def calc_star_system_positions(shape, size):
"""
Calculates list of positions (x, y) for a given galaxy shape,
number of systems and width
Uses universe generator helper functions provided by the API
"""
# calculate typical width for universe based on number of systems
width = fo.calc_typical_universe_width(size)
if shape in [fo.galaxyShape.elliptical, fo.galaxyShape.irregular]:
width *= 1.4
elif shape == fo.galaxyShape.disc:
width *= 1.2
print "Set universe width to", width
fo.set_universe_width(width)
positions = fo.SystemPositionVec()
if shape == fo.galaxyShape.random:
shape = choice(shapes)
print "Creating", shape, "galaxy shape"
if shape == fo.galaxyShape.spiral2:
spiral_galaxy_calc_positions(positions, 2, size, width)
elif shape == fo.galaxyShape.spiral3:
spiral_galaxy_calc_positions(positions, 3, size, width)
elif shape == fo.galaxyShape.spiral4:
spiral_galaxy_calc_positions(positions, 4, size, width)
elif shape == fo.galaxyShape.elliptical:
elliptical_galaxy_calc_positions(positions, size, width)
elif shape == fo.galaxyShape.disc:
disc_galaxy_calc_positions(positions, size, width)
elif shape == fo.galaxyShape.cluster:
# Typically a galaxy with 100 systems should have ~5 clusters
avg_clusters = size / 20
if avg_clusters < 2:
avg_clusters = 2
# Add a bit of random variation (+/- 20%)
clusters = randint((avg_clusters * 8) / 10, (avg_clusters * 12) / 10)
if clusters >= 2:
cluster_galaxy_calc_positions(positions, clusters, size, width)
elif shape == fo.galaxyShape.ring:
ring_galaxy_calc_positions(positions, size, width)
elif shape == fo.galaxyShape.irregular:
irregular_galaxy_calc_positions(positions, size, width)
# Check if any positions have been calculated...
if not positions:
# ...if not, fall back on box shape
box_galaxy_calc_positions(positions, size, width)
# to avoid having too much "extra space" around the system positions of our galaxy map, recalculate the universe
# width and shift all positions accordingly
width, positions = recalc_universe_width(positions)
print "Set universe width to", width
fo.set_universe_width(width)
return positions
def calc_star_system_positions(shape, size):
"""
Calculates list of positions (x, y) for a given galaxy shape,
number of systems and width
Uses universe generator helper functions provided by the API
"""
# calculate typical width for universe based on number of systems
width = fo.calc_typical_universe_width(size)
if shape == fo.galaxyShape.irregular2:
width *= 1.4
if shape == fo.galaxyShape.elliptical:
width *= 1.4
print "Set universe width to", width
fo.set_universe_width(width)
positions = fo.SystemPositionVec()
if shape == fo.galaxyShape.random:
shape = random.choice(shapes)
if shape == fo.galaxyShape.spiral2:
fo.spiral_galaxy_calc_positions(positions, 2, size, width, width)
elif shape == fo.galaxyShape.spiral3:
fo.spiral_galaxy_calc_positions(positions, 3, size, width, width)
elif shape == fo.galaxyShape.spiral4:
fo.spiral_galaxy_calc_positions(positions, 4, size, width, width)
elif shape == fo.galaxyShape.elliptical:
fo.elliptical_galaxy_calc_positions(positions, size, width, width)
elif shape == fo.galaxyShape.cluster:
# Typically a galaxy with 100 systems should have ~5 clusters
avg_clusters = size / 20
if avg_clusters < 2:
avg_clusters = 2
# Add a bit of random variation (+/- 20%)
clusters = random.randint((avg_clusters * 8) / 10,
(avg_clusters * 12) / 10)
if clusters >= 2:
fo.cluster_galaxy_calc_positions(positions, clusters, size, width,
width)
elif shape == fo.galaxyShape.ring:
fo.ring_galaxy_calc_positions(positions, size, width, width)
elif shape == fo.galaxyShape.irregular2:
irregular2_galaxy_calc_positions(positions, size, width)
# Check if any positions have been calculated...
if not positions:
# ...if not, fall back on irregular1 shape
fo.irregular_galaxy_positions(positions, size, width, width)
# to avoid having too much "extra space" around the system positions of our galaxy map, recalculate the universe
# width and shift all positions accordingly
width, positions = recalc_universe_width(positions)
print "Set universe width to", width
fo.set_universe_width(width)
return positions
def calc_star_system_positions(shape, size):
"""
Calculates list of positions (x, y) for a given galaxy shape,
number of systems and width
Uses universe generator helper functions provided by the API
"""
# calculate typical width for universe based on number of systems
width = fo.calc_typical_universe_width(size)
if shape == fo.galaxyShape.irregular2:
width *= 1.4
if shape == fo.galaxyShape.elliptical:
width *= 1.4
fo.set_universe_width(width)
print "Set universe width to", width
positions = fo.SystemPositionVec()
if shape == fo.galaxyShape.random:
shape = random.choice(shapes)
if shape == fo.galaxyShape.spiral2:
fo.spiral_galaxy_calc_positions(positions, 2, size, width, width)
elif shape == fo.galaxyShape.spiral3:
fo.spiral_galaxy_calc_positions(positions, 3, size, width, width)
elif shape == fo.galaxyShape.spiral4:
fo.spiral_galaxy_calc_positions(positions, 4, size, width, width)
elif shape == fo.galaxyShape.elliptical:
fo.elliptical_galaxy_calc_positions(positions, size, width, width)
elif shape == fo.galaxyShape.cluster:
# Typically a galaxy with 100 systems should have ~5 clusters
avg_clusters = size / 20
if avg_clusters < 2:
avg_clusters = 2
# Add a bit of random variation (+/- 20%)
clusters = random.randint((avg_clusters * 8) / 10, (avg_clusters * 12) / 10)
if clusters >= 2:
fo.cluster_galaxy_calc_positions(positions, clusters, size, width, width)
elif shape == fo.galaxyShape.ring:
fo.ring_galaxy_calc_positions(positions, size, width, width)
elif shape == fo.galaxyShape.irregular2:
irregular2_galaxy_calc_positions(positions, size, width)
# Check if any positions have been calculated...
if not positions:
# ...if not, fall back on irregular1 shape
fo.irregular_galaxy_positions(positions, size, width, width)
return positions
