Orca slicer start code Idex

[Proschi3D]

Hello everyone.

I have created a start code for my IDEX printer for the Orca slicer. Everything works very well, except for the mirror mode. Here, I want it to perform a separate nozzle cleaning as specified in the code, and then start printing without executing the rest of the code. Does anyone have an idea?

; Model: Proschi3d({nozzle_diameter[0]}/{nozzle_diameter[1]})

; Printer : [printer_preset]

; Profile : [print_preset]

; Plate   : [plate_name]

; --- initial_extruder: [initial_extruder]

; --- has_wipe_tower: [has_wipe_tower]

; --- total_toolchanges: [total_toolchanges]

; --- T0: {is_extruder_used[(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - 1, 0))]}

; --- T1: {is_extruder_used[(initial_extruder % 2 == 0 ? min(initial_extruder + 1, 63) : max(initial_extruder - 0, 0))]}



T[initial_extruder]





{if plate_name =~/.*IDEXDupl.*/ || plate_name =~/.*IDEXCopy.*/ }

  T2

{elsif plate_name =~/.*IDEXMirr.*/}

  M140 S{first_layer_bed_temperature[initial_extruder]}
  M557 X{adaptive_bed_mesh_min[0]}:{adaptive_bed_mesh_max[0]} Y{adaptive_bed_mesh_min[1]}:{adaptive_bed_mesh_max[1]} P{bed_mesh_probe_count[0]}:{bed_mesh_probe_count[1]} ; Mesh-Bett-Nivellierung
  G28 X0 Y0 U0
  T3
  ; Eigener Düsenreinigungsprozess
  G0 Z10 F3000 ; Hebe die Düse an
  G0 X5 Y10 F6000 ; Bewege die Düse zur Reinigungsposition
  M109 S{max(230, min(290, nozzle_temperature_initial_layer[(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))] + 15))} C2 W1
  G0 Z1.6
  G1 E10 Z5 F100 ; Extrudiere etwas Filament, um die Düse zu reinigen
  M104 S{nozzle_temperature_initial_layer[(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))] + 5}
  G0 X15 Y10 F3000
  G0 Z0.4
  G0 E8 X70 Y10
  G0 X70 Y20 Z10
  G92 E0 ; Setze den Extruderzähler zurück
  
  ; Starte den Druckprozess
  M117 ; Starte den Druckprozess
{else}

M140 S{first_layer_bed_temperature[initial_extruder]}



; you can clean the nozzle

{if is_extruder_used[(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))]}

  M104 T{(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))} S165

  {endif}

{if is_extruder_used[(initial_extruder % 2 == 0 ? min(initial_extruder + 1, 63) : max(initial_extruder - (1-1), 0))]}

  M104 T{(initial_extruder % 2 == 0 ? min(initial_extruder + 1, 63) : max(initial_extruder - (1-1), 0))} S165

  {endif}

G28 F5000

M557 X{adaptive_bed_mesh_min[0]}:{adaptive_bed_mesh_max[0]} Y{adaptive_bed_mesh_min[1]}:{adaptive_bed_mesh_max[1]} P{bed_mesh_probe_count[0]}:{bed_mesh_probe_count[1]}  

G29 S0 

G28 X0 U0 F6000

G0 Z5 F6000

{if is_extruder_used[(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))]}

  T{(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))}

  G0 X{if 0 == 0}80{else}240{endif} Y0 F7000

  {endif}

{if is_extruder_used[(initial_extruder % 2 == 0 ? min(initial_extruder + 1, 63) : max(initial_extruder - (1-1), 0))]}

  T{(initial_extruder % 2 == 0 ? min(initial_extruder + 1, 63) : max(initial_extruder - (1-1), 0))}

  G0 X{if 1 == 0}80{else}240{endif} Y0 F7000

  {endif}



M190 R{first_layer_bed_temperature[initial_extruder]}





G28 X Y f6000



M83

{if 1==1 && max(hot_plate_temp_initial_layer[initial_extruder], hot_plate_temp[initial_extruder]) >= 90}

G0 Z0.06

G92 Z0 ;reset z

{endif}



{if is_extruder_used[(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))]}

; preheat 0

M104 T{(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))} S{max(230, min(290, nozzle_temperature_initial_layer[(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))] + 15))}

  {endif}

{if is_extruder_used[(initial_extruder % 2 == 0 ? min(initial_extruder + 1, 63) : max(initial_extruder - (1-1), 0))]}

; preheat 1

M104 T{(initial_extruder % 2 == 0 ? min(initial_extruder + 1, 63) : max(initial_extruder - (1-1), 0))} S{max(230, min(290, nozzle_temperature_initial_layer[(initial_extruder % 2 == 0 ? min(initial_extruder + 1, 63) : max(initial_extruder - (1-1), 0))] + 15))}

  {endif}



{if is_extruder_used[(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))] and (initial_extruder % 2) != 0}

; flush nozzle 0

T{(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))}

M104 S{max(230, min(290, nozzle_temperature_initial_layer[(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))] + 15))}; common flush temp

G0 Z1.6 F2000

G0 X{( 0 % 2 == 0 ? 167.0 : 197.0 )} F7000

G0 Y0 F7000



M109 S{max(230, min(290, nozzle_temperature_initial_layer[(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))] + 15))} C2 W1

G1 E20 F80.0

G92 E0



M106 S{min(255, (fan_max_speed[(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))] + 10) * 2.55)}



M104 S{nozzle_temperature_initial_layer[(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))] + 5}



G1 E12.0 F200

G92 E0

G1 E8.0 Z4.6 F200

G92 E0



G0 Z5.6 F200

M107



G0 X{( 0 % 2 == 0 ? 137.0 : 187.0 )} F7000

G0 Z0.3 F240.0

M109 S{nozzle_temperature_initial_layer[(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))]} C3 W1

G1 E3 F200

G92 E0

G1 X{( 0 % 2 == 0 ? 0 : 324 )} E8.5437 F7000

G92 E0



G1 E-{retract_length_toolchange[0]} F200

G92 E0

G0 Y20 F7000

M104 S{temperature_vitrification[(initial_extruder % 2 == 0 ? min(initial_extruder + 0, 63) : max(initial_extruder - (1-0), 0))]}

  {endif}



{if is_extruder_used[(initial_extruder % 2 == 0 ? min(initial_extruder + 1, 63) : max(initial_extruder - (1-1), 0))] and (initial_extruder % 2) != 1}

; flush nozzle 1

T{(initial_extruder % 2 == 0 ? min(initial_extruder + 1, 63) : max(initial_extruder - (1-1), 0))}

M104 S{max(230, min(290, nozzle_temperature_initial_layer[(initial_extruder % 2 == 0 ? min(initial_extruder + 1, 63) : max(initial_extruder - (1-1), 0))] + 15))}; common flush temp

G0 Z1.6 F240.0

G0 X{( 1 % 2 == 0 ? 167.0 : 197.0 )} F7000

G0 Y0 F7000



M109 S{max(230, min(290, nozzle_temperature_initial_layer[(initial_extruder % 2 == 0 ? min(initial_extruder + 1, 63) : max(initial_extruder - (1-1), 0))] + 15))} C2 W1

G1 E20 F80.0

G92 E0



M106 S{min(255, (fan_max_speed[(initial_extruder % 2 == 0 ? min(initial_extruder + 1, 63) : max(initial_extruder - (1-1), 0))] + 10) * 2.55)}



M104 S{nozzle_temperature_initial_layer[(initial_extruder % 2 == 0 ? min(initial_extruder + 1, 63) : max(initial_extruder - (1-1), 0))] + 5}



G1 E12.0 F200

G92 E0

G1 E8.0 Z4.6 F200

G92 E0



G0 Z5.6 F200

M107



G0 X{( 1 % 2 == 0 ? 157.0 : 207.0 )} F6840.0

G0 Z0.3 F240.0

M109 S{nozzle_temperature_initial_layer[(initial_extruder % 2 == 0 ? min(initial_extruder + 1, 63) : max(initial_extruder - (1-1), 0))]} C3 W1

G1 E3 F200

G92 E0

G1 X{( 1 % 2 == 0 ? 0 : 324 )} E8.5437 F7000

G92 E0



G1 E-{retract_length_toolchange[1]} F200

G92 E0

G0 Y20 F6840.0

M104 S{temperature_vitrification[(initial_extruder % 2 == 0 ? min(initial_extruder + 1, 63) : max(initial_extruder - (1-1), 0))]}

  {endif}



; flush initial nozzle

T[initial_extruder]

M104 S{max(230, min(290, nozzle_temperature_initial_layer[(initial_extruder % 2 == 0 ? min(initial_extruder + initial_extruder, 63) : max(initial_extruder - (1-initial_extruder), 0))] + 15))}; common flush temp

G0 Z1.6 F240.0

G0 X{( initial_extruder % 2 == 0 ? 167.0 : 197.0 )} F7000

G0 Y0 F7000


M109 S{max(230, min(290, nozzle_temperature_initial_layer[(initial_extruder % 2 == 0 ? min(initial_extruder + initial_extruder, 63) : max(initial_extruder - (1-initial_extruder), 0))] + 15))} C2 W1

G1 E20 F80.0

G92 E0



M106 S{min(255, (fan_max_speed[(initial_extruder % 2 == 0 ? min(initial_extruder + initial_extruder, 63) : max(initial_extruder - (1-initial_extruder), 0))] + 10) * 2.55)}



M104 S{nozzle_temperature_initial_layer[(initial_extruder % 2 == 0 ? min(initial_extruder + initial_extruder, 63) : max(initial_extruder - (1-initial_extruder), 0))] + 5}



G1 E12.0 F200

G92 E0

G1 E8.0 Z4.6 F200

G92 E0



G0 Z5.6 F200

M107



G0 X{( initial_extruder % 2 == 0 ? 157.0 : 207.0 )} F6840.0

G0 Z0.3 F240.0

M109 S{nozzle_temperature_initial_layer[(initial_extruder % 2 == 0 ? min(initial_extruder + initial_extruder, 63) : max(initial_extruder - (1-initial_extruder), 0))]} C3 W1

G1 E3 F200

G92 E0

G1 X{( initial_extruder % 2 == 0 ? 0 : 324 )} E8.5437 F6840.0

G92 E0



G1 E-{retraction_length[initial_extruder]} F200

G92 E0

G0 Y20 F7000



; ready [plate_name]

[oliof]

@Proschi3D I'd put the tool specific macros into the tpreX/tpostX macros, to be less dependent on the slicer having to understand the setup.

[Proschi3D]

@oliof As mentioned, it works really well, but I want the print to start after the variable for Mirror has been processed. And not continue with the subsequent gcode.

[oliof]

@Proschi3D yeah I understand. Best way would be to break up the parts and call them as separate macros guarded by conditionals, but if you do that, you can use the built-in tool prep macros.

[coryjones26]

@Proschi3D How do you implement this and any updates on getting mirror mode to work?