Chậu Lan - Lưới Kiểu Bình Hoa

Đây là một mô hình được thiết kế với fullcontrol gcode.

Theo hướng dẫn tương tác từ github hoặc sử dụng một trong các tệp đã được slice sẵn của tôi (có các kích thước S, M và L), nhưng hãy nhớ thay đổi gcode bắt đầu và kết thúc!

#import packages

import fullcontrol as fc
from math import sin, cos, pi, tau, log1p

#design parameters

design_name = 'orchid_pot'
nozzle_temp = 230
bed_temp = 75
print_speed = 1200
fan_percent = 50
EH = 0.2 # extrusion heigth
EW = 0.5 # extrusion width
printer_name = 'prusa_i3'

# functional parameters
center_x = 125
center_y = 105
pot_heigth = 100 # heigth of the pot in mm
pot_diameter = 65 # base diamter of the pot
amplitude = 1.2 # amplitude of the ripples in mm
waves = int(pipot_diameter/(4amplitude)) # No. of ripples, calculated to match with the amplitude
segments = waves * 8 # makes sure each sine-wave consists of 8 points
stacked_waves = 5 # No. of ripples before the phase gets inverted
layers = int(pot_heigth/EH) # No. of layers calculated from extrusion heigth and pot heigth
base_layers = 4 # No. of solid layers

# aesthetic parameters
bulges = 7 # No. of bulges
bulge_depth = 3 # amplitude of bulges

# other parameters used for design generation
clockwise = bool(True)
flip = 1

steps = []

for i in range (base_layers):
steps.append(fc.Fan(speed_percent = i/base_layers * fan_percent))
current_z = EH + EHi
spiral_starting_radius = pot_diameter/2 + log1p(10(i/layers)) + amplitude
spiral_turns = int(spiral_starting_radius/EW)
steps.extend(fc.spiralXY(fc.Point(x = center_x, y = center_y, z = current_z), spiral_starting_radius, EW/2, tau, spiral_turns, 2000, clockwise))
steps.extend(fc.travel_to(fc.polar_to_point(fc.Point(x = center_x, y = center_y, z = current_z + EH), spiral_starting_radius, tau)))

if (clockwise == True):
clockwise = False
else:
clockwise = True

steps.append(fc.Fan(speed_percent = fan_percent))

for layer in range(base_layers, layers):
current_z = EH + EH*layer
steps.extend(fc.travel_to(fc.Point(z = current_z)))

if ((layer - base_layers) % stacked_waves == 0):
flip = flip * (-1)
for k in range(segments):

current_ripple = flipamplitudesin(tauwavesk/segments)
current_bulge = bulge_depth * (layer/layers) * sin(tau * bulges * k/segments + 0.5 * tau * (layer/layers))

if (layer < layers-3):
current_radius = (pot_diameter/2 + current_ripple + current_bulge) + 2bulge_depthlog1p(10*((layer/layers)))
else:
steps.append(fc.ExtrusionGeometry(width=1.5))
steps.append(fc.Printer(print_speed=300))
current_radius = (pot_diameter/2 + current_bulge) + 2bulge_depthlog1p(10*((layer/layers)))

current_angle = tau * k / segments
steps.append(fc.polar_to_point(fc.Point(x=center_x, y =center_y, z = current_z), current_radius, current_angle))

fc.transform(steps, 'plot', fc.PlotControls(color_type='print_sequence'))
#fc.transform(steps, 'plot', fc.PlotControls(color_type='print_sequence', style="line"))

gcode_controls = fc.GcodeControls(
printer_name=printer_name,
save_as=design_name,
initialization_data={
'primer': 'front_lines_then_y',
'print_speed': print_speed,
'nozzle_temp': nozzle_temp,
'bed_temp': bed_temp,
'fan_percent': fan_percent,
'extrusion_width': EW,
'extrusion_height': EH})
gcode = fc.transform(steps, 'gcode', gcode_controls)