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Seminar-HFO
Commit da6a441f authored by drallensmith's avatar drallensmith
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Cleaned up - exploration scripts need a lot of work to use for anything else [ci skip]

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example/explore_offense_actions.twoplayer.py deleted 100755 → 0
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#!/usr/bin/env python
"""
This is a script to explore what actions are available under what circumstances,
plus testing out feedback and the use of two players controlled by the same script
but two (coordinated) processes.
"""
from __future__ import print_function
# encoding: utf-8
import argparse
#import functools
import itertools
import math
import multiprocessing
import multiprocessing.sharedctypes
import os
import random
import struct
import subprocess
import sys
import time
import warnings
try:
import hfo
except ImportError:
print('Failed to import hfo. To install hfo, in the HFO directory'\
' run: \"pip install .\"')
exit()
HALF_FIELD_WIDTH = 68 # y coordinate
HALF_FIELD_FULL_WIDTH = HALF_FIELD_WIDTH * 1.2
HALF_FIELD_LENGTH = 52.5 # x coordinate
HALF_FIELD_FULL_LENGTH = HALF_FIELD_LENGTH * 1.2
GOAL_WIDTH = 14.02
MAX_RADIUS = math.sqrt(((HALF_FIELD_WIDTH/2)**2) + (HALF_FIELD_LENGTH**2)) # not actually correct, but works...
ERROR_TOLERANCE = math.pow(sys.float_info.epsilon,0.25)
POS_ERROR_TOLERANCE = 0.05
MAX_REAL_X_VALID = 1.1*HALF_FIELD_LENGTH
MIN_REAL_X_VALID = -0.1*HALF_FIELD_LENGTH
MAX_REAL_Y_VALID = 1.1*(HALF_FIELD_WIDTH/2)
MIN_REAL_Y_VALID = -1.1*(HALF_FIELD_WIDTH/2)
def unnormalize(pos, min_val, max_val, silent=False):
assert max_val > min_val
if (not silent) and (abs(pos) > 1.0+ERROR_TOLERANCE):
print("Pos {0:n} fed to unnormalize (min_val {1:n}, max_val {2:n})".format(
pos, min_val, max_val), file=sys.stderr)
sys.stderr.flush()
pos = min(1.0,max(-1.0,pos))
top = (pos - -1.0)/(1 - -1.0)
bot = max_val - min_val
return (top*bot) + min_val
def get_y_unnormalized(y_pos, silent=False):
y_pos_real = unnormalize(y_pos, MIN_REAL_Y_VALID, MAX_REAL_Y_VALID, silent=silent)
est_y_pos = get_y_normalized(y_pos_real, silent=silent)
if abs(y_pos - est_y_pos) > POS_ERROR_TOLERANCE:
raise RuntimeError(
"Bad denormalization/normalization of {0:n} to {1:n}; reverse {2:n}".format(
y_pos, y_pos_real, est_y_pos))
return y_pos_real
def get_x_unnormalized(x_pos, silent=False):
x_pos_real = unnormalize(x_pos, MIN_REAL_X_VALID, MAX_REAL_X_VALID, silent=silent)
est_x_pos = get_x_normalized(x_pos_real, silent=silent)
if abs(x_pos - est_x_pos) > POS_ERROR_TOLERANCE:
raise RuntimeError(
"Bad denormalization/normalization of {0:n} to {1:n}; reverse {2:n}".format(
x_pos, x_pos_real, est_x_pos))
return x_pos_real
def normalize(pos, min_val, max_val, silent=False):
assert max_val > min_val
top = (pos - min_val)/(max_val - min_val)
bot = 1.0 - -1.0
num = (top*bot) + -1.0
if abs(num) > 1.0+POS_ERROR_TOLERANCE:
if abs(num) > 1.1:
raise RuntimeError("Pos {0:n} gives normalized num {1:n} (min_val {2:n}, max_val {3:n})".format(
pos, num, min_val, max_val))
elif not silent:
print(
"Pos {0:n} gives normalized num {1:n} (min_val {2:n}, max_val {3:n})".format(
pos, num, min_val, max_val), file=sys.stderr)
sys.stderr.flush()
return min(1.0,max(-1.0,num))
def get_y_normalized(y_pos, silent=False):
y_pos_norm = normalize(y_pos, MIN_REAL_Y_VALID, MAX_REAL_Y_VALID, silent=silent)
## est_y_pos = get_y_unnormalized(y_pos_norm, silent=silent)
## if abs(y_pos - est_y_pos) > POS_ERROR_TOLERANCE:
## raise RuntimeError("Bad normalization/denormalization of {0:n} to {1:n}; reverse {2:n}".format(
## y_pos, y_pos_norm, est_y_pos))
return y_pos_norm
def get_x_normalized(x_pos, silent=False):
return normalize(x_pos, MIN_REAL_X_VALID, MAX_REAL_X_VALID, silent=silent)
GOAL_POS_X = get_x_normalized(HALF_FIELD_LENGTH)
GOAL_TOP_POS_Y = get_y_normalized(-1*(GOAL_WIDTH/2))
GOAL_BOTTOM_POS_Y = get_y_normalized(GOAL_WIDTH/2)
MAX_POS_Y_BALL_SAFE = get_y_normalized(HALF_FIELD_WIDTH/2) - POS_ERROR_TOLERANCE
MIN_POS_Y_BALL_SAFE = get_y_normalized(-0.5*HALF_FIELD_WIDTH) + POS_ERROR_TOLERANCE
MAX_POS_X_BALL_SAFE = get_x_normalized(HALF_FIELD_LENGTH) - POS_ERROR_TOLERANCE
MIN_POS_X_BALL_SAFE = get_x_normalized(0) + POS_ERROR_TOLERANCE
MAX_POS_X_OK = 1.0 - ERROR_TOLERANCE
MIN_POS_X_OK = -1.0 + ERROR_TOLERANCE
MAX_POS_Y_OK = MAX_POS_X_OK
MIN_POS_Y_OK = MIN_POS_X_OK
def get_dist_real(ref_x, ref_y, src_x, src_y, silent=False):
ref_x_real = get_x_unnormalized(ref_x, silent=silent)
ref_y_real = get_y_unnormalized(ref_y, silent=silent)
src_x_real = get_x_unnormalized(src_x, silent=silent)
src_y_real = get_y_unnormalized(src_y, silent=silent)
return math.sqrt(math.pow((ref_x_real - src_x_real),2) +
math.pow((ref_y_real - src_y_real),2))
def get_dist_from_real(ref_x_real, ref_y_real, src_x_real, src_y_real):
return math.sqrt(math.pow((ref_x_real - src_x_real),2) +
math.pow((ref_y_real - src_y_real),2))
def get_dist_normalized(ref_x, ref_y, src_x, src_y):
return math.sqrt(math.pow((ref_x - src_x),2) +
math.pow(((HALF_FIELD_WIDTH/HALF_FIELD_LENGTH)*(ref_y - src_y)),2))
#Instead of adding six as a dependency, this code was copied from the six implementation.
#six is Copyright (c) 2010-2015 Benjamin Peterson
if sys.version_info[0] >= 3:
def iterkeys(d, **kw):
return iter(d.keys(**kw))
def iteritems(d, **kw):
return iter(d.items(**kw))
def itervalues(d, **kw):
return iter(d.values(**kw))
else:
def iterkeys(d, **kw):
return iter(d.iterkeys(**kw))
def iteritems(d, **kw):
return iter(d.iteritems(**kw))
def itervalues(d, **kw):
return iter(d.itervalues(**kw))
INTENT_BALL_COLLISION = 0
INTENT_BALL_KICKABLE = 1
INTENT_GOAL_COLLISION = 2
INTENT_PLAYER_COLLISION = 3
INTENT_RANDOM_MANEUVER = 4
INTENT_DICT = {INTENT_BALL_COLLISION: 'INTENT_BALL_COLLISION',
INTENT_BALL_KICKABLE: 'INTENT_BALL_KICKABLE',
INTENT_GOAL_COLLISION: 'INTENT_GOAL_COLLISION',
INTENT_PLAYER_COLLISION: 'INTENT_PLAYER_COLLISION',
INTENT_RANDOM_MANEUVER: 'INTENT_RANDOM_MANEUVER'}
BIT_LIST_LEN = 8
STRUCT_PACK = "BH"
def get_dist_from_proximity(proximity, max_dist=MAX_RADIUS):
proximity_real = unnormalize(proximity, 0.0, 1.0)
dist = (1 - proximity_real)*max_dist
if (dist > (max_dist+ERROR_TOLERANCE)) or (dist <= (-1.0*ERROR_TOLERANCE)):
warnings.warn("Proximity {0:n} gives dist {1:n} (max_dist {2:n})".format(proximity,dist,max_dist))
return min(max_dist,max(0,dist))
def get_proximity_from_dist(dist, max_dist=MAX_RADIUS):
if dist > (max_dist+ERROR_TOLERANCE):
print("Dist {0:n} is above max_dist {1:n}".format(dist, max_dist), file=sys.stderr)
sys.stderr.flush()
proximity_real = min(1.0, max(0.0, (1.0 - (dist/max_dist))))
return normalize(proximity_real, 0.0, 1.0)
# MAX_GOAL_DIST - may wish to work out...
def get_angle(sin_angle,cos_angle):
if max(abs(sin_angle),abs(cos_angle)) <= sys.float_info.epsilon:
warnings.warn(
"Unable to accurately determine angle from sin_angle {0:n} cos_angle {1:n}".format(
sin_angle, cos_angle))
return None
angle = math.degrees(math.atan2(sin_angle,cos_angle))
if angle < 0:
angle += 360
return angle
def get_abs_angle(body_angle,rel_angle):
if (body_angle is None) or (rel_angle is None):
return None
angle = body_angle + rel_angle
while angle >= 360:
angle -= 360
if angle < 0:
if abs(angle) <= ERROR_TOLERANCE:
return 0.0
warnings.warn("Bad body_angle {0:n} and/or rel_angle {1:n}".format(body_angle,rel_angle))
return None
return angle
def get_angle_diff(angle1, angle2):
return min(abs(angle1 - angle2),abs(angle1 - angle2 - 360),abs(angle2 - angle1 - 360))
def reverse_angle(angle):
angle += 180
while angle >= 360:
angle -= 360
return angle
def get_abs_x_y_pos(abs_angle, dist, self_x_pos, self_y_pos, warn=True, of_what=""):
poss_xy_pos_real = {}
max_deviation_xy_pos_real = {}
total_deviation_xy_pos_real = {}
dist_xy_pos_real = {}
self_x_pos_real = get_x_unnormalized(self_x_pos)
self_y_pos_real = get_y_unnormalized(self_y_pos)
start_string = ""
if of_what:
start_string = of_what + ': '
for angle in [(abs_angle-1),(abs_angle+1),abs_angle]:
angle_radians = math.radians(angle)
sin_angle = math.sin(angle_radians)
cos_angle = math.cos(angle_radians)
est_x_pos_real = (cos_angle*dist) + self_x_pos_real
est_y_pos_real = (sin_angle*dist) + self_y_pos_real
if ((MIN_REAL_X_VALID*(1-POS_ERROR_TOLERANCE))
<= est_x_pos_real <=
(MAX_REAL_X_VALID*(1+POS_ERROR_TOLERANCE))) and ((MIN_REAL_Y_VALID*(1-POS_ERROR_TOLERANCE))
<= est_y_pos_real <=
(MAX_REAL_Y_VALID*(1+POS_ERROR_TOLERANCE))):
poss_xy_pos_real[angle] = (est_x_pos_real, est_y_pos_real)
if est_x_pos_real < MIN_REAL_X_VALID:
x_deviation = (MIN_REAL_X_VALID-est_x_pos_real)/(MAX_REAL_X_VALID-MIN_REAL_X_VALID)
elif est_x_pos_real > MAX_REAL_X_VALID:
x_deviation = (est_x_pos_real-MAX_REAL_X_VALID)/(MAX_REAL_X_VALID-MIN_REAL_X_VALID)
else:
x_deviation = 0.0
if est_y_pos_real < MIN_REAL_Y_VALID:
y_deviation = (MIN_REAL_Y_VALID-est_y_pos_real)/(MAX_REAL_Y_VALID-MIN_REAL_Y_VALID)
elif est_y_pos_real > MAX_REAL_Y_VALID:
y_deviation = (est_y_pos_real-MAX_REAL_Y_VALID)/(MAX_REAL_Y_VALID-MIN_REAL_Y_VALID)
else:
y_deviation = 0.0
max_deviation_xy_pos_real[angle] = max(x_deviation,y_deviation)
total_deviation_xy_pos_real[angle] = x_deviation+y_deviation
dist_xy_pos_real[angle] = get_dist_from_real(est_x_pos_real,
est_y_pos_real,
min(MAX_REAL_X_VALID,
max(MIN_REAL_X_VALID,
est_x_pos_real)),
min(MAX_REAL_Y_VALID,
max(MIN_REAL_Y_VALID,
est_y_pos_real)))
elif (angle == abs_angle) and (not poss_xy_pos_real):
error_strings = []
if not ((MIN_REAL_X_VALID*(1-POS_ERROR_TOLERANCE))
<= est_x_pos_real <=
(MAX_REAL_X_VALID*(1+POS_ERROR_TOLERANCE))):
error_strings.append(
"{0!s}Bad est_x_pos_real {1:n} from self_x_pos_real {2:n} (self_x_pos {3:n}), angle {4:n} ({5:n} {6:n}), dist {7:n}".format(
start_string,est_x_pos_real, self_x_pos_real, self_x_pos, abs_angle, sin_angle, cos_angle, dist))
if not ((MIN_REAL_Y_VALID*(1-POS_ERROR_TOLERANCE))
<= est_y_pos_real <=
(MAX_REAL_Y_VALID*(1+POS_ERROR_TOLERANCE))):
error_strings.append(
"{0!s}Bad est_y_pos_real {1:n} from self_y_pos_real {2:n} (self_y_pos {3:n}), angle {4:n} ({5:n} {6:n}), dist {7:n}".format(
start_string, est_y_pos_real, self_y_pos_real, self_y_pos, abs_angle, sin_angle, cos_angle, dist))
if dist < 10:
raise RuntimeError("\n".join(error_strings))
else:
if warn or (dist < 50):
print("\n".join(error_strings), file=sys.stderr)
sys.stderr.flush()
return (None, None)
poss_angles = list(poss_xy_pos_real.keys())
if len(poss_angles) > 1:
poss_angles.sort(key=lambda angle: abs(abs_angle-angle))
poss_angles.sort(key=lambda angle: total_deviation_xy_pos_real[angle])
poss_angles.sort(key=lambda angle: max_deviation_xy_pos_real[angle])
poss_angles.sort(key=lambda angle: dist_xy_pos_real[angle])
est_x_pos_real, est_y_pos_real = poss_xy_pos_real[poss_angles[0]]
if warn:
est_x_pos = get_x_normalized(est_x_pos_real)
est_y_pos = get_y_normalized(est_y_pos_real)
else:
est_x_pos = get_x_normalized(est_x_pos_real, silent=True)
est_y_pos = get_y_normalized(est_y_pos_real, silent=True)
if warn:
est_dist = get_dist_real(self_x_pos, self_y_pos,
est_x_pos, est_y_pos)
if abs(dist - est_dist) > ERROR_TOLERANCE:
est2_dist = get_dist_from_real(self_x_pos_real, self_y_pos_real,
est_x_pos_real, est_y_pos_real)
print(
"{0!s}Difference in input ({1:n}), output ({2:n}) distances (est2 {3:n}) for get_abs_x_y_pos".format(
start_string, dist, est_dist, est2_dist),
file=sys.stderr)
print(
"Input angle {0:n}, used angle {1:n}, self_x_pos {2:n}, self_y_pos {3:n}".format(
abs_angle, poss_angles[0], self_x_pos, self_y_pos),
file=sys.stderr)
print(
"Self_x_pos_real {0:n}, self_y_pos_real {1:n}, est_x_pos_real {2:n}, est_y_pos_real {3:n}".format(
self_x_pos_real, self_y_pos_real, est_x_pos_real, est_y_pos_real), file=sys.stderr)
print("Est_x_pos {0:n}, est_y_pos {1:n}".format(est_x_pos, est_y_pos), file=sys.stderr)
sys.stderr.flush()
return (est_x_pos, est_y_pos)
landmark_start_to_location = {13: (GOAL_POS_X, get_y_normalized(0.0)), # center of goal
31: (get_x_normalized(0.0), get_y_normalized(0.0)), # center of RoboCup field
34: (get_x_normalized(0.0), get_y_normalized(-0.5*HALF_FIELD_WIDTH)), # Top Left
37: (get_x_normalized(HALF_FIELD_LENGTH), get_y_normalized(-0.5*HALF_FIELD_WIDTH)), # Top Right
40: (get_x_normalized(HALF_FIELD_LENGTH), get_y_normalized(HALF_FIELD_WIDTH/2)), # Bottom Right
43: (get_x_normalized(0,0), get_y_normalized(HALF_FIELD_WIDTH/2))} # Bottom Left
def filter_low_level_state(state, namespace):
bit_list = []
for pos in (0, 1, 9, 11, 12, 50, 54, 10): # TODO: Replace with constants!
if state[pos] > 0:
bit_list.append(True)
else:
bit_list.append(False)
## if (state[0] > 0) and (max(abs(state[58]),abs(state[59]))
## >= sys.float_info.epsilon): # player2 angle valid
## bit_list.append(True)
## else:
## bit_list.append(False)
if len(bit_list) != BIT_LIST_LEN:
raise RuntimeError(
"Length of bit_list {0:n} not same as BIT_LIST_LEN {1:n}".format(
len(bit_list), BIT_LIST_LEN))
self_dict = {}
if state[0] > 0: # self position valid
if max(abs(state[5]),abs(state[6])) <= sys.float_info.epsilon:
warnings.warn("Validity {0:d}{1:d} but invalid body angle {2:n}, {3:n}".format(
int(bit_list[0]),int(bit_list[1]),state[5],state[6]))
self_dict['body_angle'] = None
else:
self_dict['body_angle'] = get_angle(state[5],state[6])
x_pos_from = {}
x_pos_weight = {}
y_pos_from = {}
y_pos_weight = {}
x_pos1_real = get_dist_from_proximity(state[46],HALF_FIELD_LENGTH)
x_pos2_real = HALF_FIELD_LENGTH - get_dist_from_proximity(state[47],HALF_FIELD_LENGTH)
x_pos_from['OOB'] = get_x_normalized((x_pos1_real+x_pos2_real)/2)
x_pos_weight['OOB'] = max(ERROR_TOLERANCE,(1.0-min(1.0,abs(x_pos_from['OOB']))))
y_pos1_real = get_dist_from_proximity(state[48],HALF_FIELD_WIDTH) - (HALF_FIELD_WIDTH/2)
y_pos2_real = (HALF_FIELD_WIDTH/2) - get_dist_from_proximity(state[49],HALF_FIELD_WIDTH)
y_pos_from['OOB'] = get_y_normalized((y_pos1_real+y_pos2_real)/2)
y_pos_weight['OOB'] = max(ERROR_TOLERANCE,(1.0-min(1.0,abs(y_pos_from['OOB']))))
if (abs(namespace.other_dict['self_x_pos'].value) <= 1) and (abs(namespace.other_dict['self_y_pos'].value) <= 1):
x_pos_from['OTHER'] = namespace.other_dict['self_x_pos'].value
y_pos_from['OTHER'] = namespace.other_dict['self_y_pos'].value
other_proximity = get_proximity_from_dist(get_dist_real(x_pos_from['OTHER'],
y_pos_from['OTHER'],
namespace.other_dict['x_pos'].value,
namespace.other_dict['y_pos'].value))
x_pos_weight['OTHER'] = y_pos_weight['OTHER'] = max(ERROR_TOLERANCE,(((other_proximity+1)/2)**2))
if abs(x_pos_from['OTHER']) > (1.0-ERROR_TOLERANCE):
x_pos_weight['OTHER'] = min(ERROR_TOLERANCE,x_pos_weight['OTHER'])
if abs(y_pos_from['OTHER']) > (1.0-ERROR_TOLERANCE):
y_pos_weight['OTHER'] = min(ERROR_TOLERANCE,y_pos_weight['OTHER'])
if self_dict['body_angle'] is not None:
for landmark_start, xy_location in iteritems(landmark_start_to_location):
rel_angle = get_angle(state[landmark_start],state[landmark_start+1])
abs_angle = get_abs_angle(self_dict['body_angle'],rel_angle)
if abs_angle is not None:
rev_angle = reverse_angle(abs_angle)
dist = get_dist_from_proximity(state[landmark_start+2])
x_pos, y_pos = get_abs_x_y_pos(abs_angle=rev_angle,
dist=dist,
self_x_pos=xy_location[0],
self_y_pos=xy_location[1],
warn=False,
of_what="Rev " + str(landmark_start))
if x_pos is not None:
x_pos_from[landmark_start] = x_pos
y_pos_from[landmark_start] = y_pos
x_pos_weight[landmark_start] = y_pos_weight[landmark_start] = max(ERROR_TOLERANCE,
(((state[landmark_start+2]+1)/2)**2))
# except extremely close can be a problem for the angle...
if state[landmark_start+2] > (1.0-(POS_ERROR_TOLERANCE/5)):
max_weight = (1.0-state[landmark_start+2])/(POS_ERROR_TOLERANCE/5)
max_weight = max(max_weight, ERROR_TOLERANCE)
x_pos_weight[landmark_start] = y_pos_weight[landmark_start] = min(x_pos_weight[landmark_start],
max_weight)
x_pos_total = 0.0
x_pos_weight_total = 0.0
for from_which, pos in iteritems(x_pos_from):
x_pos_total += pos*x_pos_weight[from_which]
x_pos_weight_total += x_pos_weight[from_which]
self_dict['x_pos'] = x_pos_total/x_pos_weight_total
for from_which, pos in iteritems(x_pos_from):
if ((x_pos_weight[from_which]/x_pos_weight_total)*abs(pos-self_dict['x_pos'])) > POS_ERROR_TOLERANCE:
print("Source {0!r} (weight {1:n}) x_pos {2:n} vs overall {3:n}".format(from_which,
x_pos_weight[from_which]/
x_pos_weight_total,
pos,
self_dict['x_pos']),
file=sys.stderr)
sys.stderr.flush()
y_pos_total = 0.0
y_pos_weight_total = 0.0
for from_which, pos in iteritems(y_pos_from):
y_pos_total += pos*y_pos_weight[from_which]
y_pos_weight_total += y_pos_weight[from_which]
self_dict['y_pos'] = y_pos_total/y_pos_weight_total
for from_which, pos in iteritems(y_pos_from):
if ((y_pos_weight[from_which]/y_pos_weight_total)*abs(pos-self_dict['y_pos'])) > POS_ERROR_TOLERANCE:
print("Source {0!r} (weight {1:n}) y_pos {2:n} vs overall {3:n}".format(from_which,
y_pos_weight[from_which]/
y_pos_weight_total,
pos,
self_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
if max(abs(state[58]),abs(state[59])) <= sys.float_info.epsilon:
warnings.warn("Validity {0:d}{1:d} but invalid other angle {2:n}, {3:n}".format(
int(bit_list[0]),int(bit_list[1]),state[58],state[59]))
self_dict['other_angle'] = None
else:
self_dict['other_angle'] = get_angle(state[58],state[59])
else:
self_dict['x_pos'] = None
self_dict['y_pos'] = None
if max(abs(state[5]),abs(state[6])) > sys.float_info.epsilon:
warnings.warn("Validity {0:d}{1:d} but valid body angle {2:n}, {3:n}".format(
int(bit_list[0]),int(bit_list[1]),state[5],state[6]))
self_dict['body_angle'] = get_angle(state[5],state[6])
else:
self_dict['body_angle'] = None
if max(abs(state[58]),abs(state[59])) > sys.float_info.epsilon:
warnings.warn("Validity {0:d}{1:d} but valid other angle {2:n}, {3:n}".format(
int(bit_list[0]),int(bit_list[1]),state[58],state[59]))
self_dict['other_angle'] = get_angle(state[58],state[59])
else:
self_dict['other_angle'] = None
if state[1] > 0: # self velocity valid
self_dict['vel_rel_angle'] = get_angle(state[2],state[3])
self_dict['vel_mag'] = state[4]
else:
self_dict['vel_rel_angle'] = None
self_dict['vel_mag'] = -1
goal_dict = {}
if (state[0] > 0) and (max(state[18],state[21]) > -1): # self position valid, goal pos possible
if state[18] > state[21]: # top post closer
which_goal = "Top"
goal_dict['dist'] = get_dist_from_proximity(state[18])
goal_dict['rel_angle'] = get_angle(state[16],state[17])
else:
which_goal = "Bottom"
goal_dict['dist'] = get_dist_from_proximity(state[21])
goal_dict['rel_angle'] = get_angle(state[19],state[20])
if (state[11] < 0) and (goal_dict['rel_angle']
is not None) and (goal_dict['dist']
< (0.15+0.03)) and (get_angle_diff(0.0,
goal_dict['rel_angle'])
<= 1.0):
raise RuntimeError("Should be in collision with goal - distance is {0:n}".format(goal_dict['dist']))
elif goal_dict['dist'] > (MAX_RADIUS-POS_ERROR_TOLERANCE):
raise RuntimeError(
"Should not be possible to have dist {0:n} for goal (state[18] {1:n}, state[21] {2:n})".format(
goal_dict['dist'], state[18], state[21]))
goal_dict['abs_angle'] = get_abs_angle(self_dict['body_angle'],goal_dict['rel_angle'])
if goal_dict['abs_angle'] is not None:
est_x_pos, est_y_pos = get_abs_x_y_pos(abs_angle=goal_dict['abs_angle'],
dist=goal_dict['dist'],
self_x_pos=self_dict['x_pos'],
self_y_pos=self_dict['y_pos'],
warn=bool(goal_dict['dist'] < 10),
of_what=which_goal+" goal post")
if est_x_pos is not None:
if (abs(est_x_pos - GOAL_POS_X) > POS_ERROR_TOLERANCE) and (goal_dict['dist'] < 10):
print(
"Estimated x_pos of goal is {0:n} (should be {1:n}; from est abs_angle {2:n}, dist {3:n}, self_x_pos {4:n})".format(
est_x_pos,GOAL_POS_X,goal_dict['abs_angle'],goal_dict['dist'],self_dict['x_pos']),
file=sys.stderr)
sys.stderr.flush()
goal_dict['x_pos'] = GOAL_POS_X
if (state[18] > state[21]):
goal_dict['y_pos'] = GOAL_TOP_POS_Y
if est_y_pos is not None:
if (abs(est_y_pos-GOAL_TOP_POS_Y) > POS_ERROR_TOLERANCE) and (goal_dict['dist'] < 10):
print(
"Estimated y_pos of top goalpost is {0:n} (should be {1:n}; from est abs_angle {2:n}, dist {3:n}, self_y_pos {4:n})".format(
est_y_pos,GOAL_TOP_POS_Y,goal_dict['abs_angle'],goal_dict['dist'],self_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
else:
goal_dict['y_pos'] = GOAL_BOTTOM_POS_Y
if est_y_pos is not None:
if (abs(est_y_pos-GOAL_BOTTOM_POS_Y) > POS_ERROR_TOLERANCE) and (goal_dict['dist'] < 10):
print(
"Estimated y_pos of bottom goalpost is {0:n} (should be {1:n}; from est abs_angle {2:n}, dist {3:n}, self_y_pos {4:n})".format(
est_y_pos,GOAL_BOTTOM_POS_Y,goal_dict['abs_angle'],goal_dict['dist'],self_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
if (state[11] < 0) and (get_angle_diff(0.0, goal_dict['rel_angle'])
<= 1.0) and (get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
goal_dict['x_pos'],
goal_dict['y_pos']) < (0.15+0.03)):
print(
"Should be in collision with goal ({0:n}, {1:n} vs {2:n}, {3:n}; angle {4:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
goal_dict['x_pos'],goal_dict['y_pos'],
goal_dict['rel_angle']),
file=sys.stderr)
sys.stderr.flush()
else:
goal_dict['x_pos'] = GOAL_POS_X
if state[18] > state[21]:
goal_dict['y_pos'] = GOAL_TOP_POS_Y
else:
goal_dict['y_pos'] = GOAL_BOTTOM_POS_Y
else:
goal_dict['dist'] = get_dist_from_proximity(-1)
goal_dict['rel_angle'] = None
goal_dict['abs_angle'] = None
goal_dict['x_pos'] = GOAL_POS_X
if random.random() < 0.5:
goal_dict['y_pos'] = GOAL_BOTTOM_POS_Y
else:
goal_dict['y_pos'] = GOAL_TOP_POS_Y
ball_dict = {}
if state[50] > 0: # ball position valid
ball_dict['dist'] = get_dist_from_proximity(state[53])
ball_dict['rel_angle'] = get_angle(state[51],state[52])
if (state[9] < 0) and (ball_dict['rel_angle']
is not None) and (ball_dict['dist']
< (0.15+0.0425)) and (get_angle_diff(0.0, ball_dict['rel_angle'])
<= 1.0):
raise RuntimeError("Should be in collision with ball - distance is {0:n}".format(ball_dict['dist']))
ball_dict['abs_angle'] = get_abs_angle(self_dict['body_angle'],ball_dict['rel_angle'])
if ball_dict['abs_angle'] is not None:
ball_dict['x_pos'], ball_dict['y_pos'] = get_abs_x_y_pos(abs_angle=ball_dict['abs_angle'],
dist=ball_dict['dist'],
self_x_pos=self_dict['x_pos'],
self_y_pos=self_dict['y_pos'],
warn=bool(ball_dict['dist'] < 10),
of_what='Ball')
if (ball_dict['x_pos'] is None) or (ball_dict['y_pos'] is None):
if (ball_dict['dist'] < 10):
raise RuntimeError("Unknown ball position despite state[50] > 0")
else:
if (state[9] < 0) and (get_angle_diff(0.0, ball_dict['rel_angle'])
<= 1.0) and (get_dist_real(self_dict['x_pos'],self_dict['y_pos'],
ball_dict['x_pos'],ball_dict['y_pos']) < (0.15+0.0425)):
raise RuntimeError(
"Should be in collision with ball ({0:n}, {1:n} vs {2:n}, {3:n}; rel_angle {4:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
ball_dict['x_pos'],ball_dict['y_pos'],
ball_dict['rel_angle']))
else:
ball_dict['dist'] = get_dist_from_proximity(-1)
ball_dict['rel_angle'] = None
ball_dict['abs_angle'] = None
ball_dict['x_pos'] = None
ball_dict['y_pos'] = None
if (ball_dict['x_pos'] is None) and (abs(namespace.other_dict['ball_x_pos'].value) <= 1):
ball_dict['x_pos'] = namespace.other_dict['ball_x_pos'].value
if (ball_dict['y_pos'] is None) and (abs(namespace.other_dict['ball_y_pos'].value) <= 1):
ball_dict['y_pos'] = namespace.other_dict['ball_y_pos'].value
if state[54] > 0: # ball velocity valid
ball_dict['vel_rel_angle'] = get_angle(state[55],state[56])
ball_dict['vel_mag'] = state[57]
else:
ball_dict['vel_rel_angle'] = None
ball_dict['vel_mag'] = 0
return (bit_list, self_dict, goal_dict, ball_dict)
def bool_list_to_int(bit_list):
return sum(2**i*b for i, b in enumerate(bit_list))
def int_to_bool_list(intval, num_bits=BIT_LIST_LEN):
if num_bits < intval.bit_length():
raise RuntimeError(
"Integer value {0:d} will not fit into {1:d} bits (needs {2:d})".format(intval,
num_bits,
intval.bit_length()))
result = []
for bit in range(num_bits):
mask = 1 << bit
result.append(bool((intval & mask) == mask))
return result
def pack_action_bit_list(action, bit_list):
bool_int = bool_list_to_int(bit_list)
return struct.pack(STRUCT_PACK, action, bool_int)
def unpack_action_bit_list(bytestring):
action, bool_int = struct.unpack(STRUCT_PACK, bytestring)
bit_list = int_to_bool_list(bool_int)
return (action, bit_list)
def evaluate_previous_action(hfo_env,
state,
namespace):
if namespace.action in (hfo.NOOP, hfo.QUIT):
warnings.warn("evaluate_previous_action should not have been called with 'action' NOOP/QUIT")
return
bit_list, self_dict, goal_dict, ball_dict = filter_low_level_state(state, namespace)
action_status = hfo_env.getLastActionStatus(namespace.action)
action_string = hfo_env.actionToString(namespace.action)
if namespace.action_params:
action_string += '(' + ",".join(list(["{:n}".format(x) for x in namespace.action_params])) + ')'
action_status_observed = hfo.ACTION_STATUS_UNKNOWN # NOTE: Check intent + other bitflags!
if (namespace.action in
(hfo.DRIBBLE, hfo.DRIBBLE_TO)) and namespace.prestate_bit_list[4] and (not bit_list[4]):
action_status_observed = hfo.ACTION_STATUS_BAD
elif (namespace.action in
(hfo.DRIBBLE,
hfo.INTERCEPT,
hfo.MOVE)) and (((namespace.intent != INTENT_GOAL_COLLISION)
and (not namespace.prestate_bit_list[3])
and bit_list[3]) or
((namespace.intent != INTENT_BALL_COLLISION)
and (not namespace.prestate_bit_list[2])
and bit_list[2]) or
((namespace.intent != INTENT_PLAYER_COLLISION)
and (not namespace.prestate_bit_list[7])
and bit_list[7])):
action_status_observed = hfo.ACTION_STATUS_BAD
elif (namespace.intent !=
INTENT_GOAL_COLLISION) and namespace.prestate_bit_list[3] and (not bit_list[3]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent !=
INTENT_BALL_COLLISION) and namespace.prestate_bit_list[2] and (not bit_list[2]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent !=
INTENT_PLAYER_COLLISION) and namespace.prestate_bit_list[7] and (not bit_list[7]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_BALL_KICKABLE) and (not namespace.prestate_bit_list[4]) and bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_GOAL_COLLISION) and (not namespace.prestate_bit_list[3]) and bit_list[3]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_BALL_COLLISION) and (((not namespace.prestate_bit_list[2]) and bit_list[2]) or
((not namespace.prestate_bit_list[4]) and bit_list[4])):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_PLAYER_COLLISION) and (not namespace.prestate_bit_list[7]) and bit_list[7]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.action == hfo.DASH) or (namespace.action == hfo.MOVE) or (namespace.action == hfo.REORIENT):
pass # TODO
elif namespace.action == hfo.TURN:
if (namespace.prestate_self_dict['body_angle'] is not None) and (self_dict['body_angle'] is not None):
intended_body_angle = namespace.prestate_self_dict['body_angle'] + namespace.action_params[0]
if get_angle_diff(namespace.prestate_self_dict['body_angle'],
intended_body_angle) > get_angle_diff(self_dict['body_angle'],
intended_body_angle):
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif namespace.action == hfo.PASS:
if (namespace.prestate_ball_dict['x_pos'] is not None) and (ball_dict['x_pos'] is not None):
dist_after = get_dist_real(ball_dict['x_pos'],
ball_dict['y_pos'],
namespace.other_dict['x_pos'].value,
namespace.other_dict['y_pos'].value)
self_dist_after = get_dist_real(ball_dict['x_pos'],
ball_dict['y_pos'],
self_dict['x_pos'],
self_dict['y_pos'])
if (dist_after < self_dist_after):
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_BAD
elif namespace.action == hfo.KICK:
if bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_BAD
else:
pass # TODO
elif namespace.action == hfo.KICK_TO:
if (namespace.prestate_ball_dict['x_pos'] is not None) and (ball_dict['x_pos'] is not None):
dist_before = get_dist_real(namespace.prestate_ball_dict['x_pos'],
namespace.prestate_ball_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
dist_after = get_dist_real(ball_dict['x_pos'],
ball_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
if dist_before > dist_after:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif namespace.action == hfo.MOVE_TO:
if (namespace.prestate_self_dict['x_pos'] is not None) and (self_dict['x_pos'] is not None):
dist_before = get_dist_real(namespace.prestate_self_dict['x_pos'],
namespace.prestate_self_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
dist_after = get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
if dist_before > dist_after:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
else:
pass # ???
elif namespace.action == hfo.DRIBBLE_TO:
if namespace.prestate_bit_list[4]:
if not bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_BAD # should have been done above, actually
elif (namespace.prestate_self_dict['x_pos'] is not None) and (self_dict['x_pos'] is not None):
dist_before = get_dist_real(namespace.prestate_self_dict['x_pos'],
namespace.prestate_self_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
dist_after = get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
if dist_before > dist_after:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif (namespace.prestate_ball_dict['x_pos'] is not None) and (ball_dict['x_pos'] is not None):
dist_before = get_dist_real(namespace.prestate_ball_dict['x_pos'],
namespace.prestate_ball_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
dist_after = get_dist_real(ball_dict['x_pos'],
ball_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
if dist_before > dist_after:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
else:
pass # ???
elif bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_ball_dict['dist'] > ball_dict['dist']:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_ball_dict['dist'] < ball_dict['dist']:
action_status_observed = hfo.ACTION_STATUS_BAD
elif ball_dict['dist'] < ((1-ERROR_TOLERANCE)*MAX_RADIUS):
action_status_observed = hfo.ACTION_STATUS_BAD
elif namespace.action in (hfo.INTERCEPT, hfo.GO_TO_BALL):
if namespace.prestate_bit_list[4]:
if bit_list[4]:
if (namespace.intent != INTENT_BALL_COLLISION) and bit_list[2]:
action_status_observed = hfo.ACTION_STATUS_BAD
elif (namespace.intent != INTENT_GOAL_COLLISION) and bit_list[3]:
action_status_observed = hfo.ACTION_STATUS_BAD
else:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_ball_dict['dist'] > ball_dict['dist']:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_ball_dict['dist'] < ball_dict['dist']:
action_status_observed = hfo.ACTION_STATUS_BAD
elif ball_dict['dist'] < ((1-ERROR_TOLERANCE)*MAX_RADIUS):
action_status_observed = hfo.ACTION_STATUS_BAD
elif namespace.action == hfo.DRIBBLE:
pass # todo?
else:
raise RuntimeError("Unknown how to evaluate {0!s}".format(action_string))
if action_status_observed == hfo.ACTION_STATUS_UNKNOWN:
action_status_guessed = action_status
else:
action_status_guessed = action_status_observed
if (action_status != action_status_observed) and (action_status != hfo.ACTION_STATUS_UNKNOWN):
print(
"{0!s}: Difference between feedback ({1!s}), observed ({2!s}) action_status (prestate bit_list {3!s}, current bit list {4!s})".format(
action_string,
hfo_env.actionStatusToString(action_status),
hfo_env.actionStatusToString(action_status_observed),
"".join(map(str,map(int,namespace.prestate_bit_list))),
"".join(map(str,map(int,bit_list)))),
file=sys.stderr)
sys.stderr.flush()
if (action_status_guessed == hfo.ACTION_STATUS_BAD) and (not namespace.checking_intent):
# unexpected lack of success
print(
"Unexpected lack of success for last action {0!s} (prestate bit_list {1!s}, current bit list {2!s})".format(
action_string,
"".join(map(str,map(int,namespace.prestate_bit_list))),
"".join(map(str,map(int,bit_list)))),
file=sys.stderr)
if namespace.intent == INTENT_GOAL_COLLISION:
print("Prestate goal distance is {0:n}, current goal distance is {1:n}".format(namespace.prestate_goal_dict['dist'],
goal_dict['dist']),
file=sys.stderr)
elif namespace.intent == INTENT_BALL_COLLISION:
print("Prestate ball distance is {0:n}, current ball distance is {1:n}".format(namespace.prestate_ball_dict['dist'],
ball_dict['dist']),
file=sys.stderr)
sys.stderr.flush()
namespace.action_tried[namespace.action] += 1
namespace.struct_tried[pack_action_bit_list(namespace.action,namespace.prestate_bit_list)] += 1
# further analysis...
if action_status_guessed == hfo.ACTION_STATUS_MAYBE:
# further analysis...
if (not namespace.prestate_bit_list[0]) and (namespace.action in (hfo.KICK_TO, hfo.MOVE_TO, hfo.DRIBBLE_TO, hfo.INTERCEPT,
hfo.MOVE, hfo.PASS, hfo.GO_TO_BALL)):
print("OK status from {0!s} despite unknown self location in prestate (poststate: {1!s})".format(
action_string, bit_list[0]))
sys.stdout.flush()
if (not namespace.prestate_bit_list[1]) and (namespace.action in (hfo.DASH, hfo.TURN, hfo.KICK_TO, hfo.MOVE_TO,
hfo.DRIBBLE_TO, hfo.INTERCEPT, hfo.MOVE, hfo.PASS,
hfo.GO_TO_BALL)):
print("OK status from {0!s} despite unknown self velocity in prestate (poststate: {1!s})".format(
action_string, bit_list[1]))
sys.stdout.flush()
if (not namespace.prestate_bit_list[5]) and (namespace.action in (hfo.KICK, hfo.KICK_TO, hfo.DRIBBLE_TO, hfo.INTERCEPT,
hfo.MOVE, hfo.PASS, hfo.GO_TO_BALL)):
print("OK status from {0!s} despite unknown ball location in prestate (poststate: {1!s})".format(
action_string, bit_list[0]))
sys.stdout.flush()
if (not namespace.prestate_bit_list[6]) and (namespace.action in (hfo.KICK, hfo.KICK_TO,
hfo.PASS, hfo.DRIBBLE)):
print("OK status from {0!s} despite unknown ball velocity in prestate (poststate: {1!s})".format(
action_string, bit_list[1]))
sys.stdout.flush()
if (namespace.action == hfo.REORIENT) and (namespace.prestate_bit_list[2] or
namespace.prestate_bit_list[3] or
namespace.prestate_bit_list[7]):
print("OK status from {0!s} despite collision in prestate {1!s} (poststate: {2!s})".format(
action_string,
"".join(map(str,map(int,namespace.prestate_bit_list))),
"".join(map(str,map(int,bit_list)))))
sys.stdout.flush()
elif action_status_guessed == hfo.ACTION_STATUS_BAD:
if namespace.action in (hfo.REORIENT, hfo.TURN, hfo.DRIBBLE):
print("Bad status from {0!s}: prestate {1!s}, poststate {2!s}".format(
action_string,
"".join(map(str,map(int,namespace.prestate_bit_list))),
"".join(map(str,map(int,bit_list)))))
sys.stdout.flush()
def save_action_prestate(action,
prestate_bit_list,
prestate_self_dict,
prestate_goal_dict,
prestate_ball_dict,
intent,
checking_intent,
namespace,
action_params=None):
namespace.action = action
namespace.prestate_bit_list = prestate_bit_list
namespace.prestate_self_dict = prestate_self_dict
namespace.prestate_goal_dict = prestate_goal_dict
namespace.prestate_ball_dict = prestate_ball_dict
if action_params is None:
action_params = []
namespace.action_params = action_params
namespace.intent = intent
if intent is not None:
namespace.intent_done[intent] += 1
namespace.checking_intent = checking_intent
if checking_intent:
namespace.action_tried[action] += 1
namespace.struct_tried[pack_action_bit_list(action, prestate_bit_list)] += 1
if action_params:
return [action] + action_params
return action
def determine_which_action(poss_actions_list, namespace, bit_list):
"""
Decides between poss_actions based on lowest struct_tried,
then lowest action_tried, then random.
"""
if len(poss_actions_list) > 1:
random.shuffle(poss_actions_list)
poss_actions_list.sort(key=lambda action: namespace.struct_tried[pack_action_bit_list(action, bit_list)])
if (namespace.struct_tried[pack_action_bit_list(poss_actions_list[0],
bit_list)]
== namespace.struct_tried[pack_action_bit_list(poss_actions_list[1], bit_list)]):
poss_actions_list.sort(key=lambda action: namespace.action_tried[action])
return poss_actions_list[0]
def do_intent(hfo_env,
state,
namespace):
bit_list, self_dict, goal_dict, ball_dict = filter_low_level_state(state, namespace)
prestate_dict = {'prestate_bit_list': bit_list,
'prestate_self_dict': self_dict,
'prestate_goal_dict': goal_dict,
'prestate_ball_dict': ball_dict,
'checking_intent': False,
'intent': namespace.intent,
'namespace': namespace}
if (namespace.intent == INTENT_BALL_COLLISION) and bit_list[4]: # ball is kickable
ball_rel_angle = ball_dict['rel_angle']
if ball_rel_angle > 180:
ball_rel_angle -= 360
poss_actions_list = []
if bit_list[0] and (ball_dict['x_pos'] is not None): # self position valid
if get_dist_real(self_dict['x_pos'],self_dict['y_pos'],
ball_dict['x_pos'],ball_dict['y_pos']) < (0.15+0.0425):
if abs(ball_rel_angle) > 0.5:
hfo_env.act(*save_action_prestate(action=hfo.TURN,action_params=[ball_rel_angle],
**prestate_dict))
else:
print(
"Should already be in collision with ball ({0:n}, {1:n} vs {2:n}, {3:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
ball_dict['x_pos'],ball_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, ball_rel_angle],
**prestate_dict))
return
poss_actions_list.append(hfo.MOVE_TO)
if abs(ball_rel_angle) > 0.5:
poss_actions_list.append(hfo.TURN)
if abs(ball_rel_angle) < 1.0:
poss_actions_list.append(hfo.DASH)
action = determine_which_action(poss_actions_list, namespace, bit_list)
if action == hfo.MOVE_TO:
hfo_env.act(*save_action_prestate(action=hfo.MOVE_TO,
action_params=[ball_dict['x_pos'],
ball_dict['y_pos']],
**prestate_dict))
elif action == hfo.TURN:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[ball_rel_angle],
**prestate_dict))
elif action == hfo.DASH:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, ball_rel_angle],
**prestate_dict))
else:
raise RuntimeError("Unknown action {0!r}".format(action))
return
elif (namespace.intent == INTENT_BALL_KICKABLE) or (namespace.intent == INTENT_BALL_COLLISION):
poss_actions_list = [hfo.INTERCEPT]
if bit_list[0]:
poss_actions_list.append(hfo.GO_TO_BALL)
ball_rel_angle = ball_dict['rel_angle']
if ball_rel_angle > 180:
ball_rel_angle -= 360
if abs(ball_rel_angle) > 0.5:
poss_actions_list.append(hfo.TURN)
if abs(ball_rel_angle) < 1.0:
poss_actions_list.append(hfo.DASH)
if bit_list[0] and (ball_dict['x_pos'] is not None):
poss_actions_list.append(hfo.MOVE_TO)
action = determine_which_action(poss_actions_list, namespace, bit_list)
if (action == hfo.GO_TO_BALL) or (action == hfo.INTERCEPT):
hfo_env.act(save_action_prestate(action=action,**prestate_dict))
elif action == hfo.TURN:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[ball_rel_angle],
**prestate_dict))
elif action == hfo.DASH:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, ball_rel_angle],
**prestate_dict))
elif action == hfo.MOVE_TO:
hfo_env.act(*save_action_prestate(action=hfo.MOVE_TO,
action_params=[ball_dict['x_pos'],
ball_dict['y_pos']],
**prestate_dict))
else:
raise RuntimeError("Unknown action {0!r}".format(action))
return
elif namespace.intent == INTENT_GOAL_COLLISION:
goal_rel_angle = goal_dict['rel_angle']
if goal_rel_angle > 180:
goal_rel_angle -= 360
poss_actions_list = []
if (get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
goal_dict['x_pos'],
goal_dict['y_pos']) < (0.15+0.03)):
if abs(goal_rel_angle) > 0.5:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[goal_rel_angle],
**prestate_dict))
else:
print(
"Should already be in collision with goal ({0:n}, {1:n} vs {2:n}, {3:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
goal_dict['x_pos'],goal_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
if not bit_list[4]:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, goal_rel_angle],
**prestate_dict))
else:
hfo_env.act(*save_action_prestate(action=hfo.DRIBBLE_TO,
action_params=[min(1.0,max(-1.0,(self_dict['x_pos']+
(2*(goal_dict['x_pos']-
self_dict['x_pos']))))),
min(1.0,max(-1.0,(self_dict['y_pos']+
(2*(goal_dict['y_pos']-
self_dict['y_pos'])))))],
**prestate_dict))
return
poss_actions_list.append(hfo.DRIBBLE_TO)
if not bit_list[4]:
poss_actions_list.append(hfo.MOVE_TO)
if goal_rel_angle is not None:
if abs(goal_rel_angle) > 0.5:
poss_actions_list.append(hfo.TURN)
if (abs(goal_rel_angle) < 1.0) and ((not bit_list[4]) or (goal_dict['dist'] < 0.36)):
poss_actions_list.append(hfo.DASH)
action = determine_which_action(poss_actions_list, namespace, bit_list)
if (action == hfo.TURN):
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[goal_rel_angle],
**prestate_dict))
elif action in (hfo.DRIBBLE_TO, hfo.MOVE_TO):
x_pos_target = min(1.0,(goal_dict['x_pos']+POS_ERROR_TOLERANCE),
max(-1.0,(goal_dict['x_pos']-POS_ERROR_TOLERANCE),
(self_dict['x_pos']+(2*(goal_dict['x_pos']-self_dict['x_pos'])))))
y_pos_target = min(1.0,(goal_dict['y_pos']+POS_ERROR_TOLERANCE),
max(-1.0,(goal_dict['y_pos']-POS_ERROR_TOLERANCE),
(self_dict['y_pos']+(2*(goal_dict['y_pos']-self_dict['y_pos'])))))
hfo_env.act(*save_action_prestate(action=action,
action_params=[x_pos_target,y_pos_target],
**prestate_dict))
elif (action == hfo.DASH):
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, goal_rel_angle],
**prestate_dict))
else:
raise RuntimeError("Unknown action {0!r}".format(action))
return
elif namespace.intent == INTENT_PLAYER_COLLISION:
rel_angle = self_dict['other_angle']
if rel_angle > 180:
rel_angle -= 360
other_dist = get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
namespace.other_dict['x_pos'].value,
namespace.other_dict['y_pos'].value)
if (other_dist < 0.3):
if abs(rel_angle) > 0.5:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[rel_angle],
**prestate_dict))
else:
print(
"Should already be in collision with player2 ({0:n}, {1:n} vs {2:n}, {3:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
namespace.other_dict['x_pos'].value,
namespace.other_dict['y_pos'].value),
file=sys.stderr)
sys.stderr.flush()
if not bit_list[4]:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, rel_angle],
**prestate_dict))
else:
hfo_env.act(*save_action_prestate(action=hfo.DRIBBLE_TO,
action_params=[(self_dict['x_pos']+
(2*(namespace.other_dict['x_pos'].value-
self_dict['x_pos']))),
(self_dict['y_pos']+
(2*(namespace.other_dict['y_pos'].value-
self_dict['y_pos'])))],
**prestate_dict))
return
poss_actions_list = []
poss_actions_list.append(hfo.DRIBBLE_TO)
if not bit_list[4]:
poss_actions_list.append(hfo.MOVE_TO)
if rel_angle is not None:
if abs(rel_angle) > 0.5:
poss_actions_list.append(hfo.TURN)
if (abs(rel_angle) < 1.0) and ((not bit_list[4]) or (other_dist < 0.6)):
poss_actions_list.append(hfo.DASH)
elif bit_list[4] and (other_dist < 0.6):
poss_actions_list.append(hfo.DASH)
action = determine_which_action(poss_actions_list, namespace, bit_list)
if action == hfo.TURN:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[rel_angle],
**prestate_dict))
elif (action == hfo.MOVE_TO) or (action == hfo.DRIBBLE_TO):
hfo_env.act(*save_action_prestate(action=action,
action_params=[namespace.other_dict['x_pos'].value,
namespace.other_dict['y_pos'].value],
**prestate_dict))
elif action == hfo.DASH:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, rel_angle],
**prestate_dict))
else:
raise RuntimeError("Unknown action {0!r}".format(action))
return
elif namespace.intent == INTENT_RANDOM_MANEUVER:
if not bit_list[1]:
hfo_env.act(save_action_prestate(action=hfo.REORIENT,
**prestate_dict))
return
poss_actions_set = set([hfo.DASH, hfo.MOVE_TO, hfo.INTERCEPT, hfo.MOVE, hfo.GO_TO_BALL])
if not bit_list[0]:
poss_actions_set.discard(hfo.MOVE_TO)
poss_actions_set.discard(hfo.MOVE)
poss_actions_set.discard(hfo.GO_TO_BALL)
if bit_list[4] or (not bit_list[5]):
poss_actions_set.discard(hfo.INTERCEPT)
poss_actions_set.discard(hfo.MOVE)
poss_actions_set.discard(hfo.GO_TO_BALL)
action = determine_which_action(list(poss_actions_set), namespace, bit_list)
if action in (hfo.INTERCEPT, hfo.MOVE, hfo.GO_TO_BALL):
hfo_env.act(save_action_prestate(action=action,
**prestate_dict))
elif action == hfo.DASH:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[random.uniform(60,100),
random.uniform(-180,180)],
**prestate_dict))
elif action == hfo.MOVE_TO:
r = random.random()
if r < 0.25:
hfo_env.act(*save_action_prestate(action=hfo.MOVE_TO,
action_params=[random.uniform(-1.0,0.0),
random.uniform(-1.0,-0.5)],
**prestate_dict))
elif r < 0.5:
hfo_env.act(*save_action_prestate(action=hfo.MOVE_TO,
action_params=[random.uniform(-1.0,0.0),
random.uniform(0.5,1.0)],
**prestate_dict))
elif r < 0.75:
hfo_env.act(*save_action_prestate(action=hfo.MOVE_TO,
action_params=[random.uniform(0.0,1.0),
random.uniform(-1.0,-0.5)],
**prestate_dict))
else:
hfo_env.act(*save_action_prestate(action=hfo.MOVE_TO,
action_params=[random.uniform(0.0,1.0),
random.uniform(0.5,1.0)],
**prestate_dict))
else:
raise RuntimeError("Unknown action {0!r}".format(action))
else:
raise RuntimeError("Unexpected intent {0!r}".format(namespace.intent))
def decide_intent(poss_intent_list, namespace):
if len(poss_intent_list) > 1:
random.shuffle(poss_intent_list)
poss_intent_list.sort(key=lambda intent: namespace.intent_done[intent])
return poss_intent_list[0]
def do_next_action(hfo_env,
state,
namespace):
bit_list, self_dict, goal_dict, ball_dict = filter_low_level_state(state, namespace)
reorient_dict = {'action': hfo.REORIENT,
'prestate_bit_list': bit_list,
'prestate_self_dict': self_dict,
'prestate_goal_dict': goal_dict,
'prestate_ball_dict': ball_dict,
'checking_intent': False,
'intent': namespace.intent,
'namespace': namespace}
if not bit_list[1]: # self velocity invalid
if namespace.intent is not None:
hfo_env.act(save_action_prestate(**reorient_dict))
return None
prior_intent = namespace.intent
# admittedly, need to check for some of "intent" circumstances in combo!
if namespace.intent == INTENT_RANDOM_MANEUVER:
if ((bit_list[0] < namespace.prestate_bit_list[0]) or
(bit_list[1] < namespace.prestate_bit_list[1]) or
(bit_list[5] < namespace.prestate_bit_list[5]) or
(bit_list[6] < namespace.prestate_bit_list[6])):
namespace.intent = None
elif namespace.intent == INTENT_BALL_COLLISION:
if bit_list[2]:
namespace.intent = None
else:
if (not bit_list[5]) or (ball_dict['x_pos'] is None): # first: ball location not valid
namespace.intent_done[INTENT_BALL_COLLISION] -= 1
if bit_list[0]: # self location valid
if bit_list[3] or bit_list[7]:
namespace.intent = None
else:
namespace.intent = decide_intent([INTENT_GOAL_COLLISION, INTENT_PLAYER_COLLISION],
namespace)
else:
hfo_env.act(save_action_prestate(**reorient_dict))
return None
elif namespace.intent == INTENT_BALL_KICKABLE:
if bit_list[4]:
namespace.intent = None
else:
if (not bit_list[5]) or (ball_dict['x_pos'] is None): # first: ball location not valid
namespace.intent_done[INTENT_BALL_KICKABLE] -= 1
if bit_list[0]: # self location valid
if bit_list[3] or bit_list[7]:
namespace.intent = None
else:
namespace.intent = decide_intent([INTENT_GOAL_COLLISION, INTENT_PLAYER_COLLISION],
namespace)
else:
hfo_env.act(save_action_prestate(**reorient_dict))
elif namespace.intent == INTENT_GOAL_COLLISION:
if bit_list[3]:
namespace.intent = None
else:
if (not bit_list[0]) or (goal_dict['rel_angle'] is None): # first: self location not valid
namespace.intent_done[INTENT_GOAL_COLLISION] -= 1
if bit_list[4] or bit_list[2] or bit_list[7]:
namespace.intent = None
else:
poss_intent_list = [INTENT_PLAYER_COLLISION]
if bit_list[5] and (ball_dict['x_pos'] is not None):
poss_intent_list += [INTENT_BALL_COLLISION, INTENT_BALL_KICKABLE]
namespace.intent = decide_intent(poss_intent_list, namespace)
elif namespace.intent == INTENT_PLAYER_COLLISION:
if bit_list[7]:
namespace.intent = None
else:
if not bit_list[0]: # self location not valid
if bit_list[4] or bit_list[2] or bit_list[3]:
namespace.intent = None
else:
poss_intent_list = [INTENT_GOAL_COLLISION]
if bit_list[5] and (ball_dict['x_pos'] is not None):
poss_intent_list += [INTENT_BALL_COLLISION, INTENT_BALL_KICKABLE]
namespace.intent = decide_intent(poss_intent_list, namespace)
if namespace.intent is not None:
namespace.times_intent_NONE = 0
return do_intent(hfo_env, state, namespace)
# figure out what to do next
actions_want_check = set([])
if not bit_list[0]:
actions_want_check |= set([hfo.DASH, hfo.TURN, hfo.REORIENT, hfo.DRIBBLE_TO])
if bit_list[4]:
actions_want_check |= set([hfo.KICK])
if self_dict['other_angle'] is not None:
actions_want_check |= set([hfo.PASS])
else:
actions_want_check |= set([hfo.INTERCEPT])
elif not bit_list[1]:
actions_want_check |= set([hfo.TURN, hfo.REORIENT])
if bit_list[4]:
actions_want_check |= set([hfo.KICK_TO])
if self_dict['other_angle'] is not None:
actions_want_check |= set([hfo.PASS])
elif bit_list[5]:
actions_want_check |= set([hfo.INTERCEPT])
if bit_list[5] and not bit_list[6]:
actions_want_check |= set([hfo.REORIENT, hfo.DRIBBLE_TO])
if bit_list[4]:
actions_want_check |= set([hfo.KICK, hfo.DRIBBLE])
if bit_list[0]:
actions_want_check |= set([hfo.KICK_TO])
if self_dict['other_angle'] is not None:
actions_want_check |= set([hfo.PASS])
else:
if bit_list[1] and (not bit_list[0]):
actions_want_check |= set([hfo.INTERCEPT])
if not actions_want_check:
poss_intent_set = set([INTENT_BALL_KICKABLE,INTENT_RANDOM_MANEUVER])
if (not bit_list[5]) or (ball_dict['x_pos'] is None):
poss_intent_set.discard(INTENT_BALL_KICKABLE)
poss_intent_set.discard(INTENT_BALL_COLLISION)
elif bit_list[4]:
poss_intent_set.discard(INTENT_BALL_KICKABLE)
if not bit_list[0]:
poss_intent_set.discard(INTENT_GOAL_COLLISION)
poss_intent_set.discard(INTENT_PLAYER_COLLISION)
elif self_dict['other_angle'] is None:
poss_intent_set.discard(INTENT_PLAYER_COLLISION)
if not poss_intent_set:
hfo_env.act(save_action_prestate(**reorient_dict))
return None
#raise NotImplementedError("Not yet set up for self+ball location invalid")
namespace.intent = decide_intent(list(poss_intent_set), namespace)
print("INTENT: {}".format(INTENT_DICT[namespace.intent]))
sys.stdout.flush()
namespace.times_intent_NONE = 0
return do_intent(hfo_env, state, namespace)
if bit_list[4] and (prior_intent not in (None, INTENT_BALL_KICKABLE)):
namespace.intent_done[INTENT_BALL_KICKABLE] += 1
if bit_list[2] and (prior_intent not in (None, INTENT_BALL_COLLISION)):
namespace.intent_done[INTENT_BALL_COLLISION] += 1
if bit_list[3] and (prior_intent not in (None, INTENT_GOAL_COLLISION)):
namespace.intent_done[INTENT_GOAL_COLLISION] += 1
if bit_list[7] and (prior_intent not in (None, INTENT_PLAYER_COLLISION)):
namespace.intent_done[INTENT_PLAYER_COLLISION] += 1
actions_maybe_check = set([hfo.DASH, hfo.TURN, hfo.KICK_TO, hfo.INTERCEPT, hfo.MOVE,
hfo.DRIBBLE, hfo.REORIENT])
if not bit_list[2]: # ball collision
actions_maybe_check |= set([hfo.KICK, hfo.MOVE_TO, hfo.GO_TO_BALL])
if not bit_list[3]: # post collision
actions_maybe_check |= set([hfo.DRIBBLE_TO])
if not bit_list[7]: # player collision
actions_maybe_check |= set([hfo.PASS])
poss_actions = actions_want_check & actions_maybe_check
if not poss_actions:
raise RuntimeError(
"Unknown what to do - actions_want_check {0!r}, actions_maybe_check {1!r}".format(actions_want_check,
actions_maybe_check))
action = determine_which_action(list(poss_actions), namespace, bit_list)
if prior_intent is not None:
namespace.times_intent_NONE = 0
print("INTENT: WAS {}".format(INTENT_DICT[prior_intent]))
else:
namespace.times_intent_NONE += 1
print("INTENT: NONE (action {})".format(hfo_env.actionToString(action)))
if namespace.times_intent_NONE > 5:
print("Actions_want_check: {0!s}; actions_maybe_check: {1!s}".format(
", ".join([hfo_env.actionToString(x) for x in list(actions_want_check)]),
", ".join([hfo_env.actionToString(x) for x in list(actions_maybe_check)])))
sys.stdout.flush()
prestate_dict = {'action': action,
'prestate_bit_list': bit_list,
'prestate_self_dict': self_dict,
'prestate_goal_dict': goal_dict,
'prestate_ball_dict': ball_dict,
'checking_intent': True,
'intent': None,
'namespace': namespace}
# added: DRIBBLE, PASS, MOVE
# ends due to out-of-bounds are annoying/noise in the data
if (action in (hfo.DRIBBLE_TO, hfo.KICK_TO)) or ((action == hfo.MOVE_TO) and (bit_list[4] or bit_list[2])):
if ball_dict['x_pos'] < -1*POS_ERROR_TOLERANCE:
x_pos = random.uniform(-0.5,min(0.9,MAX_POS_X_BALL_SAFE))
elif ball_dict['x_pos'] > POS_ERROR_TOLERANCE:
x_pos = random.uniform(max(-0.9,MIN_POS_X_BALL_SAFE),0.5)
else:
x_pos = random.uniform(max(-0.9,MIN_POS_X_BALL_SAFE),min(0.9,MAX_POS_X_BALL_SAFE))
if ball_dict['y_pos'] < -1*POS_ERROR_TOLERANCE:
y_pos = random.uniform(-0.5,min(0.9,MAX_POS_Y_BALL_SAFE))
elif ball_dict['y_pos'] > POS_ERROR_TOLERANCE:
y_pos = random.uniform(max(-0.9,MIN_POS_Y_BALL_SAFE),0.5)
else:
y_pos = random.uniform(max(-0.9,MIN_POS_Y_BALL_SAFE),min(0.9,MAX_POS_Y_BALL_SAFE))
else:
x_pos = random.uniform(MIN_POS_X_OK,MAX_POS_X_OK)
y_pos = random.uniform(MIN_POS_Y_OK,MAX_POS_Y_OK)
max_power = 80
if (action == hfo.KICK) and (get_dist_normalized(ball_dict['x_pos'],
ball_dict['y_pos'],
0.0,0.0) > 1):
if (self_dict['other_angle'] is not None):
max_power = 100
direction = self_dict['other_angle']
if direction > 180:
direction -= 360
else:
max_power = 50
direction = random.uniform(-180,180)
else:
direction = random.uniform(-180,180)
if action in (hfo.INTERCEPT, hfo.GO_TO_BALL, hfo.DRIBBLE, hfo.MOVE, hfo.REORIENT):
hfo_env.act(save_action_prestate(**prestate_dict))
elif action is hfo.PASS:
hfo_env.act(*save_action_prestate(action_params=[namespace.other_dict['unum'].value],
**prestate_dict))
elif action in (hfo.MOVE_TO, hfo.DRIBBLE_TO):
hfo_env.act(*save_action_prestate(action_params=[x_pos,y_pos],
**prestate_dict))
elif action == hfo.KICK_TO:
if min(abs(x_pos),abs(y_pos)) > 0.5:
max_speed = 1
elif max(abs(x_pos),abs(y_pos)) > 0.5:
max_speed = 2
else:
max_speed = 3
hfo_env.act(*save_action_prestate(action_params=[x_pos,y_pos,
random.uniform(0,max_speed)],
**prestate_dict))
elif action == hfo.DASH:
hfo_env.act(*save_action_prestate(action_params=[random.uniform(-100,100), # power
direction],
**prestate_dict))
elif action == hfo.TURN:
hfo_env.act(*save_action_prestate(action_params=[direction],**prestate_dict))
elif action == hfo.KICK:
hfo_env.act(*save_action_prestate(action_params=[random.uniform(0,max_power),
direction],**prestate_dict))
else:
raise RuntimeError("Unknown action {!r}".format(action))
return None
def run_player2(conf_dir, args, namespace):
hfo_env2 = hfo.HFOEnvironment()
if args.seed:
random.seed(args.seed+1)
connect2_args = [hfo.HIGH_LEVEL_FEATURE_SET, conf_dir, args.port, "localhost",
"base_left", False]
if args.record:
connect2_args.append(record_dir=args.rdir)
time.sleep(5)
print("Player2 connecting")
sys.stdout.flush()
hfo_env2.connectToServer(*connect2_args)
print("Player2 unum is {0:d}".format(hfo_env2.getUnum()))
sys.stdout.flush()
namespace.other_dict['unum'].value = hfo_env2.getUnum()
status=hfo.IN_GAME
while status != hfo.SERVER_DOWN:
did_reorient = False
if status == hfo.IN_GAME:
state2 = hfo_env2.getState()
namespace.other_dict['x_pos'].value = state2[0]
namespace.other_dict['y_pos'].value = state2[1]
namespace.other_dict['ball_x_pos'].value = state2[3]
namespace.other_dict['ball_y_pos'].value = state2[4]
namespace.other_dict['self_x_pos'].value = state2[13]
namespace.other_dict['self_y_pos'].value = state2[14]
if (abs(state2[0])
< 1) and (abs(state2[1])
< 1):
if get_dist_normalized(0.0,
0.0,
state2[0],
state2[1]) > POS_ERROR_TOLERANCE:
hfo_env2.act(hfo.MOVE_TO,0.0,0.0)
did_reorient = False
else:
hfo_env2.act(hfo.TURN,random.uniform(-180,180))
did_reorient = False
elif did_reorient and (abs(state2[0]) <= 1) and (abs(state2[1]) <= 1):
hfo_env2.act(hfo.MOVE_TO,0.0,0.0)
did_reorient = False
else:
hfo_env2.act(hfo.REORIENT)
did_reorient = True
status = hfo_env2.step()
hfo_env2.act(hfo.NOOP)
status = hfo_env2.step()
hfo_env2.act(hfo.QUIT)
sys.exit(0)
def main_explore_offense_actions():
parser = argparse.ArgumentParser()
parser.add_argument('--port', type=int, default=6000,
help="Server port")
parser.add_argument('--seed', type=int, default=None,
help="Python randomization seed; uses python default if 0 or not given")
parser.add_argument('--server-seed', type=int, default=None,
help="Server randomization seed; uses default if 0 or not given")
parser.add_argument('--record', default=False, action='store_true',
help="Doing HFO --record")
parser.add_argument('--rdir', type=str, default='log/',
help="Set directory to use if doing HFO --record")
args=parser.parse_args()
namespace = argparse.Namespace()
namespace.intent_done = {}
namespace.intent_done[INTENT_BALL_COLLISION] = 0
namespace.intent_done[INTENT_BALL_KICKABLE] = 0
namespace.intent_done[INTENT_GOAL_COLLISION] = 0
namespace.intent_done[INTENT_PLAYER_COLLISION] = 0
namespace.intent_done[INTENT_RANDOM_MANEUVER] = 0
namespace.action_tried = {}
namespace.struct_tried = {}
for n in list(range(hfo.NUM_HFO_ACTIONS)):
namespace.action_tried[n] = 0
for x in list(range((2**(BIT_LIST_LEN+1))-1)):
namespace.struct_tried[struct.pack(STRUCT_PACK, n, x)] = 0
namespace.other_dict = {'unum': multiprocessing.sharedctypes.Value('B', 0)}
for name in ['x_pos', 'y_pos', 'ball_x_pos', 'ball_y_pos', 'self_x_pos', 'self_y_pos']:
namespace.other_dict[name] = multiprocessing.sharedctypes.Value('d', -2.0)
script_dir = os.path.dirname(os.path.abspath(os.path.realpath(__file__)))
binary_dir = os.path.normpath(script_dir + "/../bin")
conf_dir = os.path.join(binary_dir, 'teams/base/config/formations-dt')
bin_HFO = os.path.join(binary_dir, "HFO")
player2_process = multiprocessing.Process(target=run_player2,
kwargs={'conf_dir': conf_dir,
'args': args,
'namespace': namespace}
)
popen_list = [sys.executable, "-x", bin_HFO,
"--frames-per-trial=3000", "--untouched-time=2000",
"--port={0:d}".format(args.port),
"--offense-agents=2", "--defense-npcs=0",
"--offense-npcs=0", "--trials=20", "--headless"]
if args.record:
popen_list.append("--record")
if args.server_seed:
popen_list.append("--seed={0:d}".format(args.server_seed))
HFO_subprocess = subprocess.Popen(popen_list)
player2_process.daemon = True
player2_process.start()
time.sleep(0.2)
assert (HFO_subprocess.poll() is
None), "Failed to start HFO with command '{}'".format(" ".join(popen_list))
assert player2_process.is_alive(), "Failed to start player2 process (exit code {!r})".format(
player2_process.exitcode)
if args.seed:
random.seed(args.seed)
hfo_env = hfo.HFOEnvironment()
connect_args = [hfo.LOW_LEVEL_FEATURE_SET, conf_dir, args.port, "localhost",
"base_left", False]
if args.record:
connect_args.append(record_dir=args.rdir)
time.sleep(9.8)
try:
assert player2_process.is_alive(), "Player2 process exited (exit code {!r})".format(
player2_process.exitcode)
print("Main player connecting")
sys.stdout.flush()
hfo_env.connectToServer(*connect_args)
print("Main player unum {0:d}".format(hfo_env.getUnum()))
for ignored_episode in itertools.count():
status = hfo.IN_GAME
namespace.action = hfo.NOOP
namespace.action_params = []
namespace.prestate_bit_list = [0,0,0,0,0,0,0]
namespace.prestate_self_dict = {'x_pos': None,
'y_pos': None,
'body_angle': None,
'other_angle': None,
'vel_rel_angle': None,
'vel_mag': -1.0}
namespace.prestate_goal_dict = {'dist': get_dist_from_proximity(-1),
'rel_angle': None,
'abs_angle': None,
'x_pos': GOAL_POS_X,
'y_pos': 0.0}
namespace.prestate_ball_dict = {'dist': get_dist_from_proximity(-1),
'rel_angle': None,
'abs_angle': None,
'x_pos': None,
'y_pos': None,
'vel_rel_angle': None,
'vel_mag': None}
namespace.intent = None
namespace.times_intent_NONE = 0
namespace.checking_intent = True
while status == hfo.IN_GAME:
state = hfo_env.getState()
if namespace.action != hfo.NOOP:
evaluate_previous_action(hfo_env, state, namespace)
do_next_action(hfo_env, state, namespace)
status = hfo_env.step()
if status == hfo.SERVER_DOWN:
# summarize results
hfo_env.act(hfo.QUIT)
break
finally:
if HFO_subprocess.poll() is None:
HFO_subprocess.terminate()
os.system("killall -9 rcssserver") # remove if ever start doing multi-server testing!
if __name__ == '__main__':
main_explore_offense_actions()
example/explore_offense_actions_fullstate.py deleted 100755 → 0
View file @ 0f361781
#!/usr/bin/env python
"""
This is a script to explore what actions are available under what circumstances, plus testing out feedback.
"""
from __future__ import print_function
# encoding: utf-8
import argparse
#import functools
import itertools
import math
import os
import random
import struct
import subprocess
import sys
import time
import warnings
try:
import hfo
except ImportError:
print('Failed to import hfo. To install hfo, in the HFO directory'\
' run: \"pip install .\"')
exit()
HALF_FIELD_WIDTH = 68 # y coordinate
HALF_FIELD_FULL_WIDTH = HALF_FIELD_WIDTH * 1.2
HALF_FIELD_LENGTH = 52.5 # x coordinate
HALF_FIELD_FULL_LENGTH = HALF_FIELD_LENGTH * 1.2
GOAL_WIDTH = 14.02
MAX_RADIUS = math.sqrt((HALF_FIELD_WIDTH**2) + ((HALF_FIELD_LENGTH/2)**2)) # latter is incorrect for _actual_ maximum distance...
ERROR_TOLERANCE = math.pow(sys.float_info.epsilon,0.25)
POS_ERROR_TOLERANCE = 0.05
MAX_REAL_X_VALID = 1.1*HALF_FIELD_LENGTH
MIN_REAL_X_VALID = -0.1*HALF_FIELD_LENGTH
MAX_REAL_Y_VALID = 1.1*(HALF_FIELD_WIDTH/2)
MIN_REAL_Y_VALID = -1.1*(HALF_FIELD_WIDTH/2)
def unnormalize(pos, min_val, max_val, silent=False):
assert max_val > min_val
if (not silent) and (abs(pos) > 1.0+ERROR_TOLERANCE):
print("Pos {0:n} fed to unnormalize (min_val {1:n}, max_val {2:n})".format(
pos, min_val, max_val), file=sys.stderr)
sys.stderr.flush()
pos = min(1.0,max(-1.0,pos))
top = (pos - -1.0)/(1 - -1.0)
bot = max_val - min_val
return (top*bot) + min_val
def get_y_unnormalized(y_pos, silent=False):
y_pos_real = unnormalize(y_pos, MIN_REAL_Y_VALID, MAX_REAL_Y_VALID, silent=silent)
est_y_pos = get_y_normalized(y_pos_real, silent=silent)
if abs(y_pos - est_y_pos) > POS_ERROR_TOLERANCE:
raise RuntimeError(
"Bad denormalization/normalization of {0:n} to {1:n}; reverse {2:n}".format(
y_pos, y_pos_real, est_y_pos))
return y_pos_real
def get_x_unnormalized(x_pos, silent=False):
x_pos_real = unnormalize(x_pos, MIN_REAL_X_VALID, MAX_REAL_X_VALID, silent=silent)
est_x_pos = get_x_normalized(x_pos_real, silent=silent)
if abs(x_pos - est_x_pos) > POS_ERROR_TOLERANCE:
raise RuntimeError(
"Bad denormalization/normalization of {0:n} to {1:n}; reverse {2:n}".format(
x_pos, x_pos_real, est_x_pos))
return x_pos_real
def normalize(pos, min_val, max_val, silent=False):
assert max_val > min_val
top = (pos - min_val)/(max_val - min_val)
bot = 1.0 - -1.0
num = (top*bot) + -1.0
if abs(num) > 1.0+POS_ERROR_TOLERANCE:
if abs(num) > 1.1:
raise RuntimeError("Pos {0:n} gives normalized num {1:n} (min_val {2:n}, max_val {3:n})".format(
pos, num, min_val, max_val))
elif not silent:
print(
"Pos {0:n} gives normalized num {1:n} (min_val {2:n}, max_val {3:n})".format(
pos, num, min_val, max_val), file=sys.stderr)
sys.stderr.flush()
return min(1.0,max(-1.0,num))
def get_y_normalized(y_pos, silent=False):
y_pos_norm = normalize(y_pos, MIN_REAL_Y_VALID, MAX_REAL_Y_VALID, silent=silent)
## est_y_pos = get_y_unnormalized(y_pos_norm, silent=silent)
## if abs(y_pos - est_y_pos) > POS_ERROR_TOLERANCE:
## raise RuntimeError("Bad normalization/denormalization of {0:n} to {1:n}; reverse {2:n}".format(
## y_pos, y_pos_norm, est_y_pos))
return y_pos_norm
def get_x_normalized(x_pos, silent=False):
return normalize(x_pos, MIN_REAL_X_VALID, MAX_REAL_X_VALID, silent=silent)
GOAL_POS_X = get_x_normalized(HALF_FIELD_LENGTH)
GOAL_TOP_POS_Y = get_y_normalized(-1*(GOAL_WIDTH/2))
GOAL_BOTTOM_POS_Y = get_y_normalized(GOAL_WIDTH/2)
MAX_POS_Y_BALL_SAFE = get_y_normalized(HALF_FIELD_WIDTH/2) - POS_ERROR_TOLERANCE
MIN_POS_Y_BALL_SAFE = get_y_normalized(-0.5*HALF_FIELD_WIDTH) + POS_ERROR_TOLERANCE
MAX_POS_X_BALL_SAFE = get_x_normalized(HALF_FIELD_LENGTH) - POS_ERROR_TOLERANCE
MIN_POS_X_BALL_SAFE = get_x_normalized(0) + POS_ERROR_TOLERANCE
MAX_POS_X_OK = 1.0 - ERROR_TOLERANCE
MIN_POS_X_OK = -1.0 + ERROR_TOLERANCE
MAX_POS_Y_OK = MAX_POS_X_OK
MIN_POS_Y_OK = MIN_POS_X_OK
def get_dist_real(ref_x, ref_y, src_x, src_y, silent=False):
ref_x_real = get_x_unnormalized(ref_x, silent=silent)
ref_y_real = get_y_unnormalized(ref_y, silent=silent)
src_x_real = get_x_unnormalized(src_x, silent=silent)
src_y_real = get_y_unnormalized(src_y, silent=silent)
return math.sqrt(math.pow((ref_x_real - src_x_real),2) +
math.pow((ref_y_real - src_y_real),2))
def get_dist_from_real(ref_x_real, ref_y_real, src_x_real, src_y_real):
return math.sqrt(math.pow((ref_x_real - src_x_real),2) +
math.pow((ref_y_real - src_y_real),2))
def get_dist_normalized(ref_x, ref_y, src_x, src_y):
return math.sqrt(math.pow((ref_x - src_x),2) +
math.pow(((HALF_FIELD_WIDTH/HALF_FIELD_LENGTH)*(ref_y - src_y)),2))
#Instead of adding six as a dependency, this code was copied from the six implementation.
#six is Copyright (c) 2010-2015 Benjamin Peterson
if sys.version_info[0] >= 3:
def iterkeys(d, **kw):
return iter(d.keys(**kw))
def iteritems(d, **kw):
return iter(d.items(**kw))
def itervalues(d, **kw):
return iter(d.values(**kw))
else:
def iterkeys(d, **kw):
return iter(d.iterkeys(**kw))
def iteritems(d, **kw):
return iter(d.iteritems(**kw))
def itervalues(d, **kw):
return iter(d.itervalues(**kw))
# Later expansion: INTENT_PLAYER_COLLISION (put a do-nothing player on the field)
INTENT_BALL_COLLISION = 0
INTENT_BALL_KICKABLE = 1
INTENT_GOAL_COLLISION = 2
INTENT_DICT = {INTENT_BALL_COLLISION: 'INTENT_BALL_COLLISION',
INTENT_BALL_KICKABLE: 'INTENT_BALL_KICKABLE',
INTENT_GOAL_COLLISION: 'INTENT_GOAL_COLLISION'}
BIT_LIST_LEN = 7
STRUCT_PACK = "BB"
def get_dist_from_proximity(proximity, max_dist=MAX_RADIUS):
proximity_real = unnormalize(proximity, 0.0, 1.0)
dist = (1 - proximity_real)*max_dist
if (dist > (max_dist+ERROR_TOLERANCE)) or (dist <= (-1.0*ERROR_TOLERANCE)):
warnings.warn("Proximity {0:n} gives dist {1:n} (max_dist {2:n})".format(proximity,dist,max_dist))
return min(max_dist,max(0,dist))
def get_proximity_from_dist(dist, max_dist=MAX_RADIUS):
if dist > (max_dist+ERROR_TOLERANCE):
print("Dist {0:n} is above max_dist {1:n}".format(dist, max_dist), file=sys.stderr)
sys.stderr.flush()
proximity_real = min(1.0, max(0.0, (1.0 - (dist/max_dist))))
return normalize(proximity_real, 0.0, 1.0)
# MAX_GOAL_DIST - may wish to work out...
def get_angle(sin_angle,cos_angle):
if max(abs(sin_angle),abs(cos_angle)) <= sys.float_info.epsilon:
warnings.warn(
"Unable to accurately determine angle from sin_angle {0:n} cos_angle {1:n}".format(
sin_angle, cos_angle))
return None
angle = math.degrees(math.atan2(sin_angle,cos_angle))
if angle < 0:
angle += 360
return angle
def get_abs_angle(body_angle,rel_angle):
if (body_angle is None) or (rel_angle is None):
return None
angle = body_angle + rel_angle
while angle >= 360:
angle -= 360
if angle < 0:
if abs(angle) <= ERROR_TOLERANCE:
return 0.0
warnings.warn("Bad body_angle {0:n} and/or rel_angle {1:n}".format(body_angle,rel_angle))
return None
return angle
def get_angle_diff(angle1, angle2):
if angle1 > angle2:
return min((angle1 - angle2),abs(angle1 - angle2 - 360))
elif angle1 < angle2:
return min((angle2 - angle1),abs(angle2 - angle1 - 360))
return 0.0
def reverse_angle(angle):
angle += 180
while angle >= 360:
angle -= 360
return angle
def get_abs_x_y_pos(abs_angle, dist, self_x_pos, self_y_pos, warn=True, of_what=""):
poss_xy_pos_real = {}
max_deviation_xy_pos_real = {}
total_deviation_xy_pos_real = {}
dist_xy_pos_real = {}
self_x_pos_real = get_x_unnormalized(self_x_pos)
self_y_pos_real = get_y_unnormalized(self_y_pos)
start_string = ""
if of_what:
start_string = of_what + ': '
for angle in [(abs_angle-1),(abs_angle+1),abs_angle]:
angle_radians = math.radians(angle)
sin_angle = math.sin(angle_radians)
cos_angle = math.cos(angle_radians)
est_x_pos_real = (cos_angle*dist) + self_x_pos_real
est_y_pos_real = (sin_angle*dist) + self_y_pos_real
if ((MIN_REAL_X_VALID*(1-POS_ERROR_TOLERANCE))
<= est_x_pos_real <=
(MAX_REAL_X_VALID*(1+POS_ERROR_TOLERANCE))) and ((MIN_REAL_Y_VALID*(1-POS_ERROR_TOLERANCE))
<= est_y_pos_real <=
(MAX_REAL_Y_VALID*(1+POS_ERROR_TOLERANCE))):
poss_xy_pos_real[angle] = (est_x_pos_real, est_y_pos_real)
if est_x_pos_real < MIN_REAL_X_VALID:
x_deviation = (MIN_REAL_X_VALID-est_x_pos_real)/(MAX_REAL_X_VALID-MIN_REAL_X_VALID)
elif est_x_pos_real > MAX_REAL_X_VALID:
x_deviation = (est_x_pos_real-MAX_REAL_X_VALID)/(MAX_REAL_X_VALID-MIN_REAL_X_VALID)
else:
x_deviation = 0.0
if est_y_pos_real < MIN_REAL_Y_VALID:
y_deviation = (MIN_REAL_Y_VALID-est_y_pos_real)/(MAX_REAL_Y_VALID-MIN_REAL_Y_VALID)
elif est_y_pos_real > MAX_REAL_Y_VALID:
y_deviation = (est_y_pos_real-MAX_REAL_Y_VALID)/(MAX_REAL_Y_VALID-MIN_REAL_Y_VALID)
else:
y_deviation = 0.0
max_deviation_xy_pos_real[angle] = max(x_deviation,y_deviation)
total_deviation_xy_pos_real[angle] = x_deviation+y_deviation
dist_xy_pos_real[angle] = get_dist_from_real(est_x_pos_real,
est_y_pos_real,
min(MAX_REAL_X_VALID,
max(MIN_REAL_X_VALID,
est_x_pos_real)),
min(MAX_REAL_Y_VALID,
max(MIN_REAL_Y_VALID,
est_y_pos_real)))
elif (angle == abs_angle) and (not poss_xy_pos_real):
error_strings = []
if not ((MIN_REAL_X_VALID*(1-POS_ERROR_TOLERANCE))
<= est_x_pos_real <=
(MAX_REAL_X_VALID*(1+POS_ERROR_TOLERANCE))):
error_strings.append(
"{0!s}Bad est_x_pos_real {1:n} from self_x_pos_real {2:n} (self_x_pos {3:n}), angle {4:n} ({5:n} {6:n}), dist {7:n}".format(
start_string,est_x_pos_real, self_x_pos_real, self_x_pos, abs_angle, sin_angle, cos_angle, dist))
if not ((MIN_REAL_Y_VALID*(1-POS_ERROR_TOLERANCE))
<= est_y_pos_real <=
(MAX_REAL_Y_VALID*(1+POS_ERROR_TOLERANCE))):
error_strings.append(
"{0!s}Bad est_y_pos_real {1:n} from self_y_pos_real {2:n} (self_y_pos {3:n}), angle {4:n} ({5:n} {6:n}), dist {7:n}".format(
start_string, est_y_pos_real, self_y_pos_real, self_y_pos, abs_angle, sin_angle, cos_angle, dist))
if dist < 10:
raise RuntimeError("\n".join(error_strings))
else:
if warn or (dist < 50):
print("\n".join(error_strings), file=sys.stderr)
sys.stderr.flush()
return (None, None)
poss_angles = list(poss_xy_pos_real.keys())
if len(poss_angles) > 1:
poss_angles.sort(key=lambda angle: abs(abs_angle-angle))
poss_angles.sort(key=lambda angle: total_deviation_xy_pos_real[angle])
poss_angles.sort(key=lambda angle: max_deviation_xy_pos_real[angle])
poss_angles.sort(key=lambda angle: dist_xy_pos_real[angle])
est_x_pos_real, est_y_pos_real = poss_xy_pos_real[poss_angles[0]]
if warn:
est_x_pos = get_x_normalized(est_x_pos_real)
est_y_pos = get_y_normalized(est_y_pos_real)
else:
est_x_pos = get_x_normalized(est_x_pos_real, silent=True)
est_y_pos = get_y_normalized(est_y_pos_real, silent=True)
if warn:
est_dist = get_dist_real(self_x_pos, self_y_pos,
est_x_pos, est_y_pos)
if abs(dist - est_dist) > ERROR_TOLERANCE:
est2_dist = get_dist_from_real(self_x_pos_real, self_y_pos_real,
est_x_pos_real, est_y_pos_real)
print(
"{0!s}Difference in input ({1:n}), output ({2:n}) distances (est2 {3:n}) for get_abs_x_y_pos".format(
start_string, dist, est_dist, est2_dist),
file=sys.stderr)
print(
"Input angle {0:n}, used angle {1:n}, self_x_pos {2:n}, self_y_pos {3:n}".format(
abs_angle, poss_angles[0], self_x_pos, self_y_pos),
file=sys.stderr)
print(
"Self_x_pos_real {0:n}, self_y_pos_real {1:n}, est_x_pos_real {2:n}, est_y_pos_real {3:n}".format(
self_x_pos_real, self_y_pos_real, est_x_pos_real, est_y_pos_real), file=sys.stderr)
print("Est_x_pos {0:n}, est_y_pos {1:n}".format(est_x_pos, est_y_pos), file=sys.stderr)
sys.stderr.flush()
return (est_x_pos, est_y_pos)
landmark_start_to_location = {13: (GOAL_POS_X, get_y_normalized(0.0)), # center of goal
#31: (get_x_normalized(HALF_FIELD_LENGTH/2), 0.0), # center field
34: (get_x_normalized(0.0), get_y_normalized(-0.5*HALF_FIELD_WIDTH)), # Top Left
37: (get_x_normalized(HALF_FIELD_LENGTH), get_y_normalized(-0.5*HALF_FIELD_WIDTH)), # Top Right
40: (get_x_normalized(HALF_FIELD_LENGTH), get_y_normalized(HALF_FIELD_WIDTH/2)), # Bottom Right
43: (get_x_normalized(0,0), get_y_normalized(HALF_FIELD_WIDTH/2))} # Bottom Left
def filter_low_level_state(state):
bit_list = []
for pos in (0, 1, 9, 11, 12, 50, 54):
if state[pos] > 0:
bit_list.append(True)
else:
bit_list.append(False)
if len(bit_list) != BIT_LIST_LEN:
raise RuntimeError(
"Length of bit_list {0:n} not same as BIT_LIST_LEN {1:n}".format(
len(bit_list), BIT_LIST_LEN))
self_dict = {}
if state[0] > 0: # self position valid
if max(abs(state[5]),abs(state[6])) <= sys.float_info.epsilon:
warnings.warn("Validity {0:d}{1:d} but invalid body angle {2:n}, {3:n}".format(
int(bit_list[0]),int(bit_list[1]),state[5],state[6]))
self_dict['body_angle'] = None
else:
self_dict['body_angle'] = get_angle(state[5],state[6])
x_pos_from = {}
x_pos_weight = {}
y_pos_from = {}
y_pos_weight = {}
x_pos1_real = get_dist_from_proximity(state[46],HALF_FIELD_LENGTH)
x_pos2_real = HALF_FIELD_LENGTH - get_dist_from_proximity(state[47],HALF_FIELD_LENGTH)
x_pos_from['OOB'] = get_x_normalized((x_pos1_real+x_pos2_real)/2)
x_pos_weight['OOB'] = max(ERROR_TOLERANCE,(1.0-min(1.0,abs(x_pos_from['OOB']))))
y_pos1_real = get_dist_from_proximity(state[48],HALF_FIELD_WIDTH) - (HALF_FIELD_WIDTH/2)
y_pos2_real = (HALF_FIELD_WIDTH/2) - get_dist_from_proximity(state[49],HALF_FIELD_WIDTH)
y_pos_from['OOB'] = get_y_normalized((y_pos1_real+y_pos2_real)/2)
y_pos_weight['OOB'] = max(ERROR_TOLERANCE,(1.0-min(1.0,abs(y_pos_from['OOB']))))
if self_dict['body_angle'] is not None:
for landmark_start, xy_location in iteritems(landmark_start_to_location):
rel_angle = get_angle(state[landmark_start],state[landmark_start+1])
abs_angle = get_abs_angle(self_dict['body_angle'],rel_angle)
if abs_angle is not None:
rev_angle = reverse_angle(abs_angle)
dist = get_dist_from_proximity(state[landmark_start+2])
x_pos, y_pos = get_abs_x_y_pos(abs_angle=rev_angle,
dist=dist,
self_x_pos=xy_location[0],
self_y_pos=xy_location[1],
warn=False,
of_what="Rev " + str(landmark_start))
if x_pos is not None:
x_pos_from[landmark_start] = x_pos
y_pos_from[landmark_start] = y_pos
x_pos_weight[landmark_start] = y_pos_weight[landmark_start] = max(ERROR_TOLERANCE,
((state[landmark_start+2]+1)/2))
# except extremely close can be a problem for the angle...
if state[landmark_start+2] > (1.0-POS_ERROR_TOLERANCE):
max_weight = (1.0-state[landmark_start+2])/POS_ERROR_TOLERANCE
max_weight = max(max_weight, ERROR_TOLERANCE)
x_pos_weight[landmark_start] = y_pos_weight[landmark_start] = min(x_pos_weight[landmark_start],
max_weight)
x_pos_total = 0.0
x_pos_weight_total = 0.0
for from_which, pos in iteritems(x_pos_from):
x_pos_total += pos*x_pos_weight[from_which]
x_pos_weight_total += x_pos_weight[from_which]
self_dict['x_pos'] = x_pos_total/x_pos_weight_total
for from_which, pos in iteritems(x_pos_from):
if ((x_pos_weight[from_which]/x_pos_weight_total)*abs(pos-self_dict['x_pos'])) > POS_ERROR_TOLERANCE:
print("Source {0!r} (weight {1:n}) x_pos {2:n} vs overall {3:n}".format(from_which,
x_pos_weight[from_which]/
x_pos_weight_total,
pos,
self_dict['x_pos']),
file=sys.stderr)
sys.stderr.flush()
y_pos_total = 0.0
y_pos_weight_total = 0.0
for from_which, pos in iteritems(y_pos_from):
y_pos_total += pos*y_pos_weight[from_which]
y_pos_weight_total += y_pos_weight[from_which]
self_dict['y_pos'] = y_pos_total/y_pos_weight_total
for from_which, pos in iteritems(y_pos_from):
if ((y_pos_weight[from_which]/y_pos_weight_total)*abs(pos-self_dict['y_pos'])) > POS_ERROR_TOLERANCE:
print("Source {0!r} (weight {1:n}) y_pos {2:n} vs overall {3:n}".format(from_which,
y_pos_weight[from_which]/
y_pos_weight_total,
pos,
self_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
if max(abs(state[31]),abs(state[32])) <= sys.float_info.epsilon:
warnings.warn("Validity {0:d}{1:d} but invalid center angle {2:n}, {3:n}".format(
int(bit_list[0]),int(bit_list[1]),state[31],state[32]))
self_dict['center_angle'] = None
else:
self_dict['center_angle'] = get_angle(state[31],state[32])
else:
self_dict['x_pos'] = None
self_dict['y_pos'] = None
if max(abs(state[5]),abs(state[6])) > sys.float_info.epsilon:
warnings.warn("Validity {0:d}{1:d} but valid body angle {2:n}, {3:n}".format(
int(bit_list[0]),int(bit_list[1]),state[5],state[6]))
self_dict['body_angle'] = get_angle(state[5],state[6])
else:
self_dict['body_angle'] = None
if max(abs(state[31]),abs(state[32])) > sys.float_info.epsilon:
warnings.warn("Validity {0:d}{1:d} but valid center angle {2:n}, {3:n}".format(
int(bit_list[0]),int(bit_list[1]),state[31],state[32]))
self_dict['center_angle'] = get_angle(state[31],state[32])
else:
self_dict['center_angle'] = None
if state[1] > 0: # self velocity valid
self_dict['vel_rel_angle'] = get_angle(state[2],state[3])
self_dict['vel_mag'] = state[4]
else:
self_dict['vel_rel_angle'] = None
self_dict['vel_mag'] = -1
goal_dict = {}
if (state[0] > 0) and (max(state[18],state[21]) > -1): # self position valid, goal pos possible
if state[18] > state[21]: # top post closer
which_goal = "Top"
goal_dict['dist'] = get_dist_from_proximity(state[18])
goal_dict['rel_angle'] = get_angle(state[16],state[17])
else:
which_goal = "Bottom"
goal_dict['dist'] = get_dist_from_proximity(state[21])
goal_dict['rel_angle'] = get_angle(state[19],state[20])
if (state[11] < 0) and (goal_dict['rel_angle']
is not None) and (goal_dict['dist']
< (0.15+0.03)) and (get_angle_diff(0.0,
goal_dict['rel_angle'])
<= 1.0):
raise RuntimeError("Should be in collision with goal - distance is {0:n}".format(goal_dict['dist']))
elif goal_dict['dist'] > (MAX_RADIUS-POS_ERROR_TOLERANCE):
raise RuntimeError(
"Should not be possible to have dist {0:n} for goal (state[18] {1:n}, state[21] {2:n})".format(
goal_dict['dist'], state[18], state[21]))
goal_dict['abs_angle'] = get_abs_angle(self_dict['body_angle'],goal_dict['rel_angle'])
if goal_dict['abs_angle'] is not None:
est_x_pos, est_y_pos = get_abs_x_y_pos(abs_angle=goal_dict['abs_angle'],
dist=goal_dict['dist'],
self_x_pos=self_dict['x_pos'],
self_y_pos=self_dict['y_pos'],
warn=bool(goal_dict['dist'] < 10),
of_what=which_goal+" goal post")
if est_x_pos is not None:
if (abs(est_x_pos - GOAL_POS_X) > POS_ERROR_TOLERANCE) and (goal_dict['dist'] < 10):
print(
"Estimated x_pos of goal is {0:n} (should be {1:n}; from est abs_angle {2:n}, dist {3:n}, self_x_pos {4:n})".format(
est_x_pos,GOAL_POS_X,goal_dict['abs_angle'],goal_dict['dist'],self_dict['x_pos']),
file=sys.stderr)
sys.stderr.flush()
goal_dict['x_pos'] = GOAL_POS_X
if (state[18] > state[21]):
goal_dict['y_pos'] = GOAL_TOP_POS_Y
if est_y_pos is not None:
if (abs(est_y_pos-GOAL_TOP_POS_Y) > POS_ERROR_TOLERANCE) and (goal_dict['dist'] < 10):
print(
"Estimated y_pos of top goalpost is {0:n} (should be {1:n}; from est abs_angle {2:n}, dist {3:n}, self_y_pos {4:n})".format(
est_y_pos,GOAL_TOP_POS_Y,goal_dict['abs_angle'],goal_dict['dist'],self_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
else:
goal_dict['y_pos'] = GOAL_BOTTOM_POS_Y
if est_y_pos is not None:
if (abs(est_y_pos-GOAL_BOTTOM_POS_Y) > POS_ERROR_TOLERANCE) and (goal_dict['dist'] < 10):
print(
"Estimated y_pos of bottom goalpost is {0:n} (should be {1:n}; from est abs_angle {2:n}, dist {3:n}, self_y_pos {4:n})".format(
est_y_pos,GOAL_BOTTOM_POS_Y,goal_dict['abs_angle'],goal_dict['dist'],self_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
if (state[11] < 0) and (get_angle_diff(0.0, goal_dict['rel_angle'])
<= 1.0) and (get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
goal_dict['x_pos'],
goal_dict['y_pos']) < (0.15+0.03)):
print(
"Should be in collision with goal ({0:n}, {1:n} vs {2:n}, {3:n}; angle {4:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
goal_dict['x_pos'],goal_dict['y_pos'],
goal_dict['rel_angle']),
file=sys.stderr)
sys.stderr.flush()
else:
goal_dict['x_pos'] = GOAL_POS_X
if state[18] > state[21]:
goal_dict['y_pos'] = GOAL_TOP_POS_Y
else:
goal_dict['y_pos'] = GOAL_BOTTOM_POS_Y
else:
goal_dict['dist'] = get_dist_from_proximity(-1)
goal_dict['rel_angle'] = None
goal_dict['abs_angle'] = None
goal_dict['x_pos'] = GOAL_POS_X
if random.random() < 0.5:
goal_dict['y_pos'] = GOAL_BOTTOM_POS_Y
else:
goal_dict['y_pos'] = GOAL_TOP_POS_Y
ball_dict = {}
if state[50] > 0: # ball position valid
ball_dict['dist'] = get_dist_from_proximity(state[53])
ball_dict['rel_angle'] = get_angle(state[51],state[52])
if (state[9] < 0) and (ball_dict['rel_angle']
is not None) and (ball_dict['dist']
< (0.15+0.0425)) and (get_angle_diff(0.0, ball_dict['rel_angle'])
<= 1.0):
raise RuntimeError("Should be in collision with ball - distance is {0:n}".format(ball_dict['dist']))
ball_dict['abs_angle'] = get_abs_angle(self_dict['body_angle'],ball_dict['rel_angle'])
if ball_dict['abs_angle'] is not None:
ball_dict['x_pos'], ball_dict['y_pos'] = get_abs_x_y_pos(abs_angle=ball_dict['abs_angle'],
dist=ball_dict['dist'],
self_x_pos=self_dict['x_pos'],
self_y_pos=self_dict['y_pos'],
warn=bool(ball_dict['dist'] < 10),
of_what='Ball')
if (ball_dict['x_pos'] is None) or (ball_dict['y_pos'] is None):
if (ball_dict['dist'] < 10):
raise RuntimeError("Unknown ball position despite state[50] > 0")
else:
if (state[9] < 0) and (get_angle_diff(0.0, ball_dict['rel_angle'])
<= 1.0) and (get_dist_real(self_dict['x_pos'],self_dict['y_pos'],
ball_dict['x_pos'],ball_dict['y_pos']) < (0.15+0.0425)):
raise RuntimeError(
"Should be in collision with ball ({0:n}, {1:n} vs {2:n}, {3:n}; rel_angle {4:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
ball_dict['x_pos'],ball_dict['y_pos'],
ball_dict['rel_angle']))
else:
ball_dict['dist'] = get_dist_from_proximity(-1)
ball_dict['rel_angle'] = None
ball_dict['abs_angle'] = None
ball_dict['x_pos'] = None
ball_dict['y_pos'] = None
if state[54] > 0: # ball velocity valid
ball_dict['vel_rel_angle'] = get_angle(state[55],state[56])
ball_dict['vel_mag'] = state[57]
else:
ball_dict['vel_rel_angle'] = None
ball_dict['vel_mag'] = 0
return (bit_list, self_dict, goal_dict, ball_dict)
def bool_list_to_int(bit_list):
return sum(2**i*b for i, b in enumerate(bit_list))
def int_to_bool_list(intval, num_bits=BIT_LIST_LEN):
if num_bits < intval.bit_length():
raise RuntimeError(
"Integer value {0:d} will not fit into {1:d} bits (needs {2:d})".format(intval,
num_bits,
intval.bit_length()))
result = []
for bit in range(num_bits):
mask = 1 << bit
result.append(bool((intval & mask) == mask))
return result
def pack_action_bit_list(action, bit_list):
bool_int = bool_list_to_int(bit_list)
return struct.pack(STRUCT_PACK, action, bool_int)
def unpack_action_bit_list(bytestring):
action, bool_int = struct.unpack(STRUCT_PACK, bytestring)
bit_list = int_to_bool_list(bool_int)
return (action, bit_list)
def evaluate_previous_action(hfo_env,
state,
namespace):
if namespace.action in (hfo.NOOP, hfo.QUIT):
warnings.warn("evaluate_previous_action should not have been called with 'action' NOOP/QUIT")
return
bit_list, self_dict, goal_dict, ball_dict = filter_low_level_state(state)
action_status = hfo_env.getLastActionStatus(namespace.action)
action_string = hfo_env.actionToString(namespace.action)
if namespace.action_params:
action_string += '(' + ",".join(list(["{:n}".format(x) for x in namespace.action_params])) + ')'
action_status_observed = hfo.ACTION_STATUS_UNKNOWN # NOTE: Check intent + other bitflags!
if namespace.action == hfo.DASH:
if (namespace.intent !=
INTENT_GOAL_COLLISION) and namespace.prestate_bit_list[3] and (not bit_list[3]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent !=
INTENT_BALL_COLLISION) and namespace.prestate_bit_list[2] and (not bit_list[2]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_BALL_KICKABLE) and (not namespace.prestate_bit_list[4]) and bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_GOAL_COLLISION) and (not namespace.prestate_bit_list[3]) and bit_list[3]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_BALL_COLLISION) and (((not namespace.prestate_bit_list[2]) and bit_list[2]) or
((not namespace.prestate_bit_list[4]) and bit_list[4])):
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
pass # TODO
elif namespace.action == hfo.TURN:
if (namespace.intent !=
INTENT_GOAL_COLLISION) and namespace.prestate_bit_list[3] and (not bit_list[3]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent !=
INTENT_BALL_COLLISION) and namespace.prestate_bit_list[2] and (not bit_list[2]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_BALL_KICKABLE) and (not namespace.prestate_bit_list[4]) and bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_GOAL_COLLISION) and (not namespace.prestate_bit_list[3]) and bit_list[3]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_BALL_COLLISION) and (((not namespace.prestate_bit_list[2]) and bit_list[2]) or
((not namespace.prestate_bit_list[4]) and bit_list[4])):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.prestate_self_dict['body_angle'] is not None) and (self_dict['body_angle'] is not None):
intended_body_angle = namespace.prestate_self_dict['body_angle'] + namespace.action_params[0]
if get_angle_diff(namespace.prestate_self_dict['body_angle'],
intended_body_angle) > get_angle_diff(self_dict['body_angle'],
intended_body_angle):
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif namespace.action == hfo.KICK:
if bit_list[4]:
if namespace.prestate_bit_list[2] and (not bit_list[2]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_bit_list[3] and (not bit_list[3]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
else:
pass # TODO
elif namespace.action == hfo.KICK_TO:
if (namespace.prestate_ball_dict['x_pos'] is not None) and (ball_dict['x_pos'] is not None):
dist_before = get_dist_real(namespace.prestate_ball_dict['x_pos'],
namespace.prestate_ball_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
dist_after = get_dist_real(ball_dict['x_pos'],
ball_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
if dist_before > dist_after:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif bit_list[4]:
if namespace.prestate_bit_list[2] and (not bit_list[2]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_bit_list[3] and (not bit_list[3]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif namespace.action == hfo.MOVE_TO:
if (namespace.intent !=
INTENT_GOAL_COLLISION) and namespace.prestate_bit_list[3] and (not bit_list[3]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent !=
INTENT_BALL_COLLISION) and namespace.prestate_bit_list[2] and (not bit_list[2]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_BALL_KICKABLE) and (not namespace.prestate_bit_list[4]) and bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_GOAL_COLLISION) and (not namespace.prestate_bit_list[3]) and bit_list[3]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_BALL_COLLISION) and (((not namespace.prestate_bit_list[2]) and bit_list[2]) or
((not namespace.prestate_bit_list[4]) and bit_list[4])):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.prestate_self_dict['x_pos'] is not None) and (self_dict['x_pos'] is not None):
dist_before = get_dist_real(namespace.prestate_self_dict['x_pos'],
namespace.prestate_self_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
dist_after = get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
if dist_before > dist_after:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif namespace.action == hfo.DRIBBLE_TO:
if namespace.prestate_bit_list[4]:
if not bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_BAD
elif (namespace.intent != INTENT_GOAL_COLLISION) and namespace.prestate_bit_list[3] and (not bit_list[3]): # goal collision
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent != INTENT_BALL_COLLISION) and namespace.prestate_bit_list[2] and (not bit_list[2]): # ball collision
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.prestate_self_dict['x_pos'] is not None) and (self_dict['x_pos'] is not None):
dist_before = get_dist_real(namespace.prestate_self_dict['x_pos'],
namespace.prestate_self_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
dist_after = get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
if dist_before > dist_after:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent != INTENT_GOAL_COLLISION) and namespace.prestate_bit_list[3] and (not bit_list[3]): # goal collision
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent != INTENT_BALL_COLLISION) and namespace.prestate_bit_list[2] and (not bit_list[2]): # ball collision
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_ball_dict['dist'] > ball_dict['dist']:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_ball_dict['dist'] < ball_dict['dist']:
action_status_observed = hfo.ACTION_STATUS_BAD
elif ball_dict['dist'] < ((1-ERROR_TOLERANCE)*MAX_RADIUS):
action_status_observed = hfo.ACTION_STATUS_BAD
elif (namespace.action == hfo.INTERCEPT) or (namespace.action == hfo.GO_TO_BALL):
if namespace.prestate_bit_list[4]:
if bit_list[4]:
if (namespace.intent != INTENT_BALL_COLLISION) and bit_list[2]:
action_status_observed = hfo.ACTION_STATUS_BAD
elif (namespace.intent != INTENT_GOAL_COLLISION) and bit_list[3]:
action_status_observed = hfo.ACTION_STATUS_BAD
else:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_bit_list[3] and (not bit_list[3]): # goal collision
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_BALL_COLLISION) and (not namespace.prestate_bit_list[2]) and bit_list[2]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_ball_dict['dist'] > ball_dict['dist']:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_ball_dict['dist'] < ball_dict['dist']:
action_status_observed = hfo.ACTION_STATUS_BAD
elif ball_dict['dist'] < ((1-ERROR_TOLERANCE)*MAX_RADIUS):
action_status_observed = hfo.ACTION_STATUS_BAD
else:
raise RuntimeError("Unknown how to evaluate {0!s}".format(action_string))
if action_status_observed == hfo.ACTION_STATUS_UNKNOWN:
action_status_guessed = action_status
else:
action_status_guessed = action_status_observed
if (action_status != action_status_observed) and (action_status != hfo.ACTION_STATUS_UNKNOWN):
print(
"{0!s}: Difference between feedback ({1!s}), observed ({2!s}) action_status (prestate bit_list {3!s}, current bit list {4!s})".format(
action_string,
hfo_env.actionStatusToString(action_status),
hfo_env.actionStatusToString(action_status_observed),
"".join(map(str,map(int,namespace.prestate_bit_list))),
"".join(map(str,map(int,bit_list)))),
file=sys.stderr)
sys.stderr.flush()
if (action_status_guessed == hfo.ACTION_STATUS_BAD) and (not namespace.checking_intent):
# unexpected lack of success
print(
"Unexpected lack of success for last action {0!s} (prestate bit_list {1!s}, current bit list {2!s})".format(
action_string,
"".join(map(str,map(int,namespace.prestate_bit_list))),
"".join(map(str,map(int,bit_list)))),
file=sys.stderr)
if namespace.intent == INTENT_GOAL_COLLISION:
print("Prestate goal distance is {0:n}, current goal distance is {1:n}".format(namespace.prestate_goal_dict['dist'],
goal_dict['dist']),
file=sys.stderr)
elif namespace.intent == INTENT_BALL_COLLISION:
print("Prestate ball distance is {0:n}, current ball distance is {1:n}".format(namespace.prestate_ball_dict['dist'],
ball_dict['dist']),
file=sys.stderr)
sys.stderr.flush()
namespace.action_tried[namespace.action] += 1
namespace.struct_tried[pack_action_bit_list(namespace.action,namespace.prestate_bit_list)] += 1
# further analysis...
if action_status_guessed == hfo.ACTION_STATUS_MAYBE:
# further analysis...
if namespace.prestate_bit_list[3] and (namespace.action in (hfo.KICK, hfo.KICK_TO)):
print("OK status from {0!s} despite goal collision in prestate (poststate: {1!s})".format(
action_string, bit_list[3]))
sys.stdout.flush()
if namespace.prestate_bit_list[2] and (namespace.action in (hfo.KICK, hfo.MOVE_TO,
hfo.GO_TO_BALL)):
print("OK status from {0!s} despite ball collision in prestate (poststate: {1!s})".format(
action_string, bit_list[2]))
sys.stdout.flush()
def save_action_prestate(action,
prestate_bit_list,
prestate_self_dict,
prestate_goal_dict,
prestate_ball_dict,
intent,
checking_intent,
namespace,
action_params=None):
namespace.action = action
namespace.prestate_bit_list = prestate_bit_list
namespace.prestate_self_dict = prestate_self_dict
namespace.prestate_goal_dict = prestate_goal_dict
namespace.prestate_ball_dict = prestate_ball_dict
if action_params is None:
action_params = []
namespace.action_params = action_params
namespace.intent = intent
if intent is not None:
namespace.intent_done[intent] += 1
namespace.checking_intent = checking_intent
if checking_intent:
namespace.action_tried[action] += 1
namespace.struct_tried[pack_action_bit_list(action, prestate_bit_list)] += 1
if action_params:
return [action] + action_params
return action
def determine_which_action(poss_actions_list, namespace, bit_list):
"""
Decides between poss_actions based on lowest struct_tried,
then lowest action_tried, then random.
"""
if len(poss_actions_list) > 1:
random.shuffle(poss_actions_list)
poss_actions_list.sort(key=lambda action: namespace.action_tried[action])
if namespace.action_tried[poss_actions_list[0]] == namespace.action_tried[poss_actions_list[1]]:
poss_actions_list.sort(key=lambda action: namespace.struct_tried[pack_action_bit_list(action, bit_list)])
return poss_actions_list[0]
def do_intent(hfo_env,
state,
namespace):
bit_list, self_dict, goal_dict, ball_dict = filter_low_level_state(state)
prestate_dict = {'prestate_bit_list': bit_list,
'prestate_self_dict': self_dict,
'prestate_goal_dict': goal_dict,
'prestate_ball_dict': ball_dict,
'checking_intent': False,
'intent': namespace.intent,
'namespace': namespace}
if (namespace.intent == INTENT_BALL_COLLISION) and bit_list[4]: # ball is kickable
ball_rel_angle = ball_dict['rel_angle']
if ball_rel_angle > 180:
ball_rel_angle -= 360
poss_actions_list = []
if bit_list[0] and (ball_dict['x_pos'] is not None): # self position valid
if get_dist_real(self_dict['x_pos'],self_dict['y_pos'],
ball_dict['x_pos'],ball_dict['y_pos']) < (0.15+0.0425):
if abs(ball_rel_angle) > 0.5:
hfo_env.act(*save_action_prestate(action=hfo.TURN,action_params=[ball_rel_angle],
**prestate_dict))
else:
print(
"Should already be in collision with ball ({0:n}, {1:n} vs {2:n}, {3:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
ball_dict['x_pos'],ball_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, ball_rel_angle],
**prestate_dict))
return
poss_actions_list.append(hfo.MOVE_TO)
if abs(ball_rel_angle) > 0.5:
poss_actions_list.append(hfo.TURN)
if abs(ball_rel_angle) < 1.0:
poss_actions_list.append(hfo.DASH)
action = determine_which_action(poss_actions_list, namespace, bit_list)
if action == hfo.MOVE_TO:
hfo_env.act(*save_action_prestate(action=hfo.MOVE_TO,
action_params=[ball_dict['x_pos'],
ball_dict['y_pos']],
**prestate_dict))
elif action == hfo.TURN:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[ball_rel_angle],
**prestate_dict))
elif action == hfo.DASH:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, ball_rel_angle],
**prestate_dict))
else:
raise RuntimeError("Unknown action {0!r}".format(action))
return
elif (namespace.intent == INTENT_BALL_KICKABLE) or (namespace.intent == INTENT_BALL_COLLISION):
poss_actions_list = [hfo.INTERCEPT]
if bit_list[0]:
poss_actions_list.append(hfo.GO_TO_BALL)
ball_rel_angle = ball_dict['rel_angle']
if ball_rel_angle > 180:
ball_rel_angle -= 360
if abs(ball_rel_angle) > 0.5:
poss_actions_list.append(hfo.TURN)
if abs(ball_rel_angle) < 1.0:
poss_actions_list.append(hfo.DASH)
if bit_list[0] and (ball_dict['x_pos'] is not None):
poss_actions_list.append(hfo.MOVE_TO)
action = determine_which_action(poss_actions_list, namespace, bit_list)
if (action == hfo.GO_TO_BALL) or (action == hfo.INTERCEPT):
hfo_env.act(save_action_prestate(action=action,**prestate_dict))
elif action == hfo.TURN:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[ball_rel_angle],
**prestate_dict))
elif action == hfo.DASH:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, ball_rel_angle],
**prestate_dict))
elif action == hfo.MOVE_TO:
hfo_env.act(*save_action_prestate(action=hfo.MOVE_TO,
action_params=[ball_dict['x_pos'],
ball_dict['y_pos']],
**prestate_dict))
else:
raise RuntimeError("Unknown action {0!r}".format(action))
return
elif namespace.intent == INTENT_GOAL_COLLISION:
goal_rel_angle = goal_dict['rel_angle']
if goal_rel_angle > 180:
goal_rel_angle -= 360
poss_actions_list = []
if (get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
goal_dict['x_pos'],
goal_dict['y_pos']) < (0.15+0.03)):
if abs(goal_rel_angle) > 0.5:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[goal_rel_angle],
**prestate_dict))
else:
print(
"Should already be in collision with goal ({0:n}, {1:n} vs {2:n}, {3:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
goal_dict['x_pos'],goal_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
if not bit_list[4]:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, goal_rel_angle],
**prestate_dict))
else:
hfo_env.act(*save_action_prestate(action=hfo.DRIBBLE_TO,
action_params=[(self_dict['x_pos']+
(2*(goal_dict['x_pos']-
self_dict['x_pos']))),
(self_dict['y_pos']+
(2*(goal_dict['y_pos']-
self_dict['y_pos'])))],
**prestate_dict))
return
poss_actions_list.append(hfo.DRIBBLE_TO)
if not bit_list[4]:
poss_actions_list.append(hfo.MOVE_TO)
if goal_rel_angle is not None:
if abs(goal_rel_angle) > 0.5:
poss_actions_list.append(hfo.TURN)
if (abs(goal_rel_angle) < 1.0) and ((not bit_list[4]) or (goal_dict['dist'] < 0.36)):
poss_actions_list.append(hfo.DASH)
action = determine_which_action(poss_actions_list, namespace, bit_list)
if (action == hfo.TURN):
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[goal_rel_angle],
**prestate_dict))
elif (action == hfo.MOVE_TO):
hfo_env.act(*save_action_prestate(action=hfo.MOVE_TO,
action_params=[goal_dict['x_pos'], goal_dict['y_pos']],
**prestate_dict))
elif (action == hfo.DRIBBLE_TO):
if bit_list[4] and (get_dist_real(self_dict['x_pos'],self_dict['y_pos'],
goal_dict['x_pos'],goal_dict['y_pos']) <= 0.36):
x_pos_desired = get_x_normalized(get_x_unnormalized(goal_dict['x_pos'])+0.35)
else:
x_pos_desired = get_x_normalized(get_x_unnormalized(goal_dict['x_pos'])-0.35)
hfo_env.act(*save_action_prestate(action=hfo.DRIBBLE_TO,
action_params=[x_pos_desired, goal_dict['y_pos']],
**prestate_dict))
elif (action == hfo.DASH):
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, goal_rel_angle],
**prestate_dict))
else:
raise RuntimeError("Unknown action {0!r}".format(action))
return
else:
raise RuntimeError("Unexpected intent {0!r}".format(namespace.intent))
def do_next_action(hfo_env,
state,
namespace):
bit_list, self_dict, goal_dict, ball_dict = filter_low_level_state(state)
if not bit_list[1]: # self velocity invalid
# long-term: Turn, Kick, Kick_To
raise NotImplementedError("Not yet set up for self velocity invalid")
prior_intent = namespace.intent
# admittedly, need to check for some of "intent" circumstances in combo!
if namespace.intent == INTENT_BALL_COLLISION:
if bit_list[2]:
namespace.intent = None
else:
if (not bit_list[5]) or (ball_dict['x_pos'] is None): # first: ball location not valid
namespace.intent_done[INTENT_BALL_COLLISION] -= 1
if bit_list[0]: # self location valid
if bit_list[3]:
namespace.intent = None
else:
namespace.intent = INTENT_GOAL_COLLISION
else:
raise NotImplementedError("Not yet set up for self+ball location invalid")
elif namespace.intent == INTENT_BALL_KICKABLE:
if bit_list[4]:
namespace.intent = None
else:
if (not bit_list[5]) or (ball_dict['x_pos'] is None): # first: ball location not valid
namespace.intent_done[INTENT_BALL_KICKABLE] -= 1
if bit_list[0]: # self location valid
if bit_list[3]:
namespace.intent = None
else:
namespace.intent = INTENT_GOAL_COLLISION
else:
raise NotImplementedError("Not yet set up for self+ball location invalid")
elif namespace.intent == INTENT_GOAL_COLLISION:
if bit_list[3]:
namespace.intent = None
else:
if (not bit_list[0]) or (goal_dict['rel_angle'] is None): # first: self location not valid
namespace.intent_done[INTENT_GOAL_COLLISION] -= 1
if bit_list[4] or bit_list[2]:
namespace.intent = None
elif bit_list[5]: # ball location valid
if namespace.intent_done[INTENT_BALL_COLLISION] > namespace.intent_done[INTENT_BALL_KICKABLE]:
namespace.intent = INTENT_BALL_KICKABLE
elif namespace.intent_done[INTENT_BALL_COLLISION] < namespace.intent_done[INTENT_BALL_KICKABLE]:
namespace.intent = INTENT_BALL_COLLISION
elif random.random() < 0.5:
namespace.intent = INTENT_BALL_KICKABLE
else:
namespace.intent = INTENT_BALL_COLLISION
else:
raise NotImplementedError("Not yet set up for self+ball location invalid")
if namespace.intent is not None:
return do_intent(hfo_env, state, namespace)
# figure out what to do next
if not (bit_list[3]):
if bit_list[0]:
poss_intent_set = set([INTENT_GOAL_COLLISION])
else:
poss_intent_set = set([INTENT_BALL_KICKABLE,INTENT_BALL_COLLISION,INTENT_GOAL_COLLISION])
if not bit_list[5]:
poss_intent_set.remove(INTENT_BALL_KICKABLE)
poss_intent_set.remove(INTENT_BALL_COLLISION)
if not bit_list[0]:
poss_intent_set.remove(INTENT_GOAL_COLLISION)
if bit_list[4]:
poss_intent_set.remove(INTENT_BALL_KICKABLE)
if not poss_intent_set:
raise NotImplementedError("Not yet set up for self+ball location invalid")
poss_intent = list(poss_intent_set)
if len(poss_intent) > 1:
random.shuffle(poss_intent)
poss_intent.sort(key=lambda intent: namespace.intent_done[intent])
namespace.intent = poss_intent[0]
print("INTENT: {}".format(INTENT_DICT[namespace.intent]))
sys.stdout.flush()
return do_intent(hfo_env, state, namespace)
## elif bit_list[4]: # kickable
## actions_want_check = set([hfo.INTERCEPT, hfo.GO_TO_BALL])
## if bit_list[2] or bit_list[3]:
## actions_want_check |= set([hfo.KICK, hfo.KICK_TO])
## elif bit_list[2]: # colliding with ball
## actions_want_check = set([hfo.GO_TO_BALL])
## if bit_list[3]: # colliding with goal
## actions_want_check |= set([hfo.KICK, hfo.KICK_TO, hfo.DRIBBLE_TO])
else: # colliding with goal
actions_want_check = set([hfo.KICK, hfo.KICK_TO, hfo.DRIBBLE_TO])
if prior_intent is not None:
print("INTENT: WAS {}".format(INTENT_DICT[prior_intent]))
else:
print("INTENT: NONE")
sys.stdout.flush()
if bit_list[4] and (prior_intent not in (None, INTENT_BALL_KICKABLE)):
namespace.intent_done[INTENT_BALL_KICKABLE] += 1
if bit_list[2] and (prior_intent not in (None, INTENT_BALL_COLLISION)):
namespace.intent_done[INTENT_BALL_COLLISION] += 1
if bit_list[3] and (prior_intent not in (None, INTENT_GOAL_COLLISION)):
namespace.intent_done[INTENT_GOAL_COLLISION] += 1
actions_maybe_check = set([hfo.DASH, hfo.TURN, hfo.MOVE_TO])
if not bit_list[6]: # ball velocity invalid
# long-term: Kick, Kick_To, Intercept - if know ball location; Kick_To requires self location valid
raise NotImplementedError("Not yet set up for ball velocity invalid")
if bit_list[5]: # ball position valid
actions_maybe_check |= set([hfo.DRIBBLE_TO, hfo.INTERCEPT, hfo.GO_TO_BALL])
if bit_list[4]: # ball kickable
actions_maybe_check |= set([hfo.KICK, hfo.KICK_TO])
poss_actions = actions_want_check & actions_maybe_check
if not poss_actions:
raise RuntimeError(
"Unknown what to do - actions_want_check {0!r}, actions_maybe_check {1!r}".format(actions_want_check,
actions_maybe_check))
action = determine_which_action(list(poss_actions), namespace, bit_list)
prestate_dict = {'action': action,
'prestate_bit_list': bit_list,
'prestate_self_dict': self_dict,
'prestate_goal_dict': goal_dict,
'prestate_ball_dict': ball_dict,
'checking_intent': True,
'intent': None,
'namespace': namespace}
# ends due to out-of-bounds are annoying/noise in the data
if (action in (hfo.DRIBBLE_TO, hfo.KICK_TO)) or ((action == hfo.MOVE_TO) and (bit_list[4] or bit_list[2])):
if ball_dict['x_pos'] < -1*POS_ERROR_TOLERANCE:
x_pos = random.uniform(-0.5,min(0.9,MAX_POS_X_BALL_SAFE))
elif ball_dict['x_pos'] > POS_ERROR_TOLERANCE:
x_pos = random.uniform(max(-0.9,MIN_POS_X_BALL_SAFE),0.5)
else:
x_pos = random.uniform(max(-0.9,MIN_POS_X_BALL_SAFE),min(0.9,MAX_POS_X_BALL_SAFE))
if ball_dict['y_pos'] < -1*POS_ERROR_TOLERANCE:
y_pos = random.uniform(-0.5,min(0.9,MAX_POS_Y_BALL_SAFE))
elif ball_dict['y_pos'] > POS_ERROR_TOLERANCE:
y_pos = random.uniform(max(-0.9,MIN_POS_Y_BALL_SAFE),0.5)
else:
y_pos = random.uniform(max(-0.9,MIN_POS_Y_BALL_SAFE),min(0.9,MAX_POS_Y_BALL_SAFE))
else:
x_pos = random.uniform(MIN_POS_X_OK,MAX_POS_X_OK)
y_pos = random.uniform(MIN_POS_Y_OK,MAX_POS_Y_OK)
max_power = 80
if (action == hfo.KICK) and (get_dist_normalized(ball_dict['x_pos'],
ball_dict['y_pos'],
0.0,0.0) > 1):
if (self_dict['center_angle'] is not None):
max_power = 100
direction = self_dict['center_angle']
if direction > 180:
direction -= 360
else:
max_power = 50
direction = random.uniform(-180,180)
else:
direction = random.uniform(-180,180)
if action in (hfo.INTERCEPT, hfo.GO_TO_BALL):
hfo_env.act(save_action_prestate(**prestate_dict))
elif action in (hfo.MOVE_TO, hfo.DRIBBLE_TO):
hfo_env.act(*save_action_prestate(action_params=[x_pos,y_pos],
**prestate_dict))
elif action == hfo.KICK_TO:
if min(abs(x_pos),abs(y_pos)) > 0.5:
max_speed = 1
elif max(abs(x_pos),abs(y_pos)) > 0.5:
max_speed = 2
else:
max_speed = 3
hfo_env.act(*save_action_prestate(action_params=[x_pos,y_pos,
random.uniform(0,max_speed)],
**prestate_dict))
elif action == hfo.DASH:
hfo_env.act(*save_action_prestate(action_params=[random.uniform(-100,100), # power
direction],
**prestate_dict))
elif action == hfo.TURN:
hfo_env.act(*save_action_prestate(action_params=[direction],**prestate_dict))
elif action == hfo.KICK:
hfo_env.act(*save_action_prestate(action_params=[random.uniform(0,max_power),
direction],**prestate_dict))
else:
raise RuntimeError("Unknown action {!r}".format(action))
return None
def main_explore_offense_actions_fullstate():
hfo_env = hfo.HFOEnvironment()
parser = argparse.ArgumentParser()
parser.add_argument('--port', type=int, default=6000,
help="Server port")
parser.add_argument('--seed', type=int, default=None,
help="Python randomization seed; uses python default if 0 or not given")
parser.add_argument('--server-seed', type=int, default=None,
help="Server randomization seed; uses default if 0 or not given")
parser.add_argument('--record', default=False, action='store_true',
help="Doing HFO --record")
parser.add_argument('--rdir', type=str, default='log/',
help="Set directory to use if doing HFO --record")
args=parser.parse_args()
namespace = argparse.Namespace()
namespace.intent_done = {}
namespace.intent_done[INTENT_BALL_COLLISION] = 0
namespace.intent_done[INTENT_BALL_KICKABLE] = 0
namespace.intent_done[INTENT_GOAL_COLLISION] = 0
namespace.action_tried = {}
namespace.struct_tried = {}
for n in list(range(hfo.NUM_HFO_ACTIONS)):
namespace.action_tried[n] = 0
for x in list(range((2**(BIT_LIST_LEN+1))-1)):
namespace.struct_tried[struct.pack(STRUCT_PACK, n, x)] = 0
script_dir = os.path.dirname(os.path.abspath(os.path.realpath(__file__)))
binary_dir = os.path.normpath(script_dir + "/../bin")
conf_dir = os.path.join(binary_dir, 'teams/base/config/formations-dt')
bin_HFO = os.path.join(binary_dir, "HFO")
popen_list = [sys.executable, "-x", bin_HFO,
"--frames-per-trial=3000", "--untouched-time=2000",
"--port={0:d}".format(args.port),
"--offense-agents=1", "--defense-npcs=0",
"--offense-npcs=0", "--trials=20", "--headless",
"--fullstate"]
if args.seed:
random.seed(args.seed)
if args.record:
popen_list.append("--record")
if args.server_seed:
popen_list.append("--seed={0:d}".format(args.server_seed))
HFO_process = subprocess.Popen(popen_list)
time.sleep(0.2)
assert (HFO_process.poll() is
None), "Failed to start HFO with command '{}'".format(" ".join(popen_list))
hfo_env = hfo.HFOEnvironment()
time.sleep(4.8)
connect_args = [hfo.LOW_LEVEL_FEATURE_SET, conf_dir, args.port, "localhost",
"base_left", False]
if args.record:
connect_args.append(record_dir=args.rdir)
try:
hfo_env.connectToServer(*connect_args)
for ignored_episode in itertools.count():
status = hfo.IN_GAME
namespace.action = hfo.NOOP
namespace.action_params = []
namespace.prestate_bit_list = [0,0,0,0,0,0,0]
namespace.prestate_self_dict = {'x_pos': None,
'y_pos': None,
'body_angle': None}
namespace.prestate_goal_dict = {'dist': get_dist_from_proximity(-1),
'rel_angle': None,
'abs_angle': None,
'x_pos': GOAL_POS_X,
'y_pos': 0.0}
namespace.prestate_ball_dict = {'dist': get_dist_from_proximity(-1),
'rel_angle': None,
'abs_angle': None,
'x_pos': None,
'y_pos': None}
namespace.intent = None
namespace.checking_intent = True
while status == hfo.IN_GAME:
state = hfo_env.getState()
if namespace.action != hfo.NOOP:
evaluate_previous_action(hfo_env, state, namespace)
do_next_action(hfo_env, state, namespace)
status = hfo_env.step()
if status == hfo.SERVER_DOWN:
# summarize results
hfo_env.act(hfo.QUIT)
break
finally:
if HFO_process.poll() is None:
HFO_process.terminate()
os.system("killall -9 rcssserver") # remove if ever start doing multi-server testing!
if __name__ == '__main__':
main_explore_offense_actions_fullstate()
example/explore_offense_actions_fullstate.twoplayer.py deleted 100755 → 0
View file @ 0f361781
#!/usr/bin/env python
"""
This is a script to explore what actions are available under what circumstances,
plus testing out feedback and the use of two players controlled by the same process.
It currently does not work due to problems with the latter.
"""
from __future__ import print_function
# encoding: utf-8
import argparse
#import functools
import itertools
import math
import os
import random
import struct
import subprocess
import sys
import time
import warnings
try:
import hfo
except ImportError:
print('Failed to import hfo. To install hfo, in the HFO directory'\
' run: \"pip install .\"')
exit()
HALF_FIELD_WIDTH = 68 # y coordinate
HALF_FIELD_FULL_WIDTH = HALF_FIELD_WIDTH * 1.2
HALF_FIELD_LENGTH = 52.5 # x coordinate
HALF_FIELD_FULL_LENGTH = HALF_FIELD_LENGTH * 1.2
GOAL_WIDTH = 14.02
MAX_RADIUS = math.sqrt((HALF_FIELD_WIDTH**2) + ((HALF_FIELD_LENGTH/2)**2)) # latter is incorrect for _actual_ maximum distance...
ERROR_TOLERANCE = math.pow(sys.float_info.epsilon,0.25)
POS_ERROR_TOLERANCE = 0.05
MAX_REAL_X_VALID = 1.1*HALF_FIELD_LENGTH
MIN_REAL_X_VALID = -0.1*HALF_FIELD_LENGTH
MAX_REAL_Y_VALID = 1.1*(HALF_FIELD_WIDTH/2)
MIN_REAL_Y_VALID = -1.1*(HALF_FIELD_WIDTH/2)
def unnormalize(pos, min_val, max_val, silent=False):
assert max_val > min_val
if (not silent) and (abs(pos) > 1.0+ERROR_TOLERANCE):
print("Pos {0:n} fed to unnormalize (min_val {1:n}, max_val {2:n})".format(
pos, min_val, max_val), file=sys.stderr)
sys.stderr.flush()
pos = min(1.0,max(-1.0,pos))
top = (pos - -1.0)/(1 - -1.0)
bot = max_val - min_val
return (top*bot) + min_val
def get_y_unnormalized(y_pos, silent=False):
y_pos_real = unnormalize(y_pos, MIN_REAL_Y_VALID, MAX_REAL_Y_VALID, silent=silent)
est_y_pos = get_y_normalized(y_pos_real, silent=silent)
if abs(y_pos - est_y_pos) > POS_ERROR_TOLERANCE:
raise RuntimeError(
"Bad denormalization/normalization of {0:n} to {1:n}; reverse {2:n}".format(
y_pos, y_pos_real, est_y_pos))
return y_pos_real
def get_x_unnormalized(x_pos, silent=False):
x_pos_real = unnormalize(x_pos, MIN_REAL_X_VALID, MAX_REAL_X_VALID, silent=silent)
est_x_pos = get_x_normalized(x_pos_real, silent=silent)
if abs(x_pos - est_x_pos) > POS_ERROR_TOLERANCE:
raise RuntimeError(
"Bad denormalization/normalization of {0:n} to {1:n}; reverse {2:n}".format(
x_pos, x_pos_real, est_x_pos))
return x_pos_real
def normalize(pos, min_val, max_val, silent=False):
assert max_val > min_val
top = (pos - min_val)/(max_val - min_val)
bot = 1.0 - -1.0
num = (top*bot) + -1.0
if abs(num) > 1.0+POS_ERROR_TOLERANCE:
if abs(num) > 1.1:
raise RuntimeError("Pos {0:n} gives normalized num {1:n} (min_val {2:n}, max_val {3:n})".format(
pos, num, min_val, max_val))
elif not silent:
print(
"Pos {0:n} gives normalized num {1:n} (min_val {2:n}, max_val {3:n})".format(
pos, num, min_val, max_val), file=sys.stderr)
sys.stderr.flush()
return min(1.0,max(-1.0,num))
def get_y_normalized(y_pos, silent=False):
y_pos_norm = normalize(y_pos, MIN_REAL_Y_VALID, MAX_REAL_Y_VALID, silent=silent)
## est_y_pos = get_y_unnormalized(y_pos_norm, silent=silent)
## if abs(y_pos - est_y_pos) > POS_ERROR_TOLERANCE:
## raise RuntimeError("Bad normalization/denormalization of {0:n} to {1:n}; reverse {2:n}".format(
## y_pos, y_pos_norm, est_y_pos))
return y_pos_norm
def get_x_normalized(x_pos, silent=False):
return normalize(x_pos, MIN_REAL_X_VALID, MAX_REAL_X_VALID, silent=silent)
GOAL_POS_X = get_x_normalized(HALF_FIELD_LENGTH)
GOAL_TOP_POS_Y = get_y_normalized(-1*(GOAL_WIDTH/2))
GOAL_BOTTOM_POS_Y = get_y_normalized(GOAL_WIDTH/2)
MAX_POS_Y_BALL_SAFE = get_y_normalized(HALF_FIELD_WIDTH/2) - POS_ERROR_TOLERANCE
MIN_POS_Y_BALL_SAFE = get_y_normalized(-0.5*HALF_FIELD_WIDTH) + POS_ERROR_TOLERANCE
MAX_POS_X_BALL_SAFE = get_x_normalized(HALF_FIELD_LENGTH) - POS_ERROR_TOLERANCE
MIN_POS_X_BALL_SAFE = get_x_normalized(0) + POS_ERROR_TOLERANCE
MAX_POS_X_OK = 1.0 - ERROR_TOLERANCE
MIN_POS_X_OK = -1.0 + ERROR_TOLERANCE
MAX_POS_Y_OK = MAX_POS_X_OK
MIN_POS_Y_OK = MIN_POS_X_OK
def get_dist_real(ref_x, ref_y, src_x, src_y, silent=False):
ref_x_real = get_x_unnormalized(ref_x, silent=silent)
ref_y_real = get_y_unnormalized(ref_y, silent=silent)
src_x_real = get_x_unnormalized(src_x, silent=silent)
src_y_real = get_y_unnormalized(src_y, silent=silent)
return math.sqrt(math.pow((ref_x_real - src_x_real),2) +
math.pow((ref_y_real - src_y_real),2))
def get_dist_from_real(ref_x_real, ref_y_real, src_x_real, src_y_real):
return math.sqrt(math.pow((ref_x_real - src_x_real),2) +
math.pow((ref_y_real - src_y_real),2))
def get_dist_normalized(ref_x, ref_y, src_x, src_y):
return math.sqrt(math.pow((ref_x - src_x),2) +
math.pow(((HALF_FIELD_WIDTH/HALF_FIELD_LENGTH)*(ref_y - src_y)),2))
#Instead of adding six as a dependency, this code was copied from the six implementation.
#six is Copyright (c) 2010-2015 Benjamin Peterson
if sys.version_info[0] >= 3:
def iterkeys(d, **kw):
return iter(d.keys(**kw))
def iteritems(d, **kw):
return iter(d.items(**kw))
def itervalues(d, **kw):
return iter(d.values(**kw))
else:
def iterkeys(d, **kw):
return iter(d.iterkeys(**kw))
def iteritems(d, **kw):
return iter(d.iteritems(**kw))
def itervalues(d, **kw):
return iter(d.itervalues(**kw))
INTENT_BALL_COLLISION = 0
INTENT_BALL_KICKABLE = 1
INTENT_GOAL_COLLISION = 2
INTENT_PLAYER_COLLISION = 3
INTENT_DICT = {INTENT_BALL_COLLISION: 'INTENT_BALL_COLLISION',
INTENT_BALL_KICKABLE: 'INTENT_BALL_KICKABLE',
INTENT_GOAL_COLLISION: 'INTENT_GOAL_COLLISION',
INTENT_PLAYER_COLLISION: 'INTENT_PLAYER_COLLISION'}
BIT_LIST_LEN = 8
STRUCT_PACK = "BH"
def get_dist_from_proximity(proximity, max_dist=MAX_RADIUS):
proximity_real = unnormalize(proximity, 0.0, 1.0)
dist = (1 - proximity_real)*max_dist
if (dist > (max_dist+ERROR_TOLERANCE)) or (dist <= (-1.0*ERROR_TOLERANCE)):
warnings.warn("Proximity {0:n} gives dist {1:n} (max_dist {2:n})".format(proximity,dist,max_dist))
return min(max_dist,max(0,dist))
def get_proximity_from_dist(dist, max_dist=MAX_RADIUS):
if dist > (max_dist+ERROR_TOLERANCE):
print("Dist {0:n} is above max_dist {1:n}".format(dist, max_dist), file=sys.stderr)
sys.stderr.flush()
proximity_real = min(1.0, max(0.0, (1.0 - (dist/max_dist))))
return normalize(proximity_real, 0.0, 1.0)
# MAX_GOAL_DIST - may wish to work out...
def get_angle(sin_angle,cos_angle):
if max(abs(sin_angle),abs(cos_angle)) <= sys.float_info.epsilon:
warnings.warn(
"Unable to accurately determine angle from sin_angle {0:n} cos_angle {1:n}".format(
sin_angle, cos_angle))
return None
angle = math.degrees(math.atan2(sin_angle,cos_angle))
if angle < 0:
angle += 360
return angle
def get_abs_angle(body_angle,rel_angle):
if (body_angle is None) or (rel_angle is None):
return None
angle = body_angle + rel_angle
while angle >= 360:
angle -= 360
if angle < 0:
if abs(angle) <= ERROR_TOLERANCE:
return 0.0
warnings.warn("Bad body_angle {0:n} and/or rel_angle {1:n}".format(body_angle,rel_angle))
return None
return angle
def get_angle_diff(angle1, angle2):
if angle1 > angle2:
return min((angle1 - angle2),abs(angle1 - angle2 - 360))
elif angle1 < angle2:
return min((angle2 - angle1),abs(angle2 - angle1 - 360))
return 0.0
def reverse_angle(angle):
angle += 180
while angle >= 360:
angle -= 360
return angle
def get_abs_x_y_pos(abs_angle, dist, self_x_pos, self_y_pos, warn=True, of_what=""):
poss_xy_pos_real = {}
max_deviation_xy_pos_real = {}
total_deviation_xy_pos_real = {}
dist_xy_pos_real = {}
self_x_pos_real = get_x_unnormalized(self_x_pos)
self_y_pos_real = get_y_unnormalized(self_y_pos)
start_string = ""
if of_what:
start_string = of_what + ': '
for angle in [(abs_angle-1),(abs_angle+1),abs_angle]:
angle_radians = math.radians(angle)
sin_angle = math.sin(angle_radians)
cos_angle = math.cos(angle_radians)
est_x_pos_real = (cos_angle*dist) + self_x_pos_real
est_y_pos_real = (sin_angle*dist) + self_y_pos_real
if ((MIN_REAL_X_VALID*(1-POS_ERROR_TOLERANCE))
<= est_x_pos_real <=
(MAX_REAL_X_VALID*(1+POS_ERROR_TOLERANCE))) and ((MIN_REAL_Y_VALID*(1-POS_ERROR_TOLERANCE))
<= est_y_pos_real <=
(MAX_REAL_Y_VALID*(1+POS_ERROR_TOLERANCE))):
poss_xy_pos_real[angle] = (est_x_pos_real, est_y_pos_real)
if est_x_pos_real < MIN_REAL_X_VALID:
x_deviation = (MIN_REAL_X_VALID-est_x_pos_real)/(MAX_REAL_X_VALID-MIN_REAL_X_VALID)
elif est_x_pos_real > MAX_REAL_X_VALID:
x_deviation = (est_x_pos_real-MAX_REAL_X_VALID)/(MAX_REAL_X_VALID-MIN_REAL_X_VALID)
else:
x_deviation = 0.0
if est_y_pos_real < MIN_REAL_Y_VALID:
y_deviation = (MIN_REAL_Y_VALID-est_y_pos_real)/(MAX_REAL_Y_VALID-MIN_REAL_Y_VALID)
elif est_y_pos_real > MAX_REAL_Y_VALID:
y_deviation = (est_y_pos_real-MAX_REAL_Y_VALID)/(MAX_REAL_Y_VALID-MIN_REAL_Y_VALID)
else:
y_deviation = 0.0
max_deviation_xy_pos_real[angle] = max(x_deviation,y_deviation)
total_deviation_xy_pos_real[angle] = x_deviation+y_deviation
dist_xy_pos_real[angle] = get_dist_from_real(est_x_pos_real,
est_y_pos_real,
min(MAX_REAL_X_VALID,
max(MIN_REAL_X_VALID,
est_x_pos_real)),
min(MAX_REAL_Y_VALID,
max(MIN_REAL_Y_VALID,
est_y_pos_real)))
elif (angle == abs_angle) and (not poss_xy_pos_real):
error_strings = []
if not ((MIN_REAL_X_VALID*(1-POS_ERROR_TOLERANCE))
<= est_x_pos_real <=
(MAX_REAL_X_VALID*(1+POS_ERROR_TOLERANCE))):
error_strings.append(
"{0!s}Bad est_x_pos_real {1:n} from self_x_pos_real {2:n} (self_x_pos {3:n}), angle {4:n} ({5:n} {6:n}), dist {7:n}".format(
start_string,est_x_pos_real, self_x_pos_real, self_x_pos, abs_angle, sin_angle, cos_angle, dist))
if not ((MIN_REAL_Y_VALID*(1-POS_ERROR_TOLERANCE))
<= est_y_pos_real <=
(MAX_REAL_Y_VALID*(1+POS_ERROR_TOLERANCE))):
error_strings.append(
"{0!s}Bad est_y_pos_real {1:n} from self_y_pos_real {2:n} (self_y_pos {3:n}), angle {4:n} ({5:n} {6:n}), dist {7:n}".format(
start_string, est_y_pos_real, self_y_pos_real, self_y_pos, abs_angle, sin_angle, cos_angle, dist))
if dist < 10:
raise RuntimeError("\n".join(error_strings))
else:
if warn or (dist < 50):
print("\n".join(error_strings), file=sys.stderr)
sys.stderr.flush()
return (None, None)
poss_angles = list(poss_xy_pos_real.keys())
if len(poss_angles) > 1:
poss_angles.sort(key=lambda angle: abs(abs_angle-angle))
poss_angles.sort(key=lambda angle: total_deviation_xy_pos_real[angle])
poss_angles.sort(key=lambda angle: max_deviation_xy_pos_real[angle])
poss_angles.sort(key=lambda angle: dist_xy_pos_real[angle])
est_x_pos_real, est_y_pos_real = poss_xy_pos_real[poss_angles[0]]
if warn:
est_x_pos = get_x_normalized(est_x_pos_real)
est_y_pos = get_y_normalized(est_y_pos_real)
else:
est_x_pos = get_x_normalized(est_x_pos_real, silent=True)
est_y_pos = get_y_normalized(est_y_pos_real, silent=True)
if warn:
est_dist = get_dist_real(self_x_pos, self_y_pos,
est_x_pos, est_y_pos)
if abs(dist - est_dist) > ERROR_TOLERANCE:
est2_dist = get_dist_from_real(self_x_pos_real, self_y_pos_real,
est_x_pos_real, est_y_pos_real)
print(
"{0!s}Difference in input ({1:n}), output ({2:n}) distances (est2 {3:n}) for get_abs_x_y_pos".format(
start_string, dist, est_dist, est2_dist),
file=sys.stderr)
print(
"Input angle {0:n}, used angle {1:n}, self_x_pos {2:n}, self_y_pos {3:n}".format(
abs_angle, poss_angles[0], self_x_pos, self_y_pos),
file=sys.stderr)
print(
"Self_x_pos_real {0:n}, self_y_pos_real {1:n}, est_x_pos_real {2:n}, est_y_pos_real {3:n}".format(
self_x_pos_real, self_y_pos_real, est_x_pos_real, est_y_pos_real), file=sys.stderr)
print("Est_x_pos {0:n}, est_y_pos {1:n}".format(est_x_pos, est_y_pos), file=sys.stderr)
sys.stderr.flush()
return (est_x_pos, est_y_pos)
landmark_start_to_location = {13: (GOAL_POS_X, get_y_normalized(0.0)), # center of goal
#31: (get_x_normalized(HALF_FIELD_LENGTH/2), 0.0), # center field
34: (get_x_normalized(0.0), get_y_normalized(-0.5*HALF_FIELD_WIDTH)), # Top Left
37: (get_x_normalized(HALF_FIELD_LENGTH), get_y_normalized(-0.5*HALF_FIELD_WIDTH)), # Top Right
40: (get_x_normalized(HALF_FIELD_LENGTH), get_y_normalized(HALF_FIELD_WIDTH/2)), # Bottom Right
43: (get_x_normalized(0,0), get_y_normalized(HALF_FIELD_WIDTH/2))} # Bottom Left
def filter_low_level_state(state, namespace):
bit_list = []
for pos in (0, 1, 9, 11, 12, 50, 54, 10): # TODO: Replace with constants!
if state[pos] > 0:
bit_list.append(True)
else:
bit_list.append(False)
if len(bit_list) != BIT_LIST_LEN:
raise RuntimeError(
"Length of bit_list {0:n} not same as BIT_LIST_LEN {1:n}".format(
len(bit_list), BIT_LIST_LEN))
self_dict = {}
if state[0] > 0: # self position valid
if max(abs(state[5]),abs(state[6])) <= sys.float_info.epsilon:
warnings.warn("Validity {0:d}{1:d} but invalid body angle {2:n}, {3:n}".format(
int(bit_list[0]),int(bit_list[1]),state[5],state[6]))
self_dict['body_angle'] = None
else:
self_dict['body_angle'] = get_angle(state[5],state[6])
x_pos_from = {}
x_pos_weight = {}
y_pos_from = {}
y_pos_weight = {}
x_pos1_real = get_dist_from_proximity(state[46],HALF_FIELD_LENGTH)
x_pos2_real = HALF_FIELD_LENGTH - get_dist_from_proximity(state[47],HALF_FIELD_LENGTH)
x_pos_from['OOB'] = get_x_normalized((x_pos1_real+x_pos2_real)/2)
x_pos_weight['OOB'] = max(ERROR_TOLERANCE,(1.0-min(1.0,abs(x_pos_from['OOB']))))
y_pos1_real = get_dist_from_proximity(state[48],HALF_FIELD_WIDTH) - (HALF_FIELD_WIDTH/2)
y_pos2_real = (HALF_FIELD_WIDTH/2) - get_dist_from_proximity(state[49],HALF_FIELD_WIDTH)
y_pos_from['OOB'] = get_y_normalized((y_pos1_real+y_pos2_real)/2)
y_pos_weight['OOB'] = max(ERROR_TOLERANCE,(1.0-min(1.0,abs(y_pos_from['OOB']))))
x_pos_from['OTHER'] = namespace.other_dict['self_x_pos']
y_pos_from['OTHER'] = namespace.other_dict['self_y_pos']
other_proximity = get_proximity_from_dist(get_dist_real(x_pos_from['OTHER'],
y_pos_from['OTHER'],
namespace.other_dict['x_pos'],
namespace.other_dict['y_pos']))
x_pos_weight['OTHER'] = y_pos_weight['OTHER'] = (other_proximity+1)/2
if abs(x_pos_from['OTHER']) > (1.0-ERROR_TOLERANCE):
x_pos_weight['OTHER'] = min(ERROR_TOLERANCE,x_pos_weight['OTHER'])
if abs(y_pos_from['OTHER']) > (1.0-ERROR_TOLERANCE):
y_pos_weight['OTHER'] = min(ERROR_TOLERANCE,y_pos_weight['OTHER'])
if self_dict['body_angle'] is not None:
for landmark_start, xy_location in iteritems(landmark_start_to_location):
rel_angle = get_angle(state[landmark_start],state[landmark_start+1])
abs_angle = get_abs_angle(self_dict['body_angle'],rel_angle)
if abs_angle is not None:
rev_angle = reverse_angle(abs_angle)
dist = get_dist_from_proximity(state[landmark_start+2])
x_pos, y_pos = get_abs_x_y_pos(abs_angle=rev_angle,
dist=dist,
self_x_pos=xy_location[0],
self_y_pos=xy_location[1],
warn=False,
of_what="Rev " + str(landmark_start))
if x_pos is not None:
x_pos_from[landmark_start] = x_pos
y_pos_from[landmark_start] = y_pos
x_pos_weight[landmark_start] = y_pos_weight[landmark_start] = max(ERROR_TOLERANCE,
((state[landmark_start+2]+1)/2))
# except extremely close can be a problem for the angle...
if state[landmark_start+2] > (1.0-POS_ERROR_TOLERANCE):
max_weight = (1.0-state[landmark_start+2])/POS_ERROR_TOLERANCE
max_weight = max(max_weight, ERROR_TOLERANCE)
x_pos_weight[landmark_start] = y_pos_weight[landmark_start] = min(x_pos_weight[landmark_start],
max_weight)
x_pos_total = 0.0
x_pos_weight_total = 0.0
for from_which, pos in iteritems(x_pos_from):
x_pos_total += pos*x_pos_weight[from_which]
x_pos_weight_total += x_pos_weight[from_which]
self_dict['x_pos'] = x_pos_total/x_pos_weight_total
for from_which, pos in iteritems(x_pos_from):
if ((x_pos_weight[from_which]/x_pos_weight_total)*abs(pos-self_dict['x_pos'])) > POS_ERROR_TOLERANCE:
print("Source {0!r} (weight {1:n}) x_pos {2:n} vs overall {3:n}".format(from_which,
x_pos_weight[from_which]/
x_pos_weight_total,
pos,
self_dict['x_pos']),
file=sys.stderr)
sys.stderr.flush()
y_pos_total = 0.0
y_pos_weight_total = 0.0
for from_which, pos in iteritems(y_pos_from):
y_pos_total += pos*y_pos_weight[from_which]
y_pos_weight_total += y_pos_weight[from_which]
self_dict['y_pos'] = y_pos_total/y_pos_weight_total
for from_which, pos in iteritems(y_pos_from):
if ((y_pos_weight[from_which]/y_pos_weight_total)*abs(pos-self_dict['y_pos'])) > POS_ERROR_TOLERANCE:
print("Source {0!r} (weight {1:n}) y_pos {2:n} vs overall {3:n}".format(from_which,
y_pos_weight[from_which]/
y_pos_weight_total,
pos,
self_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
if max(abs(state[31]),abs(state[32])) <= sys.float_info.epsilon:
warnings.warn("Validity {0:d}{1:d} but invalid center angle {2:n}, {3:n}".format(
int(bit_list[0]),int(bit_list[1]),state[31],state[32]))
self_dict['center_angle'] = None
else:
self_dict['center_angle'] = get_angle(state[31],state[32])
else:
self_dict['x_pos'] = None
self_dict['y_pos'] = None
if max(abs(state[5]),abs(state[6])) > sys.float_info.epsilon:
warnings.warn("Validity {0:d}{1:d} but valid body angle {2:n}, {3:n}".format(
int(bit_list[0]),int(bit_list[1]),state[5],state[6]))
self_dict['body_angle'] = get_angle(state[5],state[6])
else:
self_dict['body_angle'] = None
if max(abs(state[31]),abs(state[32])) > sys.float_info.epsilon:
warnings.warn("Validity {0:d}{1:d} but valid center angle {2:n}, {3:n}".format(
int(bit_list[0]),int(bit_list[1]),state[31],state[32]))
self_dict['center_angle'] = get_angle(state[31],state[32])
else:
self_dict['center_angle'] = None
if state[1] > 0: # self velocity valid
self_dict['vel_rel_angle'] = get_angle(state[2],state[3])
self_dict['vel_mag'] = state[4]
else:
self_dict['vel_rel_angle'] = None
self_dict['vel_mag'] = -1
goal_dict = {}
if (state[0] > 0) and (max(state[18],state[21]) > -1): # self position valid, goal pos possible
if state[18] > state[21]: # top post closer
which_goal = "Top"
goal_dict['dist'] = get_dist_from_proximity(state[18])
goal_dict['rel_angle'] = get_angle(state[16],state[17])
else:
which_goal = "Bottom"
goal_dict['dist'] = get_dist_from_proximity(state[21])
goal_dict['rel_angle'] = get_angle(state[19],state[20])
if (state[11] < 0) and (goal_dict['rel_angle']
is not None) and (goal_dict['dist']
< (0.15+0.03)) and (get_angle_diff(0.0,
goal_dict['rel_angle'])
<= 1.0):
raise RuntimeError("Should be in collision with goal - distance is {0:n}".format(goal_dict['dist']))
elif goal_dict['dist'] > (MAX_RADIUS-POS_ERROR_TOLERANCE):
raise RuntimeError(
"Should not be possible to have dist {0:n} for goal (state[18] {1:n}, state[21] {2:n})".format(
goal_dict['dist'], state[18], state[21]))
goal_dict['abs_angle'] = get_abs_angle(self_dict['body_angle'],goal_dict['rel_angle'])
if goal_dict['abs_angle'] is not None:
est_x_pos, est_y_pos = get_abs_x_y_pos(abs_angle=goal_dict['abs_angle'],
dist=goal_dict['dist'],
self_x_pos=self_dict['x_pos'],
self_y_pos=self_dict['y_pos'],
warn=bool(goal_dict['dist'] < 10),
of_what=which_goal+" goal post")
if est_x_pos is not None:
if (abs(est_x_pos - GOAL_POS_X) > POS_ERROR_TOLERANCE) and (goal_dict['dist'] < 10):
print(
"Estimated x_pos of goal is {0:n} (should be {1:n}; from est abs_angle {2:n}, dist {3:n}, self_x_pos {4:n})".format(
est_x_pos,GOAL_POS_X,goal_dict['abs_angle'],goal_dict['dist'],self_dict['x_pos']),
file=sys.stderr)
sys.stderr.flush()
goal_dict['x_pos'] = GOAL_POS_X
if (state[18] > state[21]):
goal_dict['y_pos'] = GOAL_TOP_POS_Y
if est_y_pos is not None:
if (abs(est_y_pos-GOAL_TOP_POS_Y) > POS_ERROR_TOLERANCE) and (goal_dict['dist'] < 10):
print(
"Estimated y_pos of top goalpost is {0:n} (should be {1:n}; from est abs_angle {2:n}, dist {3:n}, self_y_pos {4:n})".format(
est_y_pos,GOAL_TOP_POS_Y,goal_dict['abs_angle'],goal_dict['dist'],self_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
else:
goal_dict['y_pos'] = GOAL_BOTTOM_POS_Y
if est_y_pos is not None:
if (abs(est_y_pos-GOAL_BOTTOM_POS_Y) > POS_ERROR_TOLERANCE) and (goal_dict['dist'] < 10):
print(
"Estimated y_pos of bottom goalpost is {0:n} (should be {1:n}; from est abs_angle {2:n}, dist {3:n}, self_y_pos {4:n})".format(
est_y_pos,GOAL_BOTTOM_POS_Y,goal_dict['abs_angle'],goal_dict['dist'],self_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
if (state[11] < 0) and (get_angle_diff(0.0, goal_dict['rel_angle'])
<= 1.0) and (get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
goal_dict['x_pos'],
goal_dict['y_pos']) < (0.15+0.03)):
print(
"Should be in collision with goal ({0:n}, {1:n} vs {2:n}, {3:n}; angle {4:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
goal_dict['x_pos'],goal_dict['y_pos'],
goal_dict['rel_angle']),
file=sys.stderr)
sys.stderr.flush()
else:
goal_dict['x_pos'] = GOAL_POS_X
if state[18] > state[21]:
goal_dict['y_pos'] = GOAL_TOP_POS_Y
else:
goal_dict['y_pos'] = GOAL_BOTTOM_POS_Y
else:
goal_dict['dist'] = get_dist_from_proximity(-1)
goal_dict['rel_angle'] = None
goal_dict['abs_angle'] = None
goal_dict['x_pos'] = GOAL_POS_X
if random.random() < 0.5:
goal_dict['y_pos'] = GOAL_BOTTOM_POS_Y
else:
goal_dict['y_pos'] = GOAL_TOP_POS_Y
ball_dict = {}
if state[50] > 0: # ball position valid
ball_dict['dist'] = get_dist_from_proximity(state[53])
ball_dict['rel_angle'] = get_angle(state[51],state[52])
if (state[9] < 0) and (ball_dict['rel_angle']
is not None) and (ball_dict['dist']
< (0.15+0.0425)) and (get_angle_diff(0.0, ball_dict['rel_angle'])
<= 1.0):
raise RuntimeError("Should be in collision with ball - distance is {0:n}".format(ball_dict['dist']))
ball_dict['abs_angle'] = get_abs_angle(self_dict['body_angle'],ball_dict['rel_angle'])
if ball_dict['abs_angle'] is not None:
ball_dict['x_pos'], ball_dict['y_pos'] = get_abs_x_y_pos(abs_angle=ball_dict['abs_angle'],
dist=ball_dict['dist'],
self_x_pos=self_dict['x_pos'],
self_y_pos=self_dict['y_pos'],
warn=bool(ball_dict['dist'] < 10),
of_what='Ball')
if (ball_dict['x_pos'] is None) or (ball_dict['y_pos'] is None):
if (ball_dict['dist'] < 10):
raise RuntimeError("Unknown ball position despite state[50] > 0")
else:
if (state[9] < 0) and (get_angle_diff(0.0, ball_dict['rel_angle'])
<= 1.0) and (get_dist_real(self_dict['x_pos'],self_dict['y_pos'],
ball_dict['x_pos'],ball_dict['y_pos']) < (0.15+0.0425)):
raise RuntimeError(
"Should be in collision with ball ({0:n}, {1:n} vs {2:n}, {3:n}; rel_angle {4:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
ball_dict['x_pos'],ball_dict['y_pos'],
ball_dict['rel_angle']))
else:
ball_dict['dist'] = get_dist_from_proximity(-1)
ball_dict['rel_angle'] = None
ball_dict['abs_angle'] = None
ball_dict['x_pos'] = None
ball_dict['y_pos'] = None
if (ball_dict['x_pos'] is None) and (abs(namespace.other_dict['ball_x_pos']) < 1):
ball_dict['x_pos'] = namespace.other_dict['ball_x_pos']
if (ball_dict['y_pos'] is None) and (abs(namespace.other_dict['ball_y_pos']) < 1):
ball_dict['y_pos'] = namespace.other_dict['ball_y_pos']
if state[54] > 0: # ball velocity valid
ball_dict['vel_rel_angle'] = get_angle(state[55],state[56])
ball_dict['vel_mag'] = state[57]
else:
ball_dict['vel_rel_angle'] = None
ball_dict['vel_mag'] = 0
return (bit_list, self_dict, goal_dict, ball_dict)
def bool_list_to_int(bit_list):
return sum(2**i*b for i, b in enumerate(bit_list))
def int_to_bool_list(intval, num_bits=BIT_LIST_LEN):
if num_bits < intval.bit_length():
raise RuntimeError(
"Integer value {0:d} will not fit into {1:d} bits (needs {2:d})".format(intval,
num_bits,
intval.bit_length()))
result = []
for bit in range(num_bits):
mask = 1 << bit
result.append(bool((intval & mask) == mask))
return result
def pack_action_bit_list(action, bit_list):
bool_int = bool_list_to_int(bit_list)
return struct.pack(STRUCT_PACK, action, bool_int)
def unpack_action_bit_list(bytestring):
action, bool_int = struct.unpack(STRUCT_PACK, bytestring)
bit_list = int_to_bool_list(bool_int)
return (action, bit_list)
def evaluate_previous_action(hfo_env,
state,
namespace):
if namespace.action in (hfo.NOOP, hfo.QUIT):
warnings.warn("evaluate_previous_action should not have been called with 'action' NOOP/QUIT")
return
bit_list, self_dict, goal_dict, ball_dict = filter_low_level_state(state, namespace)
action_status = hfo_env.getLastActionStatus(namespace.action)
action_string = hfo_env.actionToString(namespace.action)
if namespace.action_params:
action_string += '(' + ",".join(list(["{:n}".format(x) for x in namespace.action_params])) + ')'
action_status_observed = hfo.ACTION_STATUS_UNKNOWN # NOTE: Check intent + other bitflags!
if (namespace.action in
(hfo.DRIBBLE, hfo.DRIBBLE_TO)) and namespace.prestate_bit_list[4] and (not bit_list[4]):
action_status_observed = hfo.ACTION_STATUS_BAD
elif (namespace.action in
(hfo.DRIBBLE,
hfo.INTERCEPT,
hfo.MOVE)) and (((namespace.intent != INTENT_GOAL_COLLISION)
and (not namespace.prestate_bit_list[3])
and bit_list[3]) or
((namespace.intent != INTENT_BALL_COLLISION)
and (not namespace.prestate_bit_list[2])
and bit_list[2]) or
((namespace.intent != INTENT_PLAYER_COLLISION)
and (not namespace.prestate_bit_list[7])
and bit_list[7])):
action_status_observed = hfo.ACTION_STATUS_BAD
elif (namespace.intent !=
INTENT_GOAL_COLLISION) and namespace.prestate_bit_list[3] and (not bit_list[3]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent !=
INTENT_BALL_COLLISION) and namespace.prestate_bit_list[2] and (not bit_list[2]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent !=
INTENT_PLAYER_COLLISION) and namespace.prestate_bit_list[7] and (not bit_list[7]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_BALL_KICKABLE) and (not namespace.prestate_bit_list[4]) and bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_GOAL_COLLISION) and (not namespace.prestate_bit_list[3]) and bit_list[3]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_BALL_COLLISION) and (((not namespace.prestate_bit_list[2]) and bit_list[2]) or
((not namespace.prestate_bit_list[4]) and bit_list[4])):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_PLAYER_COLLISION) and (not namespace.prestate_bit_list[7]) and bit_list[7]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.action == hfo.DASH) or (namespace.action == hfo.MOVE):
pass # TODO
elif namespace.action == hfo.TURN:
if (namespace.prestate_self_dict['body_angle'] is not None) and (self_dict['body_angle'] is not None):
intended_body_angle = namespace.prestate_self_dict['body_angle'] + namespace.action_params[0]
if get_angle_diff(namespace.prestate_self_dict['body_angle'],
intended_body_angle) > get_angle_diff(self_dict['body_angle'],
intended_body_angle):
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif (namespace.action == hfo.KICK) or (namespace.action == hfo.PASS):
if bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_BAD
else:
pass # TODO
elif namespace.action == hfo.KICK_TO:
if (namespace.prestate_ball_dict['x_pos'] is not None) and (ball_dict['x_pos'] is not None):
dist_before = get_dist_real(namespace.prestate_ball_dict['x_pos'],
namespace.prestate_ball_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
dist_after = get_dist_real(ball_dict['x_pos'],
ball_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
if dist_before > dist_after:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif namespace.action == hfo.MOVE_TO:
if (namespace.prestate_self_dict['x_pos'] is not None) and (self_dict['x_pos'] is not None):
dist_before = get_dist_real(namespace.prestate_self_dict['x_pos'],
namespace.prestate_self_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
dist_after = get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
if dist_before > dist_after:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
else:
pass # ???
elif namespace.action == hfo.DRIBBLE_TO:
if namespace.prestate_bit_list[4]:
if not bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_BAD # should have been done above, actually
elif (namespace.prestate_self_dict['x_pos'] is not None) and (self_dict['x_pos'] is not None):
dist_before = get_dist_real(namespace.prestate_self_dict['x_pos'],
namespace.prestate_self_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
dist_after = get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
if dist_before > dist_after:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif (namespace.prestate_ball_dict['x_pos'] is not None) and (ball_dict['x_pos'] is not None):
dist_before = get_dist_real(namespace.prestate_ball_dict['x_pos'],
namespace.prestate_ball_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
dist_after = get_dist_real(ball_dict['x_pos'],
ball_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
if dist_before > dist_after:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
else:
pass # ???
elif bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_ball_dict['dist'] > ball_dict['dist']:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_ball_dict['dist'] < ball_dict['dist']:
action_status_observed = hfo.ACTION_STATUS_BAD
elif ball_dict['dist'] < ((1-ERROR_TOLERANCE)*MAX_RADIUS):
action_status_observed = hfo.ACTION_STATUS_BAD
elif namespace.action in (hfo.INTERCEPT, hfo.GO_TO_BALL):
if namespace.prestate_bit_list[4]:
if bit_list[4]:
if (namespace.intent != INTENT_BALL_COLLISION) and bit_list[2]:
action_status_observed = hfo.ACTION_STATUS_BAD
elif (namespace.intent != INTENT_GOAL_COLLISION) and bit_list[3]:
action_status_observed = hfo.ACTION_STATUS_BAD
else:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_ball_dict['dist'] > ball_dict['dist']:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_ball_dict['dist'] < ball_dict['dist']:
action_status_observed = hfo.ACTION_STATUS_BAD
elif ball_dict['dist'] < ((1-ERROR_TOLERANCE)*MAX_RADIUS):
action_status_observed = hfo.ACTION_STATUS_BAD
elif namespace.action == hfo.DRIBBLE:
pass # todo?
else:
raise RuntimeError("Unknown how to evaluate {0!s}".format(action_string))
if action_status_observed == hfo.ACTION_STATUS_UNKNOWN:
action_status_guessed = action_status
else:
action_status_guessed = action_status_observed
if (action_status != action_status_observed) and (action_status != hfo.ACTION_STATUS_UNKNOWN):
print(
"{0!s}: Difference between feedback ({1!s}), observed ({2!s}) action_status (prestate bit_list {3!s}, current bit list {4!s})".format(
action_string,
hfo_env.actionStatusToString(action_status),
hfo_env.actionStatusToString(action_status_observed),
"".join(map(str,map(int,namespace.prestate_bit_list))),
"".join(map(str,map(int,bit_list)))),
file=sys.stderr)
sys.stderr.flush()
if (action_status_guessed == hfo.ACTION_STATUS_BAD) and (not namespace.checking_intent):
# unexpected lack of success
print(
"Unexpected lack of success for last action {0!s} (prestate bit_list {1!s}, current bit list {2!s})".format(
action_string,
"".join(map(str,map(int,namespace.prestate_bit_list))),
"".join(map(str,map(int,bit_list)))),
file=sys.stderr)
if namespace.intent == INTENT_GOAL_COLLISION:
print("Prestate goal distance is {0:n}, current goal distance is {1:n}".format(namespace.prestate_goal_dict['dist'],
goal_dict['dist']),
file=sys.stderr)
elif namespace.intent == INTENT_BALL_COLLISION:
print("Prestate ball distance is {0:n}, current ball distance is {1:n}".format(namespace.prestate_ball_dict['dist'],
ball_dict['dist']),
file=sys.stderr)
sys.stderr.flush()
namespace.action_tried[namespace.action] += 1
namespace.struct_tried[pack_action_bit_list(namespace.action,namespace.prestate_bit_list)] += 1
# further analysis...
if action_status_guessed == hfo.ACTION_STATUS_MAYBE:
# further analysis...
if namespace.prestate_bit_list[3] and (namespace.action in (hfo.KICK, hfo.KICK_TO)):
print("OK status from {0!s} despite goal collision in prestate (poststate: {1!s})".format(
action_string, bit_list[3]))
sys.stdout.flush()
if namespace.prestate_bit_list[2] and (namespace.action in (hfo.KICK, hfo.MOVE_TO,
hfo.GO_TO_BALL)):
print("OK status from {0!s} despite ball collision in prestate (poststate: {1!s})".format(
action_string, bit_list[2]))
sys.stdout.flush()
def save_action_prestate(action,
prestate_bit_list,
prestate_self_dict,
prestate_goal_dict,
prestate_ball_dict,
intent,
checking_intent,
namespace,
action_params=None):
namespace.action = action
namespace.prestate_bit_list = prestate_bit_list
namespace.prestate_self_dict = prestate_self_dict
namespace.prestate_goal_dict = prestate_goal_dict
namespace.prestate_ball_dict = prestate_ball_dict
if action_params is None:
action_params = []
namespace.action_params = action_params
namespace.intent = intent
if intent is not None:
namespace.intent_done[intent] += 1
namespace.checking_intent = checking_intent
if checking_intent:
namespace.action_tried[action] += 1
namespace.struct_tried[pack_action_bit_list(action, prestate_bit_list)] += 1
if action_params:
return [action] + action_params
return action
def determine_which_action(poss_actions_list, namespace, bit_list):
"""
Decides between poss_actions based on lowest struct_tried,
then lowest action_tried, then random.
"""
if len(poss_actions_list) > 1:
random.shuffle(poss_actions_list)
poss_actions_list.sort(key=lambda action: namespace.action_tried[action])
if namespace.action_tried[poss_actions_list[0]] == namespace.action_tried[poss_actions_list[1]]:
poss_actions_list.sort(key=lambda action: namespace.struct_tried[pack_action_bit_list(action, bit_list)])
return poss_actions_list[0]
def do_intent(hfo_env,
state,
namespace):
bit_list, self_dict, goal_dict, ball_dict = filter_low_level_state(state, namespace)
prestate_dict = {'prestate_bit_list': bit_list,
'prestate_self_dict': self_dict,
'prestate_goal_dict': goal_dict,
'prestate_ball_dict': ball_dict,
'checking_intent': False,
'intent': namespace.intent,
'namespace': namespace}
if (namespace.intent == INTENT_BALL_COLLISION) and bit_list[4]: # ball is kickable
ball_rel_angle = ball_dict['rel_angle']
if ball_rel_angle > 180:
ball_rel_angle -= 360
poss_actions_list = []
if bit_list[0] and (ball_dict['x_pos'] is not None): # self position valid
if get_dist_real(self_dict['x_pos'],self_dict['y_pos'],
ball_dict['x_pos'],ball_dict['y_pos']) < (0.15+0.0425):
if abs(ball_rel_angle) > 0.5:
hfo_env.act(*save_action_prestate(action=hfo.TURN,action_params=[ball_rel_angle],
**prestate_dict))
else:
print(
"Should already be in collision with ball ({0:n}, {1:n} vs {2:n}, {3:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
ball_dict['x_pos'],ball_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, ball_rel_angle],
**prestate_dict))
return
poss_actions_list.append(hfo.MOVE_TO)
if abs(ball_rel_angle) > 0.5:
poss_actions_list.append(hfo.TURN)
if abs(ball_rel_angle) < 1.0:
poss_actions_list.append(hfo.DASH)
action = determine_which_action(poss_actions_list, namespace, bit_list)
if action == hfo.MOVE_TO:
hfo_env.act(*save_action_prestate(action=hfo.MOVE_TO,
action_params=[ball_dict['x_pos'],
ball_dict['y_pos']],
**prestate_dict))
elif action == hfo.TURN:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[ball_rel_angle],
**prestate_dict))
elif action == hfo.DASH:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, ball_rel_angle],
**prestate_dict))
else:
raise RuntimeError("Unknown action {0!r}".format(action))
return
elif (namespace.intent == INTENT_BALL_KICKABLE) or (namespace.intent == INTENT_BALL_COLLISION):
poss_actions_list = [hfo.INTERCEPT]
if bit_list[0]:
poss_actions_list.append(hfo.GO_TO_BALL)
ball_rel_angle = ball_dict['rel_angle']
if ball_rel_angle > 180:
ball_rel_angle -= 360
if abs(ball_rel_angle) > 0.5:
poss_actions_list.append(hfo.TURN)
if abs(ball_rel_angle) < 1.0:
poss_actions_list.append(hfo.DASH)
if bit_list[0] and (ball_dict['x_pos'] is not None):
poss_actions_list.append(hfo.MOVE_TO)
action = determine_which_action(poss_actions_list, namespace, bit_list)
if (action == hfo.GO_TO_BALL) or (action == hfo.INTERCEPT):
hfo_env.act(save_action_prestate(action=action,**prestate_dict))
elif action == hfo.TURN:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[ball_rel_angle],
**prestate_dict))
elif action == hfo.DASH:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, ball_rel_angle],
**prestate_dict))
elif action == hfo.MOVE_TO:
hfo_env.act(*save_action_prestate(action=hfo.MOVE_TO,
action_params=[ball_dict['x_pos'],
ball_dict['y_pos']],
**prestate_dict))
else:
raise RuntimeError("Unknown action {0!r}".format(action))
return
elif namespace.intent == INTENT_GOAL_COLLISION:
goal_rel_angle = goal_dict['rel_angle']
if goal_rel_angle > 180:
goal_rel_angle -= 360
poss_actions_list = []
if (get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
goal_dict['x_pos'],
goal_dict['y_pos']) < (0.15+0.03)):
if abs(goal_rel_angle) > 0.5:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[goal_rel_angle],
**prestate_dict))
else:
print(
"Should already be in collision with goal ({0:n}, {1:n} vs {2:n}, {3:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
goal_dict['x_pos'],goal_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
if not bit_list[4]:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, goal_rel_angle],
**prestate_dict))
else:
hfo_env.act(*save_action_prestate(action=hfo.DRIBBLE_TO,
action_params=[(self_dict['x_pos']+
(2*(goal_dict['x_pos']-
self_dict['x_pos']))),
(self_dict['y_pos']+
(2*(goal_dict['y_pos']-
self_dict['y_pos'])))],
**prestate_dict))
return
poss_actions_list.append(hfo.DRIBBLE_TO)
if not bit_list[4]:
poss_actions_list.append(hfo.MOVE_TO)
if goal_rel_angle is not None:
if abs(goal_rel_angle) > 0.5:
poss_actions_list.append(hfo.TURN)
if (abs(goal_rel_angle) < 1.0) and ((not bit_list[4]) or (goal_dict['dist'] < 0.36)):
poss_actions_list.append(hfo.DASH)
action = determine_which_action(poss_actions_list, namespace, bit_list)
if (action == hfo.TURN):
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[goal_rel_angle],
**prestate_dict))
elif (action == hfo.MOVE_TO):
hfo_env.act(*save_action_prestate(action=hfo.MOVE_TO,
action_params=[goal_dict['x_pos'], goal_dict['y_pos']],
**prestate_dict))
elif (action == hfo.DRIBBLE_TO):
if bit_list[4] and (get_dist_real(self_dict['x_pos'],self_dict['y_pos'],
goal_dict['x_pos'],goal_dict['y_pos']) <= 0.36):
x_pos_desired = get_x_normalized(get_x_unnormalized(goal_dict['x_pos'])+0.35)
else:
x_pos_desired = get_x_normalized(get_x_unnormalized(goal_dict['x_pos'])-0.35)
hfo_env.act(*save_action_prestate(action=hfo.DRIBBLE_TO,
action_params=[x_pos_desired, goal_dict['y_pos']],
**prestate_dict))
elif (action == hfo.DASH):
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, goal_rel_angle],
**prestate_dict))
else:
raise RuntimeError("Unknown action {0!r}".format(action))
return
elif namespace.intent == INTENT_PLAYER_COLLISION:
rel_angle = None
if get_dist_normalized(0.0,0.0,
namespace.other_dict['x_pos'],
namespace.other_dict['y_pos']) < POS_ERROR_TOLERANCE:
# TODO: Should really also calc from self x,y position...
rel_angle = self_dict['center_angle']
if rel_angle > 180:
rel_angle -= 360
poss_actions_list = []
poss_actions_list.append(hfo.DRIBBLE_TO)
if not bit_list[4]:
poss_actions_list.append(hfo.MOVE_TO)
if rel_angle is not None:
if abs(rel_angle) > 0.5:
poss_actions_list.append(hfo.TURN)
if (abs(rel_angle) < 1.0) and (not bit_list[4]):
poss_actions_list.append(hfo.DASH)
action = determine_which_action(poss_actions_list, namespace, bit_list)
if action == hfo.TURN:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[rel_angle],
**prestate_dict))
elif (action == hfo.MOVE_TO) or (action == hfo.DRIBBLE_TO):
hfo_env.act(*save_action_prestate(action=action,
action_params=[namespace.other_dict['x_pos'],
namespace.other_dict['y_pos']],
**prestate_dict))
elif action == hfo.DASH:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, rel_angle],
**prestate_dict))
else:
raise RuntimeError("Unknown action {0!r}".format(action))
return
else:
raise RuntimeError("Unexpected intent {0!r}".format(namespace.intent))
def decide_intent(poss_intent_list, namespace):
if len(poss_intent_list) > 1:
random.shuffle(poss_intent_list)
poss_intent_list.sort(key=lambda intent: namespace.intent_done[intent])
return poss_intent_list[0]
def do_next_action(hfo_env,
state,
namespace):
bit_list, self_dict, goal_dict, ball_dict = filter_low_level_state(state, namespace)
if not bit_list[1]: # self velocity invalid
# long-term: Turn, Kick, Kick_To
raise NotImplementedError("Not yet set up for self velocity invalid")
prior_intent = namespace.intent
# admittedly, need to check for some of "intent" circumstances in combo!
if namespace.intent == INTENT_BALL_COLLISION:
if bit_list[2]:
namespace.intent = None
else:
if (not bit_list[5]) or (ball_dict['x_pos'] is None): # first: ball location not valid
namespace.intent_done[INTENT_BALL_COLLISION] -= 1
if bit_list[0]: # self location valid
if bit_list[3] or bit_list[7]:
namespace.intent = None
else:
namespace.intent = decide_intent([INTENT_GOAL_COLLISION, INTENT_PLAYER_COLLISION],
namespace)
else:
raise NotImplementedError("Not yet set up for self+ball location invalid")
elif namespace.intent == INTENT_BALL_KICKABLE:
if bit_list[4]:
namespace.intent = None
else:
if (not bit_list[5]) or (ball_dict['x_pos'] is None): # first: ball location not valid
namespace.intent_done[INTENT_BALL_KICKABLE] -= 1
if bit_list[0]: # self location valid
if bit_list[3] or bit_list[7]:
namespace.intent = None
else:
namespace.intent = decide_intent([INTENT_GOAL_COLLISION, INTENT_PLAYER_COLLISION],
namespace)
else:
raise NotImplementedError("Not yet set up for self+ball location invalid")
elif namespace.intent == INTENT_GOAL_COLLISION:
if bit_list[3]:
namespace.intent = None
else:
if (not bit_list[0]) or (goal_dict['rel_angle'] is None): # first: self location not valid
namespace.intent_done[INTENT_GOAL_COLLISION] -= 1
if bit_list[4] or bit_list[2] or bit_list[7]:
namespace.intent = None
else:
poss_intent_list = [INTENT_PLAYER_COLLISION]
if bit_list[5] and (ball_dict['x_pos'] is not None):
poss_intent_list += [INTENT_BALL_COLLISION, INTENT_BALL_KICKABLE]
namespace.intent = decide_intent(poss_intent_list, namespace)
elif namespace.intent == INTENT_PLAYER_COLLISION:
if bit_list[7]:
namespace.intent = None
else:
if not bit_list[0]: # self location not valid
if bit_list[4] or bit_list[2] or bit_list[3]:
namespace.intent = None
else:
poss_intent_list = [INTENT_GOAL_COLLISION]
if bit_list[5] and (ball_dict['x_pos'] is not None):
poss_intent_list += [INTENT_BALL_COLLISION, INTENT_BALL_KICKABLE]
namespace.intent = decide_intent(poss_intent_list, namespace)
if namespace.intent is not None:
return do_intent(hfo_env, state, namespace)
# figure out what to do next
if not (bit_list[4] or bit_list[7] or bit_list[2] or bit_list[3]):
poss_intent_set = set([INTENT_GOAL_COLLISION,INTENT_PLAYER_COLLISION,
INTENT_BALL_KICKABLE,INTENT_BALL_COLLISION])
if (not bit_list[5]) or (ball_dict['x_pos'] is None):
poss_intent_set.remove(INTENT_BALL_KICKABLE)
poss_intent_set.remove(INTENT_BALL_COLLISION)
if not bit_list[0]:
poss_intent_set.remove(INTENT_GOAL_COLLISION)
poss_intent_set.remove(INTENT_PLAYER_COLLISION)
if not poss_intent_set:
raise NotImplementedError("Not yet set up for self+ball location invalid")
namespace.intent = decide_intent(list(poss_intent_set), namespace)
print("INTENT: {}".format(INTENT_DICT[namespace.intent]))
sys.stdout.flush()
return do_intent(hfo_env, state, namespace)
actions_want_check = set([])
if bit_list[4]: # kickable
actions_want_check |= set([hfo.PASS])
if bit_list[2] or bit_list[3] or bit_list[7]:
actions_want_check |= set([hfo.DRIBBLE])
else:
actions_want_check |= set([hfo.MOVE])
if bit_list[7]: # collision w/player
actions_want_check |= set([hfo.DASH, hfo.TURN, hfo.MOVE_TO, hfo.DRIBBLE_TO])
if bit_list[4]:
actions_want_check |= set([hfo.KICK, hfo.KICK_TO])
else:
actions_want_check |= set([hfo.INTERCEPT, hfo.GO_TO_BALL])
if prior_intent is not None:
print("INTENT: WAS {}".format(INTENT_DICT[prior_intent]))
else:
print("INTENT: NONE")
sys.stdout.flush()
if bit_list[4] and (prior_intent not in (None, INTENT_BALL_KICKABLE)):
namespace.intent_done[INTENT_BALL_KICKABLE] += 1
if bit_list[2] and (prior_intent not in (None, INTENT_BALL_COLLISION)):
namespace.intent_done[INTENT_BALL_COLLISION] += 1
if bit_list[3] and (prior_intent not in (None, INTENT_GOAL_COLLISION)):
namespace.intent_done[INTENT_GOAL_COLLISION] += 1
if bit_list[7] and (prior_intent not in (None, INTENT_PLAYER_COLLISION)):
namespace.intent_done[INTENT_PLAYER_COLLISION] += 1
actions_maybe_check = set([hfo.DASH, hfo.TURN])
if bit_list[4]:
actions_maybe_check |= set([hfo.KICK])
if bit_list[0]:
actions_maybe_check |= set([hfo.MOVE_TO])
if bit_list[5] and (ball_dict['x_pos'] is not None):
actions_maybe_check |= set([hfo.DRIBBLE_TO])
if bit_list[4]:
actions_maybe_check |= set([hfo.KICK_TO,hfo.DRIBBLE,hfo.PASS])
else:
actions_maybe_check |= set([hfo.INTERCEPT,hfo.GO_TO_BALL,hfo.MOVE])
if not bit_list[6]: # ball velocity invalid
# long-term: Kick, Kick_To, Intercept - if know ball location; Kick_To requires self location valid
raise NotImplementedError("Not yet set up for ball velocity invalid")
poss_actions = actions_want_check & actions_maybe_check
if not poss_actions:
raise RuntimeError(
"Unknown what to do - actions_want_check {0!r}, actions_maybe_check {1!r}".format(actions_want_check,
actions_maybe_check))
action = determine_which_action(list(poss_actions), namespace, bit_list)
prestate_dict = {'action': action,
'prestate_bit_list': bit_list,
'prestate_self_dict': self_dict,
'prestate_goal_dict': goal_dict,
'prestate_ball_dict': ball_dict,
'checking_intent': True,
'intent': None,
'namespace': namespace}
# added: DRIBBLE, PASS, MOVE
# ends due to out-of-bounds are annoying/noise in the data
if (action in (hfo.DRIBBLE_TO, hfo.KICK_TO)) or ((action == hfo.MOVE_TO) and (bit_list[4] or bit_list[2])):
if ball_dict['x_pos'] < -1*POS_ERROR_TOLERANCE:
x_pos = random.uniform(-0.5,min(0.9,MAX_POS_X_BALL_SAFE))
elif ball_dict['x_pos'] > POS_ERROR_TOLERANCE:
x_pos = random.uniform(max(-0.9,MIN_POS_X_BALL_SAFE),0.5)
else:
x_pos = random.uniform(max(-0.9,MIN_POS_X_BALL_SAFE),min(0.9,MAX_POS_X_BALL_SAFE))
if ball_dict['y_pos'] < -1*POS_ERROR_TOLERANCE:
y_pos = random.uniform(-0.5,min(0.9,MAX_POS_Y_BALL_SAFE))
elif ball_dict['y_pos'] > POS_ERROR_TOLERANCE:
y_pos = random.uniform(max(-0.9,MIN_POS_Y_BALL_SAFE),0.5)
else:
y_pos = random.uniform(max(-0.9,MIN_POS_Y_BALL_SAFE),min(0.9,MAX_POS_Y_BALL_SAFE))
else:
x_pos = random.uniform(MIN_POS_X_OK,MAX_POS_X_OK)
y_pos = random.uniform(MIN_POS_Y_OK,MAX_POS_Y_OK)
max_power = 80
if (action == hfo.KICK) and (get_dist_normalized(ball_dict['x_pos'],
ball_dict['y_pos'],
0.0,0.0) > 1):
if (self_dict['center_angle'] is not None):
max_power = 100
direction = self_dict['center_angle']
if direction > 180:
direction -= 360
else:
max_power = 50
direction = random.uniform(-180,180)
else:
direction = random.uniform(-180,180)
if action in (hfo.INTERCEPT, hfo.GO_TO_BALL, hfo.DRIBBLE, hfo.MOVE):
hfo_env.act(save_action_prestate(**prestate_dict))
elif action is hfo.PASS:
hfo_env.act(*save_action_prestate(action_params=[namespace.other_dict['unum']],
**prestate_dict))
elif action in (hfo.MOVE_TO, hfo.DRIBBLE_TO):
hfo_env.act(*save_action_prestate(action_params=[x_pos,y_pos],
**prestate_dict))
elif action == hfo.KICK_TO:
if min(abs(x_pos),abs(y_pos)) > 0.5:
max_speed = 1
elif max(abs(x_pos),abs(y_pos)) > 0.5:
max_speed = 2
else:
max_speed = 3
hfo_env.act(*save_action_prestate(action_params=[x_pos,y_pos,
random.uniform(0,max_speed)],
**prestate_dict))
elif action == hfo.DASH:
hfo_env.act(*save_action_prestate(action_params=[random.uniform(-100,100), # power
direction],
**prestate_dict))
elif action == hfo.TURN:
hfo_env.act(*save_action_prestate(action_params=[direction],**prestate_dict))
elif action == hfo.KICK:
hfo_env.act(*save_action_prestate(action_params=[random.uniform(0,max_power),
direction],**prestate_dict))
else:
raise RuntimeError("Unknown action {!r}".format(action))
return None
def main_explore_offense_actions_fullstate():
parser = argparse.ArgumentParser()
parser.add_argument('--port', type=int, default=6000,
help="Server port")
parser.add_argument('--seed', type=int, default=None,
help="Python randomization seed; uses python default if 0 or not given")
parser.add_argument('--server-seed', type=int, default=None,
help="Server randomization seed; uses default if 0 or not given")
parser.add_argument('--record', default=False, action='store_true',
help="Doing HFO --record")
parser.add_argument('--rdir', type=str, default='log/',
help="Set directory to use if doing HFO --record")
args=parser.parse_args()
namespace = argparse.Namespace()
namespace.intent_done = {}
namespace.intent_done[INTENT_BALL_COLLISION] = 0
namespace.intent_done[INTENT_BALL_KICKABLE] = 0
namespace.intent_done[INTENT_GOAL_COLLISION] = 0
namespace.intent_done[INTENT_PLAYER_COLLISION] = 0
namespace.action_tried = {}
namespace.struct_tried = {}
for n in list(range(hfo.NUM_HFO_ACTIONS)):
namespace.action_tried[n] = 0
for x in list(range((2**(BIT_LIST_LEN+1))-1)):
namespace.struct_tried[struct.pack(STRUCT_PACK, n, x)] = 0
script_dir = os.path.dirname(os.path.abspath(os.path.realpath(__file__)))
binary_dir = os.path.normpath(script_dir + "/../bin")
conf_dir = os.path.join(binary_dir, 'teams/base/config/formations-dt')
bin_HFO = os.path.join(binary_dir, "HFO")
popen_list = [sys.executable, "-x", bin_HFO,
"--frames-per-trial=3000", "--untouched-time=2000",
"--port={0:d}".format(args.port),
"--offense-agents=2", "--defense-npcs=0",
"--offense-npcs=0", "--trials=20", "--headless",
"--fullstate"]
if args.seed:
random.seed(args.seed)
if args.record:
popen_list.append("--record")
if args.server_seed:
popen_list.append("--seed={0:d}".format(args.server_seed))
HFO_process = subprocess.Popen(popen_list)
time.sleep(0.2)
assert (HFO_process.poll() is
None), "Failed to start HFO with command '{}'".format(" ".join(popen_list))
hfo_env = hfo.HFOEnvironment()
hfo_env2 = hfo.HFOEnvironment()
time.sleep(4.8)
connect_args = [hfo.LOW_LEVEL_FEATURE_SET, conf_dir, args.port, "localhost",
"base_left", False]
connect2_args = [hfo.HIGH_LEVEL_FEATURE_SET, conf_dir, args.port, "localhost",
"base_left", False]
if args.record:
connect_args.append(record_dir=args.rdir)
connect2_args.append(record_dir=args.rdir)
try:
hfo_env.connectToServer(*connect_args)
hfo_env2.connectToServer(*connect2_args)
for ignored_episode in itertools.count():
status = hfo.IN_GAME
namespace.action = hfo.NOOP
namespace.action_params = []
namespace.prestate_bit_list = [0,0,0,0,0,0,0]
namespace.prestate_self_dict = {'x_pos': None,
'y_pos': None,
'body_angle': None,
'center_angle': None,
'vel_rel_angle': None,
'vel_mag': -1.0}
namespace.prestate_goal_dict = {'dist': get_dist_from_proximity(-1),
'rel_angle': None,
'abs_angle': None,
'x_pos': GOAL_POS_X,
'y_pos': 0.0}
namespace.prestate_ball_dict = {'dist': get_dist_from_proximity(-1),
'rel_angle': None,
'abs_angle': None,
'x_pos': None,
'y_pos': None,
'vel_rel_angle': None,
'vel_mag': None}
namespace.other_dict = {'x_pos': None,
'y_pos': None,
'ball_x_pos': None,
'ball_y_pos': None,
'unum': hfo_env2.getUnum(),
'self_x_pos': None,
'self_y_pos': None}
namespace.intent = None
namespace.checking_intent = True
while status == hfo.IN_GAME:
state = hfo_env.getState()
state2 = hfo_env2.getState()
namespace.other_dict['x_pos'] = state2[0]
namespace.other_dict['y_pos'] = state2[1]
namespace.other_dict['ball_x_pos'] = state2[3]
namespace.other_dict['ball_y_pos'] = state2[4]
namespace.other_dict['self_x_pos'] = state2[13]
namespace.other_dict['self_y_pos'] = state2[14]
if namespace.action != hfo.NOOP:
evaluate_previous_action(hfo_env, state, namespace)
do_next_action(hfo_env, state, namespace)
status = hfo_env.step()
if status == hfo.IN_GAME:
if get_dist_normalized(0.0, 0.0,
namespace.other_dict['x_pos'],
namespace.other_dict['y_pos']) > POS_ERROR_TOLERANCE:
hfo_env2.act(hfo.MOVE_TO,0.0,0.0)
else:
hfo_env2.act(hfo.TURN,random.uniform(-180,180))
status = hfo_env2.step()
if status == hfo.SERVER_DOWN:
# summarize results
hfo_env.act(hfo.QUIT)
break
finally:
if HFO_process.poll() is None:
HFO_process.terminate()
os.system("killall -9 rcssserver") # remove if ever start doing multi-server testing!
if __name__ == '__main__':
main_explore_offense_actions_fullstate()
example/explore_offense_actions_fullstate.twoplayer.v2.py deleted 100755 → 0
View file @ 0f361781
#!/usr/bin/env python
"""
This is a script to explore what actions are available under what circumstances,
plus testing out feedback and the use of two players controlled by the same script
but two (coordinated) processes.
"""
from __future__ import print_function
# encoding: utf-8
import argparse
#import functools
import itertools
import math
import multiprocessing
import multiprocessing.sharedctypes
import os
import random
import struct
import subprocess
import sys
import time
import warnings
try:
import hfo
except ImportError:
print('Failed to import hfo. To install hfo, in the HFO directory'\
' run: \"pip install .\"')
exit()
HALF_FIELD_WIDTH = 68 # y coordinate
HALF_FIELD_FULL_WIDTH = HALF_FIELD_WIDTH * 1.2
HALF_FIELD_LENGTH = 52.5 # x coordinate
HALF_FIELD_FULL_LENGTH = HALF_FIELD_LENGTH * 1.2
GOAL_WIDTH = 14.02
MAX_RADIUS = math.sqrt(((HALF_FIELD_WIDTH/2)**2) + (HALF_FIELD_LENGTH**2)) # not actually correct, but works...
ERROR_TOLERANCE = math.pow(sys.float_info.epsilon,0.25)
POS_ERROR_TOLERANCE = 0.05
MAX_REAL_X_VALID = 1.1*HALF_FIELD_LENGTH
MIN_REAL_X_VALID = -0.1*HALF_FIELD_LENGTH
MAX_REAL_Y_VALID = 1.1*(HALF_FIELD_WIDTH/2)
MIN_REAL_Y_VALID = -1.1*(HALF_FIELD_WIDTH/2)
def unnormalize(pos, min_val, max_val, silent=False):
assert max_val > min_val
if (not silent) and (abs(pos) > 1.0+ERROR_TOLERANCE):
print("Pos {0:n} fed to unnormalize (min_val {1:n}, max_val {2:n})".format(
pos, min_val, max_val), file=sys.stderr)
sys.stderr.flush()
pos = min(1.0,max(-1.0,pos))
top = (pos - -1.0)/(1 - -1.0)
bot = max_val - min_val
return (top*bot) + min_val
def get_y_unnormalized(y_pos, silent=False):
y_pos_real = unnormalize(y_pos, MIN_REAL_Y_VALID, MAX_REAL_Y_VALID, silent=silent)
est_y_pos = get_y_normalized(y_pos_real, silent=silent)
if abs(y_pos - est_y_pos) > POS_ERROR_TOLERANCE:
raise RuntimeError(
"Bad denormalization/normalization of {0:n} to {1:n}; reverse {2:n}".format(
y_pos, y_pos_real, est_y_pos))
return y_pos_real
def get_x_unnormalized(x_pos, silent=False):
x_pos_real = unnormalize(x_pos, MIN_REAL_X_VALID, MAX_REAL_X_VALID, silent=silent)
est_x_pos = get_x_normalized(x_pos_real, silent=silent)
if abs(x_pos - est_x_pos) > POS_ERROR_TOLERANCE:
raise RuntimeError(
"Bad denormalization/normalization of {0:n} to {1:n}; reverse {2:n}".format(
x_pos, x_pos_real, est_x_pos))
return x_pos_real
def normalize(pos, min_val, max_val, silent=False):
assert max_val > min_val
top = (pos - min_val)/(max_val - min_val)
bot = 1.0 - -1.0
num = (top*bot) + -1.0
if abs(num) > 1.0+POS_ERROR_TOLERANCE:
if abs(num) > 1.1:
raise RuntimeError("Pos {0:n} gives normalized num {1:n} (min_val {2:n}, max_val {3:n})".format(
pos, num, min_val, max_val))
elif not silent:
print(
"Pos {0:n} gives normalized num {1:n} (min_val {2:n}, max_val {3:n})".format(
pos, num, min_val, max_val), file=sys.stderr)
sys.stderr.flush()
return min(1.0,max(-1.0,num))
def get_y_normalized(y_pos, silent=False):
y_pos_norm = normalize(y_pos, MIN_REAL_Y_VALID, MAX_REAL_Y_VALID, silent=silent)
## est_y_pos = get_y_unnormalized(y_pos_norm, silent=silent)
## if abs(y_pos - est_y_pos) > POS_ERROR_TOLERANCE:
## raise RuntimeError("Bad normalization/denormalization of {0:n} to {1:n}; reverse {2:n}".format(
## y_pos, y_pos_norm, est_y_pos))
return y_pos_norm
def get_x_normalized(x_pos, silent=False):
return normalize(x_pos, MIN_REAL_X_VALID, MAX_REAL_X_VALID, silent=silent)
GOAL_POS_X = get_x_normalized(HALF_FIELD_LENGTH)
GOAL_TOP_POS_Y = get_y_normalized(-1*(GOAL_WIDTH/2))
GOAL_BOTTOM_POS_Y = get_y_normalized(GOAL_WIDTH/2)
MAX_POS_Y_BALL_SAFE = get_y_normalized(HALF_FIELD_WIDTH/2) - POS_ERROR_TOLERANCE
MIN_POS_Y_BALL_SAFE = get_y_normalized(-0.5*HALF_FIELD_WIDTH) + POS_ERROR_TOLERANCE
MAX_POS_X_BALL_SAFE = get_x_normalized(HALF_FIELD_LENGTH) - POS_ERROR_TOLERANCE
MIN_POS_X_BALL_SAFE = get_x_normalized(0) + POS_ERROR_TOLERANCE
MAX_POS_X_OK = 1.0 - ERROR_TOLERANCE
MIN_POS_X_OK = -1.0 + ERROR_TOLERANCE
MAX_POS_Y_OK = MAX_POS_X_OK
MIN_POS_Y_OK = MIN_POS_X_OK
def get_dist_real(ref_x, ref_y, src_x, src_y, silent=False):
ref_x_real = get_x_unnormalized(ref_x, silent=silent)
ref_y_real = get_y_unnormalized(ref_y, silent=silent)
src_x_real = get_x_unnormalized(src_x, silent=silent)
src_y_real = get_y_unnormalized(src_y, silent=silent)
return math.sqrt(math.pow((ref_x_real - src_x_real),2) +
math.pow((ref_y_real - src_y_real),2))
def get_dist_from_real(ref_x_real, ref_y_real, src_x_real, src_y_real):
return math.sqrt(math.pow((ref_x_real - src_x_real),2) +
math.pow((ref_y_real - src_y_real),2))
def get_dist_normalized(ref_x, ref_y, src_x, src_y):
return math.sqrt(math.pow((ref_x - src_x),2) +
math.pow(((HALF_FIELD_WIDTH/HALF_FIELD_LENGTH)*(ref_y - src_y)),2))
#Instead of adding six as a dependency, this code was copied from the six implementation.
#six is Copyright (c) 2010-2015 Benjamin Peterson
if sys.version_info[0] >= 3:
def iterkeys(d, **kw):
return iter(d.keys(**kw))
def iteritems(d, **kw):
return iter(d.items(**kw))
def itervalues(d, **kw):
return iter(d.values(**kw))
else:
def iterkeys(d, **kw):
return iter(d.iterkeys(**kw))
def iteritems(d, **kw):
return iter(d.iteritems(**kw))
def itervalues(d, **kw):
return iter(d.itervalues(**kw))
INTENT_BALL_COLLISION = 0
INTENT_BALL_KICKABLE = 1
INTENT_GOAL_COLLISION = 2
INTENT_PLAYER_COLLISION = 3
INTENT_DICT = {INTENT_BALL_COLLISION: 'INTENT_BALL_COLLISION',
INTENT_BALL_KICKABLE: 'INTENT_BALL_KICKABLE',
INTENT_GOAL_COLLISION: 'INTENT_GOAL_COLLISION',
INTENT_PLAYER_COLLISION: 'INTENT_PLAYER_COLLISION'}
BIT_LIST_LEN = 8
STRUCT_PACK = "BH"
def get_dist_from_proximity(proximity, max_dist=MAX_RADIUS):
proximity_real = unnormalize(proximity, 0.0, 1.0)
dist = (1 - proximity_real)*max_dist
if (dist > (max_dist+ERROR_TOLERANCE)) or (dist <= (-1.0*ERROR_TOLERANCE)):
warnings.warn("Proximity {0:n} gives dist {1:n} (max_dist {2:n})".format(proximity,dist,max_dist))
return min(max_dist,max(0,dist))
def get_proximity_from_dist(dist, max_dist=MAX_RADIUS):
if dist > (max_dist+ERROR_TOLERANCE):
print("Dist {0:n} is above max_dist {1:n}".format(dist, max_dist), file=sys.stderr)
sys.stderr.flush()
proximity_real = min(1.0, max(0.0, (1.0 - (dist/max_dist))))
return normalize(proximity_real, 0.0, 1.0)
# MAX_GOAL_DIST - may wish to work out...
def get_angle(sin_angle,cos_angle):
if max(abs(sin_angle),abs(cos_angle)) <= sys.float_info.epsilon:
warnings.warn(
"Unable to accurately determine angle from sin_angle {0:n} cos_angle {1:n}".format(
sin_angle, cos_angle))
return None
angle = math.degrees(math.atan2(sin_angle,cos_angle))
if angle < 0:
angle += 360
return angle
def get_abs_angle(body_angle,rel_angle):
if (body_angle is None) or (rel_angle is None):
return None
angle = body_angle + rel_angle
while angle >= 360:
angle -= 360
if angle < 0:
if abs(angle) <= ERROR_TOLERANCE:
return 0.0
warnings.warn("Bad body_angle {0:n} and/or rel_angle {1:n}".format(body_angle,rel_angle))
return None
return angle
def get_angle_diff(angle1, angle2):
if angle1 > angle2:
return min((angle1 - angle2),abs(angle1 - angle2 - 360))
elif angle1 < angle2:
return min((angle2 - angle1),abs(angle2 - angle1 - 360))
return 0.0
def reverse_angle(angle):
angle += 180
while angle >= 360:
angle -= 360
return angle
def get_abs_x_y_pos(abs_angle, dist, self_x_pos, self_y_pos, warn=True, of_what=""):
poss_xy_pos_real = {}
max_deviation_xy_pos_real = {}
total_deviation_xy_pos_real = {}
dist_xy_pos_real = {}
self_x_pos_real = get_x_unnormalized(self_x_pos)
self_y_pos_real = get_y_unnormalized(self_y_pos)
start_string = ""
if of_what:
start_string = of_what + ': '
for angle in [(abs_angle-1),(abs_angle+1),abs_angle]:
angle_radians = math.radians(angle)
sin_angle = math.sin(angle_radians)
cos_angle = math.cos(angle_radians)
est_x_pos_real = (cos_angle*dist) + self_x_pos_real
est_y_pos_real = (sin_angle*dist) + self_y_pos_real
if ((MIN_REAL_X_VALID*(1-POS_ERROR_TOLERANCE))
<= est_x_pos_real <=
(MAX_REAL_X_VALID*(1+POS_ERROR_TOLERANCE))) and ((MIN_REAL_Y_VALID*(1-POS_ERROR_TOLERANCE))
<= est_y_pos_real <=
(MAX_REAL_Y_VALID*(1+POS_ERROR_TOLERANCE))):
poss_xy_pos_real[angle] = (est_x_pos_real, est_y_pos_real)
if est_x_pos_real < MIN_REAL_X_VALID:
x_deviation = (MIN_REAL_X_VALID-est_x_pos_real)/(MAX_REAL_X_VALID-MIN_REAL_X_VALID)
elif est_x_pos_real > MAX_REAL_X_VALID:
x_deviation = (est_x_pos_real-MAX_REAL_X_VALID)/(MAX_REAL_X_VALID-MIN_REAL_X_VALID)
else:
x_deviation = 0.0
if est_y_pos_real < MIN_REAL_Y_VALID:
y_deviation = (MIN_REAL_Y_VALID-est_y_pos_real)/(MAX_REAL_Y_VALID-MIN_REAL_Y_VALID)
elif est_y_pos_real > MAX_REAL_Y_VALID:
y_deviation = (est_y_pos_real-MAX_REAL_Y_VALID)/(MAX_REAL_Y_VALID-MIN_REAL_Y_VALID)
else:
y_deviation = 0.0
max_deviation_xy_pos_real[angle] = max(x_deviation,y_deviation)
total_deviation_xy_pos_real[angle] = x_deviation+y_deviation
dist_xy_pos_real[angle] = get_dist_from_real(est_x_pos_real,
est_y_pos_real,
min(MAX_REAL_X_VALID,
max(MIN_REAL_X_VALID,
est_x_pos_real)),
min(MAX_REAL_Y_VALID,
max(MIN_REAL_Y_VALID,
est_y_pos_real)))
elif (angle == abs_angle) and (not poss_xy_pos_real):
error_strings = []
if not ((MIN_REAL_X_VALID*(1-POS_ERROR_TOLERANCE))
<= est_x_pos_real <=
(MAX_REAL_X_VALID*(1+POS_ERROR_TOLERANCE))):
error_strings.append(
"{0!s}Bad est_x_pos_real {1:n} from self_x_pos_real {2:n} (self_x_pos {3:n}), angle {4:n} ({5:n} {6:n}), dist {7:n}".format(
start_string,est_x_pos_real, self_x_pos_real, self_x_pos, abs_angle, sin_angle, cos_angle, dist))
if not ((MIN_REAL_Y_VALID*(1-POS_ERROR_TOLERANCE))
<= est_y_pos_real <=
(MAX_REAL_Y_VALID*(1+POS_ERROR_TOLERANCE))):
error_strings.append(
"{0!s}Bad est_y_pos_real {1:n} from self_y_pos_real {2:n} (self_y_pos {3:n}), angle {4:n} ({5:n} {6:n}), dist {7:n}".format(
start_string, est_y_pos_real, self_y_pos_real, self_y_pos, abs_angle, sin_angle, cos_angle, dist))
if dist < 10:
raise RuntimeError("\n".join(error_strings))
else:
if warn or (dist < 50):
print("\n".join(error_strings), file=sys.stderr)
sys.stderr.flush()
return (None, None)
poss_angles = list(poss_xy_pos_real.keys())
if len(poss_angles) > 1:
poss_angles.sort(key=lambda angle: abs(abs_angle-angle))
poss_angles.sort(key=lambda angle: total_deviation_xy_pos_real[angle])
poss_angles.sort(key=lambda angle: max_deviation_xy_pos_real[angle])
poss_angles.sort(key=lambda angle: dist_xy_pos_real[angle])
est_x_pos_real, est_y_pos_real = poss_xy_pos_real[poss_angles[0]]
if warn:
est_x_pos = get_x_normalized(est_x_pos_real)
est_y_pos = get_y_normalized(est_y_pos_real)
else:
est_x_pos = get_x_normalized(est_x_pos_real, silent=True)
est_y_pos = get_y_normalized(est_y_pos_real, silent=True)
if warn:
est_dist = get_dist_real(self_x_pos, self_y_pos,
est_x_pos, est_y_pos)
if abs(dist - est_dist) > ERROR_TOLERANCE:
est2_dist = get_dist_from_real(self_x_pos_real, self_y_pos_real,
est_x_pos_real, est_y_pos_real)
print(
"{0!s}Difference in input ({1:n}), output ({2:n}) distances (est2 {3:n}) for get_abs_x_y_pos".format(
start_string, dist, est_dist, est2_dist),
file=sys.stderr)
print(
"Input angle {0:n}, used angle {1:n}, self_x_pos {2:n}, self_y_pos {3:n}".format(
abs_angle, poss_angles[0], self_x_pos, self_y_pos),
file=sys.stderr)
print(
"Self_x_pos_real {0:n}, self_y_pos_real {1:n}, est_x_pos_real {2:n}, est_y_pos_real {3:n}".format(
self_x_pos_real, self_y_pos_real, est_x_pos_real, est_y_pos_real), file=sys.stderr)
print("Est_x_pos {0:n}, est_y_pos {1:n}".format(est_x_pos, est_y_pos), file=sys.stderr)
sys.stderr.flush()
return (est_x_pos, est_y_pos)
landmark_start_to_location = {13: (GOAL_POS_X, get_y_normalized(0.0)), # center of goal
34: (get_x_normalized(0.0), get_y_normalized(-0.5*HALF_FIELD_WIDTH)), # Top Left
37: (get_x_normalized(HALF_FIELD_LENGTH), get_y_normalized(-0.5*HALF_FIELD_WIDTH)), # Top Right
40: (get_x_normalized(HALF_FIELD_LENGTH), get_y_normalized(HALF_FIELD_WIDTH/2)), # Bottom Right
43: (get_x_normalized(0,0), get_y_normalized(HALF_FIELD_WIDTH/2))} # Bottom Left
def filter_low_level_state(state, namespace):
bit_list = []
for pos in (0, 1, 9, 11, 12, 50, 54, 10): # TODO: Replace with constants!
if state[pos] > 0:
bit_list.append(True)
else:
bit_list.append(False)
## if (state[0] > 0) and (max(abs(state[58]),abs(state[59]))
## >= sys.float_info.epsilon): # player2 angle valid
## bit_list.append(True)
## else:
## bit_list.append(False)
if len(bit_list) != BIT_LIST_LEN:
raise RuntimeError(
"Length of bit_list {0:n} not same as BIT_LIST_LEN {1:n}".format(
len(bit_list), BIT_LIST_LEN))
self_dict = {}
if state[0] > 0: # self position valid
if max(abs(state[5]),abs(state[6])) <= sys.float_info.epsilon:
warnings.warn("Validity {0:d}{1:d} but invalid body angle {2:n}, {3:n}".format(
int(bit_list[0]),int(bit_list[1]),state[5],state[6]))
self_dict['body_angle'] = None
else:
self_dict['body_angle'] = get_angle(state[5],state[6])
x_pos_from = {}
x_pos_weight = {}
y_pos_from = {}
y_pos_weight = {}
x_pos1_real = get_dist_from_proximity(state[46],HALF_FIELD_LENGTH)
x_pos2_real = HALF_FIELD_LENGTH - get_dist_from_proximity(state[47],HALF_FIELD_LENGTH)
x_pos_from['OOB'] = get_x_normalized((x_pos1_real+x_pos2_real)/2)
x_pos_weight['OOB'] = max(ERROR_TOLERANCE,(1.0-min(1.0,abs(x_pos_from['OOB']))))
y_pos1_real = get_dist_from_proximity(state[48],HALF_FIELD_WIDTH) - (HALF_FIELD_WIDTH/2)
y_pos2_real = (HALF_FIELD_WIDTH/2) - get_dist_from_proximity(state[49],HALF_FIELD_WIDTH)
y_pos_from['OOB'] = get_y_normalized((y_pos1_real+y_pos2_real)/2)
y_pos_weight['OOB'] = max(ERROR_TOLERANCE,(1.0-min(1.0,abs(y_pos_from['OOB']))))
x_pos_from['OTHER'] = namespace.other_dict['self_x_pos'].value
y_pos_from['OTHER'] = namespace.other_dict['self_y_pos'].value
other_proximity = get_proximity_from_dist(get_dist_real(x_pos_from['OTHER'],
y_pos_from['OTHER'],
namespace.other_dict['x_pos'].value,
namespace.other_dict['y_pos'].value))
x_pos_weight['OTHER'] = y_pos_weight['OTHER'] = (other_proximity+1)/2
if abs(x_pos_from['OTHER']) > (1.0-ERROR_TOLERANCE):
x_pos_weight['OTHER'] = min(ERROR_TOLERANCE,x_pos_weight['OTHER'])
if abs(y_pos_from['OTHER']) > (1.0-ERROR_TOLERANCE):
y_pos_weight['OTHER'] = min(ERROR_TOLERANCE,y_pos_weight['OTHER'])
if self_dict['body_angle'] is not None:
for landmark_start, xy_location in iteritems(landmark_start_to_location):
rel_angle = get_angle(state[landmark_start],state[landmark_start+1])
abs_angle = get_abs_angle(self_dict['body_angle'],rel_angle)
if abs_angle is not None:
rev_angle = reverse_angle(abs_angle)
dist = get_dist_from_proximity(state[landmark_start+2])
x_pos, y_pos = get_abs_x_y_pos(abs_angle=rev_angle,
dist=dist,
self_x_pos=xy_location[0],
self_y_pos=xy_location[1],
warn=False,
of_what="Rev " + str(landmark_start))
if x_pos is not None:
x_pos_from[landmark_start] = x_pos
y_pos_from[landmark_start] = y_pos
x_pos_weight[landmark_start] = y_pos_weight[landmark_start] = max(ERROR_TOLERANCE,
((state[landmark_start+2]+1)/2))
# except extremely close can be a problem for the angle...
if state[landmark_start+2] > (1.0-POS_ERROR_TOLERANCE):
max_weight = (1.0-state[landmark_start+2])/POS_ERROR_TOLERANCE
max_weight = max(max_weight, ERROR_TOLERANCE)
x_pos_weight[landmark_start] = y_pos_weight[landmark_start] = min(x_pos_weight[landmark_start],
max_weight)
x_pos_total = 0.0
x_pos_weight_total = 0.0
for from_which, pos in iteritems(x_pos_from):
x_pos_total += pos*x_pos_weight[from_which]
x_pos_weight_total += x_pos_weight[from_which]
self_dict['x_pos'] = x_pos_total/x_pos_weight_total
for from_which, pos in iteritems(x_pos_from):
if ((x_pos_weight[from_which]/x_pos_weight_total)*abs(pos-self_dict['x_pos'])) > POS_ERROR_TOLERANCE:
print("Source {0!r} (weight {1:n}) x_pos {2:n} vs overall {3:n}".format(from_which,
x_pos_weight[from_which]/
x_pos_weight_total,
pos,
self_dict['x_pos']),
file=sys.stderr)
sys.stderr.flush()
y_pos_total = 0.0
y_pos_weight_total = 0.0
for from_which, pos in iteritems(y_pos_from):
y_pos_total += pos*y_pos_weight[from_which]
y_pos_weight_total += y_pos_weight[from_which]
self_dict['y_pos'] = y_pos_total/y_pos_weight_total
for from_which, pos in iteritems(y_pos_from):
if ((y_pos_weight[from_which]/y_pos_weight_total)*abs(pos-self_dict['y_pos'])) > POS_ERROR_TOLERANCE:
print("Source {0!r} (weight {1:n}) y_pos {2:n} vs overall {3:n}".format(from_which,
y_pos_weight[from_which]/
y_pos_weight_total,
pos,
self_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
if max(abs(state[58]),abs(state[59])) <= sys.float_info.epsilon:
warnings.warn("Validity {0:d}{1:d} but invalid other angle {2:n}, {3:n}".format(
int(bit_list[0]),int(bit_list[1]),state[58],state[59]))
self_dict['other_angle'] = None
else:
self_dict['other_angle'] = get_angle(state[58],state[59])
else:
self_dict['x_pos'] = None
self_dict['y_pos'] = None
if max(abs(state[5]),abs(state[6])) > sys.float_info.epsilon:
warnings.warn("Validity {0:d}{1:d} but valid body angle {2:n}, {3:n}".format(
int(bit_list[0]),int(bit_list[1]),state[5],state[6]))
self_dict['body_angle'] = get_angle(state[5],state[6])
else:
self_dict['body_angle'] = None
if max(abs(state[58]),abs(state[59])) > sys.float_info.epsilon:
warnings.warn("Validity {0:d}{1:d} but valid other angle {2:n}, {3:n}".format(
int(bit_list[0]),int(bit_list[1]),state[58],state[59]))
self_dict['other_angle'] = get_angle(state[58],state[59])
else:
self_dict['other_angle'] = None
if state[1] > 0: # self velocity valid
self_dict['vel_rel_angle'] = get_angle(state[2],state[3])
self_dict['vel_mag'] = state[4]
else:
self_dict['vel_rel_angle'] = None
self_dict['vel_mag'] = -1
goal_dict = {}
if (state[0] > 0) and (max(state[18],state[21]) > -1): # self position valid, goal pos possible
if state[18] > state[21]: # top post closer
which_goal = "Top"
goal_dict['dist'] = get_dist_from_proximity(state[18])
goal_dict['rel_angle'] = get_angle(state[16],state[17])
else:
which_goal = "Bottom"
goal_dict['dist'] = get_dist_from_proximity(state[21])
goal_dict['rel_angle'] = get_angle(state[19],state[20])
if (state[11] < 0) and (goal_dict['rel_angle']
is not None) and (goal_dict['dist']
< (0.15+0.03)) and (get_angle_diff(0.0,
goal_dict['rel_angle'])
<= 1.0):
raise RuntimeError("Should be in collision with goal - distance is {0:n}".format(goal_dict['dist']))
elif goal_dict['dist'] > (MAX_RADIUS-POS_ERROR_TOLERANCE):
raise RuntimeError(
"Should not be possible to have dist {0:n} for goal (state[18] {1:n}, state[21] {2:n})".format(
goal_dict['dist'], state[18], state[21]))
goal_dict['abs_angle'] = get_abs_angle(self_dict['body_angle'],goal_dict['rel_angle'])
if goal_dict['abs_angle'] is not None:
est_x_pos, est_y_pos = get_abs_x_y_pos(abs_angle=goal_dict['abs_angle'],
dist=goal_dict['dist'],
self_x_pos=self_dict['x_pos'],
self_y_pos=self_dict['y_pos'],
warn=bool(goal_dict['dist'] < 10),
of_what=which_goal+" goal post")
if est_x_pos is not None:
if (abs(est_x_pos - GOAL_POS_X) > POS_ERROR_TOLERANCE) and (goal_dict['dist'] < 10):
print(
"Estimated x_pos of goal is {0:n} (should be {1:n}; from est abs_angle {2:n}, dist {3:n}, self_x_pos {4:n})".format(
est_x_pos,GOAL_POS_X,goal_dict['abs_angle'],goal_dict['dist'],self_dict['x_pos']),
file=sys.stderr)
sys.stderr.flush()
goal_dict['x_pos'] = GOAL_POS_X
if (state[18] > state[21]):
goal_dict['y_pos'] = GOAL_TOP_POS_Y
if est_y_pos is not None:
if (abs(est_y_pos-GOAL_TOP_POS_Y) > POS_ERROR_TOLERANCE) and (goal_dict['dist'] < 10):
print(
"Estimated y_pos of top goalpost is {0:n} (should be {1:n}; from est abs_angle {2:n}, dist {3:n}, self_y_pos {4:n})".format(
est_y_pos,GOAL_TOP_POS_Y,goal_dict['abs_angle'],goal_dict['dist'],self_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
else:
goal_dict['y_pos'] = GOAL_BOTTOM_POS_Y
if est_y_pos is not None:
if (abs(est_y_pos-GOAL_BOTTOM_POS_Y) > POS_ERROR_TOLERANCE) and (goal_dict['dist'] < 10):
print(
"Estimated y_pos of bottom goalpost is {0:n} (should be {1:n}; from est abs_angle {2:n}, dist {3:n}, self_y_pos {4:n})".format(
est_y_pos,GOAL_BOTTOM_POS_Y,goal_dict['abs_angle'],goal_dict['dist'],self_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
if (state[11] < 0) and (get_angle_diff(0.0, goal_dict['rel_angle'])
<= 1.0) and (get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
goal_dict['x_pos'],
goal_dict['y_pos']) < (0.15+0.03)):
print(
"Should be in collision with goal ({0:n}, {1:n} vs {2:n}, {3:n}; angle {4:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
goal_dict['x_pos'],goal_dict['y_pos'],
goal_dict['rel_angle']),
file=sys.stderr)
sys.stderr.flush()
else:
goal_dict['x_pos'] = GOAL_POS_X
if state[18] > state[21]:
goal_dict['y_pos'] = GOAL_TOP_POS_Y
else:
goal_dict['y_pos'] = GOAL_BOTTOM_POS_Y
else:
goal_dict['dist'] = get_dist_from_proximity(-1)
goal_dict['rel_angle'] = None
goal_dict['abs_angle'] = None
goal_dict['x_pos'] = GOAL_POS_X
if random.random() < 0.5:
goal_dict['y_pos'] = GOAL_BOTTOM_POS_Y
else:
goal_dict['y_pos'] = GOAL_TOP_POS_Y
ball_dict = {}
if state[50] > 0: # ball position valid
ball_dict['dist'] = get_dist_from_proximity(state[53])
ball_dict['rel_angle'] = get_angle(state[51],state[52])
if (state[9] < 0) and (ball_dict['rel_angle']
is not None) and (ball_dict['dist']
< (0.15+0.0425)) and (get_angle_diff(0.0, ball_dict['rel_angle'])
<= 1.0):
raise RuntimeError("Should be in collision with ball - distance is {0:n}".format(ball_dict['dist']))
ball_dict['abs_angle'] = get_abs_angle(self_dict['body_angle'],ball_dict['rel_angle'])
if ball_dict['abs_angle'] is not None:
ball_dict['x_pos'], ball_dict['y_pos'] = get_abs_x_y_pos(abs_angle=ball_dict['abs_angle'],
dist=ball_dict['dist'],
self_x_pos=self_dict['x_pos'],
self_y_pos=self_dict['y_pos'],
warn=bool(ball_dict['dist'] < 10),
of_what='Ball')
if (ball_dict['x_pos'] is None) or (ball_dict['y_pos'] is None):
if (ball_dict['dist'] < 10):
raise RuntimeError("Unknown ball position despite state[50] > 0")
else:
if (state[9] < 0) and (get_angle_diff(0.0, ball_dict['rel_angle'])
<= 1.0) and (get_dist_real(self_dict['x_pos'],self_dict['y_pos'],
ball_dict['x_pos'],ball_dict['y_pos']) < (0.15+0.0425)):
raise RuntimeError(
"Should be in collision with ball ({0:n}, {1:n} vs {2:n}, {3:n}; rel_angle {4:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
ball_dict['x_pos'],ball_dict['y_pos'],
ball_dict['rel_angle']))
else:
ball_dict['dist'] = get_dist_from_proximity(-1)
ball_dict['rel_angle'] = None
ball_dict['abs_angle'] = None
ball_dict['x_pos'] = None
ball_dict['y_pos'] = None
if (ball_dict['x_pos'] is None) and (abs(namespace.other_dict['ball_x_pos'].value) < 1):
ball_dict['x_pos'] = namespace.other_dict['ball_x_pos'].value
if (ball_dict['y_pos'] is None) and (abs(namespace.other_dict['ball_y_pos'].value) < 1):
ball_dict['y_pos'] = namespace.other_dict['ball_y_pos'].value
if state[54] > 0: # ball velocity valid
ball_dict['vel_rel_angle'] = get_angle(state[55],state[56])
ball_dict['vel_mag'] = state[57]
else:
ball_dict['vel_rel_angle'] = None
ball_dict['vel_mag'] = 0
return (bit_list, self_dict, goal_dict, ball_dict)
def bool_list_to_int(bit_list):
return sum(2**i*b for i, b in enumerate(bit_list))
def int_to_bool_list(intval, num_bits=BIT_LIST_LEN):
if num_bits < intval.bit_length():
raise RuntimeError(
"Integer value {0:d} will not fit into {1:d} bits (needs {2:d})".format(intval,
num_bits,
intval.bit_length()))
result = []
for bit in range(num_bits):
mask = 1 << bit
result.append(bool((intval & mask) == mask))
return result
def pack_action_bit_list(action, bit_list):
bool_int = bool_list_to_int(bit_list)
return struct.pack(STRUCT_PACK, action, bool_int)
def unpack_action_bit_list(bytestring):
action, bool_int = struct.unpack(STRUCT_PACK, bytestring)
bit_list = int_to_bool_list(bool_int)
return (action, bit_list)
def evaluate_previous_action(hfo_env,
state,
namespace):
if namespace.action in (hfo.NOOP, hfo.QUIT):
warnings.warn("evaluate_previous_action should not have been called with 'action' NOOP/QUIT")
return
bit_list, self_dict, goal_dict, ball_dict = filter_low_level_state(state, namespace)
action_status = hfo_env.getLastActionStatus(namespace.action)
action_string = hfo_env.actionToString(namespace.action)
if namespace.action_params:
action_string += '(' + ",".join(list(["{:n}".format(x) for x in namespace.action_params])) + ')'
action_status_observed = hfo.ACTION_STATUS_UNKNOWN # NOTE: Check intent + other bitflags!
if (namespace.action in
(hfo.DRIBBLE, hfo.DRIBBLE_TO)) and namespace.prestate_bit_list[4] and (not bit_list[4]):
action_status_observed = hfo.ACTION_STATUS_BAD
elif (namespace.action in
(hfo.DRIBBLE,
hfo.INTERCEPT,
hfo.MOVE)) and (((namespace.intent != INTENT_GOAL_COLLISION)
and (not namespace.prestate_bit_list[3])
and bit_list[3]) or
((namespace.intent != INTENT_BALL_COLLISION)
and (not namespace.prestate_bit_list[2])
and bit_list[2]) or
((namespace.intent != INTENT_PLAYER_COLLISION)
and (not namespace.prestate_bit_list[7])
and bit_list[7])):
action_status_observed = hfo.ACTION_STATUS_BAD
elif (namespace.intent !=
INTENT_GOAL_COLLISION) and namespace.prestate_bit_list[3] and (not bit_list[3]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent !=
INTENT_BALL_COLLISION) and namespace.prestate_bit_list[2] and (not bit_list[2]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent !=
INTENT_PLAYER_COLLISION) and namespace.prestate_bit_list[7] and (not bit_list[7]):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_BALL_KICKABLE) and (not namespace.prestate_bit_list[4]) and bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_GOAL_COLLISION) and (not namespace.prestate_bit_list[3]) and bit_list[3]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_BALL_COLLISION) and (((not namespace.prestate_bit_list[2]) and bit_list[2]) or
((not namespace.prestate_bit_list[4]) and bit_list[4])):
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.intent == INTENT_PLAYER_COLLISION) and (not namespace.prestate_bit_list[7]) and bit_list[7]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif (namespace.action == hfo.DASH) or (namespace.action == hfo.MOVE):
pass # TODO
elif namespace.action == hfo.TURN:
if (namespace.prestate_self_dict['body_angle'] is not None) and (self_dict['body_angle'] is not None):
intended_body_angle = namespace.prestate_self_dict['body_angle'] + namespace.action_params[0]
if get_angle_diff(namespace.prestate_self_dict['body_angle'],
intended_body_angle) > get_angle_diff(self_dict['body_angle'],
intended_body_angle):
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif namespace.action == hfo.PASS:
if (namespace.prestate_ball_dict['x_pos'] is not None) and (ball_dict['x_pos'] is not None):
dist_after = get_dist_real(ball_dict['x_pos'],
ball_dict['y_pos'],
namespace.other_dict['x_pos'].value,
namespace.other_dict['y_pos'].value)
self_dist_after = get_dist_real(ball_dict['x_pos'],
ball_dict['y_pos'],
self_dict['x_pos'],
self_dict['y_pos'])
if (dist_after < self_dist_after):
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_BAD
elif namespace.action == hfo.KICK:
if bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_BAD
else:
pass # TODO
elif namespace.action == hfo.KICK_TO:
if (namespace.prestate_ball_dict['x_pos'] is not None) and (ball_dict['x_pos'] is not None):
dist_before = get_dist_real(namespace.prestate_ball_dict['x_pos'],
namespace.prestate_ball_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
dist_after = get_dist_real(ball_dict['x_pos'],
ball_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
if dist_before > dist_after:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif namespace.action == hfo.MOVE_TO:
if (namespace.prestate_self_dict['x_pos'] is not None) and (self_dict['x_pos'] is not None):
dist_before = get_dist_real(namespace.prestate_self_dict['x_pos'],
namespace.prestate_self_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
dist_after = get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
if dist_before > dist_after:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
else:
pass # ???
elif namespace.action == hfo.DRIBBLE_TO:
if namespace.prestate_bit_list[4]:
if not bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_BAD # should have been done above, actually
elif (namespace.prestate_self_dict['x_pos'] is not None) and (self_dict['x_pos'] is not None):
dist_before = get_dist_real(namespace.prestate_self_dict['x_pos'],
namespace.prestate_self_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
dist_after = get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
if dist_before > dist_after:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif (namespace.prestate_ball_dict['x_pos'] is not None) and (ball_dict['x_pos'] is not None):
dist_before = get_dist_real(namespace.prestate_ball_dict['x_pos'],
namespace.prestate_ball_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
dist_after = get_dist_real(ball_dict['x_pos'],
ball_dict['y_pos'],
namespace.action_params[0],
namespace.action_params[1])
if dist_before > dist_after:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
else:
pass # ???
elif bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_ball_dict['dist'] > ball_dict['dist']:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_ball_dict['dist'] < ball_dict['dist']:
action_status_observed = hfo.ACTION_STATUS_BAD
elif ball_dict['dist'] < ((1-ERROR_TOLERANCE)*MAX_RADIUS):
action_status_observed = hfo.ACTION_STATUS_BAD
elif namespace.action in (hfo.INTERCEPT, hfo.GO_TO_BALL):
if namespace.prestate_bit_list[4]:
if bit_list[4]:
if (namespace.intent != INTENT_BALL_COLLISION) and bit_list[2]:
action_status_observed = hfo.ACTION_STATUS_BAD
elif (namespace.intent != INTENT_GOAL_COLLISION) and bit_list[3]:
action_status_observed = hfo.ACTION_STATUS_BAD
else:
action_status_observed = hfo.ACTION_STATUS_MAYBE
else:
action_status_observed = hfo.ACTION_STATUS_BAD
elif bit_list[4]:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_ball_dict['dist'] > ball_dict['dist']:
action_status_observed = hfo.ACTION_STATUS_MAYBE
elif namespace.prestate_ball_dict['dist'] < ball_dict['dist']:
action_status_observed = hfo.ACTION_STATUS_BAD
elif ball_dict['dist'] < ((1-ERROR_TOLERANCE)*MAX_RADIUS):
action_status_observed = hfo.ACTION_STATUS_BAD
elif namespace.action == hfo.DRIBBLE:
pass # todo?
else:
raise RuntimeError("Unknown how to evaluate {0!s}".format(action_string))
if action_status_observed == hfo.ACTION_STATUS_UNKNOWN:
action_status_guessed = action_status
else:
action_status_guessed = action_status_observed
if (action_status != action_status_observed) and (action_status != hfo.ACTION_STATUS_UNKNOWN):
print(
"{0!s}: Difference between feedback ({1!s}), observed ({2!s}) action_status (prestate bit_list {3!s}, current bit list {4!s})".format(
action_string,
hfo_env.actionStatusToString(action_status),
hfo_env.actionStatusToString(action_status_observed),
"".join(map(str,map(int,namespace.prestate_bit_list))),
"".join(map(str,map(int,bit_list)))),
file=sys.stderr)
sys.stderr.flush()
if (action_status_guessed == hfo.ACTION_STATUS_BAD) and (not namespace.checking_intent):
# unexpected lack of success
print(
"Unexpected lack of success for last action {0!s} (prestate bit_list {1!s}, current bit list {2!s})".format(
action_string,
"".join(map(str,map(int,namespace.prestate_bit_list))),
"".join(map(str,map(int,bit_list)))),
file=sys.stderr)
if namespace.intent == INTENT_GOAL_COLLISION:
print("Prestate goal distance is {0:n}, current goal distance is {1:n}".format(namespace.prestate_goal_dict['dist'],
goal_dict['dist']),
file=sys.stderr)
elif namespace.intent == INTENT_BALL_COLLISION:
print("Prestate ball distance is {0:n}, current ball distance is {1:n}".format(namespace.prestate_ball_dict['dist'],
ball_dict['dist']),
file=sys.stderr)
sys.stderr.flush()
namespace.action_tried[namespace.action] += 1
namespace.struct_tried[pack_action_bit_list(namespace.action,namespace.prestate_bit_list)] += 1
# further analysis...
if action_status_guessed == hfo.ACTION_STATUS_MAYBE:
# further analysis...
if namespace.prestate_bit_list[3] and (namespace.action in (hfo.KICK_TO, hfo.KICK)):
print("OK status from {0!s} despite goal collision in prestate (poststate: {1!s})".format(
action_string, bit_list[3]))
sys.stdout.flush()
if namespace.prestate_bit_list[2] and (namespace.action == hfo.MOVE):
print("OK status from {0!s} despite ball collision in prestate (poststate: {1!s})".format(
action_string, bit_list[2]))
sys.stdout.flush()
if namespace.prestate_bit_list[7]:
print("OK status from {0!s} despite player collision in prestate (poststate: {1!s})".format(
action_string, bit_list[2]))
sys.stdout.flush()
elif action_status_guessed == hfo.ACTION_STATUS_BAD:
if namespace.action in (hfo.MOVE_TO, hfo.INTERCEPT, hfo.MOVE, hfo.DRIBBLE, hfo.PASS, hfo.KICK_TO, hfo.KICK):
print("Bad status from {0!s}: prestate {1!s}, poststate {2!s}".format(
action_string,
"".join(map(str,map(int,namespace.prestate_bit_list))),
"".join(map(str,map(int,bit_list)))))
sys.stdout.flush()
def save_action_prestate(action,
prestate_bit_list,
prestate_self_dict,
prestate_goal_dict,
prestate_ball_dict,
intent,
checking_intent,
namespace,
action_params=None):
namespace.action = action
namespace.prestate_bit_list = prestate_bit_list
namespace.prestate_self_dict = prestate_self_dict
namespace.prestate_goal_dict = prestate_goal_dict
namespace.prestate_ball_dict = prestate_ball_dict
if action_params is None:
action_params = []
namespace.action_params = action_params
namespace.intent = intent
if intent is not None:
namespace.intent_done[intent] += 1
namespace.checking_intent = checking_intent
if checking_intent:
namespace.action_tried[action] += 1
namespace.struct_tried[pack_action_bit_list(action, prestate_bit_list)] += 1
if action_params:
return [action] + action_params
return action
def determine_which_action(poss_actions_list, namespace, bit_list):
"""
Decides between poss_actions based on lowest struct_tried,
then lowest action_tried, then random.
"""
if len(poss_actions_list) > 1:
random.shuffle(poss_actions_list)
poss_actions_list.sort(key=lambda action: namespace.struct_tried[pack_action_bit_list(action, bit_list)])
if (namespace.struct_tried[pack_action_bit_list(poss_actions_list[0],
bit_list)]
== namespace.struct_tried[pack_action_bit_list(poss_actions_list[1], bit_list)]):
poss_actions_list.sort(key=lambda action: namespace.action_tried[action])
return poss_actions_list[0]
def do_intent(hfo_env,
state,
namespace):
bit_list, self_dict, goal_dict, ball_dict = filter_low_level_state(state, namespace)
prestate_dict = {'prestate_bit_list': bit_list,
'prestate_self_dict': self_dict,
'prestate_goal_dict': goal_dict,
'prestate_ball_dict': ball_dict,
'checking_intent': False,
'intent': namespace.intent,
'namespace': namespace}
if (namespace.intent == INTENT_BALL_COLLISION) and bit_list[4]: # ball is kickable
ball_rel_angle = ball_dict['rel_angle']
if ball_rel_angle > 180:
ball_rel_angle -= 360
poss_actions_list = []
if bit_list[0] and (ball_dict['x_pos'] is not None): # self position valid
if get_dist_real(self_dict['x_pos'],self_dict['y_pos'],
ball_dict['x_pos'],ball_dict['y_pos']) < (0.15+0.0425):
if abs(ball_rel_angle) > 0.5:
hfo_env.act(*save_action_prestate(action=hfo.TURN,action_params=[ball_rel_angle],
**prestate_dict))
else:
print(
"Should already be in collision with ball ({0:n}, {1:n} vs {2:n}, {3:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
ball_dict['x_pos'],ball_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, ball_rel_angle],
**prestate_dict))
return
poss_actions_list.append(hfo.MOVE_TO)
if abs(ball_rel_angle) > 0.5:
poss_actions_list.append(hfo.TURN)
if abs(ball_rel_angle) < 1.0:
poss_actions_list.append(hfo.DASH)
action = determine_which_action(poss_actions_list, namespace, bit_list)
if action == hfo.MOVE_TO:
hfo_env.act(*save_action_prestate(action=hfo.MOVE_TO,
action_params=[ball_dict['x_pos'],
ball_dict['y_pos']],
**prestate_dict))
elif action == hfo.TURN:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[ball_rel_angle],
**prestate_dict))
elif action == hfo.DASH:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, ball_rel_angle],
**prestate_dict))
else:
raise RuntimeError("Unknown action {0!r}".format(action))
return
elif (namespace.intent == INTENT_BALL_KICKABLE) or (namespace.intent == INTENT_BALL_COLLISION):
poss_actions_list = [hfo.INTERCEPT]
if bit_list[0]:
poss_actions_list.append(hfo.GO_TO_BALL)
ball_rel_angle = ball_dict['rel_angle']
if ball_rel_angle > 180:
ball_rel_angle -= 360
if abs(ball_rel_angle) > 0.5:
poss_actions_list.append(hfo.TURN)
if abs(ball_rel_angle) < 1.0:
poss_actions_list.append(hfo.DASH)
if bit_list[0] and (ball_dict['x_pos'] is not None):
poss_actions_list.append(hfo.MOVE_TO)
action = determine_which_action(poss_actions_list, namespace, bit_list)
if (action == hfo.GO_TO_BALL) or (action == hfo.INTERCEPT):
hfo_env.act(save_action_prestate(action=action,**prestate_dict))
elif action == hfo.TURN:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[ball_rel_angle],
**prestate_dict))
elif action == hfo.DASH:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, ball_rel_angle],
**prestate_dict))
elif action == hfo.MOVE_TO:
hfo_env.act(*save_action_prestate(action=hfo.MOVE_TO,
action_params=[ball_dict['x_pos'],
ball_dict['y_pos']],
**prestate_dict))
else:
raise RuntimeError("Unknown action {0!r}".format(action))
return
elif namespace.intent == INTENT_GOAL_COLLISION:
goal_rel_angle = goal_dict['rel_angle']
if goal_rel_angle > 180:
goal_rel_angle -= 360
poss_actions_list = []
if (get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
goal_dict['x_pos'],
goal_dict['y_pos']) < (0.15+0.03)):
if abs(goal_rel_angle) > 0.5:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[goal_rel_angle],
**prestate_dict))
else:
print(
"Should already be in collision with goal ({0:n}, {1:n} vs {2:n}, {3:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
goal_dict['x_pos'],goal_dict['y_pos']),
file=sys.stderr)
sys.stderr.flush()
if not bit_list[4]:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, goal_rel_angle],
**prestate_dict))
else:
hfo_env.act(*save_action_prestate(action=hfo.DRIBBLE_TO,
action_params=[min(1.0,max(-1.0,(self_dict['x_pos']+
(2*(goal_dict['x_pos']-
self_dict['x_pos']))))),
min(1.0,max(-1.0,(self_dict['y_pos']+
(2*(goal_dict['y_pos']-
self_dict['y_pos'])))))],
**prestate_dict))
return
poss_actions_list.append(hfo.DRIBBLE_TO)
if not bit_list[4]:
poss_actions_list.append(hfo.MOVE_TO)
if goal_rel_angle is not None:
if abs(goal_rel_angle) > 0.5:
poss_actions_list.append(hfo.TURN)
if (abs(goal_rel_angle) < 1.0) and ((not bit_list[4]) or (goal_dict['dist'] < 0.36)):
poss_actions_list.append(hfo.DASH)
action = determine_which_action(poss_actions_list, namespace, bit_list)
if (action == hfo.TURN):
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[goal_rel_angle],
**prestate_dict))
elif action in (hfo.DRIBBLE_TO, hfo.MOVE_TO):
x_pos_target = min(1.0,(goal_dict['x_pos']+POS_ERROR_TOLERANCE),
max(-1.0,(goal_dict['x_pos']-POS_ERROR_TOLERANCE),
(self_dict['x_pos']+(2*(goal_dict['x_pos']-self_dict['x_pos'])))))
y_pos_target = min(1.0,(goal_dict['y_pos']+POS_ERROR_TOLERANCE),
max(-1.0,(goal_dict['y_pos']-POS_ERROR_TOLERANCE),
(self_dict['y_pos']+(2*(goal_dict['y_pos']-self_dict['y_pos'])))))
hfo_env.act(*save_action_prestate(action=action,
action_params=[x_pos_target,y_pos_target],
**prestate_dict))
elif (action == hfo.DASH):
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, goal_rel_angle],
**prestate_dict))
else:
raise RuntimeError("Unknown action {0!r}".format(action))
return
elif namespace.intent == INTENT_PLAYER_COLLISION:
rel_angle = self_dict['other_angle']
if rel_angle > 180:
rel_angle -= 360
other_dist = get_dist_real(self_dict['x_pos'],
self_dict['y_pos'],
namespace.other_dict['x_pos'].value,
namespace.other_dict['y_pos'].value)
if (other_dist < 0.3):
if abs(rel_angle) > 0.5:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[rel_angle],
**prestate_dict))
else:
print(
"Should already be in collision with player2 ({0:n}, {1:n} vs {2:n}, {3:n})".format(
self_dict['x_pos'],self_dict['y_pos'],
namespace.other_dict['x_pos'].value,
namespace.other_dict['y_pos'].value),
file=sys.stderr)
sys.stderr.flush()
if not bit_list[4]:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, rel_angle],
**prestate_dict))
else:
hfo_env.act(*save_action_prestate(action=hfo.DRIBBLE_TO,
action_params=[(self_dict['x_pos']+
(2*(namespace.other_dict['x_pos'].value-
self_dict['x_pos']))),
(self_dict['y_pos']+
(2*(namespace.other_dict['y_pos'].value-
self_dict['y_pos'])))],
**prestate_dict))
return
poss_actions_list = []
poss_actions_list.append(hfo.DRIBBLE_TO)
if not bit_list[4]:
poss_actions_list.append(hfo.MOVE_TO)
if rel_angle is not None:
if abs(rel_angle) > 0.5:
poss_actions_list.append(hfo.TURN)
if (abs(rel_angle) < 1.0) and ((not bit_list[4]) or (other_dist < 0.6)):
poss_actions_list.append(hfo.DASH)
elif bit_list[4] and (other_dist < 0.6):
poss_actions_list.append(hfo.DASH)
action = determine_which_action(poss_actions_list, namespace, bit_list)
if action == hfo.TURN:
hfo_env.act(*save_action_prestate(action=hfo.TURN,
action_params=[rel_angle],
**prestate_dict))
elif (action == hfo.MOVE_TO) or (action == hfo.DRIBBLE_TO):
hfo_env.act(*save_action_prestate(action=action,
action_params=[namespace.other_dict['x_pos'].value,
namespace.other_dict['y_pos'].value],
**prestate_dict))
elif action == hfo.DASH:
hfo_env.act(*save_action_prestate(action=hfo.DASH,
action_params=[80, rel_angle],
**prestate_dict))
else:
raise RuntimeError("Unknown action {0!r}".format(action))
return
else:
raise RuntimeError("Unexpected intent {0!r}".format(namespace.intent))
def decide_intent(poss_intent_list, namespace):
if len(poss_intent_list) > 1:
random.shuffle(poss_intent_list)
poss_intent_list.sort(key=lambda intent: namespace.intent_done[intent])
return poss_intent_list[0]
def do_next_action(hfo_env,
state,
namespace):
bit_list, self_dict, goal_dict, ball_dict = filter_low_level_state(state, namespace)
if not bit_list[1]: # self velocity invalid
# long-term: Turn, Kick, Kick_To
raise NotImplementedError("Not yet set up for self velocity invalid")
prior_intent = namespace.intent
# admittedly, need to check for some of "intent" circumstances in combo!
if namespace.intent == INTENT_BALL_COLLISION:
if bit_list[2]:
namespace.intent = None
else:
if (not bit_list[5]) or (ball_dict['x_pos'] is None): # first: ball location not valid
namespace.intent_done[INTENT_BALL_COLLISION] -= 1
if bit_list[0]: # self location valid
if bit_list[3] or bit_list[7]:
namespace.intent = None
else:
namespace.intent = decide_intent([INTENT_GOAL_COLLISION, INTENT_PLAYER_COLLISION],
namespace)
else:
raise NotImplementedError("Not yet set up for self+ball location invalid")
elif namespace.intent == INTENT_BALL_KICKABLE:
if bit_list[4]:
namespace.intent = None
else:
if (not bit_list[5]) or (ball_dict['x_pos'] is None): # first: ball location not valid
namespace.intent_done[INTENT_BALL_KICKABLE] -= 1
if bit_list[0]: # self location valid
if bit_list[3] or bit_list[7]:
namespace.intent = None
else:
namespace.intent = decide_intent([INTENT_GOAL_COLLISION, INTENT_PLAYER_COLLISION],
namespace)
else:
raise NotImplementedError("Not yet set up for self+ball location invalid")
elif namespace.intent == INTENT_GOAL_COLLISION:
if bit_list[3]:
namespace.intent = None
else:
if (not bit_list[0]) or (goal_dict['rel_angle'] is None): # first: self location not valid
namespace.intent_done[INTENT_GOAL_COLLISION] -= 1
if bit_list[4] or bit_list[2] or bit_list[7]:
namespace.intent = None
else:
poss_intent_list = [INTENT_PLAYER_COLLISION]
if bit_list[5] and (ball_dict['x_pos'] is not None):
poss_intent_list += [INTENT_BALL_COLLISION, INTENT_BALL_KICKABLE]
namespace.intent = decide_intent(poss_intent_list, namespace)
elif namespace.intent == INTENT_PLAYER_COLLISION:
if bit_list[7]:
namespace.intent = None
else:
if not bit_list[0]: # self location not valid
if bit_list[4] or bit_list[2] or bit_list[3]:
namespace.intent = None
else:
poss_intent_list = [INTENT_GOAL_COLLISION]
if bit_list[5] and (ball_dict['x_pos'] is not None):
poss_intent_list += [INTENT_BALL_COLLISION, INTENT_BALL_KICKABLE]
namespace.intent = decide_intent(poss_intent_list, namespace)
if namespace.intent is not None:
namespace.times_intent_NONE = 0
return do_intent(hfo_env, state, namespace)
# figure out what to do next
actions_want_check = set([])
if (bit_list[4] and bit_list[3]):
actions_want_check |= set([hfo.KICK, hfo.KICK_TO])
elif ((not bit_list[4]) and bit_list[2]):
actions_want_check |= set([hfo.MOVE])
## if bit_list[2] or bit_list[3]:
## if bit_list[4]: # kickable
## actions_want_check |= set([hfo.KICK, hfo.KICK_TO])
## elif bit_list[2]:
## actions_want_check |= set([hfo.MOVE])
## if bit_list[7]: # collision w/player
## if bit_list[4]:
## actions_want_check |= set([hfo.DRIBBLE])
## else:
## actions_want_check |= set([hfo.GO_TO_BALL])
if not actions_want_check:
poss_intent_set = set([INTENT_BALL_KICKABLE,INTENT_BALL_COLLISION,
INTENT_GOAL_COLLISION])
if (not bit_list[5]) or (ball_dict['x_pos'] is None):
poss_intent_set.discard(INTENT_BALL_KICKABLE)
poss_intent_set.discard(INTENT_BALL_COLLISION)
elif bit_list[4]:
poss_intent_set.discard(INTENT_BALL_KICKABLE)
if not bit_list[0]:
poss_intent_set.discard(INTENT_GOAL_COLLISION)
poss_intent_set.discard(INTENT_PLAYER_COLLISION)
elif self_dict['other_angle'] is None:
poss_intent_set.discard(INTENT_PLAYER_COLLISION)
if not poss_intent_set:
raise NotImplementedError("Not yet set up for self+ball location invalid")
namespace.intent = decide_intent(list(poss_intent_set), namespace)
print("INTENT: {}".format(INTENT_DICT[namespace.intent]))
sys.stdout.flush()
namespace.times_intent_NONE = 0
return do_intent(hfo_env, state, namespace)
if bit_list[4] and (prior_intent not in (None, INTENT_BALL_KICKABLE)):
namespace.intent_done[INTENT_BALL_KICKABLE] += 1
if bit_list[2] and (prior_intent not in (None, INTENT_BALL_COLLISION)):
namespace.intent_done[INTENT_BALL_COLLISION] += 1
if bit_list[3] and (prior_intent not in (None, INTENT_GOAL_COLLISION)):
namespace.intent_done[INTENT_GOAL_COLLISION] += 1
if bit_list[7] and (prior_intent not in (None, INTENT_PLAYER_COLLISION)):
namespace.intent_done[INTENT_PLAYER_COLLISION] += 1
actions_maybe_check = set([hfo.TURN])
if bit_list[4]:
actions_maybe_check |= set([hfo.KICK])
else:
actions_maybe_check |= set([hfo.DASH])
if bit_list[0]:
actions_maybe_check |= set([hfo.MOVE_TO])
if bit_list[5] and (ball_dict['x_pos'] is not None):
actions_maybe_check |= set([hfo.DRIBBLE_TO])
if bit_list[4]:
actions_maybe_check |= set([hfo.KICK_TO,hfo.DRIBBLE])
if (self_dict['other_angle'] is not None) and (1 <= namespace.other_dict['unum'].value <= 11):
actions_maybe_check |= set([hfo.PASS])
else:
actions_maybe_check |= set([hfo.INTERCEPT,hfo.GO_TO_BALL,hfo.MOVE])
if not bit_list[6]: # ball velocity invalid
# long-term: Kick, Kick_To, Intercept - if know ball location; Kick_To requires self location valid
raise NotImplementedError("Not yet set up for ball velocity invalid")
poss_actions = actions_want_check & actions_maybe_check
if not poss_actions:
raise RuntimeError(
"Unknown what to do - actions_want_check {0!r}, actions_maybe_check {1!r}".format(actions_want_check,
actions_maybe_check))
action = determine_which_action(list(poss_actions), namespace, bit_list)
if prior_intent is not None:
namespace.times_intent_NONE = 0
print("INTENT: WAS {}".format(INTENT_DICT[prior_intent]))
else:
namespace.times_intent_NONE += 1
print("INTENT: NONE (action {})".format(hfo_env.actionToString(action)))
if namespace.times_intent_NONE > 5:
print("Actions_want_check: {0!s}; actions_maybe_check: {1!s}".format(
", ".join([hfo_env.actionToString(x) for x in list(actions_want_check)]),
", ".join([hfo_env.actionToString(x) for x in list(actions_maybe_check)])))
sys.stdout.flush()
prestate_dict = {'action': action,
'prestate_bit_list': bit_list,
'prestate_self_dict': self_dict,
'prestate_goal_dict': goal_dict,
'prestate_ball_dict': ball_dict,
'checking_intent': True,
'intent': None,
'namespace': namespace}
# added: DRIBBLE, PASS, MOVE
# ends due to out-of-bounds are annoying/noise in the data
if (action in (hfo.DRIBBLE_TO, hfo.KICK_TO)) or ((action == hfo.MOVE_TO) and (bit_list[4] or bit_list[2])):
if ball_dict['x_pos'] < -1*POS_ERROR_TOLERANCE:
x_pos = random.uniform(-0.5,min(0.9,MAX_POS_X_BALL_SAFE))
elif ball_dict['x_pos'] > POS_ERROR_TOLERANCE:
x_pos = random.uniform(max(-0.9,MIN_POS_X_BALL_SAFE),0.5)
else:
x_pos = random.uniform(max(-0.9,MIN_POS_X_BALL_SAFE),min(0.9,MAX_POS_X_BALL_SAFE))
if ball_dict['y_pos'] < -1*POS_ERROR_TOLERANCE:
y_pos = random.uniform(-0.5,min(0.9,MAX_POS_Y_BALL_SAFE))
elif ball_dict['y_pos'] > POS_ERROR_TOLERANCE:
y_pos = random.uniform(max(-0.9,MIN_POS_Y_BALL_SAFE),0.5)
else:
y_pos = random.uniform(max(-0.9,MIN_POS_Y_BALL_SAFE),min(0.9,MAX_POS_Y_BALL_SAFE))
else:
x_pos = random.uniform(MIN_POS_X_OK,MAX_POS_X_OK)
y_pos = random.uniform(MIN_POS_Y_OK,MAX_POS_Y_OK)
max_power = 80
if (action == hfo.KICK) and (get_dist_normalized(ball_dict['x_pos'],
ball_dict['y_pos'],
0.0,0.0) > 1):
if (self_dict['other_angle'] is not None):
max_power = 100
direction = self_dict['other_angle']
if direction > 180:
direction -= 360
else:
max_power = 50
direction = random.uniform(-180,180)
else:
direction = random.uniform(-180,180)
if action in (hfo.INTERCEPT, hfo.GO_TO_BALL, hfo.DRIBBLE, hfo.MOVE):
hfo_env.act(save_action_prestate(**prestate_dict))
elif action is hfo.PASS:
hfo_env.act(*save_action_prestate(action_params=[namespace.other_dict['unum'].value],
**prestate_dict))
elif action in (hfo.MOVE_TO, hfo.DRIBBLE_TO):
hfo_env.act(*save_action_prestate(action_params=[x_pos,y_pos],
**prestate_dict))
elif action == hfo.KICK_TO:
if min(abs(x_pos),abs(y_pos)) > 0.5:
max_speed = 1
elif max(abs(x_pos),abs(y_pos)) > 0.5:
max_speed = 2
else:
max_speed = 3
hfo_env.act(*save_action_prestate(action_params=[x_pos,y_pos,
random.uniform(0,max_speed)],
**prestate_dict))
elif action == hfo.DASH:
hfo_env.act(*save_action_prestate(action_params=[random.uniform(-100,100), # power
direction],
**prestate_dict))
elif action == hfo.TURN:
hfo_env.act(*save_action_prestate(action_params=[direction],**prestate_dict))
elif action == hfo.KICK:
hfo_env.act(*save_action_prestate(action_params=[random.uniform(0,max_power),
direction],**prestate_dict))
else:
raise RuntimeError("Unknown action {!r}".format(action))
return None
def run_player2(conf_dir, args, namespace):
hfo_env2 = hfo.HFOEnvironment()
if args.seed:
random.seed(args.seed+1)
connect2_args = [hfo.HIGH_LEVEL_FEATURE_SET, conf_dir, args.port, "localhost",
"base_left", False]
if args.record:
connect2_args.append(record_dir=args.rdir)
time.sleep(5)
print("Player2 connecting")
sys.stdout.flush()
hfo_env2.connectToServer(*connect2_args)
print("Player2 unum is {0:d}".format(hfo_env2.getUnum()))
sys.stdout.flush()
namespace.other_dict['unum'].value = hfo_env2.getUnum()
status=hfo.IN_GAME
while status != hfo.SERVER_DOWN:
if status == hfo.IN_GAME:
state2 = hfo_env2.getState()
namespace.other_dict['x_pos'].value = state2[0]
namespace.other_dict['y_pos'].value = state2[1]
namespace.other_dict['ball_x_pos'].value = state2[3]
namespace.other_dict['ball_y_pos'].value = state2[4]
namespace.other_dict['self_x_pos'].value = state2[13]
namespace.other_dict['self_y_pos'].value = state2[14]
if (abs(state2[0])
<= 1) and (abs(state2[1])
<= 1) and (get_dist_normalized(0.0,
0.0,
state2[0],
state2[1])
> POS_ERROR_TOLERANCE):
hfo_env2.act(hfo.MOVE_TO,0.0,0.0)
else:
hfo_env2.act(hfo.TURN,random.uniform(-180,180))
status = hfo_env2.step()
hfo_env2.act(hfo.NOOP)
status = hfo_env2.step()
hfo_env2.act(hfo.QUIT)
sys.exit(0)
def main_explore_offense_actions_fullstate():
parser = argparse.ArgumentParser()
parser.add_argument('--port', type=int, default=6000,
help="Server port")
parser.add_argument('--seed', type=int, default=None,
help="Python randomization seed; uses python default if 0 or not given")
parser.add_argument('--server-seed', type=int, default=None,
help="Server randomization seed; uses default if 0 or not given")
parser.add_argument('--record', default=False, action='store_true',
help="Doing HFO --record")
parser.add_argument('--rdir', type=str, default='log/',
help="Set directory to use if doing HFO --record")
args=parser.parse_args()
namespace = argparse.Namespace()
namespace.intent_done = {}
namespace.intent_done[INTENT_BALL_COLLISION] = 0
namespace.intent_done[INTENT_BALL_KICKABLE] = 0
namespace.intent_done[INTENT_GOAL_COLLISION] = 0
namespace.intent_done[INTENT_PLAYER_COLLISION] = 0
namespace.action_tried = {}
namespace.struct_tried = {}
for n in list(range(hfo.NUM_HFO_ACTIONS)):
namespace.action_tried[n] = 0
for x in list(range((2**(BIT_LIST_LEN+1))-1)):
namespace.struct_tried[struct.pack(STRUCT_PACK, n, x)] = 0
namespace.other_dict = {'unum': multiprocessing.sharedctypes.Value('B', 0)}
for name in ['x_pos', 'y_pos', 'ball_x_pos', 'ball_y_pos', 'self_x_pos', 'self_y_pos']:
namespace.other_dict[name] = multiprocessing.sharedctypes.Value('d', -2.0)
script_dir = os.path.dirname(os.path.abspath(os.path.realpath(__file__)))
binary_dir = os.path.normpath(script_dir + "/../bin")
conf_dir = os.path.join(binary_dir, 'teams/base/config/formations-dt')
bin_HFO = os.path.join(binary_dir, "HFO")
player2_process = multiprocessing.Process(target=run_player2,
kwargs={'conf_dir': conf_dir,
'args': args,
'namespace': namespace}
)
popen_list = [sys.executable, "-x", bin_HFO,
"--frames-per-trial=3000", "--untouched-time=2000",
"--port={0:d}".format(args.port),
"--offense-agents=2", "--defense-npcs=0",
"--offense-npcs=0", "--trials=20", "--headless",
"--fullstate"]
if args.record:
popen_list.append("--record")
if args.server_seed:
popen_list.append("--seed={0:d}".format(args.server_seed))
HFO_subprocess = subprocess.Popen(popen_list)
player2_process.daemon = True
player2_process.start()
time.sleep(0.2)
assert (HFO_subprocess.poll() is
None), "Failed to start HFO with command '{}'".format(" ".join(popen_list))
assert player2_process.is_alive(), "Failed to start player2 process (exit code {!r})".format(
player2_process.exitcode)
if args.seed:
random.seed(args.seed)
hfo_env = hfo.HFOEnvironment()
connect_args = [hfo.LOW_LEVEL_FEATURE_SET, conf_dir, args.port, "localhost",
"base_left", False]
if args.record:
connect_args.append(record_dir=args.rdir)
time.sleep(9.8)
try:
assert player2_process.is_alive(), "Player2 process exited (exit code {!r})".format(
player2_process.exitcode)
print("Main player connecting")
sys.stdout.flush()
hfo_env.connectToServer(*connect_args)
print("Main player unum {0:d}".format(hfo_env.getUnum()))
for ignored_episode in itertools.count():
status = hfo.IN_GAME
namespace.action = hfo.NOOP
namespace.action_params = []
namespace.prestate_bit_list = [0,0,0,0,0,0,0]
namespace.prestate_self_dict = {'x_pos': None,
'y_pos': None,
'body_angle': None,
'other_angle': None,
'vel_rel_angle': None,
'vel_mag': -1.0}
namespace.prestate_goal_dict = {'dist': get_dist_from_proximity(-1),
'rel_angle': None,
'abs_angle': None,
'x_pos': GOAL_POS_X,
'y_pos': 0.0}
namespace.prestate_ball_dict = {'dist': get_dist_from_proximity(-1),
'rel_angle': None,
'abs_angle': None,
'x_pos': None,
'y_pos': None,
'vel_rel_angle': None,
'vel_mag': None}
namespace.intent = None
namespace.times_intent_NONE = 0
namespace.checking_intent = True
while status == hfo.IN_GAME:
state = hfo_env.getState()
if namespace.action != hfo.NOOP:
evaluate_previous_action(hfo_env, state, namespace)
do_next_action(hfo_env, state, namespace)
status = hfo_env.step()
if status == hfo.SERVER_DOWN:
# summarize results
hfo_env.act(hfo.QUIT)
break
finally:
if HFO_subprocess.poll() is None:
HFO_subprocess.terminate()
os.system("killall -9 rcssserver") # remove if ever start doing multi-server testing!
if __name__ == '__main__':
main_explore_offense_actions_fullstate()
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