flatcam/FlatCAMObj.py

1687 lines
60 KiB
Python

############################################################
# FlatCAM: 2D Post-processing for Manufacturing #
# http://flatcam.org #
# Author: Juan Pablo Caram (c) #
# Date: 2/5/2014 #
# MIT Licence #
############################################################
from io import StringIO
from PyQt4 import QtCore
from copy import copy
from ObjectUI import *
import FlatCAMApp
import inspect # TODO: For debugging only.
from camlib import *
from FlatCAMCommon import LoudDict
from FlatCAMDraw import FlatCAMDraw
########################################
## FlatCAMObj ##
########################################
class FlatCAMObj(QtCore.QObject):
"""
Base type of objects handled in FlatCAM. These become interactive
in the GUI, can be plotted, and their options can be modified
by the user in their respective forms.
"""
# Instance of the application to which these are related.
# The app should set this value.
app = None
option_changed = QtCore.pyqtSignal(QtCore.QObject, str)
def __init__(self, name):
"""
Constructor.
:param name: Name of the object given by the user.
:return: FlatCAMObj
"""
QtCore.QObject.__init__(self)
# View
self.ui = None
self.options = LoudDict(name=name)
self.options.set_change_callback(self.on_options_change)
self.form_fields = {}
self.axes = None # Matplotlib axes
self.kind = None # Override with proper name
self.muted_ui = False
# assert isinstance(self.ui, ObjectUI)
# self.ui.name_entry.returnPressed.connect(self.on_name_activate)
# self.ui.offset_button.clicked.connect(self.on_offset_button_click)
# self.ui.scale_button.clicked.connect(self.on_scale_button_click)
def from_dict(self, d):
"""
This supersedes ``from_dict`` in derived classes. Derived classes
must inherit from FlatCAMObj first, then from derivatives of Geometry.
``self.options`` is only updated, not overwritten. This ensures that
options set by the app do not vanish when reading the objects
from a project file.
:param d: Dictionary with attributes to set.
:return: None
"""
for attr in self.ser_attrs:
if attr == 'options':
self.options.update(d[attr])
else:
setattr(self, attr, d[attr])
def on_options_change(self, key):
#self.emit(QtCore.SIGNAL("optionChanged()"), key)
self.option_changed.emit(self, key)
def set_ui(self, ui):
self.ui = ui
self.form_fields = {"name": self.ui.name_entry}
assert isinstance(self.ui, ObjectUI)
self.ui.name_entry.returnPressed.connect(self.on_name_activate)
self.ui.offset_button.clicked.connect(self.on_offset_button_click)
self.ui.scale_button.clicked.connect(self.on_scale_button_click)
def __str__(self):
return "<FlatCAMObj({:12s}): {:20s}>".format(self.kind, self.options["name"])
def on_name_activate(self):
old_name = copy(self.options["name"])
new_name = self.ui.name_entry.get_value()
self.options["name"] = self.ui.name_entry.get_value()
self.app.info("Name changed from %s to %s" % (old_name, new_name))
def on_offset_button_click(self):
self.app.report_usage("obj_on_offset_button")
self.read_form()
vect = self.ui.offsetvector_entry.get_value()
self.offset(vect)
self.plot()
def on_scale_button_click(self):
self.app.report_usage("obj_on_scale_button")
self.read_form()
factor = self.ui.scale_entry.get_value()
self.scale(factor)
self.plot()
def setup_axes(self, figure):
"""
1) Creates axes if they don't exist. 2) Clears axes. 3) Attaches
them to figure if not part of the figure. 4) Sets transparent
background. 5) Sets 1:1 scale aspect ratio.
:param figure: A Matplotlib.Figure on which to add/configure axes.
:type figure: matplotlib.figure.Figure
:return: None
:rtype: None
"""
if self.axes is None:
FlatCAMApp.App.log.debug("setup_axes(): New axes")
self.axes = figure.add_axes([0.05, 0.05, 0.9, 0.9],
label=self.options["name"])
elif self.axes not in figure.axes:
FlatCAMApp.App.log.debug("setup_axes(): Clearing and attaching axes")
self.axes.cla()
figure.add_axes(self.axes)
else:
FlatCAMApp.App.log.debug("setup_axes(): Clearing Axes")
self.axes.cla()
# Remove all decoration. The app's axes will have
# the ticks and grid.
self.axes.set_frame_on(False) # No frame
self.axes.set_xticks([]) # No tick
self.axes.set_yticks([]) # No ticks
self.axes.patch.set_visible(False) # No background
self.axes.set_aspect(1)
def to_form(self):
"""
Copies options to the UI form.
:return: None
"""
FlatCAMApp.App.log.debug(str(inspect.stack()[1][3]) + "--> FlatCAMObj.to_form()")
for option in self.options:
try:
self.set_form_item(option)
except:
self.app.log.warning("Unexpected error:", sys.exc_info())
def read_form(self):
"""
Reads form into ``self.options``.
:return: None
:rtype: None
"""
FlatCAMApp.App.log.debug(str(inspect.stack()[1][3]) + "--> FlatCAMObj.read_form()")
for option in self.options:
try:
self.read_form_item(option)
except:
self.app.log.warning("Unexpected error:", sys.exc_info())
def build_ui(self):
"""
Sets up the UI/form for this object. Show the UI
in the App.
:return: None
:rtype: None
"""
self.muted_ui = True
FlatCAMApp.App.log.debug(str(inspect.stack()[1][3]) + "--> FlatCAMObj.build_ui()")
# Remove anything else in the box
# box_children = self.app.ui.notebook.selected_contents.get_children()
# for child in box_children:
# self.app.ui.notebook.selected_contents.remove(child)
# while self.app.ui.selected_layout.count():
# self.app.ui.selected_layout.takeAt(0)
# Put in the UI
# box_selected.pack_start(sw, True, True, 0)
# self.app.ui.notebook.selected_contents.add(self.ui)
# self.app.ui.selected_layout.addWidget(self.ui)
try:
self.app.ui.selected_scroll_area.takeWidget()
except:
self.app.log.debug("Nothing to remove")
self.app.ui.selected_scroll_area.setWidget(self.ui)
self.to_form()
self.muted_ui = False
def set_form_item(self, option):
"""
Copies the specified option to the UI form.
:param option: Name of the option (Key in ``self.options``).
:type option: str
:return: None
"""
try:
self.form_fields[option].set_value(self.options[option])
except KeyError:
self.app.log.warn("Tried to set an option or field that does not exist: %s" % option)
def read_form_item(self, option):
"""
Reads the specified option from the UI form into ``self.options``.
:param option: Name of the option.
:type option: str
:return: None
"""
try:
self.options[option] = self.form_fields[option].get_value()
except KeyError:
self.app.log.warning("Failed to read option from field: %s" % option)
# #try read field only when option have equivalent in form_fields
# if option in self.form_fields:
# option_type=type(self.options[option])
# try:
# value=self.form_fields[option].get_value()
# #catch per option as it was ignored anyway, also when syntax error (probably uninitialized field),don't read either.
# except (KeyError,SyntaxError):
# self.app.log.warning("Failed to read option from field: %s" % option)
# else:
# self.app.log.warning("Form fied does not exists: %s" % option)
def plot(self):
"""
Plot this object (Extend this method to implement the actual plotting).
Axes get created, appended to canvas and cleared before plotting.
Call this in descendants before doing the plotting.
:return: Whether to continue plotting or not depending on the "plot" option.
:rtype: bool
"""
FlatCAMApp.App.log.debug(str(inspect.stack()[1][3]) + " --> FlatCAMObj.plot()")
# Axes must exist and be attached to canvas.
if self.axes is None or self.axes not in self.app.plotcanvas.figure.axes:
self.axes = self.app.plotcanvas.new_axes(self.options['name'])
if not self.options["plot"]:
self.axes.cla()
self.app.plotcanvas.auto_adjust_axes()
return False
# Clear axes or we will plot on top of them.
self.axes.cla() # TODO: Thread safe?
return True
def serialize(self):
"""
Returns a representation of the object as a dictionary so
it can be later exported as JSON. Override this method.
:return: Dictionary representing the object
:rtype: dict
"""
return
def deserialize(self, obj_dict):
"""
Re-builds an object from its serialized version.
:param obj_dict: Dictionary representing a FlatCAMObj
:type obj_dict: dict
:return: None
"""
return
class FlatCAMGerber(FlatCAMObj, Gerber):
"""
Represents Gerber code.
"""
ui_type = GerberObjectUI
def __init__(self, name):
Gerber.__init__(self)
FlatCAMObj.__init__(self, name)
self.kind = "gerber"
# The 'name' is already in self.options from FlatCAMObj
# Automatically updates the UI
self.options.update({
"plot": True,
"multicolored": False,
"solid": False,
"isotooldia": 0.016,
"isopasses": 1,
"isooverlap": 0.15,
"combine_passes": True,
"cutouttooldia": 0.07,
"cutoutmargin": 0.2,
"cutoutgapsize": 0.15,
"gaps": "tb",
"noncoppermargin": 0.0,
"noncopperrounded": False,
"bboxmargin": 0.0,
"bboxrounded": False
})
# Attributes to be included in serialization
# Always append to it because it carries contents
# from predecessors.
self.ser_attrs += ['options', 'kind']
# assert isinstance(self.ui, GerberObjectUI)
# self.ui.plot_cb.stateChanged.connect(self.on_plot_cb_click)
# self.ui.solid_cb.stateChanged.connect(self.on_solid_cb_click)
# self.ui.multicolored_cb.stateChanged.connect(self.on_multicolored_cb_click)
# self.ui.generate_iso_button.clicked.connect(self.on_iso_button_click)
# self.ui.generate_cutout_button.clicked.connect(self.on_generatecutout_button_click)
# self.ui.generate_bb_button.clicked.connect(self.on_generatebb_button_click)
# self.ui.generate_noncopper_button.clicked.connect(self.on_generatenoncopper_button_click)
def set_ui(self, ui):
"""
Maps options with GUI inputs.
Connects GUI events to methods.
:param ui: GUI object.
:type ui: GerberObjectUI
:return: None
"""
FlatCAMObj.set_ui(self, ui)
FlatCAMApp.App.log.debug("FlatCAMGerber.set_ui()")
self.form_fields.update({
"plot": self.ui.plot_cb,
"multicolored": self.ui.multicolored_cb,
"solid": self.ui.solid_cb,
"isotooldia": self.ui.iso_tool_dia_entry,
"isopasses": self.ui.iso_width_entry,
"isooverlap": self.ui.iso_overlap_entry,
"combine_passes": self.ui.combine_passes_cb,
"cutouttooldia": self.ui.cutout_tooldia_entry,
"cutoutmargin": self.ui.cutout_margin_entry,
"cutoutgapsize": self.ui.cutout_gap_entry,
"gaps": self.ui.gaps_radio,
"noncoppermargin": self.ui.noncopper_margin_entry,
"noncopperrounded": self.ui.noncopper_rounded_cb,
"bboxmargin": self.ui.bbmargin_entry,
"bboxrounded": self.ui.bbrounded_cb
})
assert isinstance(self.ui, GerberObjectUI)
self.ui.plot_cb.stateChanged.connect(self.on_plot_cb_click)
self.ui.solid_cb.stateChanged.connect(self.on_solid_cb_click)
self.ui.multicolored_cb.stateChanged.connect(self.on_multicolored_cb_click)
self.ui.generate_iso_button.clicked.connect(self.on_iso_button_click)
self.ui.generate_cutout_button.clicked.connect(self.on_generatecutout_button_click)
self.ui.generate_bb_button.clicked.connect(self.on_generatebb_button_click)
self.ui.generate_noncopper_button.clicked.connect(self.on_generatenoncopper_button_click)
def on_generatenoncopper_button_click(self, *args):
self.app.report_usage("gerber_on_generatenoncopper_button")
self.read_form()
name = self.options["name"] + "_noncopper"
def geo_init(geo_obj, app_obj):
assert isinstance(geo_obj, FlatCAMGeometry)
bounding_box = self.solid_geometry.envelope.buffer(self.options["noncoppermargin"])
if not self.options["noncopperrounded"]:
bounding_box = bounding_box.envelope
non_copper = bounding_box.difference(self.solid_geometry)
geo_obj.solid_geometry = non_copper
# TODO: Check for None
self.app.new_object("geometry", name, geo_init)
def on_generatebb_button_click(self, *args):
self.app.report_usage("gerber_on_generatebb_button")
self.read_form()
name = self.options["name"] + "_bbox"
def geo_init(geo_obj, app_obj):
assert isinstance(geo_obj, FlatCAMGeometry)
# Bounding box with rounded corners
bounding_box = self.solid_geometry.envelope.buffer(self.options["bboxmargin"])
if not self.options["bboxrounded"]: # Remove rounded corners
bounding_box = bounding_box.envelope
geo_obj.solid_geometry = bounding_box
self.app.new_object("geometry", name, geo_init)
def on_generatecutout_button_click(self, *args):
self.app.report_usage("gerber_on_generatecutout_button")
self.read_form()
name = self.options["name"] + "_cutout"
def geo_init(geo_obj, app_obj):
margin = self.options["cutoutmargin"] + self.options["cutouttooldia"]/2
gap_size = self.options["cutoutgapsize"] + self.options["cutouttooldia"]
minx, miny, maxx, maxy = self.bounds()
minx -= margin
maxx += margin
miny -= margin
maxy += margin
midx = 0.5 * (minx + maxx)
midy = 0.5 * (miny + maxy)
hgap = 0.5 * gap_size
pts = [[midx - hgap, maxy],
[minx, maxy],
[minx, midy + hgap],
[minx, midy - hgap],
[minx, miny],
[midx - hgap, miny],
[midx + hgap, miny],
[maxx, miny],
[maxx, midy - hgap],
[maxx, midy + hgap],
[maxx, maxy],
[midx + hgap, maxy]]
cases = {"tb": [[pts[0], pts[1], pts[4], pts[5]],
[pts[6], pts[7], pts[10], pts[11]]],
"lr": [[pts[9], pts[10], pts[1], pts[2]],
[pts[3], pts[4], pts[7], pts[8]]],
"4": [[pts[0], pts[1], pts[2]],
[pts[3], pts[4], pts[5]],
[pts[6], pts[7], pts[8]],
[pts[9], pts[10], pts[11]]]}
cuts = cases[self.options['gaps']]
geo_obj.solid_geometry = cascaded_union([LineString(segment) for segment in cuts])
# TODO: Check for None
self.app.new_object("geometry", name, geo_init)
def on_iso_button_click(self, *args):
self.app.report_usage("gerber_on_iso_button")
self.read_form()
self.isolate()
def follow(self, outname=None):
"""
Creates a geometry object "following" the gerber paths.
:return: None
"""
default_name = self.options["name"] + "_follow"
follow_name = outname or default_name
def follow_init(follow_obj, app_obj):
# Propagate options
follow_obj.options["cnctooldia"] = self.options["isotooldia"]
follow_obj.solid_geometry = self.solid_geometry
app_obj.info("Follow geometry created: %s" % follow_obj.options["name"])
# TODO: Do something if this is None. Offer changing name?
self.app.new_object("geometry", follow_name, follow_init)
def isolate(self, dia=None, passes=None, overlap=None, outname=None, combine=None):
"""
Creates an isolation routing geometry object in the project.
:param dia: Tool diameter
:param passes: Number of tool widths to cut
:param overlap: Overlap between passes in fraction of tool diameter
:param outname: Base name of the output object
:return: None
"""
if dia is None:
dia = self.options["isotooldia"]
if passes is None:
passes = int(self.options["isopasses"])
if overlap is None:
overlap = self.options["isooverlap"]
if combine is None:
combine = self.options["combine_passes"]
else:
combine = bool(combine)
base_name = self.options["name"] + "_iso"
base_name = outname or base_name
def generate_envelope(offset, invert):
# isolation_geometry produces an envelope that is going on the left of the geometry
# (the copper features). To leave the least amount of burrs on the features
# the tool needs to travel on the right side of the features (this is called conventional milling)
# the first pass is the one cutting all of the features, so it needs to be reversed
# the other passes overlap preceding ones and cut the left over copper. It is better for them
# to cut on the right side of the left over copper i.e on the left side of the features.
geom = self.isolation_geometry(offset)
if invert:
try:
if type(geom) is MultiPolygon:
pl = []
for p in geom:
pl.append(Polygon(p.exterior.coords[::-1], p.interiors))
geom = MultiPolygon(pl)
elif type(geom) is Polygon:
geom = Polygon(geom.exterior.coords[::-1], geom.interiors)
except Exception as e:
str("Unexpected Geometry")
return geom
if combine:
iso_name = base_name
# TODO: This is ugly. Create way to pass data into init function.
def iso_init(geo_obj, app_obj):
# Propagate options
geo_obj.options["cnctooldia"] = self.options["isotooldia"]
geo_obj.solid_geometry = []
for i in range(passes):
offset = (2 * i + 1) / 2.0 * dia - i * overlap * dia
geom = generate_envelope (offset, i == 0)
geo_obj.solid_geometry.append(geom)
app_obj.info("Isolation geometry created: %s" % geo_obj.options["name"])
# TODO: Do something if this is None. Offer changing name?
self.app.new_object("geometry", iso_name, iso_init)
else:
for i in range(passes):
offset = (2 * i + 1) / 2.0 * dia - i * overlap * dia
if passes > 1:
iso_name = base_name + str(i + 1)
else:
iso_name = base_name
# TODO: This is ugly. Create way to pass data into init function.
def iso_init(geo_obj, app_obj):
# Propagate options
geo_obj.options["cnctooldia"] = self.options["isotooldia"]
geo_obj.solid_geometry = generate_envelope (offset, i == 0)
app_obj.info("Isolation geometry created: %s" % geo_obj.options["name"])
# TODO: Do something if this is None. Offer changing name?
self.app.new_object("geometry", iso_name, iso_init)
def on_plot_cb_click(self, *args):
if self.muted_ui:
return
self.read_form_item('plot')
self.plot()
def on_solid_cb_click(self, *args):
if self.muted_ui:
return
self.read_form_item('solid')
self.plot()
def on_multicolored_cb_click(self, *args):
if self.muted_ui:
return
self.read_form_item('multicolored')
self.plot()
def convert_units(self, units):
"""
Converts the units of the object by scaling dimensions in all geometry
and options.
:param units: Units to which to convert the object: "IN" or "MM".
:type units: str
:return: None
:rtype: None
"""
factor = Gerber.convert_units(self, units)
self.options['isotooldia'] *= factor
self.options['cutoutmargin'] *= factor
self.options['cutoutgapsize'] *= factor
self.options['noncoppermargin'] *= factor
self.options['bboxmargin'] *= factor
def plot(self):
FlatCAMApp.App.log.debug(str(inspect.stack()[1][3]) + " --> FlatCAMGerber.plot()")
# Does all the required setup and returns False
# if the 'ptint' option is set to False.
if not FlatCAMObj.plot(self):
return
geometry = self.solid_geometry
# Make sure geometry is iterable.
try:
_ = iter(geometry)
except TypeError:
geometry = [geometry]
if self.options["multicolored"]:
linespec = '-'
else:
linespec = 'k-'
if self.options["solid"]:
for poly in geometry:
# TODO: Too many things hardcoded.
try:
patch = PolygonPatch(poly,
facecolor="#BBF268",
edgecolor="#006E20",
alpha=0.75,
zorder=2)
self.axes.add_patch(patch)
except AssertionError:
FlatCAMApp.App.log.warning("A geometry component was not a polygon:")
FlatCAMApp.App.log.warning(str(poly))
else:
for poly in geometry:
x, y = poly.exterior.xy
self.axes.plot(x, y, linespec)
for ints in poly.interiors:
x, y = ints.coords.xy
self.axes.plot(x, y, linespec)
self.app.plotcanvas.auto_adjust_axes()
def serialize(self):
return {
"options": self.options,
"kind": self.kind
}
class FlatCAMExcellon(FlatCAMObj, Excellon):
"""
Represents Excellon/Drill code.
"""
ui_type = ExcellonObjectUI
def __init__(self, name):
Excellon.__init__(self)
FlatCAMObj.__init__(self, name)
self.kind = "excellon"
self.options.update({
"plot": True,
"solid": False,
"drillz": -0.1,
"travelz": 0.1,
"feedrate": 5.0,
# "toolselection": ""
"tooldia": 0.1,
"toolchange": False,
"toolchangez": 1.0,
"spindlespeed": None
})
# TODO: Document this.
self.tool_cbs = {}
# Attributes to be included in serialization
# Always append to it because it carries contents
# from predecessors.
self.ser_attrs += ['options', 'kind']
@staticmethod
def merge(exc_list, exc_final):
"""
Merge excellons in exc_list into exc_final.
Options are allways copied from source .
Tools are also merged, if name for tool is same and size differs, then as name is used next available number from both lists
if only one object is specified in exc_list then this acts as copy only
:param exc_list: List or one object of FlatCAMExcellon Objects to join.
:param exc_final: Destination FlatCAMExcellon object.
:return: None
"""
if type(exc_list) is not list:
exc_list_real= list()
exc_list_real.append(exc_list)
else:
exc_list_real=exc_list
for exc in exc_list_real:
# Expand lists
if type(exc) is list:
FlatCAMExcellon.merge(exc, exc_final)
# If not list, merge excellons
else:
# TODO: I realize forms does not save values into options , when object is deselected
# leave this here for future use
# this reinitialize options based on forms, all steps may not be necessary
# exc.app.collection.set_active(exc.options['name'])
# exc.to_form()
# exc.read_form()
for option in exc.options:
if option is not 'name':
try:
exc_final.options[option] = exc.options[option]
except:
exc.app.log.warning("Failed to copy option.",option)
#deep copy of all drills,to avoid any references
for drill in exc.drills:
point = Point(drill['point'].x,drill['point'].y)
exc_final.drills.append({"point": point, "tool": drill['tool']})
toolsrework=dict()
max_numeric_tool=0
for toolname in list(exc.tools.keys()):
numeric_tool=int(toolname)
if numeric_tool>max_numeric_tool:
max_numeric_tool=numeric_tool
toolsrework[exc.tools[toolname]['C']]=toolname
#exc_final as last because names from final tools will be used
for toolname in list(exc_final.tools.keys()):
numeric_tool=int(toolname)
if numeric_tool>max_numeric_tool:
max_numeric_tool=numeric_tool
toolsrework[exc_final.tools[toolname]['C']]=toolname
for toolvalues in list(toolsrework.keys()):
if toolsrework[toolvalues] in exc_final.tools:
if exc_final.tools[toolsrework[toolvalues]]!={"C": toolvalues}:
exc_final.tools[str(max_numeric_tool+1)]={"C": toolvalues}
else:
exc_final.tools[toolsrework[toolvalues]]={"C": toolvalues}
#this value was not co
exc_final.zeros=exc.zeros
exc_final.create_geometry()
def build_ui(self):
FlatCAMObj.build_ui(self)
# Populate tool list
n = len(self.tools)
self.ui.tools_table.setColumnCount(2)
self.ui.tools_table.setHorizontalHeaderLabels(['#', 'Diameter'])
self.ui.tools_table.setRowCount(n)
self.ui.tools_table.setSortingEnabled(False)
i = 0
for tool in self.tools:
id = QtGui.QTableWidgetItem(tool)
id.setFlags(QtCore.Qt.ItemIsSelectable | QtCore.Qt.ItemIsEnabled)
self.ui.tools_table.setItem(i, 0, id) # Tool name/id
dia = QtGui.QTableWidgetItem(str(self.tools[tool]['C']))
dia.setFlags(QtCore.Qt.ItemIsEnabled)
self.ui.tools_table.setItem(i, 1, dia) # Diameter
i += 1
# sort the tool diameter column
self.ui.tools_table.sortItems(1)
# all the tools are selected by default
self.ui.tools_table.selectColumn(0)
self.ui.tools_table.resizeColumnsToContents()
self.ui.tools_table.resizeRowsToContents()
self.ui.tools_table.horizontalHeader().setStretchLastSection(True)
self.ui.tools_table.verticalHeader().hide()
self.ui.tools_table.setSortingEnabled(True)
def set_ui(self, ui):
"""
Configures the user interface for this object.
Connects options to form fields.
:param ui: User interface object.
:type ui: ExcellonObjectUI
:return: None
"""
FlatCAMObj.set_ui(self, ui)
FlatCAMApp.App.log.debug("FlatCAMExcellon.set_ui()")
self.form_fields.update({
"plot": self.ui.plot_cb,
"solid": self.ui.solid_cb,
"drillz": self.ui.cutz_entry,
"travelz": self.ui.travelz_entry,
"feedrate": self.ui.feedrate_entry,
"tooldia": self.ui.tooldia_entry,
"toolchange": self.ui.toolchange_cb,
"toolchangez": self.ui.toolchangez_entry,
"spindlespeed": self.ui.spindlespeed_entry
})
assert isinstance(self.ui, ExcellonObjectUI), \
"Expected a ExcellonObjectUI, got %s" % type(self.ui)
self.ui.plot_cb.stateChanged.connect(self.on_plot_cb_click)
self.ui.solid_cb.stateChanged.connect(self.on_solid_cb_click)
self.ui.generate_cnc_button.clicked.connect(self.on_create_cncjob_button_click)
self.ui.generate_milling_button.clicked.connect(self.on_generate_milling_button_click)
def get_selected_tools_list(self):
"""
Returns the keys to the self.tools dictionary corresponding
to the selections on the tool list in the GUI.
:return: List of tools.
:rtype: list
"""
return [str(x.text()) for x in self.ui.tools_table.selectedItems()]
def generate_milling(self, tools=None, outname=None, tooldia=None):
"""
Note: This method is a good template for generic operations as
it takes it's options from parameters or otherwise from the
object's options and returns a (success, msg) tuple as feedback
for shell operations.
:return: Success/failure condition tuple (bool, str).
:rtype: tuple
"""
# Get the tools from the list. These are keys
# to self.tools
if tools is None:
tools = self.get_selected_tools_list()
if outname is None:
outname = self.options["name"] + "_mill"
if tooldia is None:
tooldia = self.options["tooldia"]
# Sort tools by diameter. items() -> [('name', diameter), ...]
sorted_tools = sorted(list(self.tools.items()), key=lambda tl: tl[1])
if tools == "all":
tools = [i[0] for i in sorted_tools] # List if ordered tool names.
log.debug("Tools 'all' and sorted are: %s" % str(tools))
if len(tools) == 0:
self.app.inform.emit("Please select one or more tools from the list and try again.")
return False, "Error: No tools."
for tool in tools:
if self.tools[tool]["C"] < tooldia:
self.app.inform.emit("[warning] Milling tool is larger than hole size. Cancelled.")
return False, "Error: Milling tool is larger than hole."
def geo_init(geo_obj, app_obj):
assert isinstance(geo_obj, FlatCAMGeometry), \
"Initializer expected a FlatCAMGeometry, got %s" % type(geo_obj)
app_obj.progress.emit(20)
geo_obj.solid_geometry = []
for hole in self.drills:
if hole['tool'] in tools:
geo_obj.solid_geometry.append(
Point(hole['point']).buffer(self.tools[hole['tool']]["C"] / 2 -
tooldia / 2).exterior
)
def geo_thread(app_obj):
app_obj.new_object("geometry", outname, geo_init)
app_obj.progress.emit(100)
# Create a promise with the new name
self.app.collection.promise(outname)
# Send to worker
self.app.worker_task.emit({'fcn': geo_thread, 'params': [self.app]})
return True, ""
def on_generate_milling_button_click(self, *args):
self.app.report_usage("excellon_on_create_milling_button")
self.read_form()
self.generate_milling()
def on_create_cncjob_button_click(self, *args):
self.app.report_usage("excellon_on_create_cncjob_button")
self.read_form()
# Get the tools from the list
tools = self.get_selected_tools_list()
if len(tools) == 0:
self.app.inform.emit("Please select one or more tools from the list and try again.")
return
job_name = self.options["name"] + "_cnc"
# Object initialization function for app.new_object()
def job_init(job_obj, app_obj):
assert isinstance(job_obj, FlatCAMCNCjob), \
"Initializer expected a FlatCAMCNCjob, got %s" % type(job_obj)
app_obj.progress.emit(20)
job_obj.z_cut = self.options["drillz"]
job_obj.z_move = self.options["travelz"]
job_obj.feedrate = self.options["feedrate"]
job_obj.spindlespeed = self.options["spindlespeed"]
# There could be more than one drill size...
# job_obj.tooldia = # TODO: duplicate variable!
# job_obj.options["tooldia"] =
tools_csv = ','.join(tools)
job_obj.generate_from_excellon_by_tool(self, tools_csv,
toolchange=self.options["toolchange"],
toolchangez=self.options["toolchangez"])
app_obj.progress.emit(50)
job_obj.gcode_parse()
app_obj.progress.emit(60)
job_obj.create_geometry()
app_obj.progress.emit(80)
# To be run in separate thread
def job_thread(app_obj):
app_obj.new_object("cncjob", job_name, job_init)
app_obj.progress.emit(100)
# Create promise for the new name.
self.app.collection.promise(job_name)
# Send to worker
# self.app.worker.add_task(job_thread, [self.app])
self.app.worker_task.emit({'fcn': job_thread, 'params': [self.app]})
def on_plot_cb_click(self, *args):
if self.muted_ui:
return
self.read_form_item('plot')
self.plot()
def on_solid_cb_click(self, *args):
if self.muted_ui:
return
self.read_form_item('solid')
self.plot()
def convert_units(self, units):
factor = Excellon.convert_units(self, units)
self.options['drillz'] *= factor
self.options['travelz'] *= factor
self.options['feedrate'] *= factor
def plot(self):
# Does all the required setup and returns False
# if the 'ptint' option is set to False.
if not FlatCAMObj.plot(self):
return
try:
_ = iter(self.solid_geometry)
except TypeError:
self.solid_geometry = [self.solid_geometry]
# Plot excellon (All polygons?)
if self.options["solid"]:
for geo in self.solid_geometry:
patch = PolygonPatch(geo,
facecolor="#C40000",
edgecolor="#750000",
alpha=0.75,
zorder=3)
self.axes.add_patch(patch)
else:
for geo in self.solid_geometry:
x, y = geo.exterior.coords.xy
self.axes.plot(x, y, 'r-')
for ints in geo.interiors:
x, y = ints.coords.xy
self.axes.plot(x, y, 'g-')
self.app.plotcanvas.auto_adjust_axes()
class FlatCAMCNCjob(FlatCAMObj, CNCjob):
"""
Represents G-Code.
"""
ui_type = CNCObjectUI
def __init__(self, name, units="in", kind="generic", z_move=0.1,
feedrate=3.0, z_cut=-0.002, tooldia=0.0,
spindlespeed=None):
FlatCAMApp.App.log.debug("Creating CNCJob object...")
CNCjob.__init__(self, units=units, kind=kind, z_move=z_move,
feedrate=feedrate, z_cut=z_cut, tooldia=tooldia,
spindlespeed=spindlespeed)
FlatCAMObj.__init__(self, name)
self.kind = "cncjob"
self.options.update({
"plot": True,
"tooldia": 0.4 / 25.4, # 0.4mm in inches
"append": "",
"prepend": "",
"dwell": False,
"dwelltime": 1
})
# Attributes to be included in serialization
# Always append to it because it carries contents
# from predecessors.
self.ser_attrs += ['options', 'kind']
def set_ui(self, ui):
FlatCAMObj.set_ui(self, ui)
FlatCAMApp.App.log.debug("FlatCAMCNCJob.set_ui()")
assert isinstance(self.ui, CNCObjectUI), \
"Expected a CNCObjectUI, got %s" % type(self.ui)
self.form_fields.update({
"plot": self.ui.plot_cb,
"tooldia": self.ui.tooldia_entry,
"append": self.ui.append_text,
"prepend": self.ui.prepend_text,
"dwell": self.ui.dwell_cb,
"dwelltime": self.ui.dwelltime_entry
})
self.ui.plot_cb.stateChanged.connect(self.on_plot_cb_click)
self.ui.updateplot_button.clicked.connect(self.on_updateplot_button_click)
self.ui.export_gcode_button.clicked.connect(self.on_exportgcode_button_click)
def on_updateplot_button_click(self, *args):
"""
Callback for the "Updata Plot" button. Reads the form for updates
and plots the object.
"""
self.read_form()
self.plot()
def on_exportgcode_button_click(self, *args):
self.app.report_usage("cncjob_on_exportgcode_button")
self.read_form()
try:
filename = str(QtGui.QFileDialog.getSaveFileName(caption="Export G-Code ...",
directory=self.app.defaults["last_folder"]))
except TypeError:
filename = str(QtGui.QFileDialog.getSaveFileName(caption="Export G-Code ..."))
preamble = str(self.ui.prepend_text.get_value())
postamble = str(self.ui.append_text.get_value())
self.export_gcode(filename, preamble=preamble, postamble=postamble)
def dwell_generator(self, lines):
"""
Inserts "G4 P..." instructions after spindle-start
instructions (M03 or M04).
"""
log.debug("dwell_generator()...")
m3m4re = re.compile(r'^\s*[mM]0[34]')
g4re = re.compile(r'^\s*[gG]4\s+([\d\.\+\-e]+)')
bufline = None
for line in lines:
# If the buffer contains a G4, yield that.
# If current line is a G4, discard it.
if bufline is not None:
yield bufline
bufline = None
if not g4re.search(line):
yield line
continue
# If start spindle, buffer a G4.
if m3m4re.search(line):
log.debug("Found M03/4")
bufline = "G4 P{}\n".format(self.options['dwelltime'])
yield line
raise StopIteration
def export_gcode(self, filename, preamble='', postamble=''):
lines = StringIO(self.gcode)
## Post processing
# Dwell?
if self.options['dwell']:
log.debug("Will add G04!")
lines = self.dwell_generator(lines)
## Write
with open(filename, 'w') as f:
f.write(preamble + "\n")
for line in lines:
f.write(line)
f.write(postamble)
# Just for adding it to the recent files list.
self.app.file_opened.emit("cncjob", filename)
self.app.inform.emit("Saved to: " + filename)
def get_gcode(self, preamble='', postamble=''):
#we need this to beable get_gcode separatelly for shell command export_code
return preamble + '\n' + self.gcode + "\n" + postamble
def on_plot_cb_click(self, *args):
if self.muted_ui:
return
self.read_form_item('plot')
self.plot()
def plot(self):
# Does all the required setup and returns False
# if the 'ptint' option is set to False.
if not FlatCAMObj.plot(self):
return
self.plot2(self.axes, tooldia=self.options["tooldia"])
self.app.plotcanvas.auto_adjust_axes()
def convert_units(self, units):
factor = CNCjob.convert_units(self, units)
FlatCAMApp.App.log.debug("FlatCAMCNCjob.convert_units()")
self.options["tooldia"] *= factor
class FlatCAMGeometry(FlatCAMObj, Geometry):
"""
Geometric object not associated with a specific
format.
"""
ui_type = GeometryObjectUI
@staticmethod
def merge(geo_list, geo_final):
"""
Merges the geometry of objects in geo_list into
the geometry of geo_final.
:param geo_list: List of FlatCAMGeometry Objects to join.
:param geo_final: Destination FlatCAMGeometry object.
:return: None
"""
if geo_final.solid_geometry is None:
geo_final.solid_geometry = []
if type(geo_final.solid_geometry) is not list:
geo_final.solid_geometry = [geo_final.solid_geometry]
for geo in geo_list:
# Expand lists
if type(geo) is list:
FlatCAMGeometry.merge(geo, geo_final)
# If not list, just append
else:
geo_final.solid_geometry.append(geo.solid_geometry)
# try: # Iterable
# for shape in geo.solid_geometry:
# geo_final.solid_geometry.append(shape)
#
# except TypeError: # Non-iterable
# geo_final.solid_geometry.append(geo.solid_geometry)
def __init__(self, name):
FlatCAMObj.__init__(self, name)
Geometry.__init__(self)
self.kind = "geometry"
self.options.update({
"plot": True,
"cutz": -0.002,
"travelz": 0.1,
"feedrate": 5.0,
"spindlespeed": None,
"cnctooldia": 0.4 / 25.4,
"painttooldia": 0.0625,
"paintoverlap": 0.15,
"paintmargin": 0.01,
"paintmethod": "standard",
"pathconnect": True,
"paintcontour": True,
"multidepth": False,
"depthperpass": 0.002,
"selectmethod": "single"
})
# Attributes to be included in serialization
# Always append to it because it carries contents
# from predecessors.
self.ser_attrs += ['options', 'kind']
def build_ui(self):
FlatCAMObj.build_ui(self)
def set_ui(self, ui):
FlatCAMObj.set_ui(self, ui)
FlatCAMApp.App.log.debug("FlatCAMGeometry.set_ui()")
assert isinstance(self.ui, GeometryObjectUI), \
"Expected a GeometryObjectUI, got %s" % type(self.ui)
self.form_fields.update({
"plot": self.ui.plot_cb,
"cutz": self.ui.cutz_entry,
"travelz": self.ui.travelz_entry,
"feedrate": self.ui.cncfeedrate_entry,
"spindlespeed": self.ui.cncspindlespeed_entry,
"cnctooldia": self.ui.cnctooldia_entry,
"painttooldia": self.ui.painttooldia_entry,
"paintoverlap": self.ui.paintoverlap_entry,
"paintmargin": self.ui.paintmargin_entry,
"paintmethod": self.ui.paintmethod_combo,
"pathconnect": self.ui.pathconnect_cb,
"paintcontour": self.ui.paintcontour_cb,
"multidepth": self.ui.mpass_cb,
"depthperpass": self.ui.maxdepth_entry,
"selectmethod": self.ui.selectmethod_combo
})
self.ui.plot_cb.stateChanged.connect(self.on_plot_cb_click)
self.ui.generate_cnc_button.clicked.connect(self.on_generatecnc_button_click)
self.ui.generate_paint_button.clicked.connect(self.on_paint_button_click)
def on_paint_button_click(self, *args):
self.app.report_usage("geometry_on_paint_button")
self.read_form()
tooldia = self.options["painttooldia"]
overlap = self.options["paintoverlap"]
if self.options["selectmethod"] == "all":
self.paint_poly_all(tooldia, overlap,
connect=self.options["pathconnect"],
contour=self.options["paintcontour"])
return
if self.options["selectmethod"] == "single":
self.app.info("Click inside the desired polygon.")
# To be called after clicking on the plot.
def doit(event):
self.app.info("Painting polygon...")
self.app.plotcanvas.mpl_disconnect(subscription)
point = [event.xdata, event.ydata]
self.paint_poly_single_click(point, tooldia, overlap,
connect=self.options["pathconnect"],
contour=self.options["paintcontour"])
subscription = self.app.plotcanvas.mpl_connect('button_press_event', doit)
def paint_poly_single_click(self, inside_pt, tooldia, overlap,
outname=None, connect=True, contour=True):
"""
Paints a polygon selected by clicking on its interior.
Note:
* The margin is taken directly from the form.
:param inside_pt: [x, y]
:param tooldia: Diameter of the painting tool
:param overlap: Overlap of the tool between passes.
:param outname: Name of the resulting Geometry Object.
:param connect: Connect lines to avoid tool lifts.
:param contour: Paint around the edges.
:return: None
"""
# Which polygon.
poly = self.find_polygon(inside_pt)
# No polygon?
if poly is None:
self.app.log.warning('No polygon found.')
self.app.inform.emit('[warning] No polygon found.')
return
proc = self.app.proc_container.new("Painting polygon.")
name = outname or self.options["name"] + "_paint"
# Initializes the new geometry object
def gen_paintarea(geo_obj, app_obj):
assert isinstance(geo_obj, FlatCAMGeometry), \
"Initializer expected a FlatCAMGeometry, got %s" % type(geo_obj)
#assert isinstance(app_obj, App)
if self.options["paintmethod"] == "seed":
# Type(cp) == FlatCAMRTreeStorage | None
cp = self.clear_polygon2(poly.buffer(-self.options["paintmargin"]),
tooldia, overlap=overlap, connect=connect,
contour=contour)
elif self.options["paintmethod"] == "lines":
# Type(cp) == FlatCAMRTreeStorage | None
cp = self.clear_polygon3(poly.buffer(-self.options["paintmargin"]),
tooldia, overlap=overlap, connect=connect,
contour=contour)
else:
# Type(cp) == FlatCAMRTreeStorage | None
cp = self.clear_polygon(poly.buffer(-self.options["paintmargin"]),
tooldia, overlap=overlap, connect=connect,
contour=contour)
if cp is not None:
geo_obj.solid_geometry = list(cp.get_objects())
geo_obj.options["cnctooldia"] = tooldia
# Experimental...
print("Indexing...")
geo_obj.make_index()
print("Done")
self.app.inform.emit("Done.")
def job_thread(app_obj):
try:
app_obj.new_object("geometry", name, gen_paintarea)
except Exception as e:
proc.done()
raise e
proc.done()
self.app.inform.emit("Polygon Paint started ...")
# Promise object with the new name
self.app.collection.promise(name)
# Background
self.app.worker_task.emit({'fcn': job_thread, 'params': [self.app]})
def paint_poly_all(self, tooldia, overlap, outname=None,
connect=True, contour=True):
"""
Paints all polygons in this object.
:param tooldia:
:param overlap:
:param outname:
:param connect: Connect lines to avoid tool lifts.
:param contour: Paint around the edges.
:return:
"""
proc = self.app.proc_container.new("Painting polygon.")
name = outname or self.options["name"] + "_paint"
# This is a recursive generator of individual Polygons.
# Note: Double check correct implementation. Might exit
# early if it finds something that is not a Polygon?
def recurse(geo):
try:
for subg in geo:
for subsubg in recurse(subg):
yield subsubg
except TypeError:
if isinstance(geo, Polygon):
yield geo
raise StopIteration
# Initializes the new geometry object
def gen_paintarea(geo_obj, app_obj):
assert isinstance(geo_obj, FlatCAMGeometry), \
"Initializer expected a FlatCAMGeometry, got %s" % type(geo_obj)
geo_obj.solid_geometry = []
for poly in recurse(self.solid_geometry):
if self.options["paintmethod"] == "seed":
# Type(cp) == FlatCAMRTreeStorage | None
cp = self.clear_polygon2(poly.buffer(-self.options["paintmargin"]),
tooldia, overlap=overlap, contour=contour,
connect=connect)
elif self.options["paintmethod"] == "lines":
# Type(cp) == FlatCAMRTreeStorage | None
cp = self.clear_polygon3(poly.buffer(-self.options["paintmargin"]),
tooldia, overlap=overlap, contour=contour,
connect=connect)
else:
# Type(cp) == FlatCAMRTreeStorage | None
cp = self.clear_polygon(poly.buffer(-self.options["paintmargin"]),
tooldia, overlap=overlap, contour=contour,
connect=connect)
if cp is not None:
geo_obj.solid_geometry += list(cp.get_objects())
geo_obj.options["cnctooldia"] = tooldia
# Experimental...
print("Indexing...")
geo_obj.make_index()
print("Done")
self.app.inform.emit("Done.")
def job_thread(app_obj):
try:
app_obj.new_object("geometry", name, gen_paintarea)
except Exception as e:
proc.done()
traceback.print_stack()
raise e
proc.done()
self.app.inform.emit("Polygon Paint started ...")
# Promise object with the new name
self.app.collection.promise(name)
# Background
self.app.worker_task.emit({'fcn': job_thread, 'params': [self.app]})
def on_generatecnc_button_click(self, *args):
self.app.report_usage("geometry_on_generatecnc_button")
self.read_form()
self.generatecncjob()
def generatecncjob(self,
z_cut=None,
z_move=None,
feedrate=None,
tooldia=None,
outname=None,
spindlespeed=None,
multidepth=None,
depthperpass=None,
use_thread=True):
"""
Creates a CNCJob out of this Geometry object. The actual
work is done by the target FlatCAMCNCjob object's
`generate_from_geometry_2()` method.
:param z_cut: Cut depth (negative)
:param z_move: Hight of the tool when travelling (not cutting)
:param feedrate: Feed rate while cutting
:param tooldia: Tool diameter
:param outname: Name of the new object
:param spindlespeed: Spindle speed (RPM)
:return: None
"""
outname = outname if outname is not None else self.options["name"] + "_cnc"
z_cut = z_cut if z_cut is not None else self.options["cutz"]
z_move = z_move if z_move is not None else self.options["travelz"]
feedrate = feedrate if feedrate is not None else self.options["feedrate"]
tooldia = tooldia if tooldia is not None else self.options["cnctooldia"]
multidepth = multidepth if multidepth is not None else self.options["multidepth"]
depthperpass = depthperpass if depthperpass is not None else self.options["depthperpass"]
# To allow default value to be "" (optional in gui) and translate to None
# if not isinstance(spindlespeed, int):
# if isinstance(self.options["spindlespeed"], int) or \
# isinstance(self.options["spindlespeed"], float):
# spindlespeed = int(self.options["spindlespeed"])
# else:
# spindlespeed = None
if spindlespeed is None:
# int or None.
spindlespeed = self.options['spindlespeed']
# Object initialization function for app.new_object()
# RUNNING ON SEPARATE THREAD!
def job_init(job_obj, app_obj):
assert isinstance(job_obj, FlatCAMCNCjob), \
"Initializer expected a FlatCAMCNCjob, got %s" % type(job_obj)
# Propagate options
job_obj.options["tooldia"] = tooldia
app_obj.progress.emit(20)
job_obj.z_cut = z_cut
job_obj.z_move = z_move
job_obj.feedrate = feedrate
job_obj.spindlespeed = spindlespeed
app_obj.progress.emit(40)
# TODO: The tolerance should not be hard coded. Just for testing.
job_obj.generate_from_geometry_2(self,
multidepth=multidepth,
depthpercut=depthperpass,
tolerance=0.0005)
app_obj.progress.emit(50)
job_obj.gcode_parse()
app_obj.progress.emit(80)
if use_thread:
# To be run in separate thread
def job_thread(app_obj):
with self.app.proc_container.new("Generating CNC Job."):
app_obj.new_object("cncjob", outname, job_init)
app_obj.inform.emit("CNCjob created: %s" % outname)
app_obj.progress.emit(100)
# Create a promise with the name
self.app.collection.promise(outname)
# Send to worker
self.app.worker_task.emit({'fcn': job_thread, 'params': [self.app]})
else:
self.app.new_object("cncjob", outname, job_init)
def on_plot_cb_click(self, *args): # TODO: args not needed
if self.muted_ui:
return
self.read_form_item('plot')
self.plot()
def scale(self, factor):
"""
Scales all geometry by a given factor.
:param factor: Factor by which to scale the object's geometry/
:type factor: float
:return: None
:rtype: None
"""
if type(self.solid_geometry) == list:
self.solid_geometry = [affinity.scale(g, factor, factor, origin=(0, 0))
for g in self.solid_geometry]
else:
self.solid_geometry = affinity.scale(self.solid_geometry, factor, factor,
origin=(0, 0))
def offset(self, vect):
"""
Offsets all geometry by a given vector/
:param vect: (x, y) vector by which to offset the object's geometry.
:type vect: tuple
:return: None
:rtype: None
"""
dx, dy = vect
def translate_recursion(geom):
if type(geom) == list:
geoms=list()
for local_geom in geom:
geoms.append(translate_recursion(local_geom))
return geoms
else:
return affinity.translate(geom, xoff=dx, yoff=dy)
self.solid_geometry=translate_recursion(self.solid_geometry)
def convert_units(self, units):
factor = Geometry.convert_units(self, units)
self.options['cutz'] *= factor
self.options['travelz'] *= factor
self.options['feedrate'] *= factor
self.options['cnctooldia'] *= factor
self.options['painttooldia'] *= factor
self.options['paintmargin'] *= factor
return factor
def plot_element(self, element):
try:
for sub_el in element:
self.plot_element(sub_el)
except TypeError: # Element is not iterable...
if type(element) == Polygon:
x, y = element.exterior.coords.xy
self.axes.plot(x, y, 'r-')
for ints in element.interiors:
x, y = ints.coords.xy
self.axes.plot(x, y, 'r-')
return
if type(element) == LineString or type(element) == LinearRing:
x, y = element.coords.xy
self.axes.plot(x, y, 'r-')
return
FlatCAMApp.App.log.warning("Did not plot:" + str(type(element)))
def plot(self):
"""
Plots the object into its axes. If None, of if the axes
are not part of the app's figure, it fetches new ones.
:return: None
"""
# Does all the required setup and returns False
# if the 'ptint' option is set to False.
if not FlatCAMObj.plot(self):
return
# Make sure solid_geometry is iterable.
# TODO: This method should not modify the object !!!
# try:
# _ = iter(self.solid_geometry)
# except TypeError:
# if self.solid_geometry is None:
# self.solid_geometry = []
# else:
# self.solid_geometry = [self.solid_geometry]
#
# for geo in self.solid_geometry:
#
# if type(geo) == Polygon:
# x, y = geo.exterior.coords.xy
# self.axes.plot(x, y, 'r-')
# for ints in geo.interiors:
# x, y = ints.coords.xy
# self.axes.plot(x, y, 'r-')
# continue
#
# if type(geo) == LineString or type(geo) == LinearRing:
# x, y = geo.coords.xy
# self.axes.plot(x, y, 'r-')
# continue
#
# if type(geo) == MultiPolygon:
# for poly in geo:
# x, y = poly.exterior.coords.xy
# self.axes.plot(x, y, 'r-')
# for ints in poly.interiors:
# x, y = ints.coords.xy
# self.axes.plot(x, y, 'r-')
# continue
#
# FlatCAMApp.App.log.warning("Did not plot:", str(type(geo)))
self.plot_element(self.solid_geometry)
self.app.plotcanvas.auto_adjust_axes()