def load(file_in):
messages.colorBackground()
file_descriptor = open(file_in)
lines = file_descriptor.readlines()
global rows, cols
rows = len(lines) - 1
cols = len(lines[-1])
if settings[GENERATE_RANDOM_MAP]:
messages.say('generating random terrain', down=5)
randomlymodify(lines)
for line in lines:
print line[:cols]
file_descriptor.close()
tiles = []
for c in range(cols):
tiles.append([])
for r in range(rows):
# Essentially we used the character (e.g. 'Q') to access the
# dictionary entries (which are Tile object instances)
tiles[c].append(tile.tile[lines[r][c]])
# Notice that there is a transposition here.
return Room(tiles, lines)
def waitForEnter(hidemessage=0):
if not hidemessage:
messages.say("Press [enter] to continue", down=1)
pygame.display.flip()
clock = pygame.time.Clock()
while True:
clock.tick(60)
if pygame.event.get(pygame.QUIT):
global time_to_quit
time_to_quit = True
break
clicks.get_more_clicks()
if clicks.mouseups[0]:
break
key_states = pygame.key.get_pressed()
if key_states[pygame.K_RETURN]:
break
def waitForKey(key, message=0):
if message:
messages.say(message, down=1)
else:
print "saying Press " + pygame.key.name(key) + " to exit"
print "graphics.outline is", graphics.outline
messages.say("Press " + pygame.key.name(key) + " to exit", down=1)
pygame.display.flip()
clock = pygame.time.Clock()
while not pygame.event.get(pygame.QUIT):
clock.tick(60)
key_states = pygame.key.get_pressed()
if key_states[key]:
break
if pygame.event.get(pygame.QUIT):
global time_to_quit
time_to_quit = True
break
pygame.event.pump()
def visualize(self, surface):
background = pygame.Surface((graphics.screen_w, graphics.screen_h))
background.fill((0, 0, 0))
tosay = [
"left / right: turn around",
"up / down: move around",
"z: zoom out",
"x: zoom in",
"c: reset zoom",
"s: toggle negatives",
"l: toggle lines",
"p: toggle physics simulation",
"q: quit",
"o: back"
]
for i, message in enumerate(tosay):
messages.say(message, time=0, down=i, surface=background, color=[
255, 255, 255], size="small")
hscale = 700 / 4
vscale = 30
hoff = 100
voff = 100
sf = pygame.display.get_surface()
locations = {}
velocities = {}
scalefactor = 1
translation = matrix([0, 0, 0])
rotation = 0
for i, layer in enumerate(self.nodes):
for j in range(layer.shape[1]):
#locations[(i,j)] = matrix([i*hscale + hoff, j*vscale + voff])
locations[(i, j)] = matrix(
[i * 200, j * 10, random.random() * 10 - 5])
theta = random.random() * 2 * 3.1415926
velocities[
(i, j)] = 0.1 * matrix([math.cos(theta), math.sin(theta), random.random() * 2 - 1])
self.drawfromlocationtable(locations, sf, 1, translation)
#pygame.draw.circle(sf, (0, 255, 255), (100, 100), int(50 * random.random()) + 10, 1)
clock = pygame.time.Clock()
done = 0
currmax = self.evaluate(locations)
n = 0
simulatephysics = True
scalerate = 1.3
#a = raw_input('type "1" for low res, "2" for high res \n')
shownegatives = 1
showlines = 0
quit = 0
previous_key_states = []
key_downs = []
consecutive_no_improvement = 0
while not (done or pygame.event.get(pygame.QUIT)):
n += 1
clock.tick(60)
key_presses = pygame.event.get(pygame.KEYDOWN)
key_states = pygame.key.get_pressed()
if previous_key_states:
key_downs = [
new and not old for new, old in zip(key_states, previous_key_states)]
else:
previous_key_states = [0 for key in key_states]
key_downs = [0 for key in key_states]
if key_states[pygame.K_q]:
quit = 1
done = 1
if key_downs[pygame.K_s]:
shownegatives = not shownegatives
if key_downs[pygame.K_p]:
simulatephysics = not simulatephysics
if key_downs[pygame.K_l]:
showlines = not showlines
stepsize = 100
moving = False
if key_states[pygame.K_z]:
moving = True
scalefactor *= scalerate
avelocs(locations, scalefactor)
if key_states[pygame.K_x]:
moving = True
scalefactor /= scalerate
avelocs(locations, scalefactor)
if key_downs[pygame.K_c]:
moving = True
scalefactor = 1.0
translation *= 0
if key_states[pygame.K_UP]:
moving = True
translation[0, 1] -= stepsize
avelocs(locations, scalefactor)
if key_states[pygame.K_DOWN]:
moving = True
translation[0, 1] += stepsize
avelocs(locations, scalefactor)
pi = 3.1415926
if key_states[pygame.K_LEFT]:
moving = True
rotation += 0.05 * pi
#translation[0,0] -= stepsize
if key_states[pygame.K_RIGHT]:
moving = True
rotation -= 0.05 * pi
if simulatephysics and not moving:
'''
# random improvement
for _ in range(5):
oldlocations = deepcopy(locations)
for k in locations:
locations[k] += matrix(5 * np.random.random((1,3)) - 3)
if not (pygame.key.get_pressed()[pygame.K_z] or pygame.key.get_pressed()[pygame.K_x]):
scalefactor = scalefactor**0.8 * automaticscale(locations)**0.2
avelocs(locations,scalefactor)
new_value = self.evaluate(locations)
if new_value > currmax:
locations = oldlocations
currmax = new_value
consecutive_no_improvement = 0
else:
consecutive_no_improvement += 1
if consecutive_no_improvement > 1000:
simulatephysics = False'''
for i, layer in enumerate(self.nodes):
for j in range(layer.shape[1]):
locations[(i, j)] += velocities[(i, j)] * 100
self.computevelocities(velocities, locations)
for i, layer in enumerate(self.nodes):
for j in range(layer.shape[1]):
locations[(i, j)] += velocities[(i, j)] * 100
if not (pygame.key.get_pressed()[pygame.K_z] or pygame.key.get_pressed()[pygame.K_x]):
scalefactor = scalefactor**0.8 * \
automaticscale(locations)**0.2
avelocs(locations, scalefactor)
if all_nodes_stationary(velocities, scalefactor):
simulatephysics = False
for i, layer in enumerate(self.nodes):
for j in range(layer.shape[1]):
velocities[(i, j)] *= 0
detailed = 0
if 1 or n % 10 == 0 or key_states[pygame.K_SPACE]:
detailed = 1
activekeys = [pygame.K_l, pygame.K_s, pygame.K_z, pygame.K_c,
pygame.K_x, pygame.K_UP, pygame.K_DOWN, pygame.K_LEFT, pygame.K_RIGHT]
if 1 or simulatephysics or any(key_states[key] for key in activekeys):
sf.blit(background, (0, 0))
self.drawfromlocationtable(
locations, sf, scalefactor, translation, detailed, rotation, shownegatives, showlines, time=n)
#messages.say("scaling is " + str(scalefactor), 0, down = 20, size = "small")
pygame.display.flip()
if key_states[pygame.K_o]:
done = 1
previous_key_states = key_states[:]
return quit
def __init__(self, tiles, lines):
#generateringmap(80, 60, 20, 30)
self.lines = lines
graphics.extract_dimensions(self.lines)
nextmessage = 6
self.cols, self.rows = cols, rows
for i in range(rows):
for j in range(cols):
drawpoint(i, j, lines)
self.tiles = tiles
self.camera = 0
self.madness = 0
self.stasis = False
self.roomnumber = 0
self.signal_new_tree = 0
nextmessage = messages.say("reducing sides", 0, down=nextmessage)
self.reduce_sides()
nextmessage = messages.say("collision stuff", 0, down=nextmessage)
self.optimize_convexes()
if (DRAW_RANDOM_CIRCLES):
nextmessage = messages.say(
"computing density", 0, down=nextmessage)
self.compute_densities()
self.object_directory = [[[]
for r in range(rows)] for c in range(cols)]
self.background = pygame.Surface((graphics.world_w, graphics.world_h))
self.collisionfield = pygame.Surface(
(graphics.world_w, graphics.world_h))
self.bgw = graphics.world_w
self.bgh = graphics.world_h
self.a = 0
self.start_position = matrix([100, 100])
for r in range(rows):
for c in range(cols):
if self.lines[r][c] == '!':
self.start_position = matrix(
[bw * c + bw / 2, bh * r + bh / 2])
nextmessage = messages.say("drawing background", 0, down=nextmessage)
if TIME_INITIALIZATION:
backgroundstarttime = time.time()
# Note that this sets the start position to wherever the '!' is
self.draw(self.background)
self.background.convert()
self.draw(self.collisionfield, collision_only=1)
self.collisionfield.convert()
self.pixels = pygame.PixelArray(self.collisionfield)
if TIME_INITIALIZATION:
print "drawing background took", time.time() - backgroundstarttime, "seconds"
self.food = []
self.bees = []
self.deadbees = []
self.player = None
self.topbar = None
self.beehistory = 0
self.bestbees = []
self.timetosave = 100
self.h = None
self.dirtyareas = []
self.visibles = []
self.bullets = []
self.painter = palette.Palette()
self.recentdeaths = 0
self.freespots = [(r, c) for r in range(rows)
for c in range(cols) if self.lines[r][c] == " "]
# for r,c in self.freespots:
# pygame.draw.circle(self.background, [255, 255, 255], (int((c+0.5)*bw), int((r+0.5)*bh)), 10, 1)
nextmessage = messages.say("precomputing vision", 0, down=nextmessage)
self.precompute_vision()
def modify_setting(self):
if self.setting in want_bools:
settings[self.setting] = not settings[self.setting]
elif self.setting in want_ints and self.setting in max_val and self.setting in min_val:
settings[self.setting] += 1
if settings[self.setting] > max_val[self.setting]:
settings[self.setting] = min_val[self.setting]
else:
messages.colorBackground()
# messages.say("Pick a new value", down = 4)
allowed_keys = range(
pygame.K_0, pygame.K_9 + 1)
allowed_keys += [pygame.K_PERIOD]
allowed_keys += [pygame.K_e]
allowed_keys += [pygame.K_MINUS]
'''loop is for error checking'''
while True:
# message = messages.smallfont.render("Set new value for '%s'" % toChange, 1, [255, 255, 255])
# pygame.display.get_surface().blit(message, (600, 15 * (usedindex + 3)))
m = "Set new value for '%s'" % self.setting
position = pygame.Rect(0, 0, 290, 30)
# position.x = 600 #Leaning right
position.centerx = graphics.screen_w / 2
# position.y = 15 * (usedindex + 4.3)
# Leaning up
position.centery = graphics.screen_h / 2
out = getString(
allowed_keys, str(settings[self.setting]), textpos=position, message=m)
# out = getString(allowed_keys, str(settings[toChange]))
# quit
if out == -1:
break
# cancel
elif out == 0:
break
try:
val = 0
if "." in out:
val = float(out)
else:
val = int(out)
problems = problem_with_setting(
self.setting, val)
if problems:
messages.colorBackground()
messages.say(problems, down=4)
continue
settings[self.setting] = val
break
except:
messages.colorBackground()
messages.say(
"Error. Pick a new value", down=4)
save_settings()
self.needs_update = True
def getChoiceBounded(title, given_options, allowcancel=False):
'''Prompts you to choose one of the options. If the user clicks outside the box this returns None.'''
options = given_options[:]
if allowcancel:
options.append("cancel")
disp = pygame.display.get_surface()
bg = pygame.Surface((disp.get_width(), disp.get_height()))
bg.blit(disp, (0, 0))
clock = pygame.time.Clock()
currpos = 0
updateview = 1
hborder = 15
optiondisplay = pygame.Surface(
(min(300, graphics.screen_w - 2 * hborder), min(15 * (len(options) + 3), graphics.screen_h - 2 * hborder)))
selectionimage = pygame.Surface(
(optiondisplay.get_width() - 10, 50), flags=pygame.SRCALPHA)
box = pygame.Rect((0, 0), (selectionimage.get_width(), 15))
pygame.draw.rect(selectionimage, graphics.outline, box, 1)
smallsteps = 0
slowness = 6
previous_key_states = []
wet = 0
oldxy = (-1, -1)
# lean right
# dest = optiondisplay.get_rect(right = graphics.screen_w - 15, top = 15)
dest = optiondisplay.get_rect(
centerx=graphics.screen_w / 2, centery=graphics.screen_h / 2)
# list out options
messages.colorBackground(surface=optiondisplay)
messages.say(title, surface=optiondisplay, size="small")
messagecount = 1
for choice in options:
messagecount = messages.say(
choice, down=messagecount, surface=optiondisplay, size="small")
while True:
if pygame.event.get(pygame.QUIT):
print "quit from getChoiceUnbounded"
global time_to_quit
time_to_quit = True
return "quit"
clicks.get_more_clicks()
wet += 1
x, y = pygame.mouse.get_pos()
if oldxy != (x, y):
oldxy = x, y
i = (y - dest.y - 5) / 15 - 2
if 0 <= i < len(options):
if dest.left < x < dest.right and i != currpos:
currpos = i
updateview = 1
if updateview:
'''messages.colorBackground(surface = optiondisplay)
messages.say(title, surface = optiondisplay, size = "small")
messagecount = 1
for choice in options:
messagecount = messages.say(choice, down = messagecount, surface = optiondisplay, size = "small")'''
disp = pygame.display.get_surface()
optionx = hborder
optiony = graphics.screen_h - 15 * (len(options) + 4)
optionpos = optionx, optiony
# make it top right
# center the options
#dest = optiondisplay.get_rect(centerx = graphics.screen_w / 2, centery = graphics.screen_h / 2)
disp.blit(optiondisplay, dest, special_flags=0)
disp.blit(selectionimage, (dest.x + 5, dest.y + 35 + currpos * 15))
# pygame.display.flip()
pygame.display.update(dest)
updateview = 0
if clicks.mouseups[0]:
oldxy = x, y
i = (y - dest.y - 5) / 15 - 2
if 0 <= i < len(options) and dest.left < x < dest.right:
disp.blit(bg, (0, 0))
return options[currpos]
elif allowcancel:
disp.blit(bg, (0, 0))
return "cancel"
clock.tick(60)
'''stupid mac...'''
#key_presses = pygame.event.get()
key_states = pygame.key.get_pressed()
#event = pygame.event.poll()
# if event.type != pygame.NOEVENT:
# print event
# if event.type == pygame.KEYDOWN and event.key == pygame.K_UP:
if key_states[pygame.K_UP]:
smallsteps -= 1
if smallsteps == 0 or (previous_key_states and not previous_key_states[pygame.K_UP]):
smallsteps = slowness
currpos -= 1
currpos %= len(options)
updateview = 1
# if event.type == pygame.KEYDOWN and event.key == pygame.K_DOWN:
elif key_states[pygame.K_DOWN]:
smallsteps -= 1
if smallsteps == 0 or (previous_key_states and not previous_key_states[pygame.K_DOWN]):
smallsteps = slowness
currpos += 1
currpos %= len(options)
updateview = 1
elif key_states[pygame.K_RETURN] and (previous_key_states and not previous_key_states[pygame.K_RETURN]):
disp.blit(bg, (0, 0))
return options[currpos]
elif key_states[pygame.K_q]:
disp.blit(bg, (0, 0))
return
previous_key_states = key_states[:]
pygame.event.pump()
def main_loop():
print "\n" * 12 + "* * * * * NEW GAME * * * * *"
"""these things only need to happen once"""
screen = pygame.display.get_surface()
screen.fill(graphics.background)
load_settings()
messages.screen = screen
clock = pygame.time.Clock()
dt = 0
world, t, r = 0, 0, 0
loadedSavedGame = 0
if getChoiceUnbounded("Load saved game?", ["yes", "no"]) == "yes":
r = game_progress.load_game()
if r:
messages.say("Loading saved game", down=4)
pygame.display.flip()
world = pygame.Surface((graphics.world_w, graphics.world_h))
t = r.topbar
loadedSavedGame = 1
else:
"""these are level-specific"""
level = enteredlevel(allowcancel=0)
if level == "quit":
return
world, t, r = preparelevel(screen, level)
pygame.display.get_surface().fill((50, 50, 50))
p = player.Player(r)
# h = zoo.Beehive()
h = zoo.Beehive("the fact that any argument is passed here means that I'll load saved bees")
c = camera.Camera(p, world, screen, r)
c.jump_to_player()
# myfamilytree = familytree.FamilyTree()
myspeciesplot = species_visualization.SpeciesPlot()
# Generating new bees
# r.bees = h.preserved_bees(r, p)
if loadedSavedGame:
for b in r.bees:
b.player = p
else:
r.generate_bees(settings[MAXIMUM_BEES])
r.h = h
# for b in r.bees:
# b.randomize_position()
framecount = 0
previous_key_states = []
key_ups = []
global time_to_quit
info_panel = StackingPanel()
left = 0
top = 0
for family_name in game_settings.families:
family_panel = ShrinkingPanel(min_width=250)
top = 0
title = MessagePanel(family_name)
family_panel.children.append(title)
title.onclick.append(get_toggler(family_panel))
top += 30
for entry in game_settings.families[family_name]:
new_button = SettingButton(entry, y=top, typeface="DejaVu Sans", bold=True, italic=True, visible=False)
top += 20
family_panel.children.append(new_button)
left += family_panel.rect.w
info_panel.children.append(family_panel)
# we should never see reassignment of gameobjects!
gameobjects = {
"room": r,
"player": p,
"hive": h,
"camera": c,
"world": world,
"screen": screen,
"info_panel": info_panel,
}
info_panel.children.append(StatisticsPanel(gameobjects))
while not close(r): # Main game loop # Don't need cancel and quit works
if time_to_quit:
try:
print "Quitting indirectly at main loop. Saving room..."
game_progress.save_game(r)
break
except Exception:
print "Failed to save"
framecount += 1
test.begin_timing(test.segs, test.segdescriptors)
key_presses = pygame.event.get(pygame.KEYDOWN)
key_states = pygame.key.get_pressed()
if previous_key_states:
key_ups = [old and not new for new, old in zip(key_states, previous_key_states)]
else:
key_ups = [0 for x in key_states]
previous_key_states = key_states[:]
time_gap = handle_player_input(key_presses, key_ups, key_states, gameobjects)
r = gameobjects["room"]
c = gameobjects["camera"]
h = gameobjects["hive"]
world = gameobjects["world"]
screen = gameobjects["screen"]
p = gameobjects["player"]
if time_gap:
clock.tick(400)
dt = 0
mod = 20
# each bee updates once every mod frames
"""Update"""
for i, bee in enumerate(r.bees):
bee.slow = 1 # (i + framecount) % mod
test.add_sticky("main:playerupdate")
p.update(dt, key_states, key_presses)
test.remove_sticky("main:playerupdate")
for phys in r.food + r.bullets:
phys.update(dt, key_states, key_presses)
test.add_sticky("bee")
for b in r.bees:
b.update(dt, key_states, key_presses)
if b.request_family_tree_update:
updatefamilytree = 1
b.request_family_tree_update = 0
test.remove_sticky("bee")
screen.fill([0, 0, 0])
if settings[SHOW_FAMILY_TREE]:
test.add_sticky("tree")
# draw every frame, since the tree follows the player around
if settings[SPECIES_STYLE] == 3:
if not framecount % settings[TREE_UPDATE_TIME]:
myspeciesplot.update(r.bees + r.deadbees)
for b in r.deadbees:
if b.dead == 2:
r.deadbees.remove(b)
myspeciesplot.draw(
world, (int(p.xy[0, 0]) - myspeciesplot.w / 2, int(p.xy[0, 1]) - myspeciesplot.h / 2)
)
else:
# update once every few frames
if not framecount % settings[TREE_UPDATE_TIME]:
myspeciesplot.update(r.bees + r.deadbees)
myspeciesplot.draw(screen, (840, 0))
for b in r.deadbees:
if b.dead == 2:
r.deadbees.remove(b)
updatefamilytree = 0
if updatefamilytree:
myfamilytree.update(r.bees)
myfamilytree.draw(screen, (840, 0))
test.remove_sticky("tree")
test.add_sticky("room")
# Necessarily comes afterwards so that the bees can see the player
r.update()
test.remove_sticky("room")
"""
if r.signal_new_tree:
r.signal_new_tree = 0
myfamilytree.depth += 2*settings[TREE_V_SPACING]
test.remove_sticky('tree') ##########
"""
test.add_sticky("camera_update")
c.follow_player(dt) # Here so that room knows what to draw
c.updatesight()
test.remove_sticky("camera_update")
test.add_sticky("main:drawing")
test.add_sticky("main:drawing:test")
test.draw(world, r)
test.remove_sticky("main:drawing:test")
test.add_sticky("main:drawing:bee")
for x in r.bees:
x.draw(world)
test.remove_sticky("main:drawing:bee")
test.add_sticky("main:drawing:other")
for x in r.food + [p] + r.bullets:
x.draw(world)
test.remove_sticky("main:drawing:other")
# Time
dt = clock.tick(120) # used to be 120
# Make it seem like a slowed down version of 22fps if necessary
dt = min(dt, 45)
# print dt, "this is dt"
test.add_sticky("main:drawing:camera")
c.draw()
test.remove_sticky("main:drawing:camera")
info_panel.draw_to(screen)
"""
seconds = pygame.time.get_ticks() / 1000
t0 = ""
if settings[SPECIES_STYLE] == 1:
t0 += "Plotted on right: x: horizontal movement, y: generation"
elif settings[SPECIES_STYLE] == 2:
t0 += "Plotted on right: x: generation, y: vertical movement"
elif settings[SPECIES_STYLE] == 3:
t0 += "angle: direction, radius: generation"
t.permanent_text = [t0]
ta = "Time: " + str(seconds)
tb = " | current bees: " + str(len(r.bees))
tbb = " | total dead bees " + str(len(r.deadbees))
tc = " |" + str(int(clock.get_fps()))+"fps"
t.permanent_text += [
ta + tb + tbb + tc,]
if settings[SHOW_HELP]:
t.permanent_text += [
"click anywhere for options",
"plotted on right: Recent lifetimes, max is %s" % (max(t.data) if t.data else "not defined"),
"[a]: %s birth and deaths" % ("resume" if r.stasis else "pause"),
"[g]: generate bees",
"[e]: visualize paths of a random bee",
"[r]: %s eyes" % ("hide" if settings[SHOW_EYES] else "show"),
"[n]: %s names" % ("hide" if settings[SHOW_NAMES] else "show"),
"[m]: %s visual madness" % ("decrease" if r.madness == 2 else "increase"),
"[SPACE]: teleport to a random position",
"[t]: turn %s random map generation" % ("off" if settings[GENERATE_RANDOM_MAP] else "on"),
]
t.permanent_text.append("[h]: %s help" % ("hide" if settings[SHOW_HELP] else "show"))
t.draw(screen)"""
test.add_sticky("main:drawing:displayflip")
pygame.display.flip()
test.remove_sticky("main:drawing:displayflip")
test.remove_sticky("main:drawing")
for phys in r.bees + r.food + [p]:
phys.visible = c.can_see(phys)
test.summarizetimings(test.segs, test.segdescriptors)
# if framecount % 30 == 0:
# print int(clock.get_fps()), "fps"
pygame.event.pump()
def handle_player_input(key_presses, key_ups, key_states, gameobjects):
time_gap = False
try:
r = gameobjects["room"]
p = gameobjects["player"]
c = gameobjects["camera"]
world = gameobjects["world"]
h = gameobjects["hive"]
screen = gameobjects["screen"]
except:
raise Exception("Missing gameobjects. Have following keys:", [key for key in gameobjects])
clicks.get_more_clicks()
global time_to_quit
# Handle player input
if key_ups[pygame.K_e]:
if r.bees:
# for x in r.bees + r.food + [p] + r.bullets:
# x.draw(world)
# c.draw()
# pygame.display.flip()
"""this is for picking the closest bee"""
"""minbee = r.bees[0]
for b in r.bees:
if linalg.norm(b.xy - p.xy) < linalg.norm(minbee.xy - p.xy):
minbee = b"""
minbee = random.choice(r.bees)
messages.say("Loading", down=1)
pygame.display.flip()
minbee.visualize_intelligence(world, c)
p.displaycolor = [255, 255, 255]
pygame.draw.circle(world, [0, 0, 0], array(p.xy.astype(int))[0], int(p.forcefield))
pygame.draw.circle(world, [255, 255, 255], array(p.xy.astype(int))[0], int(p.forcefield), 1)
p.draw(world)
# c.xy = minbee.xy * 1
# c.updatesight()
c.draw()
pygame.display.flip()
minbee.sample_path(world)
c.draw()
pygame.display.flip()
waitForKey(pygame.K_w)
time_gap = True
if time_to_quit:
game_progress.save_game(r)
return
test.record()
world.blit(r.background, (0, 0))
test.record("blitting background")
togglers = {pygame.K_r: SHOW_EYES, pygame.K_h: SHOW_HELP, pygame.K_t: GENERATE_RANDOM_MAP, pygame.K_n: SHOW_NAMES}
for key, variable in togglers.iteritems():
if key_ups[key]:
settings[variable] = not settings[variable]
if key_ups[pygame.K_m]:
print framecount
r.madness += 1
r.madness %= 5
for b in r.bees:
b.madness = r.madness
if key_ups[pygame.K_a]:
if key_states[pygame.K_UP]:
p.shoot("up")
else:
p.shoot()
if key_ups[pygame.K_x]:
r.stasis = not r.stasis
if key_ups[pygame.K_z]:
print pygame.mouse.get_pos()
# gameobjects["info_panel"].handle_event(pygame.mouse.get_pos(), "mouseover")
"""All mouse click stuff"""
if clicks.mouseups[0]:
event_taken = False
if gameobjects["info_panel"].rect.collidepoint(pygame.mouse.get_pos()):
mx, my = pygame.mouse.get_pos()
x, y = mx - gameobjects["info_panel"].rect.x, my - gameobjects["info_panel"].rect.y
event_taken = gameobjects["info_panel"].handle_event((x, y), "click")
if not event_taken:
for b in r.bees:
b.skipupdate = True
options = [
"Move to another map",
"Random 60 x 25",
"Random 35 x 35",
"Random 60 x 60",
"Examine bee",
"Save bees",
"Extinction",
"Load bees",
"Delete bees",
"Tweak variables",
"Modify map",
"View Shortcuts",
"quit",
]
choice = getChoiceUnbounded("select option", options, allowcancel=1)
if choice != "cancel":
if choice == "quit":
time_to_quit = True
elif choice in ["Move to another map", "Random 60 x 25", "Random 35 x 35", "Random 60 x 60"]:
level = choice
if choice == "Move to another map":
level = enteredlevel()
if level == "quit":
time_to_quit = True
if level != "cancel":
print "MAGIC LEVEL MOVE WHOA"
gameobjects2 = {}
gameobjects2["room"] = r
gameobjects2["player"] = p
gameobjects2["hive"] = h
gameobjects2["camera"] = c
gameobjects2["world"] = world
gameobjects2["screen"] = screen
move_to_level(level, gameobjects2)
try:
r = gameobjects2["room"]
p = gameobjects2["player"]
c = gameobjects2["camera"]
world = gameobjects2["world"]
h = gameobjects2["hive"]
screen = gameobjects2["screen"]
except:
raise Exception("Missing gameobjects. Have following keys:", [key for key in gameobjects])
elif choice == "Extinction":
if getChoiceUnbounded("Kill all bees?", ["no", "yes"], allowcancel=1) == "yes":
for b in r.bees:
b.health = -20
for b in r.bees + r.deadbees:
b.dead = 2
t.data = []
elif choice == "Examine bee":
"""this thing lets you examine the closest bee to you"""
if r.bees:
minbee = r.bees[0]
for b in r.bees:
if linalg.norm(b.xy - p.xy) < linalg.norm(minbee.xy - p.xy):
minbee = b
for x in r.bees + r.food + [p] + r.bullets:
x.draw(world)
c.draw()
pygame.display.flip()
while not time_to_quit: # quit should work fine here
choice = getChoiceUnbounded(
"Examining nearest bee...what feature?",
["Neural Network", "Movement"],
allowcancel=True,
)
if choice == "Neural Network":
command = minbee.show_brain(world)
if command:
return
elif choice == "Movement":
c.draw()
messages.say("Loading", down=1)
pygame.display.flip()
minbee.visualize_intelligence(world, c)
minbee.sample_path(world)
c.draw()
pygame.display.flip()
elif choice == "cancel":
done = 1
break
elif choice == "quit":
time_to_quit = True
elif choice == "Save bees":
beemap = {}
beenames = []
for b in r.bees:
label = b.firstname + " " + b.name
beemap[label] = b
beenames.append(label)
choice = getChoiceUnbounded("Pick a bee", beenames, allowcancel=True)
if choice == "quit":
time_to_quit = True
elif choice != "cancel":
b = beemap[choice]
# messages.colorBackground()
# messages.say("Pick a new name for the bee", down = 4)
rename = b.name
"""loop is for error checks"""
while not time_to_quit:
rename = getString(string=b.name, message="Pick a new name for the bee")
# quit
if rename == -1:
break
# cancel
elif rename == 0:
break
elif any(specimen[0] == rename for specimen in h.specimens):
messages.colorBackground()
messages.say("Name taken. Pick a new name for the bee", down=4)
continue
else:
b.name = rename
break
h.save_bee(b)
h.savedata()
elif choice == "Load bees":
loadedbeenames = []
for b in h.specimens:
loadedbeenames.append(b[0])
loadedbeenames.append("done")
loadedbeenames = loadedbeenames[-1::-1]
i = 0
while not time_to_quit:
name = getChoiceUnbounded("Loaded " + str(i) + " bees", loadedbeenames, allowcancel=True)
if name in ["done", "quit", "cancel"]:
break
else:
i += 1
b = h.make_bee(name, r, p)
r.bees.append(b)
b.flash = 50
b.xy[0, 0] = p.xy[0, 0]
elif choice == "Delete bees":
i = 0
message = "Choose a bee to delete"
while not time_to_quit:
indexfromname = {}
loadedbeenames = []
for index, b in enumerate(h.specimens):
name = b[0]
loadedbeenames.append(name)
indexfromname[name] = index
loadedbeenames.append("done")
loadedbeenames = loadedbeenames[-1::-1]
if i:
message = "Deleted " + str(i) + " bees"
name = getChoiceUnbounded(message, loadedbeenames, allowcancel=True)
if name in ["quit", "done", "cancel"]:
break
else:
confirm = getChoiceUnbounded("Delete %s?" % name, ["no", "yes"], allowcancel=True)
if confirm != "yes":
continue
i += 1
indextoremove = indexfromname[name]
h.specimens = h.specimens[:indextoremove] + h.specimens[(indextoremove + 1) :]
elif choice == "Tweak variables":
families = game_settings.families
"""picking kinds of variables"""
while not time_to_quit:
family = getChoiceUnbounded("What kind of variable?", families.keys(), allowcancel=1)
if family == "cancel":
break
"""picking variable"""
while not time_to_quit:
"""takes "name: value" string to "name"."""
label_to_key = {key + ": " + str(settings[key]): key for key in families[family]}
"""this is a bunch of informative labels"""
options = [x for x in sorted(label_to_key.keys())]
toChange = getChoiceUnbounded("Pick a variable to modify", options, allowcancel=1)
if toChange == "cancel":
break
toChange = label_to_key[toChange]
if toChange in want_bools:
settings[toChange] = not settings[toChange]
continue
elif toChange in want_ints and toChange in max_val and toChange in min_val:
settings[toChange] += 1
if settings[toChange] > max_val[toChange]:
settings[toChange] = min_val[toChange]
continue
else:
"""we have the name of the variable we want to change now"""
usedindex = 0
for i, entry in enumerate(options):
if entry == toChange:
usedindex = i
# messages.colorBackground()
# messages.say("Pick a new value", down = 4)
allowed_keys = range(pygame.K_0, pygame.K_9 + 1)
allowed_keys += [pygame.K_PERIOD]
allowed_keys += [pygame.K_e]
allowed_keys += [pygame.K_MINUS]
"""loop is for error checking"""
while not time_to_quit:
# message = messages.smallfont.render("Set new value for '%s'" % toChange, 1, [255, 255, 255])
# pygame.display.get_surface().blit(message, (600, 15 * (usedindex + 3)))
m = "Set new value for '%s'" % toChange
position = pygame.Rect(0, 0, 290, 30)
# position.x = 600 #Leaning right
position.centerx = graphics.screen_w / 2
# position.y = 15 * (usedindex + 4.3)
# Leaning up
position.centery = graphics.screen_h / 2
out = getString(allowed_keys, str(settings[toChange]), textpos=position, message=m)
# out = getString(allowed_keys, str(settings[toChange]))
# quit
if out == -1:
break
# cancel
elif out == 0:
break
try:
val = 0
if "." in out:
val = float(out)
else:
val = int(out)
problems = problem_with_setting(toChange, val)
if problems:
messages.colorBackground()
messages.say(problems, down=4)
continue
settings[toChange] = val
break
except:
messages.colorBackground()
messages.say("Error. Pick a new value", down=4)
save_settings()
# for key, value in settings.iteritems():
# print key + ":", str(value)
if family == "quit" or time_to_quit:
time_to_quit = True
break
elif choice == "Modify map":
messages.colorBackground()
messages.say("This is where I would modify the map", 500)
elif choice == "View Shortcuts":
messages.colorBackground()
messagecount = 2
if settings[SHOW_EYES]:
messagecount = messages.say("[r]: Hide eyes", down=messagecount)
else:
messagecount = messages.say("[r]: Show eyes", down=messagecount)
if r.madness:
messagecount = messages.say("[m]: Don't draw trails", down=messagecount)
else:
messagecount = messages.say("[m]: Draw trails", down=messagecount)
if settings[GENERATE_RANDOM_MAP]:
messagecount = messages.say("[t]: Don't randomize maps when loading", down=messagecount)
else:
messagecount = messages.say("[t]: Randomize maps when loading", down=messagecount)
if r.stasis:
messagecount = messages.say("[a]: Resume deaths and births", down=messagecount)
else:
messagecount = messages.say("[a]: Pause deaths and births", down=messagecount)
messagecount = messages.say("[e]: Examine a random bee", down=messagecount)
messagecount = messages.say("Click anywhere to continue", down=messagecount)
waitForEnter(hidemessage=1)
if time_to_quit:
print "Saving game very rapidly, whee"
game_progress.save_game(r)
return
screen.fill(graphics.background)
# This is to trick the computer into thinking no time has passed
time_gap = True
gameobjects["player"] = p
gameobjects["room"] = r
gameobjects["world"] = world
gameobjects["camera"] = c
gameobjects["screen"] = screen
gameobjects["hive"] = h
return time_gap