def process(color):
if self.biome is Biome.barren_ice_caps:
return randomize_color(
blend_colors(color, Biome.barren_ice_caps.color))
return randomize_color(color)
def process(color):
r_color = randomize_color(color)
if self.biome is Biome.volcanic_molten_river:
b_color = Biome.volcanic_molten_river.color_satellite
return randomize_color(blend_colors(b_color, r_color))
return randomize_color(r_color)
def color_satellite(self):
hex_grid = self.grid
map_type = self.grid.params.get('map_type')
if map_type is MapType.terran or map_type is MapType.oceanic:
# if self.has_feature(HexFeature.lake):
# return 0, 20, 170
# if self.is_land:
# colors = [h.biome.color for h in self.bubble(distance=2) if h.is_land]
# colors.append(self.biome.color)
# # colors is an array of 3-tuple colors
# mul = 1 / len(colors)
# avg_r = round(sum([mul * c[0] for c in colors]))
# avg_g = round(sum([mul * c[1] for c in colors]))
# avg_b = round(sum([mul * c[2] for c in colors]))
# return avg_r, avg_g, avg_b
if self.has_feature(HexFeature.glacier):
return randomize_color(Biome.arctic.color_satellite)
if self.is_land:
return randomize_color(lighten(self.biome.color_satellite,
0.9))
# water
for level, color in TERRAN_OCEAN_SATELLITE:
if self.altitude < self.grid.sealevel + level:
return random.choice(color)
return random.choice(TERRAN_OCEAN_SATELLITE[-1][1])
elif map_type is MapType.glacial:
for level, color in GLACIAL_SATELLITE:
if self.altitude < self.grid.sealevel + level:
return randomize_color(color)
return randomize_color(GLACIAL_SATELLITE[-1][1])
elif map_type is MapType.volcanic:
if self.biome is Biome.volcanic_liquid:
return random.choice(VOLCANIC_LIQUID)
else:
def process(color):
r_color = randomize_color(color)
if self.biome is Biome.volcanic_molten_river:
b_color = Biome.volcanic_molten_river.color_satellite
return randomize_color(blend_colors(b_color, r_color))
return randomize_color(r_color)
for level, color in VOLCANIC_SATELLITE:
if self.altitude < self.grid.sealevel + level:
return process(color)
return process(VOLCANIC_SATELLITE[-1][1])
else:
if self.is_water:
for level, color in TERRAN_OCEAN_SATELLITE:
if self.altitude < self.grid.sealevel + level:
return random.choice(color)
return random.choice(TERRAN_OCEAN_SATELLITE[-1][1])
# land
if self.grid.params.get('pressure') < 0.003:
color_list = BARREN_SATELLITE
elif self.biome is Biome.barren_wet:
color_list = BARREN_WET
else:
color_list = DUSTY_BARREN_SATELLITE
def process(color):
if self.biome is Biome.barren_ice_caps:
return randomize_color(
blend_colors(color, Biome.barren_ice_caps.color))
return randomize_color(color)
for level, color in color_list:
if self.altitude < self.grid.sealevel + level:
return process(color)
return process(color)
def process(color):
if self.biome is Biome.barren_ice_caps:
return randomize_color(blend_colors(color, Biome.barren_ice_caps.color))
return randomize_color(color)
def process(color):
r_color = randomize_color(color)
if self.biome is Biome.volcanic_molten_river:
b_color = Biome.volcanic_molten_river.color_satellite
return randomize_color(blend_colors(b_color, r_color))
return randomize_color(r_color)
def color_satellite(self):
hex_grid = self.grid
map_type = self.grid.params.get('map_type')
if map_type is MapType.terran or map_type is MapType.oceanic:
# if self.has_feature(HexFeature.lake):
# return 0, 20, 170
# if self.is_land:
# colors = [h.biome.color for h in self.bubble(distance=2) if h.is_land]
# colors.append(self.biome.color)
# # colors is an array of 3-tuple colors
# mul = 1 / len(colors)
# avg_r = round(sum([mul * c[0] for c in colors]))
# avg_g = round(sum([mul * c[1] for c in colors]))
# avg_b = round(sum([mul * c[2] for c in colors]))
# return avg_r, avg_g, avg_b
if self.has_feature(HexFeature.glacier):
return randomize_color(Biome.arctic.color_satellite)
if self.is_land:
return randomize_color(lighten(self.biome.color_satellite, 0.9))
# water
for level, color in TERRAN_OCEAN_SATELLITE:
if self.altitude < self.grid.sealevel + level:
return random.choice(color)
return random.choice(TERRAN_OCEAN_SATELLITE[-1][1])
elif map_type is MapType.glacial:
for level, color in GLACIAL_SATELLITE:
if self.altitude < self.grid.sealevel + level:
return randomize_color(color)
return randomize_color(GLACIAL_SATELLITE[-1][1])
elif map_type is MapType.volcanic:
if self.biome is Biome.volcanic_liquid:
return random.choice(VOLCANIC_LIQUID)
else:
def process(color):
r_color = randomize_color(color)
if self.biome is Biome.volcanic_molten_river:
b_color = Biome.volcanic_molten_river.color_satellite
return randomize_color(blend_colors(b_color, r_color))
return randomize_color(r_color)
for level, color in VOLCANIC_SATELLITE:
if self.altitude < self.grid.sealevel + level:
return process(color)
return process(VOLCANIC_SATELLITE[-1][1])
else:
if self.is_water:
for level, color in TERRAN_OCEAN_SATELLITE:
if self.altitude < self.grid.sealevel + level:
return random.choice(color)
return random.choice(TERRAN_OCEAN_SATELLITE[-1][1])
# land
if self.grid.params.get('pressure') < 0.003:
color_list = BARREN_SATELLITE
elif self.biome is Biome.barren_wet:
color_list = BARREN_WET
else:
color_list = DUSTY_BARREN_SATELLITE
def process(color):
if self.biome is Biome.barren_ice_caps:
return randomize_color(blend_colors(color, Biome.barren_ice_caps.color))
return randomize_color(color)
for level, color in color_list:
if self.altitude < self.grid.sealevel + level:
return process(color)
return process(color)
