def initialize(self):
"""Use this function to setup your bot before the game starts."""
self.GRAPHICS = True
#Initialized a graphical representation of work and the graph.
#Makes 88x50 graph with adjacent squares having edges.
#CALLS regressions2.make_graph to do this.
regressions2.make_graph(self)
regressions2.update_graph(self)
if self.GRAPHICS:
regressions2.initialize_graphics(self)
#Calculate initial probability distribution for location of enemies.
#Show initial gui graphics.
regressions2.update_graphics_probability(self, mode = "p_enemy")
self.visualizer.tick()
self.verbose = True
self.counter = 0
#Used to store bots current command.
self.bots = {}
for bot in self.game.team.members:
self.bots[bot.name] = {}
self.bots[bot.name]["command"] = None
# Classifier: Structured as {commands.Attack : (regression0, coefficient0), (regression1, coefficient1}... commands.Defend : (regression0.....)}
self.classifier = self.classifierGenerator()
print 'DONE initializing'
def initialize(self):
"""Use this function to setup your bot before the game starts."""
self.GRAPHICS = True
#Initialized a graphical representation of work and the graph.
#Makes 88x50 graph with adjacent squares having edges.
#CALLS regressions2.make_graph to do this.
regressions2.make_graph(self)
regressions2.update_graph(self)
if self.GRAPHICS:
regressions2.initialize_graphics(self)
#Calculate initial probability distribution for location of enemies.
#Show initial gui graphics.
regressions2.update_graphics_probability(self, mode="p_enemy")
self.visualizer.tick()
self.verbose = True
self.counter = 0
#Used to store bots current command.
self.bots = {}
for bot in self.game.team.members:
self.bots[bot.name] = {}
self.bots[bot.name]["command"] = None
# Classifier: Structured as {commands.Attack : (regression0, coefficient0), (regression1, coefficient1}... commands.Defend : (regression0.....)}
self.classifier = self.classifierGenerator()
print 'DONE initializing'
def graphics_tick(self):
if self.GRAPHICS:
regressions2.update_graphics_probability(self, mode=self.GRAPHICS)
self.visualizer.tick()
elif self.DRAW_POINTS:
regressions2.draw_points(self, self.points)
self.visualizer.tick()
self.visibilities.fill(0)
def graphics_tick(self):
if self.GRAPHICS:
regressions2.update_graphics_probability(self, mode = self.GRAPHICS)
self.visualizer.tick()
elif self.DRAW_POINTS:
regressions2.draw_points(self, self.points)
self.visualizer.tick()
self.visibilities.fill(0)
def initialize(self):
"""Use this function to setup your bot before the game starts."""
self.points = []
self.verbose = True
self.counter = 0
self.enemies = {}
self.botID = None
self.HOLD_RATE = 10
self.COMMAND_RATE = 35
self.AVAIL_RATE = 3
self.SUICIDE_CHECK_RATE = 4
#Number of ticks between storage of enemy position for extrapolation.
self.EXTRAP_STORE_RATE = 15
#Used to tell whether the bot is calculating actions.
self.computing = False
#Used to store bots current command.
self.bots = {}
for bot in self.game.team.members:
self.bots[bot.name] = {}
self.bots[bot.name]["command"] = None
self.bots[bot.name]["last_command_time"] = -5.0
self.bots[bot.name]["visibility"] = set()
# Classifier: Structured as {commands.Attack : (regression0, coefficient0), (regression1, coefficient1}... commands.Defend : (regression0.....)}
self.classifier = self.classifierGenerator()
#GRAPHICS LOGIC
#Toggles graphics to desired display. Must be off to submit!!!
## self.GRAPHICS = "p_enemy"
## self.GRAPHICS = "p_enemy_sight"
## self.GRAPHICS = "p_enemy_fire"
## self.GRAPHICS = "ambush"
## self.GRAPHICS = "pheremone"
## self.GRAPHICS = "exit_path"
## self.GRAPHICS = "camp_target"
## self.GRAPHICS = "choke_covered"
## self.GRAPHICS = "camp_location"
self.GRAPHICS = False
#Toggles drawing helper points.
## self.DRAW_POINTS = "extrap"
self.DRAW_POINTS = "flanking"
## self.DRAW_POINTS = "camp"
## self.DRAW_POINTS = False
#Refactoring functional self variables here for easy tweaking.
#At what distance do we cut off speculation on an enemy's location?
self.MAX_ENEMY_DISTANCE = 25
#Variable used in enemy_belief to determine how many points to do sight calcs on.
self.TOTAL_FS_NODES = 13
#Determines minimum probability of an enemy being in a node for it to be evaluated.
self.MINIMUM_ENEMY_PROB = 0.01
#Initialized a graphical representation of work and the graph.
#Makes 88x50 graph with adjacent squares having edges.
#CALLS regressions2.make_graph to do this.
regressions2.make_graph(self)
## regressions2.calculate_control_main_route2(self)
self.camp_positions = spawn_camp.calculate_spawn_camp(self)
regressions2.update_graph(self)
if self.GRAPHICS or self.DRAW_POINTS:
regressions2.initialize_graphics(self)
#Calculate initial probability distribution for location of enemies.
#Show initial gui graphics.
regressions2.update_graphics_probability(self, mode=self.GRAPHICS)
self.visualizer.tick()
print 'DONE initializing'
def initialize(self):
"""Use this function to setup your bot before the game starts."""
self.points = []
self.verbose = True
self.counter = 0
self.enemies = {}
self.botID = None
self.HOLD_RATE = 10
self.COMMAND_RATE = 35
self.AVAIL_RATE = 3
self.SUICIDE_CHECK_RATE = 4
#Number of ticks between storage of enemy position for extrapolation.
self.EXTRAP_STORE_RATE = 15
#Used to tell whether the bot is calculating actions.
self.computing = False
#Used to store bots current command.
self.bots = {}
for bot in self.game.team.members:
self.bots[bot.name] = {}
self.bots[bot.name]["command"] = None
self.bots[bot.name]["last_command_time"] = -5.0
self.bots[bot.name]["visibility"] = set()
# Classifier: Structured as {commands.Attack : (regression0, coefficient0), (regression1, coefficient1}... commands.Defend : (regression0.....)}
self.classifier = self.classifierGenerator()
#GRAPHICS LOGIC
#Toggles graphics to desired display. Must be off to submit!!!
## self.GRAPHICS = "p_enemy"
## self.GRAPHICS = "p_enemy_sight"
## self.GRAPHICS = "p_enemy_fire"
## self.GRAPHICS = "ambush"
## self.GRAPHICS = "pheremone"
## self.GRAPHICS = "exit_path"
## self.GRAPHICS = "camp_target"
## self.GRAPHICS = "choke_covered"
## self.GRAPHICS = "camp_location"
self.GRAPHICS = False
#Toggles drawing helper points.
## self.DRAW_POINTS = "extrap"
self.DRAW_POINTS = "flanking"
## self.DRAW_POINTS = "camp"
## self.DRAW_POINTS = False
#Refactoring functional self variables here for easy tweaking.
#At what distance do we cut off speculation on an enemy's location?
self.MAX_ENEMY_DISTANCE = 25
#Variable used in enemy_belief to determine how many points to do sight calcs on.
self.TOTAL_FS_NODES = 13
#Determines minimum probability of an enemy being in a node for it to be evaluated.
self.MINIMUM_ENEMY_PROB = 0.01
#Initialized a graphical representation of work and the graph.
#Makes 88x50 graph with adjacent squares having edges.
#CALLS regressions2.make_graph to do this.
regressions2.make_graph(self)
## regressions2.calculate_control_main_route2(self)
self.camp_positions = spawn_camp.calculate_spawn_camp(self)
regressions2.update_graph(self)
if self.GRAPHICS or self.DRAW_POINTS:
regressions2.initialize_graphics(self)
#Calculate initial probability distribution for location of enemies.
#Show initial gui graphics.
regressions2.update_graphics_probability(self, mode = self.GRAPHICS)
self.visualizer.tick()
print 'DONE initializing'
def graphics_tick(self):
if self.GRAPHICS == True:
regressions2.update_graphics_probability(self, mode = "p_enemy_fire")
self.visualizer.tick()
def graphics_tick(self):
if self.GRAPHICS == True:
regressions2.update_graphics_probability(self, mode="p_enemy_fire")
self.visualizer.tick()