ISEL_CNC.py 5.6 KB

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  1. # ########################################################## ##
  2. # FlatCAM: 2D Post-processing for Manufacturing #
  3. # http://flatcam.org #
  4. # File Author: Matthieu Berthomé #
  5. # Date: 5/26/2017 #
  6. # MIT Licence #
  7. # ########################################################## ##
  8. from FlatCAMPostProc import *
  9. class ISEL_CNC(FlatCAMPostProc):
  10. coordinate_format = "%.*f"
  11. feedrate_format = '%.*f'
  12. def start_code(self, p):
  13. units = ' ' + str(p['units']).lower()
  14. coords_xy = p['xy_toolchange']
  15. gcode = ''
  16. xmin = '%.*f' % (p.coords_decimals, p['options']['xmin'])
  17. xmax = '%.*f' % (p.coords_decimals, p['options']['xmax'])
  18. ymin = '%.*f' % (p.coords_decimals, p['options']['ymin'])
  19. ymax = '%.*f' % (p.coords_decimals, p['options']['ymax'])
  20. if str(p['options']['type']) == 'Geometry':
  21. gcode += '(TOOL DIAMETER: ' + str(p['options']['tool_dia']) + units + ')\n'
  22. gcode += '(Feedrate: ' + str(p['feedrate']) + units + '/min' + ')\n'
  23. if str(p['options']['type']) == 'Geometry':
  24. gcode += '(Feedrate_Z: ' + str(p['z_feedrate']) + units + '/min' + ')\n'
  25. gcode += '(Feedrate rapids ' + str(p['feedrate_rapid']) + units + '/min' + ')\n' + '\n'
  26. gcode += '(Z_Cut: ' + str(p['z_cut']) + units + ')\n'
  27. if str(p['options']['type']) == 'Geometry':
  28. if p['multidepth'] is True:
  29. gcode += '(DepthPerCut: ' + str(p['z_depthpercut']) + units + ' <=>' + \
  30. str(math.ceil(abs(p['z_cut']) / p['z_depthpercut'])) + ' passes' + ')\n'
  31. gcode += '(Z_Move: ' + str(p['z_move']) + units + ')\n'
  32. gcode += '(Z Toolchange: ' + str(p['z_toolchange']) + units + ')\n'
  33. if coords_xy is not None:
  34. gcode += '(X,Y Toolchange: ' + "%.*f, %.*f" % (p.decimals, coords_xy[0],
  35. p.decimals, coords_xy[1]) + units + ')\n'
  36. else:
  37. gcode += '(X,Y Toolchange: ' + "None" + units + ')\n'
  38. gcode += '(Z Start: ' + str(p['startz']) + units + ')\n'
  39. gcode += '(Z End: ' + str(p['z_end']) + units + ')\n'
  40. gcode += '(Steps per circle: ' + str(p['steps_per_circle']) + ')\n'
  41. if str(p['options']['type']) == 'Excellon' or str(p['options']['type']) == 'Excellon Geometry':
  42. gcode += '(Preprocessor Excellon: ' + str(p['pp_excellon_name']) + ')\n' + '\n'
  43. else:
  44. gcode += '(Preprocessor Geometry: ' + str(p['pp_geometry_name']) + ')\n' + '\n'
  45. gcode += '(X range: ' + '{: >9s}'.format(xmin) + ' ... ' + '{: >9s}'.format(xmax) + ' ' + units + ')\n'
  46. gcode += '(Y range: ' + '{: >9s}'.format(ymin) + ' ... ' + '{: >9s}'.format(ymax) + ' ' + units + ')\n\n'
  47. gcode += '(Spindle Speed: %s RPM)\n' % str(p['spindlespeed'])
  48. gcode += 'G71\n'
  49. gcode += 'G90\n'
  50. gcode += 'G94\n'
  51. return gcode
  52. def startz_code(self, p):
  53. if p.startz is not None:
  54. return 'G00 Z' + self.coordinate_format%(p.coords_decimals, p.startz)
  55. else:
  56. return ''
  57. def lift_code(self, p):
  58. return 'G00 Z' + self.coordinate_format%(p.coords_decimals, p.z_move)
  59. def down_code(self, p):
  60. return 'G01 Z' + self.coordinate_format%(p.coords_decimals, p.z_cut)
  61. def toolchange_code(self, p):
  62. f_plunge = p.f_plunge
  63. no_drills = 1
  64. toolC_formatted = '%.*f' % (p.decimals, p.toolC)
  65. if str(p['options']['type']) == 'Excellon':
  66. for i in p['options']['Tools_in_use']:
  67. if i[0] == p.tool:
  68. no_drills = i[2]
  69. gcode = """
  70. M05
  71. T{tool}
  72. M06
  73. (MSG, Change to Tool Dia = {toolC} ||| Total drills for tool T{tool} = {t_drills})
  74. M01""".format(tool=int(p.tool), t_drills=no_drills, toolC=toolC_formatted)
  75. if f_plunge is True:
  76. gcode += '\nG00 Z%.*f' % (p.coords_decimals, p.z_move)
  77. return gcode
  78. else:
  79. gcode = """
  80. M05
  81. T{tool}
  82. M06
  83. (MSG, Change to Tool Dia = {toolC})
  84. M01""".format(tool=int(p.tool), toolC=toolC_formatted)
  85. if f_plunge is True:
  86. gcode += '\nG00 Z%.*f' % (p.coords_decimals, p.z_move)
  87. return gcode
  88. def up_to_zero_code(self, p):
  89. return 'G01 Z0'
  90. def position_code(self, p):
  91. return ('X' + self.coordinate_format + ' Y' + self.coordinate_format) % \
  92. (p.coords_decimals, p.x, p.coords_decimals, p.y)
  93. def rapid_code(self, p):
  94. return ('G00 ' + self.position_code(p)).format(**p)
  95. def linear_code(self, p):
  96. return ('G01 ' + self.position_code(p)).format(**p)
  97. def end_code(self, p):
  98. coords_xy = p['xy_toolchange']
  99. gcode = ('G00 Z' + self.feedrate_format %(p.fr_decimals, p.z_end) + "\n")
  100. if coords_xy is not None:
  101. gcode += 'G00 X{x} Y{y}'.format(x=coords_xy[0], y=coords_xy[1]) + "\n"
  102. return gcode
  103. def feedrate_code(self, p):
  104. return 'G01 F' + str(self.feedrate_format %(p.fr_decimals, p.feedrate))
  105. def z_feedrate_code(self, p):
  106. return 'G01 F' + str(self.feedrate_format %(p.fr_decimals, p.z_feedrate))
  107. def spindle_code(self, p):
  108. sdir = {'CW': 'M03', 'CCW': 'M04'}[p.spindledir]
  109. if p.spindlespeed:
  110. return '%s S%s' % (sdir, str(p.spindlespeed))
  111. else:
  112. return sdir
  113. def dwell_code(self, p):
  114. if p.dwelltime:
  115. return 'G4 P' + str(p.dwelltime)
  116. def spindle_stop_code(self,p):
  117. return 'M05'