def makePrinter():
if platform.system() == 'Windows':
subprocess.call('cls', shell=True)
else:
subprocess.call('clear', shell=True)
uf.header("______ _ _____ _ _____ __ _____ ", False)
uf.header("| ___ \ | | |____ | | | | _ | / | | _ |", False)
uf.header("| |_/ /___| |_ _ __ / / __| | __ __| |/' | `| | | |/' |", False)
uf.header("| // _ \ __| '__| \ \/ _` | \ \ / /| /| | | | | /| |", False)
uf.header("| |\ \ __/ |_| | .___/ / (_| | \ V / \ |_/ / _ _| |_ _ \ |_/ /", False)
uf.header("\_| \_\___|\__|_| \____/ \__,_| \_/ \___/ (_)\___/(_) \___/ ", False)
uf.bold("Version: 0.1.0 ", False)
uf.bold("If you encounter any issues, please let us know at https://github.com/maaphoo/retr3d/issues", False)
print ""
# import FreeCAD modules
try:
import FreeCAD as App
except ImportError as e:
uf.critical("Failure to import FreeCAD, check your configuration file.", 'Failure to import FreeCAD: ' + str(e),
gv.level, source)
import FreeCADGui as Gui
if platform.system() == 'Windows':
if (App.Version()[1] > '14'):
try:
import FreeCAD#
except AttributeError:
pass
finally:
uf.info("FreeCAD Version 0." + App.Version()[1] + " Revision " + App.Version()[2],
"FreeCAD Version 0." + App.Version()[1] + " Revision " + App.Version()[2], gv.level, source)
if platform.system() == 'Darwin': # OSX
if (App.Version()[1] >= '14'):
try:
import FreeCAD#
FreeCAD#.showMainWindow()
except AttributeError:
pass
finally:
uf.info("FreeCAD Version 0." + App.Version()[1] + " Revision " + App.Version()[2],
"FreeCAD Version 0." + App.Version()[1] + " Revision " + App.Version()[2], gv.level, source)
if platform.system() == 'Linux':
if (App.Version()[1] < '14'):
uf.warning(
"Retr3d has not been tested on FreeCAD version .13 and below. You are using version 0." + App.Version()[
1] + ". If problems ensue, please upgrade to versions .14 or .16.",
"Untested FreeCAD Version 0." + App.Version()[1] + " Revision " + App.Version()[2], gv.level, source)
if (App.Version()[1] == '14'):
if not (os.getcwd() == os.path.dirname(os.path.abspath(__file__))):
uf.info("FreeCAD Version 0." + App.Version()[1] + " Revision " + App.Version()[2],
"FreeCAD Version 0." + App.Version()[1] + " Revision " + App.Version()[2], gv.level, source)
else:
uf.critical(
"Retr3d on Linux is not compatible with FreeCAD version .14 for command line usage. Please upgrade to .16 to continue",
"VersionError: FreeCAD Version 0." + App.Version()[1] + " Revision " + App.Version()[2], gv.level,
source)
raise versionError
if (App.Version()[1] == '15'):
uf.critical(
"Retr3d on Linux is not compatible with FreeCAD version .15. Please upgrade to .16 or downgrade to .14 to continue.",
"VersionError: FreeCAD Version 0." + App.Version()[1] + " Revision " + App.Version()[2], gv.level,
source)
raise versionError
if (App.Version()[1] == '16'):
try:
import FreeCAD#
FreeCAD#.showMainWindow()
except AttributeError:
pass
finally:
uf.info("FreeCAD Version 0." + App.Version()[1] + " Revision " + App.Version()[2],
"FreeCAD Version 0." + App.Version()[1] + " Revision " + App.Version()[2], gv.level, source)
# import Part modules
import xRodBottom
import xRodTop
import yRodL
import yRodR
import zRodL
import zRodR
from parts import xCarriage
import xRodClamp
import xEndZRodHolder
import xEndMotorPlate
import xEndIdlerPlate
import zRodSupport
import zMotorMount
import printBedBushingHolder
import printBedSupport
import printBed
import yBeltAnchor
import yMotorMount
import yRodSupport
import extruderMountAngle
import extruderMountPlate
import verticalBars
import crossBarTop
import crossBarFrontTop
import crossBarFrontBottom
import crossBarBackTop
import crossBarBackBottom
import sideBarTopL
import sideBarBottomL
import sideBarBottomR
import sideBarTopR
import frameSpacers
import extruderBarrel
import nozzle
import xEndstop
import zEndstop
import feet
import leadScrewCoupler
import plate
import slic3r
import zipup
import draw
import checklist
import heatedbed
import marlin
# If any of the parameters have been changed, the includes must be reloaded
# Normally, this would just be globalVariables because that is what would be changed,
# But while the rest of the code is in development, the other modules will be reloaded too.
# This will make testing easier.
if gv.reloadClasses:
reload(gv)
reload(uf)
reload(xCarriage)
reload(xRodClamp)
reload(xRodBottom)
reload(xRodTop)
reload(xEndMotorPlate)
reload(xEndIdlerPlate)
reload(xEndZRodHolder)
reload(yRodL)
reload(yRodR)
reload(zRodL)
reload(zRodR)
reload(zRodSupport)
reload(zMotorMount)
reload(printBedBushingHolder)
reload(printBedSupport)
reload(printBed)
reload(yBeltAnchor)
reload(yMotorMount)
reload(yRodSupport)
reload(extruderMountAngle)
reload(extruderMountPlate)
reload(verticalBars)
reload(crossBarTop)
reload(crossBarFrontTop)
reload(crossBarFrontBottom)
reload(crossBarBackTop)
reload(crossBarBackBottom)
reload(sideBarTopL)
reload(sideBarBottomL)
reload(sideBarBottomR)
reload(sideBarTopR)
reload(frameSpacers)
reload(extruderBarrel)
reload(nozzle)
reload(xEndstop)
reload(zEndstop)
reload(feet)
reload(leadScrewCoupler)
reload(plate)
reload(slic3r)
reload(zipup)
reload(draw)
reload(checklist)
reload(heatedbed)
reload(marlin)
gv.reloadClasses = True
# instantiate part objects
xRodBottom = xRodBottom.XRodBottom()
xRodTop = xRodTop.XRodTop()
yRodL = yRodL.YRodL()
yRodR = yRodR.YRodR()
zRodL = zRodL.ZRodL()
zRodR = zRodR.ZRodR()
xCarriage = xCarriage.XCarriage()
xRodClampL = xRodClamp.XRodClamp("xRodClampL", "Left")
xRodClampR = xRodClamp.XRodClamp("xRodClampR", "Right")
xEndZRodHolderL = xEndZRodHolder.XEndZRodHolder("xEndZRodHolderL", "Left")
xEndZRodHolderR = xEndZRodHolder.XEndZRodHolder("xEndZRodHolderR", "Right")
xEndMotorPlate = xEndMotorPlate.XEndMotorPlate()
xEndIdlerPlate = xEndIdlerPlate.XEndIdlerPlate()
zRodSupportR = zRodSupport.ZRodSupport(name="zRodSupportR", side="Right")
zRodSupportL = zRodSupport.ZRodSupport(name="zRodSupportL", side="Left")
zMotorMount = zMotorMount.ZMotorMount()
PBBHR = printBedBushingHolder.PrintBedBushingHolder("printBedBushingHolderR", "Right")
PBBHL = printBedBushingHolder.PrintBedBushingHolder("printBedBushingHolderL", "Left")
printBedSupport = printBedSupport.PrintBedSupport()
printBed = printBed.PrintBed()
yBeltAnchor = yBeltAnchor.YBeltAnchor()
yMotorMount = yMotorMount.YMotorMount()
yRodSupportR = yRodSupport.YRodSupport("yRodSupportR", "Right")
yRodSupportL = yRodSupport.YRodSupport("yRodSupportL", "Left")
extruderMountAngle = extruderMountAngle.ExtruderMountAngle()
extruderMountPlate = extruderMountPlate.ExtruderMountPlate()
verticalBars = verticalBars.VerticalBars()
crossBarTop = crossBarTop.CrossBarTop()
crossBarFrontTop = crossBarFrontTop.CrossBarFrontTop()
crossBarFrontBottom = crossBarFrontBottom.CrossBarFrontBottom()
crossBarBackTop = crossBarBackTop.CrossBarBackTop()
crossBarBackBottom = crossBarBackBottom.CrossBarBackBottom()
sideBarTopL = sideBarTopL.SideBarTopL()
sideBarBottomL = sideBarBottomL.SideBarBottomL()
sideBarBottomR = sideBarBottomR.SideBarBottomR()
sideBarTopR = sideBarTopR.SideBarTopR()
frameSpacers = frameSpacers.FrameSpacers()
extruderBarrel = extruderBarrel.ExtruderBarrel()
nozzle = nozzle.Nozzle()
xEndstop = xEndstop.XEndstop()
zEndstop = zEndstop.ZEndstop()
feet = feet.Feet()
leadScrewCoupler = leadScrewCoupler.LeadScrewCoupler()
# convert standard nut sizes to mm
for i in range(len(gv.standardNuts)):
for j in range(len(gv.standardNuts[i])):
gv.standardNuts[i][j] *= 25.4
if gv.bushingNutSizesUsed == "Standard":
gv.bushingNutTable = gv.standardNuts
elif gv.bushingNutSizesUsed == "Metric":
gv.bushingNutTable = gv.metricNuts
elif gv.bushingNutSizesUsed == "StandardAndMetric":
gv.bushingNutTable = gv.standardNuts + gv.metricNuts
gv.bushingNutTable.sort(key=lambda x: x[0])
# Determine printed mounting hole diameters
gv.printedToFrameDia = uf.adjustHole(gv.mountToFrameDia)
gv.printedToFrameHeadDia = uf.adjustHole(gv.mountToFrameHeadDia)
gv.printedToPrintedDia = uf.adjustHole(gv.mountToPrintedDia)
gv.printedToPrintedNutFaceToFace = uf.adjustHole(gv.mountToPrintedNutFaceToFace)
# Select Bushing and Lead Screw nuts
gv.xBushingNutBottom = uf.pickBushingNut(gv.xRodDiaBottom)
gv.xBushingNutTop = uf.pickBushingNut(gv.xRodDiaTop)
gv.yBushingNutR = uf.pickBushingNut(gv.yRodDiaR)
gv.yBushingNutL = uf.pickBushingNut(gv.yRodDiaL)
gv.zBushingNutR = uf.pickBushingNut(gv.zRodDiaR)
gv.zBushingNutL = uf.pickBushingNut(gv.zRodDiaL)
gv.leadScrewNut = uf.pickLeadScrewNut(gv.leadScrewDia)
# Determine max rod diameters
gv.xRodDiaMax = (gv.xRodDiaTop
if gv.xRodDiaTop
> gv.xRodDiaBottom
else gv.xRodDiaBottom)
# Determine the max yRod diameter
gv.yRodDiaMax = (gv.yRodDiaL
if gv.yRodDiaL
> gv.yRodDiaR
else gv.yRodDiaR)
# Determine xBushingNutMaxThickness
gv.xBushingNutMaxThickness = (gv.xBushingNutTop[3] if gv.xBushingNutTop[3] >
gv.xBushingNutBottom[3] else gv.xBushingNutBottom[3])
# Determine zBushingNutMaxThickness
gv.zBushingNutMaxThickness = (gv.zBushingNutR[3] if gv.zBushingNutR[3] >
gv.zBushingNutL[3] else gv.zBushingNutL[3])
# Determine xCarriageMaxNutFaceToFace
gv.xBushingNutMaxFacetoFace = (gv.xBushingNutTop[2] if gv.xBushingNutTop[2] >
gv.xBushingNutBottom[2] else gv.xBushingNutBottom[2])
# Determine xCarriageBushingHolderOR
gv.xCarriageBushingHolderOR = gv.xBushingNutMaxFacetoFace / math.cos(math.pi / 6) / 2 + gv.bushingNutPadding
# Check/Determind xRodSpacing
gv.xRodSpacing = (gv.xMotorMountPlateWidth
if gv.xMotorMountPlateWidth
> gv.xCarriageBushingHolderOR * 4 + gv.xMotorPulleyDia + gv.xBeltAnchorThickness
else gv.xCarriageBushingHolderOR * 4 + gv.xMotorPulleyDia + gv.xBeltAnchorThickness)
# Determine yRodStandoff
gv.yRodStandoff = gv.yRodDiaMax / 2 + gv.rodSupportNutTrapDepthMin + gv.rodSupportClampThickness
# The yRodSupportNutTrapDepth is always the minimum nut trap depth
yRodSupportNutTrapDepth = gv.rodSupportNutTrapDepthMin
# Check to see if the yRodClamps work with available bolt lengths
# If needed adjust the yRodStandoff for the next closest bolt length available.
gv.yRodSupportClampBoltLength = (gv.yRodStandoff
+ gv.yRodDiaMax / 2
+ gv.clampThickness
- gv.rodSupportNutTrapDepthMin
+ gv.clampNutThickness)
for i in range(len(gv.clampBoltLengths)):
if gv.yRodSupportClampBoltLength <= gv.clampBoltLengths[i]:
gv.yRodSupportClampBoltLength = gv.clampBoltLengths[i]
break
elif i == len(gv.clampBoltLengths):
try:
raise Exception("No clamp bolt available is long enough for the yRodSupport")
except Exception as e:
import traceback
uf.critical("No available clamp bolt is long enough for the yRodSupport",
'Part error: No available clamp bolt is long enough for the yRodSupport: \n\n' + str(
e) + '\n' + traceback.format_exc(limit=1), gv.level, os.path.basename(__file__))
raise StandardError
# Now redetermine yRodStandoff based on chosen yRodClampBoltLength
gv.yRodStandoff = (gv.yRodSupportClampBoltLength
+ gv.rodSupportNutTrapDepthMin
- gv.clampNutThickness
- gv.yRodDiaMax / 2
- gv.clampThickness)
# Determine the maximum bushing nut face to face for the y axis bushings
gv.PBBHMaxFaceToFace = (gv.yBushingNutL[2]
if gv.yBushingNutL[2]
> gv.yBushingNutR[2]
else gv.yBushingNutR[2])
# Determine the PBBHStandoff. Must be large enough to acomodate the bushing holder itself,
# and the yrod support. So take which ever is larger.
gv.PBBHStandoff = (gv.yRodDiaMax / 2 + gv.clampThickness + gv.clampBoltHeadThickness + gv.yRodSupportClearance
if gv.yRodDiaMax / 2 + gv.clampThickness + gv.clampBoltHeadThickness + gv.yRodSupportClearance
> gv.PBBHMaxFaceToFace / 2 + gv.tabThickness
else gv.PBBHMaxFaceToFace / 2 + gv.tabThickness)
# Determine yBeltAnchorHeight. Set to allow for clamping down to the surface of the y motor mount plate
gv.yBeltAnchorHeight = (gv.yBeltAnchorBridgeThickness
+ gv.yRodStandoff
+ gv.PBBHStandoff
- gv.yMotorMountPlateThickness)
# Determine xRodClampOverallThickness
gv.xRodClampOverallThickness = 2 * gv.xRodClampThickness + gv.xRodDiaMax
# determine the horizontal or vertical component of the shaftToMountHoleDist for the x motor
gv.xMotorShaftToMountHoleDistX = math.pow(math.pow(gv.xEndShaftToMountHoleDist, 2) / 2, 0.5)
# determine x motor width/length
gv.xMotorBodyWidth = gv.xMotorShaftToMountHoleDistX * 2 + gv.xEndMotorMountHoleDia + 2 * gv.xEndMotorMountHolePadding
# Determine the yMotor x component of the shaft to mount hole distance
gv.yMotorShaftToMountHoleDistX = math.pow(math.pow(gv.yShaftToMountHoleDist, 2) / 2, 0.5)
# Determine the y motor width/length
gv.yMotorBodyWidth = (2 * gv.yMotorMountHolePadding +
gv.yMotorMountHoleDia +
2 * gv.yMotorShaftToMountHoleDistX)
# Determine zShaftToMountHoleDistX
gv.zShaftToMountHoleDistX = math.pow(math.pow(gv.zShaftToMountHoleDist, 2) / 2, 0.5)
# Determine zMotorBodyWidth
gv.zMotorBodyWidth = (2 * gv.zMotorMountHolePadding +
gv.zMotorMountHoleDia +
2 * gv.zShaftToMountHoleDistX)
# Determine zMotor mount variables and zRodStandoff
if gv.zMotorMountLocation == "Top":
gv.zRodStandoff = gv.zMotorBodyWidth / 2
gv.zMotorMountMountingFaceWidth = gv.frameHeight
gv.zMotorMountLength = gv.zMotorMountMountingFaceWidth + gv.zRodStandoff + gv.zMotorBodyWidth / 2
gv.zMotorMountEdgeToShaftHole = gv.zMotorMountMountingFaceWidth + gv.zRodStandoff
gv.zRodZScrewDist = (gv.zRodZScrewDist
if gv.zRodZScrewDist
> (gv.frameWidth + gv.zMotorMountPlateWidth) / 2
else (gv.frameWidth + gv.zMotorMountPlateWidth) / 2)
if gv.zMotorMountLocation == "Bottom":
gv.zRodStandoff = gv.zMotorMountPlateWidth / 2
gv.zMotorMountMountingFaceWidth = gv.frameWidth
gv.zRodZScrewDist = (gv.zRodZScrewDist
if gv.zRodZScrewDist
> (gv.frameWidth + gv.zMotorBodyWidth + gv.zMotorBodyToFrameSpacing) / 2
else (gv.frameWidth + gv.zMotorBodyWidth + gv.zMotorBodyToFrameSpacing) / 2)
gv.zMotorMountLength = gv.zMotorMountMountingFaceWidth / 2 + gv.zRodZScrewDist + gv.zMotorBodyWidth / 2
gv.zMotorMountEdgeToShaftHole = gv.zMotorMountMountingFaceWidth / 2 + gv.zRodZScrewDist
# Determine zBushingNutMaxFaceToFace
gv.zBushingNutMaxFaceToFace = (gv.zBushingNutL[2]
if gv.zBushingNutL[2]
> gv.zBushingNutR[2]
else gv.zBushingNutR[2])
# Determine the max Nut face to face for the xEndZRodHolder between zBushing nuts and lead Screw nuts
gv.xEndZRodHolderMaxNutFaceToFace = (
gv.zBushingNutMaxFaceToFace if gv.zBushingNutMaxFaceToFace > gv.leadScrewNut[2] else gv.leadScrewNut[2])
# Determine xRodClampWidth
gv.xRodClampWidth = (gv.zRodZScrewDist
+ gv.xEndZRodHolderMaxNutFaceToFace / math.cos(math.pi / 6)
+ 2 * gv.bushingNutPadding)
# Determine zRod Spacing
gv.zRodSpacing = (gv.xRodLength
+ 2 * gv.xRodClampWidth
- 2 * gv.xRodClampPocketDepth
- 2 * gv.bushingNutPadding
- gv.xEndZRodHolderMaxNutFaceToFace / math.cos(math.pi / 6)
)
# Determine the max Nut Thickness for the xEndZRodHolder between both zBushingNuts and LeadScrewNuts
gv.xEndZRodHolderMaxNutThickness = (
gv.zBushingNutMaxThickness if gv.zBushingNutMaxThickness > gv.leadScrewNut[3] else gv.leadScrewNut[3])
# Determine the height of the xEndZRodHolder
gv.xEndZRodHolderHeight = 2 * (
gv.xEndZRodHolderMaxNutThickness + gv.bushingNutPadding) + gv.xRodSpacing - gv.xRodDiaMax
# Determine printableWidth
gv.printableWidth = (gv.xRodLength
- 2 * gv.xRodClampPocketDepth
- gv.xCarriageWidth / 2
- gv.xCarriageWingWidth)
# Determine yRodSupportWidth
gv.yRodSupportWidth = (gv.yRodDiaMax
+ gv.clampHoleDia
+ gv.clampNutFaceToFace
+ 2 * gv.clampNutPadding
+ 4 * gv.slotPadding
+ 2 * gv.slotDia
+ 2 * gv.slotWidth)
# Determine printBedBusingSupportWidth
gv.printBedBusingSupportWidth = (4 * gv.slotPadding +
2 * gv.slotDia +
2 * gv.slotWidth +
2 * gv.bushingNutPadding +
gv.PBBHMaxFaceToFace / math.cos(math.pi / 6))
# Determine yRodSpacing
gv.yRodSpacing = ((gv.printableWidth + 2 * gv.printBedPadding) / 2
if (gv.printableWidth + 2 * gv.printBedPadding) / 2
> gv.yMotorMountPlateWidth + gv.yRodSupportWidth
else gv.yMotorMountPlateWidth + gv.yRodSupportWidth)
# Check yRodSpacing to make sure that the Bushing supports can be attached to the print bed support
if gv.yRodSpacing + gv.printBedBusingSupportWidth > gv.printableWidth + 2 * gv.printBedPadding:
try:
raise Exception("The yRods can't be spaced far enough apart. Try longer xAxis rods.")
except Exception as e:
import traceback
uf.critical("The yRods can't be spaced far enough apart. Try longer xAxis rods.",
"Part error: The yRods can't be spaced far enough apart.: \n\n" + str(
e) + '\n' + traceback.format_exc(limit=1), gv.level, os.path.basename(__file__))
raise StandardError
# Determine the maximum thickness of the y axis bushings
gv.yBushingNutMaxThickness = (gv.yBushingNutL[3]
if gv.yBushingNutL[3]
> gv.yBushingNutR[3]
else gv.yBushingNutR[3])
# Determine the depth of the y bushing mounts
gv.PBBHDepth = gv.yBushingNutMaxThickness + gv.bushingNutPadding
# Determine center to center distance between the slots on the y bushing mounts
# This is the spacing used to determine the spacing between mounting holes on the print bed support
gv.yBushingMountSlotSpacing = (gv.PBBHMaxFaceToFace / math.cos(math.pi / 6)
+ 2 * gv.bushingNutPadding
+ 2 * gv.slotPadding
+ gv.slotDia
+ gv.slotWidth)
# Determine the center to center distance between y bushing nuts along the y axis
# Increase printable area by changing the divisor. The price is a less stable print bed.
gv.yBushingNutSeparation = (gv.yRodLength - 2 * gv.frameWidth) / 3
# Determine the printable length
gv.printableLength = (gv.yRodLength
- 2 * gv.frameWidth
- gv.yBushingNutSeparation
- gv.PBBHDepth)
# Determine the y belt anchor hole spacing
gv.yBeltAnchorHoleSpacing = (gv.yBeltAnchorLength
+ 2 * gv.mountToPrintedPadding
+ uf.adjustHole(gv.mountToPrintedDia))
# Determine the extruderMountPlateWidth
gv.extruderMountPlateWidth = (gv.xCarriageWidth if gv.xCarriageWidth >
gv.extruderWidth else gv.extruderWidth)
# Determine hotEndLength
gv.hotEndLength = gv.nozzleLength + gv.extruderBarrelLength
# Determine zEndStopClampLength
gv.zEndStopClampLength = (2 * gv.mountToPrintedPadding
+ gv.printedToPrintedDia
+ 2 * gv.xEndstopChannelWidth
+ gv.xEndstopContactSpacing
+ gv.xEndstopPadding
+ gv.zEndstopJogWidth)
# Determine vertBarDistBelowZRod
gv.vertBarDistBelowZRod = (gv.yRodStandoff
+ gv.PBBHStandoff
+ gv.printBedSupportThickness
+ gv.printBedStandoff
+ gv.printBedThickness
+ gv.hotEndLength
- (gv.extruderMountAngleWidth + gv.extruderMountAngleThickness) / 2
- gv.xCarriageMountHoleVertOffset
+ gv.xCarriageBushingHolderOR
- (gv.xEndZRodHolderHeight - gv.xRodSpacing) / 2
- gv.zEndStopClampLength # May change to something fancier that incorporates the zOffset screw
- gv.zRodSupportLength)
# Determine vertBarDistAboveZRod
if gv.zMotorMountLocation == "Top":
gv.vertBarDistAboveZRod = (gv.frameJointPadding + gv.frameWidth
if gv.frameJointPadding + gv.frameWidth
> gv.leadScrewCouplerLength + 2 * gv.leadScrewCouplerGap
else gv.leadScrewCouplerLength + 2 * gv.leadScrewCouplerGap)
elif gv.zMotorMountLocation == "Bottom":
gv.vertBarDistAboveZRod = gv.frameJointPadding + 2 * gv.slotPadding + gv.slotDia
# Determine the vertBarLength
gv.vertBarLength = gv.zRodLength + gv.vertBarDistAboveZRod + gv.vertBarDistBelowZRod
# Determine the cross bar length. Used for all cross bars.
gv.crossBarLength = gv.zRodSpacing + gv.frameWidth
# Determine yRodSupportMountHoleSpacing
gv.yRodSupportMountHoleSpacing = (gv.yRodDiaMax
+ gv.clampHoleDia
+ gv.clampNutFaceToFace
+ 2 * gv.clampNutPadding
+ 2 * gv.slotPadding
+ gv.slotDia
+ gv.slotWidth)
gv.sideBarLength = gv.yRodLength - 2 * gv.frameWidth
# Determine extruderNozzleStandoff which is the distance between the center of the nozzle and the face of the vertical bars
gv.extruderNozzleStandoff = (gv.zRodStandoff
+ gv.xEndZRodHolderMaxNutFaceToFace / 2
+ gv.xEndZRodHolderFaceThickness
+ gv.xMotorMountPlateThickness
+ gv.xRodClampOverallThickness / 2
+ gv.xCarriageBushingHolderOR
+ gv.xCarriageThickness
+ gv.extruderDepth
- gv.extruderEdgeToCenterLine)
# Determine xRodAxisToMountHoleDist
gv.xRodAxisToMountHoleDist = (gv.xRodDiaMax / 2 + gv.xRodClampMountHoleToRodPadding
if gv.xRodDiaMax / 2 + gv.xRodClampMountHoleToRodPadding
> (gv.xEndZRodHolderMaxNutThickness
+ gv.bushingNutPadding
+ gv.xEndZRodHolderMountHoleToRodPadding
+ gv.printedToPrintedDia / 2)
else (gv.xEndZRodHolderMaxNutThickness
+ gv.bushingNutPadding
+ gv.xEndZRodHolderMountHoleToRodPadding
+ gv.printedToPrintedDia / 2))
# Determine xEndstopLength
gv.xEndstopLength = gv.xEndstopPadding + gv.mountToPrintedDia / 2 + gv.xRodAxisToMountHoleDist
# Determine xEndstopSupportWidth
gv.zEndstopSupportWidth = (gv.zRodDiaL
+ 2 * gv.printedToPrintedDia
+ 2 * gv.mountToPrintedPadding)
# Determine xEndstopBodyThickness
gv.zEndstopBodyThickness = (gv.zRodZScrewDist / 2
+ gv.xEndstopChannelDepth / 2
- gv.zRodDiaL / 2)
# determind xBeltAnchorHeight
gv.xBeltAnchorHeight = gv.xCarriageBushingHolderOR + gv.xRodClampOverallThickness / 2 + gv.xBeltAnchorBridgeThickness
# Draw parts, save and make assembly
del gv.xAxisParts[:]
del gv.yAxisParts[:]
del gv.zAxisParts[:]
# Make file for assembly
uf.makeAssemblyFile()
uf.info("Starting to draw parts...", "Assembly file made", gv.level, source)
heatedbed.design()
# Make components for x-Axis, add to assembly, save and close
xRodBottom.draw()
uf.info("Done drawing xRodBottom", "Finished xRodBottom.draw()", gv.level, source)
xRodBottom.assemble()
uf.info("Done assembling xRodBottom", "Finished xRodBottom.assemble()", gv.level, source)
uf.saveAndClose("xRodBottom", False)
xRodTop.draw()
uf.info("Done drawing xRodTop", "Finished xRodTop.draw()", gv.level, source)
xRodTop.assemble()
uf.info("Done assembling xRodTop", "Finished xRodTop.assemble()", gv.level, source)
uf.saveAndClose("xRodTop", False)
xCarriage.draw()
uf.info("Done drawing xCarriage", "Finished xCarriage.draw()", gv.level, source)
xCarriage.assemble()
uf.info("Done assembling xCarriage", "Finished xCarriage.assemble()", gv.level, source)
uf.saveAndClose("xCarriage", True)
extruderMountAngle.draw()
uf.info("Done drawing extruderMountAngle", "Finished extruderMountAngle.draw()", gv.level, source)
extruderMountAngle.assemble()
uf.info("Done assembling extruderMountAngle", "Finished extruderMountAngle.assemble()", gv.level, source)
uf.saveAndClose("extruderMountAngle", False)
extruderMountPlate.draw()
uf.info("Done drawing extruderMountPlate", "Finished extruderMountPlate.draw()", gv.level, source)
extruderMountPlate.assemble()
uf.info("Done assembling extruderMountPlate", "Finished extruderMountPlate.assemble()", gv.level, source)
uf.saveAndClose("extruderMountPlate", False)
xRodClampL.draw()
uf.info("Done drawing xRodClampL", "Finished xRodClampL.draw()", gv.level, source)
xRodClampL.assemble()
uf.info("Done assembling xRodClampL", "Finished xRodClampL.assemble()", gv.level, source)
uf.saveAndClose("xRodClampL", True)
xRodClampR.draw()
uf.info("Done drawing xRodClampR", "Finished xRodClampR.draw()", gv.level, source)
xRodClampR.assemble()
uf.info("Done assembling xRodClampR", "Finished xRodClampR.assemble()", gv.level, source)
uf.saveAndClose("xRodClampR", True)
xEndMotorPlate.draw()
uf.info("Done drawing xEndMotorPlate", "Finished xEndMotorPlate.draw()", gv.level, source)
xEndMotorPlate.assemble()
uf.info("Done assembling xEndMotorPlate", "Finished xEndMotorPlate.assemble()", gv.level, source)
uf.saveAndClose("xEndMotorPlate", False)
xEndIdlerPlate.draw()
uf.info("Done drawing xEndIdlerPlate", "Finished xEndIdlerPlate.draw()", gv.level, source)
xEndIdlerPlate.assemble()
uf.info("Done assembling xEndIdlerPlate", "Finished xEndIdlerPlate.assemble()", gv.level, source)
uf.saveAndClose("xEndIdlerPlate", False)
extruderBarrel.draw()
uf.info("Done drawing extruderBarrel", "Finished extruderBarrel.draw()", gv.level, source)
extruderBarrel.assemble()
uf.info("Done assembling extruderBarrel", "Finished extruderBarrel.assemble()", gv.level, source)
uf.saveAndClose("extruderBarrel", False)
nozzle.draw()
uf.info("Done drawing nozzle", "Finished nozzle.draw()", gv.level, source)
nozzle.assemble()
uf.info("Done assembling nozzle", "Finished nozzle.assemble()", gv.level, source)
uf.saveAndClose("nozzle", False)
xEndZRodHolderL.draw()
uf.info("Done drawing xEndZRodHolderL", "Finished xEndZRodHolderL.draw()", gv.level, source)
xEndZRodHolderL.assemble()
uf.info("Done assembling xEndZRodHolderL", "Finished xEndZRodHolderL.assemble()", gv.level, source)
uf.saveAndClose("xEndZRodHolderL", True)
xEndZRodHolderR.draw()
uf.info("Done drawing xEndZRodHolderR", "Finished xEndZRodHolderR.draw()", gv.level, source)
xEndZRodHolderR.assemble()
uf.info("Done assembling xEndZRodHolderR", "Finished xEndZRodHolderR.assemble()", gv.level, source)
uf.saveAndClose("xEndZRodHolderR", True)
xEndstop.draw()
xEndstop.assemble()
uf.info("Done assembling xEndstop", "Finished xEndstop.assemble()", gv.level, source)
uf.saveAndClose("xEndstop", True)
uf.saveAndClose("xEndstopCap", True)
uf.positionXAxis()
# Make components for ZAxis, add to assembly, save and close#
zRodL.draw()
uf.info("Done drawing zRodL", "Finished zRodL.draw()", gv.level, source)
zRodL.assemble()
uf.info("Done assembling zRodL", "Finished zRodL.assemble()", gv.level, source)
uf.saveAndClose("zRodL", False)
zRodR.draw()
uf.info("Done drawing zRodR", "Finished zRodR.draw()", gv.level, source)
zRodR.assemble()
uf.info("Done assembling zRodR", "Finished zRodR.assemble()", gv.level, source)
uf.saveAndClose("zRodR", False)
zRodSupportR.draw()
uf.info("Done drawing zRodSupportR", "Finished zRodSupportR.draw()", gv.level, source)
zRodSupportR.assemble()
uf.info("Done assembling zRodSupportR", "Finished zRodSupportR.assemble()", gv.level, source)
uf.saveAndClose("zRodSupportR", True)
uf.saveAndClose("zRodSupportRClamp", True)
zRodSupportL.draw()
uf.info("Done drawing zRodSupportL", "Finished zRodSupportL.draw()", gv.level, source)
zRodSupportL.assemble()
uf.info("Done assembling zRodSupportL", "Finished zRodSupportL.assemble()", gv.level, source)
uf.saveAndClose("zRodSupportL", True)
uf.saveAndClose("zRodSupportLClamp", True)
zMotorMount.draw()
uf.info("Done drawing zMotorMount", "Finished zMotorMount.draw()", gv.level, source)
zMotorMount.assemble()
uf.info("Done assembling zMotorMount", "Finished zMotorMount.assemble()", gv.level, source)
uf.saveAndClose("zMotorMount", True)
zEndstop.draw()
uf.info("Done drawing zEndstop", "Finished zEndstop.draw()", gv.level, source)
zEndstop.assemble()
uf.info("Done assembling zEndstop", "Finished zEndstop.assemble()", gv.level, source)
uf.saveAndClose("zEndstop", False)
leadScrewCoupler.draw()
uf.info("Done drawing leadScrewCoupler", "Finished leadScrewCoupler.draw()", gv.level, source)
leadScrewCoupler.assemble()
uf.info("Done assembling leadScrewCoupler", "Finished leadScrewCoupler.assemble()", gv.level, source)
uf.saveAndClose("leadScrewCoupler", True)
uf.positionZAxis()
# Make components for yAxis, add to assembly, save and close#
yRodL.draw()
uf.info("Done drawing yRodL", "Finished yRodL.draw()", gv.level, source)
yRodL.assemble()
uf.info("Done assembling yRodL", "Finished yRodL.assemble()", gv.level, source)
uf.saveAndClose("yRodL", False)
yRodR.draw()
uf.info("Done drawing yRodR", "Finished yRodR.draw()", gv.level, source)
yRodR.assemble()
uf.info("Done assembling yRodR", "Finished yRodR.assemble()", gv.level, source)
uf.saveAndClose("yRodR", False)
PBBHR.draw()
uf.info("Done drawing Print Bed Bushing Holder Right", "Finished PBBHR.draw()", gv.level, source)
PBBHR.assemble()
uf.info("Done assembling Print Bed Bushing Holder Right", "Finished PBBHR.assemble()", gv.level, source)
uf.saveAndClose("printBedBushingHolderR", True)
PBBHL.draw()
uf.info("Done drawing Print Bed Bushing Holder Left", "Finished PBBHL.draw()", gv.level, source)
PBBHL.assemble()
uf.info("Done assembling Print Bed Bushing Holder Left", "Finished PBBHL.assemble()", gv.level, source)
uf.saveAndClose("printBedBushingHolderL", True)
yBeltAnchor.draw()
uf.info("Done drawing yBeltAnchor", "Finished yBeltAnchor.draw()", gv.level, source)
yBeltAnchor.assemble()
uf.info("Done assembling yBeltAnchor", "Finished yBeltAnchor.assemble()", gv.level, source)
uf.saveAndClose("yBeltAnchor", True)
printBedSupport.draw()
uf.info("Done drawing printBedSupport", "Finished printBedSupport.draw()", gv.level, source)
printBedSupport.assemble()
uf.info("Done assembling printBedSupport", "Finished printBedSupport.assemble()", gv.level, source)
uf.saveAndClose("printBedSupport", False)
printBed.draw()
uf.info("Done drawing printBed", "Finished printBed.draw()", gv.level, source)
printBed.assemble()
uf.info("Done assembling printBed", "Finished printBed.assemble()", gv.level, source)
uf.saveAndClose("printBed", False)
yMotorMount.draw()
uf.info("Done drawing yMotorMount", "Finished yMotorMount.draw()", gv.level, source)
yMotorMount.assemble()
uf.info("Done assembling yMotorMount", "Finished yMotorMount.assemble()", gv.level, source)
uf.saveAndClose("yMotorMount", True)
yRodSupportR.draw()
uf.info("Done drawing yRodSupportR", "Finished yRodSupportR.draw()", gv.level, source)
yRodSupportR.assemble()
uf.info("Done assembling yRodSupportR", "Finished yRodSupportR.assemble()", gv.level, source)
uf.saveAndClose("yRodSupportR", True)
uf.saveAndClose("yRodSupportRClamp", True)
yRodSupportL.draw()
uf.info("Done drawing yRodSupportL", "Finished yRodSupportL.draw()", gv.level, source)
yRodSupportL.assemble()
uf.info("Done assembling yRodSupportL", "Finished yRodSupportL.assemble()", gv.level, source)
uf.saveAndClose("yRodSupportL", True)
uf.saveAndClose("yRodSupportLClamp", True)
# Make components for frame, add to assembly, save and close
verticalBars.draw()
uf.info("Done drawing verticalBars", "Finished verticalBars.draw()", gv.level, source)
verticalBars.assemble()
uf.info("Done assembling verticalBars", "Finished verticalBars.assemble()", gv.level, source)
uf.saveAndClose("verticalBars", False)
crossBarTop.draw()
uf.info("Done drawing crossBarTop", "Finished crossBarTop.draw()", gv.level, source)
crossBarTop.assemble()
uf.info("Done assembling crossBarTop", "Finished crossBarTop.assemble()", gv.level, source)
uf.saveAndClose("crossBarTop", False)
crossBarFrontTop.draw()
uf.info("Done drawing crossBarFrontTop", "Finished crossBarFrontTop.draw()", gv.level, source)
crossBarFrontTop.assemble()
uf.info("Done assembling crossBarFrontTop", "Finished crossBarFrontTop.assemble()", gv.level, source)
uf.saveAndClose("crossBarFrontTop", False)
crossBarFrontBottom.draw()
uf.info("Done drawing crossBarFrontBottom", "Finished crossBarFrontBottom.draw()", gv.level, source)
crossBarFrontBottom.assemble()
uf.info("Done assembling crossBarFrontBottom", "Finished crossBarFrontBottom.assemble()", gv.level, source)
uf.saveAndClose("crossBarFrontBottom", False)
crossBarBackTop.draw()
uf.info("Done drawing crossBarBackTop", "Finished crossBarBackTop.draw()", gv.level, source)
crossBarBackTop.assemble()
uf.info("Done assembling crossBarBackTop", "Finished crossBarBackTop.assemble()", gv.level, source)
uf.saveAndClose("crossBarBackTop", False)
crossBarBackBottom.draw()
uf.info("Done drawing rossBarBackBottom", "Finished crossBarBackBottom.draw()", gv.level, source)
crossBarBackBottom.assemble()
uf.info("Done assembling rossBarBackBottom", "Finished crossBarBackBottom.assemble()", gv.level, source)
uf.saveAndClose("crossBarBackBottom", False)
sideBarTopL.draw()
uf.info("Done drawing sideBarTopL", "Finished sideBarTopL.draw()", gv.level, source)
sideBarTopL.assemble()
uf.info("Done assembling sideBarTopL", "Finished sideBarTopL.assemble()", gv.level, source)
uf.saveAndClose("sideBarTopL", False)
sideBarBottomL.draw()
uf.info("Done drawing sideBarBottomL", "Finished sideBarBottomL.draw()", gv.level, source)
sideBarBottomL.assemble()
uf.info("Done assembling sideBarBottomL", "Finished sideBarBottomL.assemble()", gv.level, source)
uf.saveAndClose("sideBarBottomL", False)
sideBarBottomR.draw()
uf.info("Done drawing sideBarBottomR", "Finished sideBarBottomR.draw()", gv.level, source)
sideBarBottomR.assemble()
uf.info("Done assembling sideBarBottomR", "Finished sideBarBottomR.assemble()", gv.level, source)
uf.saveAndClose("sideBarBottomR", False)
sideBarTopR.draw()
uf.info("Done drawing sideBarTopR", "Finished sideBarTopR.draw()", gv.level, source)
sideBarTopR.assemble()
uf.info("Done assembling sideBarTopR", "Finished sideBarTopR.assemble()", gv.level, source)
uf.saveAndClose("sideBarTopR", False)
frameSpacers.draw()
uf.info("Done drawing frameSpacers", "Finished frameSpacers.draw()", gv.level, source)
frameSpacers.assemble()
uf.info("Done assembling frameSpacers", "Finished frameSpacers.assemble()", gv.level, source)
uf.saveAndClose("frameSpacers", False)
feet.draw()
uf.info("Done drawing Feet", "Finished feet.draw()", gv.level, source)
feet.assemble()
uf.info("Done assembling feet", "Finished feet.assemble()", gv.level, source)
uf.saveAndClose("feet", True)
draw.setup("printBedSupport", 'Pocket001')
draw.setup("extruderMountPlate", 'Pocket002')
draw.setup("xEndIdlerPlate", 'Pocket')
draw.setup("xEndMotorPlate", 'Pocket001')
App.ActiveDocument = App.getDocument("PrinterAssembly")
uf.saveAssembly()
if (gv.plate):
uf.info("Building the print plates...", "Started building print plates", gv.level, source)
plate.plate()
uf.info("Finished building the print plates.", "Finished building print plates", gv.level, source)
if (gv.slic3r):
uf.info("Slicing with Slic3er...", "Started slicing.", gv.level, source)
slic3r.slic3r()
uf.info("Finished slicing.", "Finished slicing", gv.level, source)
heatedbed.design()
checklist.create()
marlin.marlin()
zipup.zipup()
def makePrinter():
if platform.system() == 'Windows':
subprocess.call('cls', shell=True)
else:
subprocess.call('clear', shell=True)
uf.header(
"______ _ _____ _ _____ __ _____ ",
False)
uf.header(
"| ___ \ | | |____ | | | | _ | / | | _ |",
False)
uf.header(
"| |_/ /___| |_ _ __ / / __| | __ __| |/' | `| | | |/' |",
False)
uf.header(
"| // _ \ __| '__| \ \/ _` | \ \ / /| /| | | | | /| |",
False)
uf.header(
"| |\ \ __/ |_| | .___/ / (_| | \ V / \ |_/ / _ _| |_ _ \ |_/ /",
False)
uf.header(
"\_| \_\___|\__|_| \____/ \__,_| \_/ \___/ (_)\___/(_) \___/ ",
False)
uf.bold("Version: 0.1.0 ", False)
uf.bold(
"If you encounter any issues, please let us know at https://github.com/maaphoo/retr3d/issues",
False)
print ""
# import FreeCAD modules
try:
import FreeCAD as App
except ImportError as e:
uf.critical(
"Failure to import FreeCAD, check your configuration file.",
'Failure to import FreeCAD: ' + str(e), gv.level, source)
import FreeCADGui as Gui
if platform.system() == 'Windows':
if (App.Version()[1] > '14'):
try:
import FreeCAD #
except AttributeError:
pass
finally:
uf.info(
"FreeCAD Version 0." + App.Version()[1] + " Revision " +
App.Version()[2], "FreeCAD Version 0." + App.Version()[1] +
" Revision " + App.Version()[2], gv.level, source)
if platform.system() == 'Darwin': # OSX
if (App.Version()[1] >= '14'):
try:
import FreeCAD #
FreeCAD #.showMainWindow()
except AttributeError:
pass
finally:
uf.info(
"FreeCAD Version 0." + App.Version()[1] + " Revision " +
App.Version()[2], "FreeCAD Version 0." + App.Version()[1] +
" Revision " + App.Version()[2], gv.level, source)
if platform.system() == 'Linux':
if (App.Version()[1] < '14'):
uf.warning(
"Retr3d has not been tested on FreeCAD version .13 and below. You are using version 0."
+ App.Version()[1] +
". If problems ensue, please upgrade to versions .14 or .16.",
"Untested FreeCAD Version 0." + App.Version()[1] +
" Revision " + App.Version()[2], gv.level, source)
if (App.Version()[1] == '14'):
if not (os.getcwd() == os.path.dirname(os.path.abspath(__file__))):
uf.info(
"FreeCAD Version 0." + App.Version()[1] + " Revision " +
App.Version()[2], "FreeCAD Version 0." + App.Version()[1] +
" Revision " + App.Version()[2], gv.level, source)
else:
uf.critical(
"Retr3d on Linux is not compatible with FreeCAD version .14 for command line usage. Please upgrade to .16 to continue",
"VersionError: FreeCAD Version 0." + App.Version()[1] +
" Revision " + App.Version()[2], gv.level, source)
raise versionError
if (App.Version()[1] == '15'):
uf.critical(
"Retr3d on Linux is not compatible with FreeCAD version .15. Please upgrade to .16 or downgrade to .14 to continue.",
"VersionError: FreeCAD Version 0." + App.Version()[1] +
" Revision " + App.Version()[2], gv.level, source)
raise versionError
if (App.Version()[1] == '16'):
try:
import FreeCAD #
FreeCAD #.showMainWindow()
except AttributeError:
pass
finally:
uf.info(
"FreeCAD Version 0." + App.Version()[1] + " Revision " +
App.Version()[2], "FreeCAD Version 0." + App.Version()[1] +
" Revision " + App.Version()[2], gv.level, source)
# import Part modules
import xRodBottom
import xRodTop
import yRodL
import yRodR
import zRodL
import zRodR
import xCarriage
import xRodClamp
import xEndZRodHolder
import xEndMotorPlate
import xEndIdlerPlate
import zRodSupport
import zMotorMount
import printBedBushingHolder
import printBedSupport
import printBed
import yBeltAnchor
import yMotorMount
import yRodSupport
import extruderMountAngle
import extruderMountPlate
import verticalBars
import crossBarTop
import crossBarFrontTop
import crossBarFrontBottom
import crossBarBackTop
import crossBarBackBottom
import sideBarTopL
import sideBarBottomL
import sideBarBottomR
import sideBarTopR
import frameSpacers
import extruderBarrel
import nozzle
import xEndstop
import zEndstop
import feet
import leadScrewCoupler
import plate
import slic3r
import zipup
import draw
import checklist
import heatedbed
import marlin
# If any of the parameters have been changed, the includes must be reloaded
# Normally, this would just be globalVariables because that is what would be changed,
# But while the rest of the code is in development, the other modules will be reloaded too.
# This will make testing easier.
if gv.reloadClasses:
reload(gv)
reload(uf)
reload(xCarriage)
reload(xRodClamp)
reload(xRodBottom)
reload(xRodTop)
reload(xEndMotorPlate)
reload(xEndIdlerPlate)
reload(xEndZRodHolder)
reload(yRodL)
reload(yRodR)
reload(zRodL)
reload(zRodR)
reload(zRodSupport)
reload(zMotorMount)
reload(printBedBushingHolder)
reload(printBedSupport)
reload(printBed)
reload(yBeltAnchor)
reload(yMotorMount)
reload(yRodSupport)
reload(extruderMountAngle)
reload(extruderMountPlate)
reload(verticalBars)
reload(crossBarTop)
reload(crossBarFrontTop)
reload(crossBarFrontBottom)
reload(crossBarBackTop)
reload(crossBarBackBottom)
reload(sideBarTopL)
reload(sideBarBottomL)
reload(sideBarBottomR)
reload(sideBarTopR)
reload(frameSpacers)
reload(extruderBarrel)
reload(nozzle)
reload(xEndstop)
reload(zEndstop)
reload(feet)
reload(leadScrewCoupler)
reload(plate)
reload(slic3r)
reload(zipup)
reload(draw)
reload(checklist)
reload(heatedbed)
reload(marlin)
gv.reloadClasses = True
# instantiate part objects
xRodBottom = xRodBottom.XRodBottom()
xRodTop = xRodTop.XRodTop()
yRodL = yRodL.YRodL()
yRodR = yRodR.YRodR()
zRodL = zRodL.ZRodL()
zRodR = zRodR.ZRodR()
xCarriage = xCarriage.XCarriage()
xRodClampL = xRodClamp.XRodClamp("xRodClampL", "Left")
xRodClampR = xRodClamp.XRodClamp("xRodClampR", "Right")
xEndZRodHolderL = xEndZRodHolder.XEndZRodHolder("xEndZRodHolderL", "Left")
xEndZRodHolderR = xEndZRodHolder.XEndZRodHolder("xEndZRodHolderR", "Right")
xEndMotorPlate = xEndMotorPlate.XEndMotorPlate()
xEndIdlerPlate = xEndIdlerPlate.XEndIdlerPlate()
zRodSupportR = zRodSupport.ZRodSupport(name="zRodSupportR", side="Right")
zRodSupportL = zRodSupport.ZRodSupport(name="zRodSupportL", side="Left")
zMotorMount = zMotorMount.ZMotorMount()
PBBHR = printBedBushingHolder.PrintBedBushingHolder(
"printBedBushingHolderR", "Right")
PBBHL = printBedBushingHolder.PrintBedBushingHolder(
"printBedBushingHolderL", "Left")
printBedSupport = printBedSupport.PrintBedSupport()
printBed = printBed.PrintBed()
yBeltAnchor = yBeltAnchor.YBeltAnchor()
yMotorMount = yMotorMount.YMotorMount()
yRodSupportR = yRodSupport.YRodSupport("yRodSupportR", "Right")
yRodSupportL = yRodSupport.YRodSupport("yRodSupportL", "Left")
extruderMountAngle = extruderMountAngle.ExtruderMountAngle()
extruderMountPlate = extruderMountPlate.ExtruderMountPlate()
verticalBars = verticalBars.VerticalBars()
crossBarTop = crossBarTop.CrossBarTop()
crossBarFrontTop = crossBarFrontTop.CrossBarFrontTop()
crossBarFrontBottom = crossBarFrontBottom.CrossBarFrontBottom()
crossBarBackTop = crossBarBackTop.CrossBarBackTop()
crossBarBackBottom = crossBarBackBottom.CrossBarBackBottom()
sideBarTopL = sideBarTopL.SideBarTopL()
sideBarBottomL = sideBarBottomL.SideBarBottomL()
sideBarBottomR = sideBarBottomR.SideBarBottomR()
sideBarTopR = sideBarTopR.SideBarTopR()
frameSpacers = frameSpacers.FrameSpacers()
extruderBarrel = extruderBarrel.ExtruderBarrel()
nozzle = nozzle.Nozzle()
xEndstop = xEndstop.XEndstop()
zEndstop = zEndstop.ZEndstop()
feet = feet.Feet()
leadScrewCoupler = leadScrewCoupler.LeadScrewCoupler()
# convert standard nut sizes to mm
for i in range(len(gv.standardNuts)):
for j in range(len(gv.standardNuts[i])):
gv.standardNuts[i][j] *= 25.4
if gv.bushingNutSizesUsed == "Standard":
gv.bushingNutTable = gv.standardNuts
elif gv.bushingNutSizesUsed == "Metric":
gv.bushingNutTable = gv.metricNuts
elif gv.bushingNutSizesUsed == "StandardAndMetric":
gv.bushingNutTable = gv.standardNuts + gv.metricNuts
gv.bushingNutTable.sort(key=lambda x: x[0])
# Determine printed mounting hole diameters
gv.printedToFrameDia = uf.adjustHole(gv.mountToFrameDia)
gv.printedToFrameHeadDia = uf.adjustHole(gv.mountToFrameHeadDia)
gv.printedToPrintedDia = uf.adjustHole(gv.mountToPrintedDia)
gv.printedToPrintedNutFaceToFace = uf.adjustHole(
gv.mountToPrintedNutFaceToFace)
# Select Bushing and Lead Screw nuts
gv.xBushingNutBottom = uf.pickBushingNut(gv.xRodDiaBottom)
gv.xBushingNutTop = uf.pickBushingNut(gv.xRodDiaTop)
gv.yBushingNutR = uf.pickBushingNut(gv.yRodDiaR)
gv.yBushingNutL = uf.pickBushingNut(gv.yRodDiaL)
gv.zBushingNutR = uf.pickBushingNut(gv.zRodDiaR)
gv.zBushingNutL = uf.pickBushingNut(gv.zRodDiaL)
gv.leadScrewNut = uf.pickLeadScrewNut(gv.leadScrewDia)
# Determine max rod diameters
gv.xRodDiaMax = (gv.xRodDiaTop
if gv.xRodDiaTop > gv.xRodDiaBottom else gv.xRodDiaBottom)
# Determine the max yRod diameter
gv.yRodDiaMax = (gv.yRodDiaL if gv.yRodDiaL > gv.yRodDiaR else gv.yRodDiaR)
# Determine xBushingNutMaxThickness
gv.xBushingNutMaxThickness = (
gv.xBushingNutTop[3] if gv.xBushingNutTop[3] > gv.xBushingNutBottom[3]
else gv.xBushingNutBottom[3])
# Determine zBushingNutMaxThickness
gv.zBushingNutMaxThickness = (gv.zBushingNutR[3]
if gv.zBushingNutR[3] > gv.zBushingNutL[3]
else gv.zBushingNutL[3])
# Determine xCarriageMaxNutFaceToFace
gv.xBushingNutMaxFacetoFace = (
gv.xBushingNutTop[2] if gv.xBushingNutTop[2] > gv.xBushingNutBottom[2]
else gv.xBushingNutBottom[2])
# Determine xCarriageBushingHolderOR
gv.xCarriageBushingHolderOR = gv.xBushingNutMaxFacetoFace / math.cos(
math.pi / 6) / 2 + gv.bushingNutPadding
# Check/Determind xRodSpacing
gv.xRodSpacing = (gv.xMotorMountPlateWidth if gv.xMotorMountPlateWidth >
gv.xCarriageBushingHolderOR * 4 + gv.xMotorPulleyDia +
gv.xBeltAnchorThickness else
gv.xCarriageBushingHolderOR * 4 + gv.xMotorPulleyDia +
gv.xBeltAnchorThickness)
# Determine yRodStandoff
gv.yRodStandoff = gv.yRodDiaMax / 2 + gv.rodSupportNutTrapDepthMin + gv.rodSupportClampThickness
# The yRodSupportNutTrapDepth is always the minimum nut trap depth
yRodSupportNutTrapDepth = gv.rodSupportNutTrapDepthMin
# Check to see if the yRodClamps work with available bolt lengths
# If needed adjust the yRodStandoff for the next closest bolt length available.
gv.yRodSupportClampBoltLength = (gv.yRodStandoff + gv.yRodDiaMax / 2 +
gv.clampThickness -
gv.rodSupportNutTrapDepthMin +
gv.clampNutThickness)
for i in range(len(gv.clampBoltLengths)):
if gv.yRodSupportClampBoltLength <= gv.clampBoltLengths[i]:
gv.yRodSupportClampBoltLength = gv.clampBoltLengths[i]
break
elif i == len(gv.clampBoltLengths):
try:
raise Exception(
"No clamp bolt available is long enough for the yRodSupport"
)
except Exception as e:
import traceback
uf.critical(
"No available clamp bolt is long enough for the yRodSupport",
'Part error: No available clamp bolt is long enough for the yRodSupport: \n\n'
+ str(e) + '\n' + traceback.format_exc(limit=1), gv.level,
os.path.basename(__file__))
raise StandardError
# Now redetermine yRodStandoff based on chosen yRodClampBoltLength
gv.yRodStandoff = (gv.yRodSupportClampBoltLength +
gv.rodSupportNutTrapDepthMin - gv.clampNutThickness -
gv.yRodDiaMax / 2 - gv.clampThickness)
# Determine the maximum bushing nut face to face for the y axis bushings
gv.PBBHMaxFaceToFace = (gv.yBushingNutL[2]
if gv.yBushingNutL[2] > gv.yBushingNutR[2] else
gv.yBushingNutR[2])
# Determine the PBBHStandoff. Must be large enough to acomodate the bushing holder itself,
# and the yrod support. So take which ever is larger.
gv.PBBHStandoff = (
gv.yRodDiaMax / 2 + gv.clampThickness + gv.clampBoltHeadThickness +
gv.yRodSupportClearance
if gv.yRodDiaMax / 2 + gv.clampThickness + gv.clampBoltHeadThickness +
gv.yRodSupportClearance > gv.PBBHMaxFaceToFace / 2 + gv.tabThickness
else gv.PBBHMaxFaceToFace / 2 + gv.tabThickness)
# Determine yBeltAnchorHeight. Set to allow for clamping down to the surface of the y motor mount plate
gv.yBeltAnchorHeight = (gv.yBeltAnchorBridgeThickness + gv.yRodStandoff +
gv.PBBHStandoff - gv.yMotorMountPlateThickness)
# Determine xRodClampOverallThickness
gv.xRodClampOverallThickness = 2 * gv.xRodClampThickness + gv.xRodDiaMax
# determine the horizontal or vertical component of the shaftToMountHoleDist for the x motor
gv.xMotorShaftToMountHoleDistX = math.pow(
math.pow(gv.xEndShaftToMountHoleDist, 2) / 2, 0.5)
# determine x motor width/length
gv.xMotorBodyWidth = gv.xMotorShaftToMountHoleDistX * 2 + gv.xEndMotorMountHoleDia + 2 * gv.xEndMotorMountHolePadding
# Determine the yMotor x component of the shaft to mount hole distance
gv.yMotorShaftToMountHoleDistX = math.pow(
math.pow(gv.yShaftToMountHoleDist, 2) / 2, 0.5)
# Determine the y motor width/length
gv.yMotorBodyWidth = (2 * gv.yMotorMountHolePadding +
gv.yMotorMountHoleDia +
2 * gv.yMotorShaftToMountHoleDistX)
# Determine zShaftToMountHoleDistX
gv.zShaftToMountHoleDistX = math.pow(
math.pow(gv.zShaftToMountHoleDist, 2) / 2, 0.5)
# Determine zMotorBodyWidth
gv.zMotorBodyWidth = (2 * gv.zMotorMountHolePadding +
gv.zMotorMountHoleDia +
2 * gv.zShaftToMountHoleDistX)
# Determine zMotor mount variables and zRodStandoff
if gv.zMotorMountLocation == "Top":
gv.zRodStandoff = gv.zMotorBodyWidth / 2
gv.zMotorMountMountingFaceWidth = gv.frameHeight
gv.zMotorMountLength = gv.zMotorMountMountingFaceWidth + gv.zRodStandoff + gv.zMotorBodyWidth / 2
gv.zMotorMountEdgeToShaftHole = gv.zMotorMountMountingFaceWidth + gv.zRodStandoff
gv.zRodZScrewDist = (gv.zRodZScrewDist if gv.zRodZScrewDist >
(gv.frameWidth + gv.zMotorMountPlateWidth) / 2
else
(gv.frameWidth + gv.zMotorMountPlateWidth) / 2)
if gv.zMotorMountLocation == "Bottom":
gv.zRodStandoff = gv.zMotorMountPlateWidth / 2
gv.zMotorMountMountingFaceWidth = gv.frameWidth
gv.zRodZScrewDist = (gv.zRodZScrewDist if gv.zRodZScrewDist >
(gv.frameWidth + gv.zMotorBodyWidth +
gv.zMotorBodyToFrameSpacing) / 2 else
(gv.frameWidth + gv.zMotorBodyWidth +
gv.zMotorBodyToFrameSpacing) / 2)
gv.zMotorMountLength = gv.zMotorMountMountingFaceWidth / 2 + gv.zRodZScrewDist + gv.zMotorBodyWidth / 2
gv.zMotorMountEdgeToShaftHole = gv.zMotorMountMountingFaceWidth / 2 + gv.zRodZScrewDist
# Determine zBushingNutMaxFaceToFace
gv.zBushingNutMaxFaceToFace = (gv.zBushingNutL[2]
if gv.zBushingNutL[2] > gv.zBushingNutR[2]
else gv.zBushingNutR[2])
# Determine the max Nut face to face for the xEndZRodHolder between zBushing nuts and lead Screw nuts
gv.xEndZRodHolderMaxNutFaceToFace = (
gv.zBushingNutMaxFaceToFace
if gv.zBushingNutMaxFaceToFace > gv.leadScrewNut[2] else
gv.leadScrewNut[2])
# Determine xRodClampWidth
gv.xRodClampWidth = (
gv.zRodZScrewDist +
gv.xEndZRodHolderMaxNutFaceToFace / math.cos(math.pi / 6) +
2 * gv.bushingNutPadding)
# Determine zRod Spacing
gv.zRodSpacing = (
gv.xRodLength + 2 * gv.xRodClampWidth - 2 * gv.xRodClampPocketDepth -
2 * gv.bushingNutPadding -
gv.xEndZRodHolderMaxNutFaceToFace / math.cos(math.pi / 6))
# Determine the max Nut Thickness for the xEndZRodHolder between both zBushingNuts and LeadScrewNuts
gv.xEndZRodHolderMaxNutThickness = (
gv.zBushingNutMaxThickness
if gv.zBushingNutMaxThickness > gv.leadScrewNut[3] else
gv.leadScrewNut[3])
# Determine the height of the xEndZRodHolder
gv.xEndZRodHolderHeight = 2 * (
gv.xEndZRodHolderMaxNutThickness +
gv.bushingNutPadding) + gv.xRodSpacing - gv.xRodDiaMax
# Determine printableWidth
gv.printableWidth = (gv.xRodLength - 2 * gv.xRodClampPocketDepth -
gv.xCarriageWidth / 2 - gv.xCarriageWingWidth)
# Determine yRodSupportWidth
gv.yRodSupportWidth = (gv.yRodDiaMax + gv.clampHoleDia +
gv.clampNutFaceToFace + 2 * gv.clampNutPadding +
4 * gv.slotPadding + 2 * gv.slotDia +
2 * gv.slotWidth)
# Determine printBedBusingSupportWidth
gv.printBedBusingSupportWidth = (
4 * gv.slotPadding + 2 * gv.slotDia + 2 * gv.slotWidth +
2 * gv.bushingNutPadding +
gv.PBBHMaxFaceToFace / math.cos(math.pi / 6))
# Determine yRodSpacing
gv.yRodSpacing = ((gv.printableWidth + 2 * gv.printBedPadding) / 2 if
(gv.printableWidth + 2 * gv.printBedPadding) /
2 > gv.yMotorMountPlateWidth + gv.yRodSupportWidth else
gv.yMotorMountPlateWidth + gv.yRodSupportWidth)
# Check yRodSpacing to make sure that the Bushing supports can be attached to the print bed support
if gv.yRodSpacing + gv.printBedBusingSupportWidth > gv.printableWidth + 2 * gv.printBedPadding:
try:
raise Exception(
"The yRods can't be spaced far enough apart. Try longer xAxis rods."
)
except Exception as e:
import traceback
uf.critical(
"The yRods can't be spaced far enough apart. Try longer xAxis rods.",
"Part error: The yRods can't be spaced far enough apart.: \n\n"
+ str(e) + '\n' + traceback.format_exc(limit=1), gv.level,
os.path.basename(__file__))
raise StandardError
# Determine the maximum thickness of the y axis bushings
gv.yBushingNutMaxThickness = (gv.yBushingNutL[3]
if gv.yBushingNutL[3] > gv.yBushingNutR[3]
else gv.yBushingNutR[3])
# Determine the depth of the y bushing mounts
gv.PBBHDepth = gv.yBushingNutMaxThickness + gv.bushingNutPadding
# Determine center to center distance between the slots on the y bushing mounts
# This is the spacing used to determine the spacing between mounting holes on the print bed support
gv.yBushingMountSlotSpacing = (
gv.PBBHMaxFaceToFace / math.cos(math.pi / 6) +
2 * gv.bushingNutPadding + 2 * gv.slotPadding + gv.slotDia +
gv.slotWidth)
# Determine the center to center distance between y bushing nuts along the y axis
# Increase printable area by changing the divisor. The price is a less stable print bed.
gv.yBushingNutSeparation = (gv.yRodLength - 2 * gv.frameWidth) / 3
# Determine the printable length
gv.printableLength = (gv.yRodLength - 2 * gv.frameWidth -
gv.yBushingNutSeparation - gv.PBBHDepth)
# Determine the y belt anchor hole spacing
gv.yBeltAnchorHoleSpacing = (gv.yBeltAnchorLength +
2 * gv.mountToPrintedPadding +
uf.adjustHole(gv.mountToPrintedDia))
# Determine the extruderMountPlateWidth
gv.extruderMountPlateWidth = (gv.xCarriageWidth
if gv.xCarriageWidth > gv.extruderWidth else
gv.extruderWidth)
# Determine hotEndLength
gv.hotEndLength = gv.nozzleLength + gv.extruderBarrelLength
# Determine zEndStopClampLength
gv.zEndStopClampLength = (2 * gv.mountToPrintedPadding +
gv.printedToPrintedDia +
2 * gv.xEndstopChannelWidth +
gv.xEndstopContactSpacing + gv.xEndstopPadding +
gv.zEndstopJogWidth)
# Determine vertBarDistBelowZRod
gv.vertBarDistBelowZRod = (
gv.yRodStandoff + gv.PBBHStandoff + gv.printBedSupportThickness +
gv.printBedStandoff + gv.printBedThickness + gv.hotEndLength -
(gv.extruderMountAngleWidth + gv.extruderMountAngleThickness) / 2 -
gv.xCarriageMountHoleVertOffset + gv.xCarriageBushingHolderOR -
(gv.xEndZRodHolderHeight - gv.xRodSpacing) / 2 - gv.
zEndStopClampLength # May change to something fancier that incorporates the zOffset screw
- gv.zRodSupportLength)
# Determine vertBarDistAboveZRod
if gv.zMotorMountLocation == "Top":
gv.vertBarDistAboveZRod = (
gv.frameJointPadding + gv.frameWidth if
gv.frameJointPadding + gv.frameWidth > gv.leadScrewCouplerLength +
2 * gv.leadScrewCouplerGap else gv.leadScrewCouplerLength +
2 * gv.leadScrewCouplerGap)
elif gv.zMotorMountLocation == "Bottom":
gv.vertBarDistAboveZRod = gv.frameJointPadding + 2 * gv.slotPadding + gv.slotDia
# Determine the vertBarLength
gv.vertBarLength = gv.zRodLength + gv.vertBarDistAboveZRod + gv.vertBarDistBelowZRod
# Determine the cross bar length. Used for all cross bars.
gv.crossBarLength = gv.zRodSpacing + gv.frameWidth
# Determine yRodSupportMountHoleSpacing
gv.yRodSupportMountHoleSpacing = (gv.yRodDiaMax + gv.clampHoleDia +
gv.clampNutFaceToFace +
2 * gv.clampNutPadding +
2 * gv.slotPadding + gv.slotDia +
gv.slotWidth)
gv.sideBarLength = gv.yRodLength - 2 * gv.frameWidth
# Determine extruderNozzleStandoff which is the distance between the center of the nozzle and the face of the vertical bars
gv.extruderNozzleStandoff = (
gv.zRodStandoff + gv.xEndZRodHolderMaxNutFaceToFace / 2 +
gv.xEndZRodHolderFaceThickness + gv.xMotorMountPlateThickness +
gv.xRodClampOverallThickness / 2 + gv.xCarriageBushingHolderOR +
gv.xCarriageThickness + gv.extruderDepth - gv.extruderEdgeToCenterLine)
# Determine xRodAxisToMountHoleDist
gv.xRodAxisToMountHoleDist = (
gv.xRodDiaMax / 2 + gv.xRodClampMountHoleToRodPadding
if gv.xRodDiaMax / 2 + gv.xRodClampMountHoleToRodPadding >
(gv.xEndZRodHolderMaxNutThickness + gv.bushingNutPadding +
gv.xEndZRodHolderMountHoleToRodPadding + gv.printedToPrintedDia / 2)
else
(gv.xEndZRodHolderMaxNutThickness + gv.bushingNutPadding +
gv.xEndZRodHolderMountHoleToRodPadding + gv.printedToPrintedDia / 2))
# Determine xEndstopLength
gv.xEndstopLength = gv.xEndstopPadding + gv.mountToPrintedDia / 2 + gv.xRodAxisToMountHoleDist
# Determine xEndstopSupportWidth
gv.zEndstopSupportWidth = (gv.zRodDiaL + 2 * gv.printedToPrintedDia +
2 * gv.mountToPrintedPadding)
# Determine xEndstopBodyThickness
gv.zEndstopBodyThickness = (gv.zRodZScrewDist / 2 +
gv.xEndstopChannelDepth / 2 - gv.zRodDiaL / 2)
# determind xBeltAnchorHeight
gv.xBeltAnchorHeight = gv.xCarriageBushingHolderOR + gv.xRodClampOverallThickness / 2 + gv.xBeltAnchorBridgeThickness
# Draw parts, save and make assembly
del gv.xAxisParts[:]
del gv.yAxisParts[:]
del gv.zAxisParts[:]
# Make file for assembly
uf.makeAssemblyFile()
uf.info("Starting to draw parts...", "Assembly file made", gv.level,
source)
heatedbed.design()
# Make components for x-Axis, add to assembly, save and close
xRodBottom.draw()
uf.info("Done drawing xRodBottom", "Finished xRodBottom.draw()", gv.level,
source)
xRodBottom.assemble()
uf.info("Done assembling xRodBottom", "Finished xRodBottom.assemble()",
gv.level, source)
uf.saveAndClose("xRodBottom", False)
xRodTop.draw()
uf.info("Done drawing xRodTop", "Finished xRodTop.draw()", gv.level,
source)
xRodTop.assemble()
uf.info("Done assembling xRodTop", "Finished xRodTop.assemble()", gv.level,
source)
uf.saveAndClose("xRodTop", False)
xCarriage.draw()
uf.info("Done drawing xCarriage", "Finished xCarriage.draw()", gv.level,
source)
xCarriage.assemble()
uf.info("Done assembling xCarriage", "Finished xCarriage.assemble()",
gv.level, source)
uf.saveAndClose("xCarriage", True)
extruderMountAngle.draw()
uf.info("Done drawing extruderMountAngle",
"Finished extruderMountAngle.draw()", gv.level, source)
extruderMountAngle.assemble()
uf.info("Done assembling extruderMountAngle",
"Finished extruderMountAngle.assemble()", gv.level, source)
uf.saveAndClose("extruderMountAngle", False)
extruderMountPlate.draw()
uf.info("Done drawing extruderMountPlate",
"Finished extruderMountPlate.draw()", gv.level, source)
extruderMountPlate.assemble()
uf.info("Done assembling extruderMountPlate",
"Finished extruderMountPlate.assemble()", gv.level, source)
uf.saveAndClose("extruderMountPlate", False)
xRodClampL.draw()
uf.info("Done drawing xRodClampL", "Finished xRodClampL.draw()", gv.level,
source)
xRodClampL.assemble()
uf.info("Done assembling xRodClampL", "Finished xRodClampL.assemble()",
gv.level, source)
uf.saveAndClose("xRodClampL", True)
xRodClampR.draw()
uf.info("Done drawing xRodClampR", "Finished xRodClampR.draw()", gv.level,
source)
xRodClampR.assemble()
uf.info("Done assembling xRodClampR", "Finished xRodClampR.assemble()",
gv.level, source)
uf.saveAndClose("xRodClampR", True)
xEndMotorPlate.draw()
uf.info("Done drawing xEndMotorPlate", "Finished xEndMotorPlate.draw()",
gv.level, source)
xEndMotorPlate.assemble()
uf.info("Done assembling xEndMotorPlate",
"Finished xEndMotorPlate.assemble()", gv.level, source)
uf.saveAndClose("xEndMotorPlate", False)
xEndIdlerPlate.draw()
uf.info("Done drawing xEndIdlerPlate", "Finished xEndIdlerPlate.draw()",
gv.level, source)
xEndIdlerPlate.assemble()
uf.info("Done assembling xEndIdlerPlate",
"Finished xEndIdlerPlate.assemble()", gv.level, source)
uf.saveAndClose("xEndIdlerPlate", False)
extruderBarrel.draw()
uf.info("Done drawing extruderBarrel", "Finished extruderBarrel.draw()",
gv.level, source)
extruderBarrel.assemble()
uf.info("Done assembling extruderBarrel",
"Finished extruderBarrel.assemble()", gv.level, source)
uf.saveAndClose("extruderBarrel", False)
nozzle.draw()
uf.info("Done drawing nozzle", "Finished nozzle.draw()", gv.level, source)
nozzle.assemble()
uf.info("Done assembling nozzle", "Finished nozzle.assemble()", gv.level,
source)
uf.saveAndClose("nozzle", False)
xEndZRodHolderL.draw()
uf.info("Done drawing xEndZRodHolderL", "Finished xEndZRodHolderL.draw()",
gv.level, source)
xEndZRodHolderL.assemble()
uf.info("Done assembling xEndZRodHolderL",
"Finished xEndZRodHolderL.assemble()", gv.level, source)
uf.saveAndClose("xEndZRodHolderL", True)
xEndZRodHolderR.draw()
uf.info("Done drawing xEndZRodHolderR", "Finished xEndZRodHolderR.draw()",
gv.level, source)
xEndZRodHolderR.assemble()
uf.info("Done assembling xEndZRodHolderR",
"Finished xEndZRodHolderR.assemble()", gv.level, source)
uf.saveAndClose("xEndZRodHolderR", True)
xEndstop.draw()
xEndstop.assemble()
uf.info("Done assembling xEndstop", "Finished xEndstop.assemble()",
gv.level, source)
uf.saveAndClose("xEndstop", True)
uf.saveAndClose("xEndstopCap", True)
uf.positionXAxis()
# Make components for ZAxis, add to assembly, save and close#
zRodL.draw()
uf.info("Done drawing zRodL", "Finished zRodL.draw()", gv.level, source)
zRodL.assemble()
uf.info("Done assembling zRodL", "Finished zRodL.assemble()", gv.level,
source)
uf.saveAndClose("zRodL", False)
zRodR.draw()
uf.info("Done drawing zRodR", "Finished zRodR.draw()", gv.level, source)
zRodR.assemble()
uf.info("Done assembling zRodR", "Finished zRodR.assemble()", gv.level,
source)
uf.saveAndClose("zRodR", False)
zRodSupportR.draw()
uf.info("Done drawing zRodSupportR", "Finished zRodSupportR.draw()",
gv.level, source)
zRodSupportR.assemble()
uf.info("Done assembling zRodSupportR", "Finished zRodSupportR.assemble()",
gv.level, source)
uf.saveAndClose("zRodSupportR", True)
uf.saveAndClose("zRodSupportRClamp", True)
zRodSupportL.draw()
uf.info("Done drawing zRodSupportL", "Finished zRodSupportL.draw()",
gv.level, source)
zRodSupportL.assemble()
uf.info("Done assembling zRodSupportL", "Finished zRodSupportL.assemble()",
gv.level, source)
uf.saveAndClose("zRodSupportL", True)
uf.saveAndClose("zRodSupportLClamp", True)
zMotorMount.draw()
uf.info("Done drawing zMotorMount", "Finished zMotorMount.draw()",
gv.level, source)
zMotorMount.assemble()
uf.info("Done assembling zMotorMount", "Finished zMotorMount.assemble()",
gv.level, source)
uf.saveAndClose("zMotorMount", True)
zEndstop.draw()
uf.info("Done drawing zEndstop", "Finished zEndstop.draw()", gv.level,
source)
zEndstop.assemble()
uf.info("Done assembling zEndstop", "Finished zEndstop.assemble()",
gv.level, source)
uf.saveAndClose("zEndstop", False)
leadScrewCoupler.draw()
uf.info("Done drawing leadScrewCoupler",
"Finished leadScrewCoupler.draw()", gv.level, source)
leadScrewCoupler.assemble()
uf.info("Done assembling leadScrewCoupler",
"Finished leadScrewCoupler.assemble()", gv.level, source)
uf.saveAndClose("leadScrewCoupler", True)
uf.positionZAxis()
# Make components for yAxis, add to assembly, save and close#
yRodL.draw()
uf.info("Done drawing yRodL", "Finished yRodL.draw()", gv.level, source)
yRodL.assemble()
uf.info("Done assembling yRodL", "Finished yRodL.assemble()", gv.level,
source)
uf.saveAndClose("yRodL", False)
yRodR.draw()
uf.info("Done drawing yRodR", "Finished yRodR.draw()", gv.level, source)
yRodR.assemble()
uf.info("Done assembling yRodR", "Finished yRodR.assemble()", gv.level,
source)
uf.saveAndClose("yRodR", False)
PBBHR.draw()
uf.info("Done drawing Print Bed Bushing Holder Right",
"Finished PBBHR.draw()", gv.level, source)
PBBHR.assemble()
uf.info("Done assembling Print Bed Bushing Holder Right",
"Finished PBBHR.assemble()", gv.level, source)
uf.saveAndClose("printBedBushingHolderR", True)
PBBHL.draw()
uf.info("Done drawing Print Bed Bushing Holder Left",
"Finished PBBHL.draw()", gv.level, source)
PBBHL.assemble()
uf.info("Done assembling Print Bed Bushing Holder Left",
"Finished PBBHL.assemble()", gv.level, source)
uf.saveAndClose("printBedBushingHolderL", True)
yBeltAnchor.draw()
uf.info("Done drawing yBeltAnchor", "Finished yBeltAnchor.draw()",
gv.level, source)
yBeltAnchor.assemble()
uf.info("Done assembling yBeltAnchor", "Finished yBeltAnchor.assemble()",
gv.level, source)
uf.saveAndClose("yBeltAnchor", True)
printBedSupport.draw()
uf.info("Done drawing printBedSupport", "Finished printBedSupport.draw()",
gv.level, source)
printBedSupport.assemble()
uf.info("Done assembling printBedSupport",
"Finished printBedSupport.assemble()", gv.level, source)
uf.saveAndClose("printBedSupport", False)
printBed.draw()
uf.info("Done drawing printBed", "Finished printBed.draw()", gv.level,
source)
printBed.assemble()
uf.info("Done assembling printBed", "Finished printBed.assemble()",
gv.level, source)
uf.saveAndClose("printBed", False)
yMotorMount.draw()
uf.info("Done drawing yMotorMount", "Finished yMotorMount.draw()",
gv.level, source)
yMotorMount.assemble()
uf.info("Done assembling yMotorMount", "Finished yMotorMount.assemble()",
gv.level, source)
uf.saveAndClose("yMotorMount", True)
yRodSupportR.draw()
uf.info("Done drawing yRodSupportR", "Finished yRodSupportR.draw()",
gv.level, source)
yRodSupportR.assemble()
uf.info("Done assembling yRodSupportR", "Finished yRodSupportR.assemble()",
gv.level, source)
uf.saveAndClose("yRodSupportR", True)
uf.saveAndClose("yRodSupportRClamp", True)
yRodSupportL.draw()
uf.info("Done drawing yRodSupportL", "Finished yRodSupportL.draw()",
gv.level, source)
yRodSupportL.assemble()
uf.info("Done assembling yRodSupportL", "Finished yRodSupportL.assemble()",
gv.level, source)
uf.saveAndClose("yRodSupportL", True)
uf.saveAndClose("yRodSupportLClamp", True)
# Make components for frame, add to assembly, save and close
verticalBars.draw()
uf.info("Done drawing verticalBars", "Finished verticalBars.draw()",
gv.level, source)
verticalBars.assemble()
uf.info("Done assembling verticalBars", "Finished verticalBars.assemble()",
gv.level, source)
uf.saveAndClose("verticalBars", False)
crossBarTop.draw()
uf.info("Done drawing crossBarTop", "Finished crossBarTop.draw()",
gv.level, source)
crossBarTop.assemble()
uf.info("Done assembling crossBarTop", "Finished crossBarTop.assemble()",
gv.level, source)
uf.saveAndClose("crossBarTop", False)
crossBarFrontTop.draw()
uf.info("Done drawing crossBarFrontTop",
"Finished crossBarFrontTop.draw()", gv.level, source)
crossBarFrontTop.assemble()
uf.info("Done assembling crossBarFrontTop",
"Finished crossBarFrontTop.assemble()", gv.level, source)
uf.saveAndClose("crossBarFrontTop", False)
crossBarFrontBottom.draw()
uf.info("Done drawing crossBarFrontBottom",
"Finished crossBarFrontBottom.draw()", gv.level, source)
crossBarFrontBottom.assemble()
uf.info("Done assembling crossBarFrontBottom",
"Finished crossBarFrontBottom.assemble()", gv.level, source)
uf.saveAndClose("crossBarFrontBottom", False)
crossBarBackTop.draw()
uf.info("Done drawing crossBarBackTop", "Finished crossBarBackTop.draw()",
gv.level, source)
crossBarBackTop.assemble()
uf.info("Done assembling crossBarBackTop",
"Finished crossBarBackTop.assemble()", gv.level, source)
uf.saveAndClose("crossBarBackTop", False)
crossBarBackBottom.draw()
uf.info("Done drawing rossBarBackBottom",
"Finished crossBarBackBottom.draw()", gv.level, source)
crossBarBackBottom.assemble()
uf.info("Done assembling rossBarBackBottom",
"Finished crossBarBackBottom.assemble()", gv.level, source)
uf.saveAndClose("crossBarBackBottom", False)
sideBarTopL.draw()
uf.info("Done drawing sideBarTopL", "Finished sideBarTopL.draw()",
gv.level, source)
sideBarTopL.assemble()
uf.info("Done assembling sideBarTopL", "Finished sideBarTopL.assemble()",
gv.level, source)
uf.saveAndClose("sideBarTopL", False)
sideBarBottomL.draw()
uf.info("Done drawing sideBarBottomL", "Finished sideBarBottomL.draw()",
gv.level, source)
sideBarBottomL.assemble()
uf.info("Done assembling sideBarBottomL",
"Finished sideBarBottomL.assemble()", gv.level, source)
uf.saveAndClose("sideBarBottomL", False)
sideBarBottomR.draw()
uf.info("Done drawing sideBarBottomR", "Finished sideBarBottomR.draw()",
gv.level, source)
sideBarBottomR.assemble()
uf.info("Done assembling sideBarBottomR",
"Finished sideBarBottomR.assemble()", gv.level, source)
uf.saveAndClose("sideBarBottomR", False)
sideBarTopR.draw()
uf.info("Done drawing sideBarTopR", "Finished sideBarTopR.draw()",
gv.level, source)
sideBarTopR.assemble()
uf.info("Done assembling sideBarTopR", "Finished sideBarTopR.assemble()",
gv.level, source)
uf.saveAndClose("sideBarTopR", False)
frameSpacers.draw()
uf.info("Done drawing frameSpacers", "Finished frameSpacers.draw()",
gv.level, source)
frameSpacers.assemble()
uf.info("Done assembling frameSpacers", "Finished frameSpacers.assemble()",
gv.level, source)
uf.saveAndClose("frameSpacers", False)
feet.draw()
uf.info("Done drawing Feet", "Finished feet.draw()", gv.level, source)
feet.assemble()
uf.info("Done assembling feet", "Finished feet.assemble()", gv.level,
source)
uf.saveAndClose("feet", True)
draw.setup("printBedSupport", 'Pocket001')
draw.setup("extruderMountPlate", 'Pocket002')
draw.setup("xEndIdlerPlate", 'Pocket')
draw.setup("xEndMotorPlate", 'Pocket001')
App.ActiveDocument = App.getDocument("PrinterAssembly")
uf.saveAssembly()
if (gv.plate):
uf.info("Building the print plates...",
"Started building print plates", gv.level, source)
plate.plate()
uf.info("Finished building the print plates.",
"Finished building print plates", gv.level, source)
if (gv.slic3r):
uf.info("Slicing with Slic3er...", "Started slicing.", gv.level,
source)
slic3r.slic3r()
uf.info("Finished slicing.", "Finished slicing", gv.level, source)
heatedbed.design()
checklist.create()
marlin.marlin()
zipup.zipup()
#Make components for frame, add to assembly, save and close
verticalBars.draw()
verticalBars.assemble()
uf.saveAndClose("verticalBars", False)
crossBarTop.draw()
crossBarTop.assemble()
uf.saveAndClose("crossBarTop", False)
crossBarFrontTop.draw()
crossBarFrontTop.assemble()
uf.saveAndClose("crossBarFrontTop", False)
crossBarFrontBottom.draw()
crossBarFrontBottom.assemble()
uf.saveAndClose("crossBarFrontBottom", False)
crossBarBackTop.draw()
crossBarBackTop.assemble()
uf.saveAndClose("crossBarBackTop", False)
crossBarBackBottom.draw()
crossBarBackBottom.assemble()
uf.saveAndClose("crossBarBackBottom", False)
sideBarTopL.draw()
sideBarTopL.assemble()
uf.saveAndClose("sideBarTopL", False)
sideBarBottomL.draw()
sideBarBottomL.assemble()
uf.saveAndClose("sideBarBottomL", False)
sideBarBottomR.draw()
sideBarBottomR.assemble()
uf.saveAndClose("sideBarBottomR", False)
sideBarTopR.draw()