示例#1
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 def pick_fireangle(self, x, y, speedx, speedy, angle):
     origin = Point2(x, y)
     delta = Point2(speedx, speedy)
     leftangle = Matrix3.new_rotate(pi / 2)
     rightangle = Matrix3.new_rotate(-pi / 2)
     targetleft = origin + leftangle * delta * 100
     targetright = origin + rightangle * delta * 100
     left = LineSegment2(origin, targetleft)
     right = LineSegment2(origin, targetright)
     dleft = dright = 10000000
     for w in self.walls:
         ileft = w.intersect(left)
         if ileft:
             dleft = min(dleft, ileft.distance(origin))
         iright = w.intersect(right)
         if iright:
             dright = min(dright, iright.distance(origin))
     if max(dleft, dright) < 35:
         return
     COMPENSATE = pi / 8
     if dleft > dright:
         targetleft = Matrix3.new_rotate(COMPENSATE) * targetleft
         result = relative_angle(x, y, targetleft.x, targetleft.y, angle)
     else:
         targetright = Matrix3.new_rotate(-COMPENSATE) * targetright
         result = relative_angle(x, y, targetright.x, targetright.y, angle)
     return result
示例#2
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    def messageReceived(self, msg):
        msg = bunchify(msg)

        if 'status' in msg:
            targets = [obj for obj in msg.proximity
                       if obj.object_type == 'player']

            if targets:
                my_pos= Point2(*msg.gps.position)
                # rotate aiming to the target
                t = targets[0]
                t_pos = Point2(t.position[0] + t.velocity[0] * POS_PER_VEL,
                               t.position[1] + t.velocity[1] * POS_PER_VEL)

                turn = relative_angle(my_pos.x, my_pos.y,
                                      t_pos.x, t_pos.y,
                                      msg.gps.angle)

            else:
                # rotate a tick to the right
                turn = 0.1

            # do the rotation and shoot
            self.command('turn', value=turn)
            self.command('fire')
示例#3
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 def follow(self, my_position, enemy_position, my_angle):
     angle_relat = relative_angle(my_position[0],
                                  my_position[1],
                                  enemy_position[0],
                                  enemy_position[1],
                                  my_angle)
     self.command("turn", value=angle_relat)
示例#4
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 def walk_the_park(self, gps):
     x, y = gps['position']
     angle = gps['angle']
     if self.steps % 20 == 0:
         self.dx, self.dy = self.get_new_destination(gps)
     turn = relative_angle(x, y, self.dx, self.dy, angle)
     return turn, 1
示例#5
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    def messageReceived(self, message):
        if message['type'] == 'sensor' and message.get('gps', False):
            gps = message['gps']
            x, y = message['gps']['position']
            angle = message['gps']['angle']
            fire = 0

            # Butterfly
            if far_from_center(gps):
                if looking_center(gps):
                    throttle = 1
                else:
                    throttle = 0
                turn = relative_angle(x, y, 50, 50, angle)
            else:
                turn = 1
                fire = 1
                if random() < 0.3:
                    throttle = 1
                else:
                    throttle = 0

            # Speed control
            if too_fast(gps) and not looking_center(gps):
                throttle = 0

            if too_slow(gps):
                throttle = 1

            # Lock-on
            closer_player = get_closer_player(message)
            if closer_player:
                px, py = closer_player['position']
                turn = relative_angle(x, y, px, py, angle)
                if should_fire(closer_player, turn):
                    fire = 1
                else:
                    fire = 0

            if point_defense(message):
                fire = 1

            self.command("throttle", value=throttle)
            self.command("turn", value=turn)
            if fire:
                self.command("fire")
示例#6
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 def get_new_destination(self, gps):
     x, y = gps['position']
     angle = gps['angle']
     shuffle(self.directions)
     for d in self.directions:
         pdx, pdy = x + d[0], y + d[1]
         if not self.collides(x, y, pdx, pdy) \
                 and math.fabs(relative_angle(x, y, pdx, pdy, angle)) < 4:
             return pdx, pdy
     return self.directions[0]
示例#7
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def point_defense(message):
    myxy = message['gps']['position']
    angle = message['gps']['angle']
    for obj in message.get('proximity', []):
        if obj['object_type'] in ['bullet']:
            pxy = obj['position']
            d = distance(myxy, pxy)
            a = relative_angle(myxy[0], myxy[1], pxy[0], pxy[1], angle)
            if d < 2 and a < 2:
                return True
    return False
示例#8
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 def smart_turn(self):
     if self.message['type'] == 'sensor':
         currentx = self.message['gps']['position'][0]
         currenty = self.message['gps']['position'][1]
         currentangle = self.message['gps']['angle']
         for x in self.message['proximity']:
             if x['object_type'] == 'player':
                 targetx = x['position'][0]
                 targety = x['position'][1]
                 break
         return relative_angle(currentx, currenty, targetx, targety, currentangle)
示例#9
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    def point_and_shoot(self, target):
        # where to aim
        vel_modifier = 1
        if target.object_type == 'player':
            vel_modifier = 0.1
        elif target.object_type == 'bullet':
            vel_modifier = 0.2
        aim_at = predict_pos(target.position, target.velocity, vel_modifier)

        turn = relative_angle(self.pos.x, self.pos.y,
                              aim_at.x, aim_at.y,
                              self.angle)
        # aim and shoot
        self.command('turn', value=turn)
        self.command('fire')
示例#10
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 def butterfly(self, gps):
     if far_from_center(gps):
         if looking_center(gps):
             throttle = 1
         else:
             throttle = 0
             turn = relative_angle(x, y, 50, 50, angle)
     else:
         turn = 1
         fire = 1
         if random() < 0.3:
             throttle = 1
         else:
             throttle = 0
     return turn, throttle
示例#11
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 def messageReceived(self, message):
     if message.get('type') == 'sensor':
         self.command("throttle", value=1)
         tracking = False
         x, y = message['gps']['position']
         angle = message['gps']['angle']
         for obj in message.get('proximity', []):
             if obj['object_type'] in ['powerup', 'player']:
                 tracking = True
                 trackx, tracky = obj['position']
                 turn = relative_angle(x, y, trackx, tracky, angle)
                 self.command('turn', value=turn)
                 if obj['object_type'] == 'player':
                     self.command("fire")
                 break
         if not tracking and random() < 0.2:
             self.command("fire")
             self.command("turn", value=1)
示例#12
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 def messageReceived(self, message):
     if message.get("type") == "sensor":
         self.command("throttle", value=1)
         tracking = False
         x, y = message["gps"]["position"]
         angle = message["gps"]["angle"]
         for obj in message.get("proximity", []):
             if obj["object_type"] in ["powerup", "player"]:
                 tracking = True
                 trackx, tracky = obj["position"]
                 turn = relative_angle(x, y, trackx, tracky, angle)
                 self.command("turn", value=turn)
                 if obj["object_type"] == "player":
                     self.command("fire")
                 break
         if not tracking and random() < 0.2:
             self.command("fire")
             self.command("turn", value=1)
示例#13
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    def messageReceived(self, message):
        if message['type'] == 'map_description':
            self.map = message

        if message['type'] == 'sensor' and message.get('gps', False):
            self.steps += 1
            gps = message['gps']
            x, y = message['gps']['position']
            angle = message['gps']['angle']
            fire = 0

            # Butterfly
            # turn, throttle = self.butterfly(gps)

            #turn, throttle = self.navigate(gps)

            turn, throttle = self.walk_the_park(gps)

            # Speed control
            if too_fast(gps) and not looking_center(gps):
                throttle = 0

            if too_slow(gps):
                throttle = 1

            # Lock-on
            closer_player = self.get_closer_player(message)
            if closer_player:
                px, py = closer_player['position']
                turn = relative_angle(x, y, px, py, angle)
                if should_fire(closer_player, turn):
                    fire = 1
                else:
                    fire = 0

            if point_defense(message):
                fire = 1

            self.command("throttle", value=throttle)
            self.command("turn", value=turn)
            if fire:
                self.command("fire")
示例#14
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 def look_to(self, target):
     turn = relative_angle(self.pos.x, self.pos.y,
         target.x, target.y, self.angle)
     self.command('turn', value=turn)
示例#15
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def looking_center(gps):
    x, y = gps['position']
    angle = gps['angle']
    return math.fabs(relative_angle(x, y, 50, 50, angle)) < 5
示例#16
0
    def parse_sensor(self, message):
        if 'gps' not in message:
            return
        x, y = message['gps']['position']
        angle = message['gps']['angle']
        speedx, speedy = message['gps']['velocity']
        # Increase visited tile count
        self.visit(x, y)

        objs = message.get('proximity', [])
        bullets = self.filter_visible(objs, x, y, 'bullet')
        bullets = [b for b in bullets if self.is_incoming(x, y, b)]
        players = self.filter_visible(objs, x, y, 'player')
        powerups = self.filter_visible(objs, x, y, 'powerup')
        if players:
            #~ print "Firing at player"
            obj = players[0]
            trackx, tracky = obj['position']
            trackspeedx, trackspeedy = obj['velocity']
            d = dist(x, y, trackx, tracky)
            turn = relative_angle(x, y, trackx, tracky, angle)
            self.command('turn', value=turn)
            self.guesstimate = Guesstimate(trackx, tracky, trackspeedx, trackspeedy)
            self.command("fire")
        elif bullets:
            #~ print "Firing at bullet"
            obj = bullets[0]
            trackx, tracky = obj['position']
            trackspeedx, trackspeedy = obj['velocity']
            d = sqrt((x - trackx)**2 + (y - tracky)**2)
            turn = relative_angle(x, y, trackx, tracky, angle)
            self.command('turn', value=turn)
            self.command("fire")
        elif powerups:
            #~ print "Grabbing powerup"
            obj = powerups[0]
            trackx, tracky = obj['position']
            trackspeedx, trackspeedy = obj['velocity']
            d = sqrt((x - trackx)**2 + (y - tracky)**2)
            # (x + speedx, y + speedy) here, to compensate the "orbit" effect
            turn = relative_angle(
                x + speedx * d / 70, y + speedy * d / 70,
                trackx, tracky, angle)
            self.command('turn', value=turn)
            self.command("throttle", value=1)
            #~ else:
                #~ print obj
        elif self.guesstimate and self.guesstimate.certainty > 0:
            #~ print "Firing at a guesstimate", self.guesstimate.certainty
            turn = relative_angle(x, y, self.guesstimate.x, self.guesstimate.y, angle)
            self.command('turn', value=turn)
            self.command("fire")
            self.guesstimate.step()
        else:
            #~ print "No guesstimate"
            # Pick a good next exploration tile
            if self.going is None or not self.has_line_of_fire(x, y, self.going.x, self.going.y):
                options = [t for t in self.tiles
                            if self.has_line_of_fire(x, y, t.x, t.y)]
                if not options:
                    return
                options.sort(key=lambda x: x.visits)
                options = [o for o in options if o.visits == options[0].visits]
                #~ print "Options:", options
                self.going = max(options, key=lambda t:t.distance_to(x, y))
            speed = speedx**2 + speedy**2
            speedangle = atan2(speedy, speedx)
            targetangle = atan2(self.going.y - y, self.going.x - x)
            #~ print speed, angle, speedangle
            divergence = (targetangle - speedangle) % TWO_PI
            divergence = min(divergence, TWO_PI - divergence)
            if speed > 500 and divergence < 0.1:
                #~ print "Firing at random"
                fireangle = self.pick_fireangle(x, y, speedx, speedy, angle)
                if fireangle is not None:
                    self.command("turn", value=fireangle)
                    if abs(fireangle) < 1:
                        self.command('fire')  # Take that!
            else:
                #~ if speed <= 1590:
                    #~ print "Not bang because speed = %.3f" % speed
                #~ elif divergence >= 0.1:
                    #~ print "Not bang because divergence = %.3f" % divergence
                #~ else:
                    #~ print "EH!? OGG WANT BANG!!1! Y U NO BANG!??!?1!?"
                #~ print "Going to", self.going
                turn = relative_angle(x, y, self.going.x + speedx, self.going.y + speedy, angle)
                self.command("throttle", value=1)
                self.command("turn", value=turn)