_1 - 3) * .707, 2)} I-{round((radius_1 - 3) * .707, 2)} J-{round((radius_1 - 3) * .707, 2)} E{purge_volume * 2} ; Second Arc\n"
purge_str += f"G1 X{round((radius_1 - 3) * .707 - 25, 2)} E{round(purge_volume * 2 + 1, 5)} ; Move Over\n"
# Retract if enabled
purge_str += f"G1 F{int(self.retract_speed)} E{round((purge_volume * 2 + 1) - self.retract_dist, 5)} ; Retract\n" if self.retraction_enable else ""
purge_str += "G0 F600 Z5 ; Move Up\nG4 S1 ; Wait 1 Second\n"
# Wipe
purge_str += f"G0 F{self.print_speed} X{round((radius_1 - 3) * .707 - 15, 2)} Z0.3 ; Slide Over\n"
purge_str += f"G0 F{self.print_speed} X{round((radius_1 - 3) * .707, 2)} ; Wipe\n"
self.end_purge_location = Position.RIGHT_REAR
elif purge_location == Location.FRONT:
# Travel to the purge start
purge_str += f"G0 F{self.speed_travel} X-{round(radius_1 * .707, 2)} Y-{round(radius_1 * .707, 2)} ; Travel\n"
purge_str += f"G0 F600 Z0.3 ; Move down\n"
# Purge two arcs
purge_str += f"G3 F{self.print_speed} X{round(radius_1 * .707, 2)} Y-{round(radius_1 * .707, 2)} I{round(radius_1 * .707, 2)} J{round(radius_1 * .707, 2)} E{purge_volume} ; First Arc\n"
purge_str += f"G0 X{round((radius_1 - 3) * .707, 2)} Y-{round((radius_1 - 3) * .707, 2)} ; Move Over\n"
purge_str += f"G2 F{self.print_speed} X-{round((radius_1 - 3) * .707, 2)} Y-{round((radius_1 - 3) * .707, 2)} I-{round((radius_1 - 3) * .707, 2)} J{round((radius_1 - 3) * .707, 2)} E{purge_volume * 2} ; Second Arc\n"
purge_str += f"G1 Y-{round((radius_1 - 3) * .707 - 25, 2)} E{round(purge_volume * 2 + 1, 5)} ; Move Over\n"
# Retract if enabled
purge_str += f"G1 F{int(self.retract_speed)} E{round((purge_volume * 2 + 1) - self.retract_dist, 5)} ; Retract\n" if self.retraction_enable else ""
purge_str += "G0 F600 Z5 ; Move Up\nG4 S1 ; Wait 1 Second\n"
# Wipe
purge_str += f"G0 F{self.print_speed} Y-{round((radius_1 - 3) * .707 - 15, 2)} Z0.3 ; Slide Over\n"
purge_str += f"G0 F{self.print_speed} Y-{round((radius_1 - 3) * .707, 2)} ; Wipe\n"
self.end_purge_location = Position.LEFT_FRONT
elif purge_location == Location.REAR:
# Travel to the purge start
purge_str += f"G0 F{self.speed_travel} X{round(radius_1 * .707, 2)} Y{round(radius_1 * .707, 2)} ; Travel\n"
purge_str += f"G0 F600 Z0.3 ; Move down\n"
# Purge two arcs
purge_str += f"G3 F{self.print_speed} X-{round(radius_1 * .707, 2)} Y{round(radius_1 * .707, 2)} I-{round(radius_1 * .707, 2)} J-{round(radius_1 * .707, 2)} E{purge_volume} ; First Arc\n"
purge_str += f"G0 X-{round((radius_1 - 3) * .707, 2)} Y{round((radius_1 - 3) * .707, 2)} ; Move Over\n"
purge_str += f"G2 F{self.print_speed} X{round((radius_1 - 3) * .707, 2)} Y{round((radius_1 - 3) * .707, 2)} I{round((radius_1 - 3) * .707, 2)} J-{round((radius_1 - 3) * .707, 2)} E{purge_volume * 2} ; Second Arc\n"
purge_str += f"G1 Y{round((radius_1 - 3) * .707 - 25, 2)} E{round(purge_volume * 2 + 1, 5)} ; Move Over\n"
# Retract if enabled
purge_str += f"G1 F{int(self.retract_speed)} E{round((purge_volume * 2 + 1) - self.retract_dist, 5)} ; Retract\n" if self.retraction_enable else ""
purge_str += "G0 F600 Z5\nG4 S1 ; Wait 1 Second\n"
# Wipe
purge_str += f"G0 F{self.print_speed} Y{round((radius_1 - 3) * .707 - 15, 2)} Z0.3 ; Slide Over\n"
purge_str += f"G0 F{self.print_speed} Y{round((radius_1 - 3) * .707, 2)} ; Wipe\n"
self.end_purge_location = Position.RIGHT_REAR
# Common ending for purge_str
purge_str += "G0 F600 Z2 ; Move Z\n;---------------------[End of Purge]"
# Comment out any existing purge lines in data
startup = data[1].split("\n")
for index, line in enumerate(startup):
if "G1" in line and " E" in line and (" X" in line or " Y" in line):
next_line = index
try:
while not startup[next_line].startswith("G92 E0"):
startup[next_line] = ";" + startup[next_line]
next_line += 1
except IndexError:
break
data[1] = "\n".join(startup)
# Find the insertion location in data
purge_str = self._format_string(purge_str)
startup_section = data[1].split("\n")
insert_index = len(startup_section) - 1
for num in range(len(startup_section) - 1, 0, -1):
# In Absolute Extrusion mode - insert above the last G92 E0 line
if "G92 E0" in startup_section[num]:
insert_index = num
break
# In Relative Extrusion mode - insert above the M83 line
elif "M83" in startup_section[num]:
insert_index = num
break
startup_section.insert(insert_index, purge_str)
data[1] = "\n".join(startup_section)
return data
# Travel moves around the bed periphery to keep strings from crossing the footprint of the model.
def _move_to_start(self, data: str) -> str:
if self.t0_has_offsets:
data[0] += "; [Purge Lines and Unload] 'Circle Around to Layer Start' did not run because the assumed primary nozzle (T0) has tool offsets.\n"
Message(title = "[Purge Lines and Unload]", text = "'Circle Around to Layer Start' did not run because the assumed primary nozzle (T0) has tool offsets.").show()
return data
self.start_x = None
self.start_y = None
move_str = None
layer = data[2].split("\n")
for line in layer:
if line.startswith("G0") and " X" in line and " Y" in line:
self.start_x = self.getValue(line, "X")
self.start_y = self.getValue(line, "Y")
break
self.start_x = self.start_x or 0
self.start_y = self.start_y or 0
if self.end_purge_location is None:
self.end_purge_location = Position.LEFT_FRONT
midpoint_x = self.machine_width / 2
midpoint_y = self.machine_depth / 2
if not self.origin_at_center:
if float(self.start_x) <= float(midpoint_x):
x_target = Location.LEFT
else:
x_target = Location.RIGHT
if float(self.start_y) <= float(midpoint_y):
y_target = Location.FRONT
else:
y_target = Location.REAR
else:
if float(self.start_x) <= 0:
x_target = Location.LEFT
else:
x_target = Location.RIGHT
if float(self.start_y) <= 0:
y_target = Location.FRONT
else:
y_target = Location.REAR
target_location = (x_target, y_target)
if self.bed_shape == "rectangular":
move_str = self._move_to_location("Layer Start", target_location)
elif self.bed_shape == "elliptic" and self.origin_at_center:
move_str = f";MESH:NONMESH---------[Travel to Layer Start]\nG0 F600 Z2 ; Move up\n"
radius = self.machine_width / 2
offset_sin = round(2 ** .5 / 2 * radius, 2)
if target_location == Position.LEFT_FRONT:
move_str += f"G0 F{self.speed_travel} X-{offset_sin} Z2 ; Move\nG0 Y-{offset_sin} Z2 ; Move to start\n"
elif target_location == Position.LEFT_REAR:
if self.end_purge_location == Position.LEFT_REAR:
move_str += f"G2 X0 Y{offset_sin} I{offset_sin} J{offset_sin} ; Move around to start\n"
else:
move_str += f"G0 F{self.speed_travel} X-{offset_sin} Z2 ; Ortho move\nG0 Y{offset_sin} Z2 ; Ortho move\n"
elif target_location == Position.RIGHT_FRONT:
move_str += f"G0 F{self.speed_travel} X{offset_sin} Z2 ; Ortho move\nG0 Y-{offset_sin} Z2 ; Ortho move\n"
elif target_location == Position.RIGHT_REAR:
move_str += f"G0 F{self.speed_travel} X{offset_sin} Z2 ; Ortho move\nG0 Y{offset_sin} Z2 ; Ortho move\n"
move_str += ";---------------------[End of layer start travels]"
# Add the move_str to the end of the StartUp section and move 'LAYER_COUNT' to the end.
startup = data[1].split("\n")
move_str = self._format_string(move_str)
if move_str.startswith("\n"):
move_str = move_str[1:]
startup.append(move_str)
# Move the 'LAYER_COUNT' line so it's at the end of data[1]
for index, line in enumerate(startup):
if "LAYER_COUNT" in line:
lay_count = startup.pop(index) + "\n"
startup.append(lay_count)
break
data[1] = "\n".join(startup)
# Remove any double-spaced lines
data[1] = data[1].replace("\n\n", "\n")
return data
# Unloading a large amount of filament in a single command can trip the 'Overlong Extrusion' warning in some firmware. Unloads longer than 150mm are split into individual 150mm segments.
def _unload_filament(self, data: str) -> str:
extrude_speed = 3000
quick_purge_speed = round(float(self.nozzle_size) * 500)
if self.material_diameter > 2: quick_purge_speed *= .38 # Adjustment for 2.85 filament
retract_amount = self.extruder[0].getProperty("retraction_amount", "value")
quick_purge_amount = retract_amount + 5 if retract_amount < 2.0 else retract_amount * 2
unload_distance = self.getSettingValueByKey("unload_distance")
quick_purge = self.getSettingValueByKey("unload_quick_purge")
lines = data[-1].split("\n")
for index, line in enumerate(lines):
# Unload the filament just before the hot end turns off.
if line.startswith("M104") and "S0" in line:
filament_str = (
"M83 ; [Unload] Relative extrusion\n"
"M400 ; Complete all moves\n"
)
if quick_purge:
filament_str += f"G1 F{quick_purge_speed} E{quick_purge_amount} ; Quick Purge before unload\n"
if unload_distance > 150:
filament_str += "".join(
f"G1 F{extrude_speed} E-150 ; Unload some\n"
for _ in range(unload_distance // 150)
)
remaining_unload = unload_distance % 150
if remaining_unload > 0:
filament_str += f"G1 F{extrude_speed} E-{remaining_unload} ; Unload the remainder\n"
else:
filament_str += f"G1 F{extrude_speed} E-{unload_distance} ; Unload\n"
filament_str += (
"M82 ; Absolute Extrusion\n"
"G92 E0 ; Reset Extruder\n"
)
lines[index] = filament_str + line
break
data[-1] = "\n".join(lines)
return data
# Make an adjustment to the starting E location so the skirt/brim/raft starts out when the nozzle starts out.
def _adjust_starting_e(self, data: str) -> str:
if not self.extruder[0].getProperty("retraction_enable", "value"):
return data
adjust_amount = self.getSettingValueByKey("adjust_e_loc_to")
lines = data[1].split("\n")
lines.reverse()
if self.global_stack.getProperty("machine_firmware_retract", "value"):
search_pattern = r"G10"
else:
search_pattern = r"G1 F(\d*) E-(\d.*)"
for index, line in enumerate(lines):
if re.search(search_pattern, line):
lines[index] = re.sub(search_pattern, f"G92 E{adjust_amount}", line)
lines.reverse()
data[1] = "\n".join(lines)
break
return data
# Format the purge or travel-to-start strings. No reason they shouldn't look nice.
def _format_string(self, any_gcode_str: str):
temp_lines = any_gcode_str.split("\n")
gap_len = 0
for temp_line in temp_lines:
if ";" in temp_line and not temp_line.startswith(";"):
if gap_len - len(temp_line.split(";")[0]) + 1 < 0:
gap_len = len(temp_line.split(";")[0]) + 1
if gap_len < 30: gap_len = 30
for temp_index, temp_line in enumerate(temp_lines):
if ";" in temp_line and not temp_line.startswith(";"):
temp_lines[temp_index] = temp_line.replace(temp_line.split(";")[0], temp_line.split(";")[0] + str(
" " * (gap_len - len(temp_line.split(";")[0]))), 1)
# This formats lines that are commented out but contain additional comments Ex: ;M420 ; leveling mesh
elif temp_line.startswith(";") and ";" in temp_line[1:]:
temp_lines[temp_index] = temp_line[1:].replace(temp_line[1:].split(";")[0],
";" + temp_line[1:].split(";")[0] + str(" " * (
gap_len - 1 - len(
temp_line[1:].split(";")[0]))), 1)
any_gcode_str = "\n".join(temp_lines)
return any_gcode_str
def _get_initial_tool(self) -> int:
# Get the Initial Extruder
num = Application.getInstance().getExtruderManager().getInitialExtruderNr()
if num is None or num == -1:
num = 0
# If there is an extruder offset X then it will be used to adjust the "machine_right" and a Y offset will adjust the "machine_back"
if self.extruder_count > 1 and bool(self.global_stack.getProperty("machine_use_extruder_offset_to_offset_coords", "value")):
self.nozzle_offset_x = self.extruder[1].getProperty("machine_nozzle_offset_x", "value")
self.nozzle_offset_y = self.extruder[1].getProperty("machine_nozzle_offset_y", "value")
else:
self.nozzle_offset_x = 0.0
self.nozzle_offset_y = 0.0
self.material_diameter = self.extruder[num].getProperty("material_diameter", "value")
self.nozzle_size = self.extruder[num].getProperty("machine_nozzle_size", "value")
self.init_line_width = self.extruder[num].getProperty("skirt_brim_line_width", "value")
self.print_speed = round(self.extruder[num].getProperty("speed_print", "value") * 60 * .75)
self.speed_travel = round(self.extruder[num].getProperty("speed_travel", "value") * 60)
self.retract_dist = self.extruder[num].getProperty("retraction_amount", "value")
self.retraction_enable = self.extruder[num].getProperty("retraction_enable", "value")
self.retract_speed = self.extruder[num].getProperty("retraction_retract_speed", "value") * 60
self.mm3_per_mm = (self.material_diameter / 2) ** 2 * math.pi
# Don't add purge lines if 'T0' has offsets.
t0_x_offset = self.extruder[0].getProperty("machine_nozzle_offset_x", "value")
t0_y_offset = self.extruder[0].getProperty("machine_nozzle_offset_y", "value")
if t0_x_offset or t0_y_offset:
self.t0_has_offsets = True
return num
def _get_blob_code(self) -> str:
if not self.prime_blob_enable or self.prime_blob_distance == 0 or self.getSettingValueByKey("purge_line_location") not in ["front", "left"]:
return ""
# Set extruder speed for 1.75 filament
speed_blob = round(float(self.nozzle_size) * 500)
# Adjust speed if 2.85 filament
if self.material_diameter > 2: speed_blob *= .4
blob_x = self.getSettingValueByKey("prime_blob_loc_x")
blob_y = self.getSettingValueByKey("prime_blob_loc_y")
blob_string = "G0 F1200 Z20 ; Move up\n"
blob_string += f"G0 F{self.speed_travel} X{blob_x} Y{blob_y} ; Move to blob location\n"
blob_string += f"G1 F{speed_blob} E{self.prime_blob_distance} ; Blob\n"
blob_string += f"G1 F{self.retract_speed} E{self.prime_blob_distance - self.retract_dist} ; Retract\n"
blob_string += "G92 E0 ; Reset extruder\n"
blob_string += "M300 P500 S600 ; Beep\n"
blob_string += "G4 S2 ; Wait\n"
return blob_string

148
plugins/PostProcessingPlugin/scripts/SearchAndReplace.py
View file

@ -1,20 +1,20 @@
# Copyright (c) 2017 Ghostkeeper
# The PostProcessingPlugin is released under the terms of the LGPLv3 or higher.
# Altered by GregValiant (Greg Foresi) February, 2025.
# Added option for "first instance only"
# Added option for a layer search with a Start Layer and an End layer.
# Added 'Ignore StartUp G-code' and 'Ignore Ending G-code' options
import re # To perform the search and replace.
import re
from ..Script import Script
from UM.Application import Application
class SearchAndReplace(Script):
"""Performs a search-and-replace on all g-code.
Due to technical limitations, the search can't cross the border between
layers.
"""Performs a search-and-replace on the g-code.
"""
def getSettingDataString(self):
return """{
return r"""{
"name": "Search and Replace",
"key": "SearchAndReplace",
"metadata": {},
@ -23,37 +23,145 @@ class SearchAndReplace(Script):
{
"search":
{
"label": "Search",
"description": "All occurrences of this text will get replaced by the replacement text.",
"label": "Search for:",
"description": "All occurrences of this text (within the search range) will be replaced by the 'Replace with' string. The search string is 'Case Sensitive' and 'Layer' is not the same as 'layer'.",
"type": "str",
"default_value": ""
},
"replace":
{
"label": "Replace",
"description": "The search text will get replaced by this text.",
"label": "Replace with:",
"description": "The 'Search For' text will get replaced by this text. For MultiLine insertions use the newline character '\\n' as the delimiter. If your Search term ends with a '\\n' remember to add '\\n' to the end of this Replace term.",
"type": "str",
"default_value": ""
},
"is_regex":
{
"label": "Use Regular Expressions",
"description": "When enabled, the search text will be interpreted as a regular expression.",
"description": "When disabled the search string is treated as a simple text string. When enabled, the search text will be interpreted as a Python regular expression.",
"type": "bool",
"default_value": false
},
"enable_layer_search":
{
"label": "Enable search within a Layer Range:",
"description": "When enabled, You can choose a Start and End layer for the search. When 'Layer Search' is enabled the StartUp and Ending gcodes are always ignored.",
"type": "bool",
"default_value": false,
"enabled": true
},
"search_start":
{
"label": "Start S&R at Layer:",
"description": "Use the Cura Preview layer numbering.",
"type": "int",
"default_value": 1,
"minimum_value": 1,
"enabled": "enable_layer_search"
},
"search_end":
{
"label": "Stop S&R at end of Layer:",
"description": "Use the Cura Preview layer numbering. The replacements will conclude at the end of this layer. If the End Layer is equal to the Start Layer then only that single layer is searched.",
"type": "int",
"default_value": 2,
"minimum_value": 1,
"enabled": "enable_layer_search"
},
"first_instance_only":
{
"label": "Replace first instance only:",
"description": "When enabled only the first instance is replaced.",
"type": "bool",
"default_value": false,
"enabled": true
},
"ignore_start":
{
"label": "Ignore StartUp G-code:",
"description": "When enabled the StartUp Gcode is unaffected. The StartUp Gcode is everything from ';generated with Cura...' to ';LAYER_COUNT:' inclusive.",
"type": "bool",
"default_value": true,
"enabled": "not enable_layer_search"
},
"ignore_end":
{
"label": "Ignore Ending G-code:",
"description": "When enabled the Ending Gcode is unaffected.",
"type": "bool",
"default_value": true,
"enabled": "not enable_layer_search"
}
}
}"""
def execute(self, data):
global_stack = Application.getInstance().getGlobalContainerStack()
extruder = global_stack.extruderList
retract_enabled = bool(extruder[0].getProperty("retraction_enable", "value"))
search_string = self.getSettingValueByKey("search")
if not self.getSettingValueByKey("is_regex"):
search_string = re.escape(search_string) #Need to search for the actual string, not as a regex.
search_regex = re.compile(search_string)
replace_string = self.getSettingValueByKey("replace")
is_regex = self.getSettingValueByKey("is_regex")
enable_layer_search = self.getSettingValueByKey("enable_layer_search")
start_layer = self.getSettingValueByKey("search_start")
end_layer = self.getSettingValueByKey("search_end")
ignore_start = self.getSettingValueByKey("ignore_start")
ignore_end = self.getSettingValueByKey("ignore_end")
if enable_layer_search:
ignore_start = True
ignore_end = True
first_instance_only = bool(self.getSettingValueByKey("first_instance_only"))
for layer_number, layer in enumerate(data):
data[layer_number] = re.sub(search_regex, replace_string, layer) #Replace all.
# Account for missing layer numbers when a raft is used
start_index = 1
end_index = len(data) - 1
data_list = [0,1]
layer_list = [-1,0]
lay_num = 1
for index, layer in enumerate(data):
if re.search(r";LAYER:(-?\d+)", layer):
data_list.append(index)
layer_list.append(lay_num)
lay_num += 1
return data
# Get the start and end indexes within the data
if not enable_layer_search:
if ignore_start:
start_index = 2
else:
start_index = 1
if ignore_end:
end_index = data_list[len(data_list) - 1]
else:
# Account for the extra data item when retraction is enabled
end_index = data_list[len(data_list) - 1] + (2 if retract_enabled else 1)
elif enable_layer_search:
for index, num in enumerate(layer_list):
if num == start_layer:
start_index = data_list[index]
if num == end_layer:
end_index = data_list[index]
# Make replacements
replace_one = False
if not is_regex:
search_string = re.escape(search_string)
search_regex = re.compile(search_string)
for num in range(start_index, end_index + 1, 1):
layer = data[num]
# First_instance only
if first_instance_only:
if re.search(search_regex, layer) and replace_one == False:
data[num] = re.sub(search_regex, replace_string, data[num], 1)
replace_one = True
break
# All instances
else:
if end_index > start_index:
data[num] = re.sub(search_regex, replace_string, layer)
elif end_index == start_index:
layer = data[start_index]
data[start_index] = re.sub(search_regex, replace_string, layer)
return data

249
plugins/PostProcessingPlugin/scripts/TimeLapse.py
View file

@ -1,9 +1,15 @@
# Copyright (c) 2020 Ultimaker B.V.
# Cura is released under the terms of the LGPLv3 or higher.
# Created by Wayne Porter
# Modified 5/15/2023 - Greg Valiant (Greg Foresi)
# Created by Wayne Porter
# Added insertion frequency
# Adjusted for use with Relative Extrusion
# Changed Retract to a boolean and when true use the regular Cura retract settings.
# Use the regular Cura settings for Travel Speed and Speed_Z instead of asking.
# Added code to check the E location to prevent retracts if the filament was already retracted.
# Added 'Pause before image' per LemanRus
from ..Script import Script
from UM.Application import Application
from UM.Logger import Logger
class TimeLapse(Script):
def __init__(self):
@ -11,7 +17,7 @@ class TimeLapse(Script):
def getSettingDataString(self):
return """{
"name": "Time Lapse",
"name": "Time Lapse Camera",
"key": "TimeLapse",
"metadata": {},
"version": 2,
@ -19,24 +25,49 @@ class TimeLapse(Script):
{
"trigger_command":
{
"label": "Trigger camera command",
"description": "G-code command used to trigger camera.",
"label": "Camera Trigger Command",
"description": "G-code command used to trigger the camera. The setting box will take any command and parameters.",
"type": "str",
"default_value": "M240"
},
"insert_frequency":
{
"label": "How often (layers)",
"description": "Every so many layers (always starts at the first layer whether it's the model or a raft).",
"type": "enum",
"options": {
"every_layer": "Every Layer",
"every_2nd": "Every 2nd",
"every_3rd": "Every 3rd",
"every_5th": "Every 5th",
"every_10th": "Every 10th",
"every_25th": "Every 25th",
"every_50th": "Every 50th",
"every_100th": "Every 100th"},
"default_value": "every_layer"
},
"anti_shake_length":
{
"label": "Pause before image",
"description": "How long to wait (in ms) before capturing the image. This is to allow the printer to 'settle down' after movement. To disable set this to '0'.",
"type": "int",
"default_value": 0,
"minimum_value": 0,
"unit": "ms"
},
"pause_length":
{
"label": "Pause length",
"label": "Pause after image",
"description": "How long to wait (in ms) after camera was triggered.",
"type": "int",
"default_value": 700,
"default_value": 500,
"minimum_value": 0,
"unit": "ms"
},
"park_print_head":
{
"label": "Park Print Head",
"description": "Park the print head out of the way. Assumes absolute positioning.",
"description": "Park the print head out of the way.",
"type": "bool",
"default_value": true
},
@ -55,90 +86,166 @@ class TimeLapse(Script):
"description": "What Y location does the head move to for photo.",
"unit": "mm",
"type": "float",
"default_value": 190,
"enabled": "park_print_head"
},
"park_feed_rate":
{
"label": "Park Feed Rate",
"description": "How fast does the head move to the park coordinates.",
"unit": "mm/s",
"type": "float",
"default_value": 9000,
"default_value": 0,
"enabled": "park_print_head"
},
"retract":
{
"label": "Retraction Distance",
"description": "Filament retraction distance for camera trigger.",
"unit": "mm",
"type": "int",
"default_value": 0
"label": "Retract when required",
"description": "Retract if there isn't already a retraction. If unchecked then there will be no retraction even if there is none in the gcode. If retractions are not enabled in Cura there won't be a retraction. regardless of this setting.",
"type": "bool",
"default_value": true
},
"zhop":
{
"label": "Z-Hop Height When Parking",
"description": "Z-hop length before parking",
"description": "The height to lift the nozzle off the print before parking.",
"unit": "mm",
"type": "float",
"default_value": 0
"default_value": 2.0,
"minimum_value": 0.0
},
"ensure_final_image":
{
"label": "Ensure Final Image",
"description": "Depending on how the layer numbers work out with the 'How Often' frequency there might not be an image taken at the end of the last layer. This will ensure that one is taken. There is no parking as the Ending Gcode comes right up.",
"type": "bool",
"default_value": false
}
}
}"""
def execute(self, data):
feed_rate = self.getSettingValueByKey("park_feed_rate")
mycura = Application.getInstance().getGlobalContainerStack()
relative_extrusion = bool(mycura.getProperty("relative_extrusion", "value"))
extruder = mycura.extruderList
retract_speed = int(extruder[0].getProperty("retraction_speed", "value"))*60
retract_dist = round(float(extruder[0].getProperty("retraction_amount", "value")), 2)
retract_enabled = bool(extruder[0].getProperty("retraction_enable", "value"))
firmware_retract = bool(mycura.getProperty("machine_firmware_retract", "value"))
speed_z = int(extruder[0].getProperty("speed_z_hop", "value"))*60
if relative_extrusion:
rel_cmd = 83
else:
rel_cmd = 82
travel_speed = int(extruder[0].getProperty("speed_travel", "value"))*60
park_print_head = self.getSettingValueByKey("park_print_head")
x_park = self.getSettingValueByKey("head_park_x")
y_park = self.getSettingValueByKey("head_park_y")
trigger_command = self.getSettingValueByKey("trigger_command")
pause_length = self.getSettingValueByKey("pause_length")
retract = int(self.getSettingValueByKey("retract"))
retract = bool(self.getSettingValueByKey("retract"))
zhop = self.getSettingValueByKey("zhop")
gcode_to_append = ";TimeLapse Begin\n"
ensure_final_image = bool(self.getSettingValueByKey("ensure_final_image"))
when_to_insert = self.getSettingValueByKey("insert_frequency")
last_x = 0
last_y = 0
last_z = 0
last_e = 0
prev_e = 0
is_retracted = False
gcode_to_append = ""
if park_print_head:
gcode_to_append += self.putValue(G=1, F=feed_rate,
X=x_park, Y=y_park) + " ;Park print head\n"
gcode_to_append += self.putValue(M=400) + " ;Wait for moves to finish\n"
gcode_to_append += trigger_command + " ;Snap Photo\n"
gcode_to_append += self.putValue(G=4, P=pause_length) + " ;Wait for camera\n"
for idx, layer in enumerate(data):
for line in layer.split("\n"):
if self.getValue(line, "G") in {0, 1}: # Track X,Y,Z location.
last_x = self.getValue(line, "X", last_x)
last_y = self.getValue(line, "Y", last_y)
last_z = self.getValue(line, "Z", last_z)
# Check that a layer is being printed
lines = layer.split("\n")
for line in lines:
if ";LAYER:" in line:
if retract != 0: # Retract the filament so no stringing happens
layer += self.putValue(M=83) + " ;Extrude Relative\n"
layer += self.putValue(G=1, E=-retract, F=3000) + " ;Retract filament\n"
layer += self.putValue(M=82) + " ;Extrude Absolute\n"
layer += self.putValue(M=400) + " ;Wait for moves to finish\n" # Wait to fully retract before hopping
if zhop != 0:
layer += self.putValue(G=1, Z=last_z+zhop, F=3000) + " ;Z-Hop\n"
layer += gcode_to_append
if zhop != 0:
layer += self.putValue(G=0, X=last_x, Y=last_y, Z=last_z) + "; Restore position \n"
else:
layer += self.putValue(G=0, X=last_x, Y=last_y) + "; Restore position \n"
if retract != 0:
layer += self.putValue(M=400) + " ;Wait for moves to finish\n"
layer += self.putValue(M=83) + " ;Extrude Relative\n"
layer += self.putValue(G=1, E=retract, F=3000) + " ;Retract filament\n"
layer += self.putValue(M=82) + " ;Extrude Absolute\n"
data[idx] = layer
break
gcode_to_append += f"G0 F{travel_speed} X{x_park} Y{y_park} ;Park print head\n"
gcode_to_append += "M400 ;Wait for moves to finish\n"
anti_shake_length = self.getSettingValueByKey("anti_shake_length")
if anti_shake_length > 0:
gcode_to_append += f"G4 P{anti_shake_length} ;Wait for printer to settle down\n"
gcode_to_append += trigger_command + " ;Snap the Image\n"
gcode_to_append += f"G4 P{pause_length} ;Wait for camera to finish\n"
match when_to_insert:
case "every_layer":
step_freq = 1
case "every_2nd":
step_freq = 2
case "every_3rd":
step_freq = 3
case "every_5th":
step_freq = 5
case "every_10th":
step_freq = 10
case "every_25th":
step_freq = 25
case "every_50th":
step_freq = 50
case "every_100th":
step_freq = 100
case _:
step_freq = 1
# Use the step_freq to index through the layers----------------------------------------
for num in range(2,len(data)-1,step_freq):
layer = data[num]
try:
# Track X,Y,Z location.--------------------------------------------------------
for line in layer.split("\n"):
if self.getValue(line, "G") in {0, 1}:
last_x = self.getValue(line, "X", last_x)
last_y = self.getValue(line, "Y", last_y)
last_z = self.getValue(line, "Z", last_z)
#Track the E location so that if there is already a retraction we don't double dip.
if rel_cmd == 82:
if " E" in line:
last_e = line.split("E")[1]
if float(last_e) < float(prev_e):
is_retracted = True
else:
is_retracted = False
prev_e = last_e
elif rel_cmd == 83:
if " E" in line:
last_e = line.split("E")[1]
if float(last_e) < 0:
is_retracted = True
else:
is_retracted = False
prev_e = last_e
if firmware_retract and self.getValue(line, "G") in {10, 11}:
if self.getValue(line, "G") == 10:
is_retracted = True
last_e = float(prev_e) - float(retract_dist)
if self.getValue(line, "G") == 11:
is_retracted = False
last_e = float(prev_e) + float(retract_dist)
prev_e = last_e
lines = layer.split("\n")
# Insert the code----------------------------------------------------
camera_code = ""
for line in lines:
if ";LAYER:" in line:
if retract and not is_retracted and retract_enabled: # Retract unless already retracted
camera_code += ";TYPE:CUSTOM-----------------TimeLapse Begin\n"
camera_code += "M83 ;Extrude Relative\n"
if not firmware_retract:
camera_code += f"G1 F{retract_speed} E-{retract_dist} ;Retract filament\n"
else:
camera_code += "G10 ;Retract filament\n"
else:
camera_code += ";TYPE:CUSTOM-----------------TimeLapse Begin\n"
if zhop != 0:
camera_code += f"G1 F{speed_z} Z{round(last_z + zhop,2)} ;Z-Hop\n"
camera_code += gcode_to_append
camera_code += f"G0 F{travel_speed} X{last_x} Y{last_y} ;Restore XY position\n"
if zhop != 0:
camera_code += f"G0 F{speed_z} Z{last_z} ;Restore Z position\n"
if retract and not is_retracted and retract_enabled:
if not firmware_retract:
camera_code += f"G1 F{retract_speed} E{retract_dist} ;Un-Retract filament\n"
else:
camera_code += "G11 ;Un-Retract filament\n"
camera_code += f"M{rel_cmd} ;Extrude Mode\n"
camera_code += f";{'-' * 28}TimeLapse End"
# Format the camera code to be inserted
temp_lines = camera_code.split("\n")
for temp_index, temp_line in enumerate(temp_lines):
if ";" in temp_line and not temp_line.startswith(";"):
temp_lines[temp_index] = temp_line.replace(temp_line.split(";")[0], temp_line.split(";")[0] + str(" " * (29 - len(temp_line.split(";")[0]))),1)
temp_lines = "\n".join(temp_lines)
lines.insert(len(lines) - 2, temp_lines)
data[num] = "\n".join(lines)
break
except Exception as e:
Logger.log("w", "TimeLapse Error: " + repr(e))
# Take a final image if there was no camera shot at the end of the last layer.
if "TimeLapse Begin" not in data[len(data) - (3 if retract_enabled else 2)] and ensure_final_image:
data[len(data)-1] = "M400 ; Wait for all moves to finish\n" + trigger_command + " ;Snap the final Image\n" + f"G4 P{pause_length} ;Wait for camera\n" + data[len(data)-1]
return data