Commit be5f0e49 authored by Steven Devijver's avatar Steven Devijver

Moved estimated duration code to pronterface

parent 1ea631c8
#!/usr/bin/env python
from math import sqrt
of=open("../PrusaMendel/stl/calibration_export.gcode")
g=[i.replace("\n","").replace("\r","") for i in of]
of.close
def get_value(axis, parts):
for i in parts:
if (axis in i):
return float(i[1:])
return None
extra_cost_per_movement = 0.05
total_duration = 0
fallback_feedrate = 0
initial_feedrate = 0
X_last_position = 0
Y_last_position = 0
for i in g:
if "G1" in i and ("X" in i or "Y" in i or "F" in i):
parts = i.split(" ")
X = get_value("X", parts[1:])
Y = get_value("Y", parts[1:])
F = get_value("F", parts[1:])
if (X is None and Y is None and F is not None):
fallback_feedrate = F
continue
feedrate = 0
if (F is None):
feedrate = fallback_feedrate / 60
else:
feedrate = F / 60
distance = 0
if (X is not None and Y is None):
distance = X - X_last_position
X_last_position = X
elif (X is None and Y is not None):
distance = Y - Y_last_position
Y_last_position = Y
elif (X is not None and Y is not None):
X_distance = X - X_last_position
Y_distance = Y - Y_last_position
distance = sqrt(X_distance * X_distance + Y_distance * Y_distance)
X_last_position = X
Y_last_position = Y
time_for_move = distance / feedrate
acceleration = (feedrate - initial_feedrate) / time_for_move
halfway_feedrate = initial_feedrate + acceleration * time_for_move / 2
duration = 0
if (halfway_feedrate == feedrate):
time_full_feedrate = (feedrate - initial_feedrate) / acceleration
distance_full_feedrate = (0.5 * (feedrate + initial_feedrate)) * time_full_feedrate
duration = time_full_feedrate * 2 + (distance - distance_full_feedrate * 2) / feedrate
else:
duration = (halfway_feedrate * 2 - initial_feedrate) / acceleration
total_duration += duration + extra_cost_per_movement
mod_minutes = total_duration % (60 * 60)
mod_seconds = mod_minutes % 60
print ("Estimated total duration (pessimistic): {0:02d}H{1:02d}M".format(int((total_duration - mod_minutes) / (60 * 60)), int((mod_minutes - mod_seconds) / 60)))
...@@ -2,6 +2,7 @@ ...@@ -2,6 +2,7 @@
import cmd, printcore, sys import cmd, printcore, sys
import glob, os, time import glob, os, time
import sys, subprocess import sys, subprocess
from math import sqrt
if os.name=="nt": if os.name=="nt":
try: try:
import _winreg import _winreg
...@@ -80,6 +81,70 @@ def totalelength(g): ...@@ -80,6 +81,70 @@ def totalelength(g):
tot+=cur tot+=cur
return tot return tot
def get_coordinate_value(axis, parts):
for i in parts:
if (axis in i):
return float(i[1:])
return None
def estimate_duration(g):
extra_cost_per_movement = 0.05
total_duration = 0
fallback_feedrate = 0
initial_feedrate = 0
X_last_position = 0
Y_last_position = 0
for i in g:
if "G1" in i and ("X" in i or "Y" in i or "F" in i):
parts = i.split(" ")
X = get_coordinate_value("X", parts[1:])
Y = get_coordinate_value("Y", parts[1:])
F = get_coordinate_value("F", parts[1:])
if (X is None and Y is None and F is not None):
fallback_feedrate = F
continue
feedrate = 0
if (F is None):
feedrate = fallback_feedrate / 60
else:
feedrate = F / 60
distance = 0
if (X is not None and Y is None):
distance = X - X_last_position
X_last_position = X
elif (X is None and Y is not None):
distance = Y - Y_last_position
Y_last_position = Y
elif (X is not None and Y is not None):
X_distance = X - X_last_position
Y_distance = Y - Y_last_position
distance = sqrt(X_distance * X_distance + Y_distance * Y_distance)
X_last_position = X
Y_last_position = Y
time_for_move = distance / feedrate
acceleration = (feedrate - initial_feedrate) / time_for_move
halfway_feedrate = initial_feedrate + acceleration * time_for_move / 2
duration = 0
if (halfway_feedrate == feedrate):
time_full_feedrate = (feedrate - initial_feedrate) / acceleration
distance_full_feedrate = (0.5 * (feedrate + initial_feedrate)) * time_full_feedrate
duration = time_full_feedrate * 2 + (distance - distance_full_feedrate * 2) / feedrate
else:
duration = (halfway_feedrate * 2 - initial_feedrate) / acceleration
total_duration += duration + extra_cost_per_movement
mod_minutes = total_duration % (60 * 60)
mod_seconds = mod_minutes % 60
return "{0:02d}H{1:02d}M".format(int((total_duration - mod_minutes) / (60 * 60)), int((mod_minutes - mod_seconds) / 60))
class Settings: class Settings:
#def _temperature_alias(self): return {"pla":210,"abs":230,"off":0} #def _temperature_alias(self): return {"pla":210,"abs":230,"off":0}
......
...@@ -1164,6 +1164,7 @@ class PronterWindow(wx.Frame,pronsole.pronsole): ...@@ -1164,6 +1164,7 @@ class PronterWindow(wx.Frame,pronsole.pronsole):
print _("the print goes from"),Xmin,_("mm to"),Xmax,_("mm in X\nand is"),Xtot,_("mm wide\n") print _("the print goes from"),Xmin,_("mm to"),Xmax,_("mm in X\nand is"),Xtot,_("mm wide\n")
print _("the print goes from"),Ymin,_("mm to"),Ymax,_("mm in Y\nand is"),Ytot,_("mm wide\n") print _("the print goes from"),Ymin,_("mm to"),Ymax,_("mm in Y\nand is"),Ytot,_("mm wide\n")
print _("the print goes from"),Zmin,_("mm to"),Zmax,_("mm in Z\nand is"),Ztot,_("mm high\n") print _("the print goes from"),Zmin,_("mm to"),Zmax,_("mm in Z\nand is"),Ztot,_("mm high\n")
print _("Estimated duration (pessimistic): "), pronsole.estimate_duration(self.f)
self.gviz.clear() self.gviz.clear()
self.gwindow.p.clear() self.gwindow.p.clear()
for i in self.f: for i in self.f:
......
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