def __init__(self, name, matches_input, matches_result, time_begin,
time_end):
"""Init turn class."""
self.name = name
self.matches = []
self.time_begin = time_begin
self.time_end = time_end
for match, result in zip(matches_input, matches_result):
self.matches.append(Match(match, result))
def creer_tour(self, indice_de_tour):
"""
Méthode permettant de créer un tour
"""
nom = f"Round {indice_de_tour + 1}"
dico = {
'nom': nom,
'date_heure_debut': util.encode_date_heure(datetime.now()),
'date_heure_fin': '9999-12-31T12:00:00'
}
tour = Tour(**dico)
tour.liste_de_matchs = [
Match(*paire_de_joueurs) for paire_de_joueurs in
self.generer_paires_de_joueurs(indice_de_tour)
]
self._liste_de_tours.append(tour)
for match in tour.liste_de_matchs:
cle = f"{match.paire_de_joueurs[0].id} "
cle += f"{match.paire_de_joueurs[1].id}"
self._matchs_deja_joues[cle] = 1
def detect_faces(self):
headers = {
'Content-Type': 'application/octet-stream',
'Ocp-Apim-Subscription-Key': AzureConfig.KEY,
}
params = urllib.urlencode({
'returnFaceId': 'true',
'returnFaceLandmarks': 'false',
})
# Sending a post request to obtain all of the face ids and face rectangles in the image
image = open(self.path, 'rb')
response = requests.post(Image.DETECT_URL % params, data=image, headers=headers)
# Constructing all of the image's matches'
matches = []
for match in response.json():
matches.append(Match(match['faceId'], match['faceRectangle'], self))
return matches
def matches_post():
post_json = request.get_json()
new_match = Match(game_id=post_json["game_id"], date=post_json["date"])
db.session.add(new_match)
db.session.commit()
if "winner_ids" in post_json.keys():
for winner_id in post_json["winner_ids"]:
new_play = Play(
match_id=new_match.match_id, player_id=winner_id, did_win=True
)
db.session.add(new_play)
db.session.commit()
if "non_winner_ids" in post_json.keys():
for non_winner_id in post_json["non_winner_ids"]:
new_play = Play(
match_id=new_match.match_id, player_id=non_winner_id, did_win=False
)
db.session.add(new_play)
db.session.commit()
return jsonify(match_dict(new_match)), 201
def generate(self, seeding=None):
"""
generate the bracket
"""
# find all registered bots in the given class
bots = Bot.get_by_weightclass_registered(self.weightclass_code,
self.event_id,
order="id")
# defines the order for matches to spread out the byes better, probably a formula for this but didn't take time to figure it out
match_ordering = {
2: [1, 2],
4: [1, 3, 2, 4],
8: [1, 8, 5, 4, 3, 6, 7, 2],
16: [1, 16, 9, 8, 5, 12, 13, 4, 3, 14, 11, 6, 7, 10, 15, 2]
}
# need at least 2 bots to generate a chart
if (len(bots) < 2):
return False
# manual seeding, if passed in (is dumb, assumes # of seeds matches # of bots)
if seeding:
for i, bot_id in enumerate(seeding):
bot = Bot.get_by_id(bot_id)
bot.seed_number = i
bot.bracket_id = self.id
bot.put()
else:
# generate a random array for the seeding
seeds = range(0, len(bots))
shuffle(seeds)
# assign the seeds
for i, bot in enumerate(bots):
bot.seed_number = seeds[i]
bot.bracket_id = self.id
bot.put()
# generate matches
if self.format_code.upper() != 'ROUNDROBIN':
chart_size = 2
# find the first power of 2 higher than the number of bots in the bracket, this is our chart size
num_rounds = 1
while (len(bots) > chart_size):
chart_size *= 2
num_rounds += 1
# create first round matches, do our best to avoid a team fighting itself first round
# will regenerate up to 5 times until it gives up on avoiding first round team fighting self
for _ in xrange(0, 5):
matches = []
for i in xrange(0, chart_size / 2):
bot1_seed = i
bot2_seed = chart_size - 1 - i
bot1 = Bot.get_by_bracket_seed(self.event_id, self.id,
bot1_seed)
bot2 = Bot.get_by_bracket_seed(self.event_id, self.id,
bot2_seed)
bot1_id = bot1.id
bot2_id = bot2.id if bot2 else 0
match = Match(number=match_ordering[chart_size / 2][i],
bracket_id=self.id,
bracket_side="A",
round="A",
bot1_id=bot1_id,
bot2_id=bot2_id)
matches.append(match)
conflict = False
for match in matches:
if match.bot1_id > 0 and match.bot2_id > 0:
bot1 = Bot.get_by_id(match.bot1_id)
bot2 = Bot.get_by_id(match.bot2_id)
if bot1.team_name == bot2.team_name:
conflict = True
break
if not conflict:
break
[match.put() for match in matches]
# create the rest of the A side matches, one round at a time
for i in xrange(2, num_rounds + 1):
round_letter = chr(63 + (2 * i)) #A,C,E etc
for j in xrange(1, chart_size / pow(2, i) + 1):
bot1_source = 'W%s%d' % (chr(63 + (2 * i) - 2), (j * 2 - 1)
) # ie WA1 (Winner of A1)
bot2_source = 'W%s%d' % (chr(63 + (2 * i) - 2), (j * 2))
match = Match(number=j,
bracket_id=self.id,
bracket_side="A",
round=round_letter,
bot1_source_match=bot1_source,
bot2_source_match=bot2_source)
match.put()
# generate B side matches, if necessary
if self.format_code.upper(
) == 'DOUBLEELIM' or self.format_code.upper() == 'DOUBLETRUE':
num_b_rounds = num_rounds * 2 - 1
for i in xrange(2, num_b_rounds + 1):
round_letter = chr(62 + (2 * i))
round_size = int(chart_size / pow(2, math.floor(
(i + 2) / 2)))
for j in xrange(1, round_size + 1):
if i == 2: # only case where a loser moves into bot1 spot
bot1_source = 'LA%d' % (j * 2 - 1)
bot2_source = 'LA%d' % (j * 2)
else:
if i % 2 == 1: # means this round's bot2 is sourced from A side
# losing source bots need to be from opposite side of chart as to prevent rematches
bot1_source = 'W%s%d' % (chr(60 + (2 * i)), j)
bot2_source = 'L%s' % (chr(64 + i))
# match order depends how far into B side we are
# 3 possibilities: normal, reverse, half shift
if i % 7 == 0: # normal
bot2_source = '%s%d' % (bot2_source, j)
elif i % 5 == 0: # half shift
if j < round_size / 2:
bot2_source = '%s%d' % (
bot2_source,
math.ceil((round_size / 2) + j))
else:
bot2_source = '%s%d' % (
bot2_source,
math.ceil((0 -
(round_size / 2)) + j))
else: # reverse
bot2_source = '%s%d' % (bot2_source,
round_size + 1 - j)
else:
bot1_source = 'W%s%d' % (chr(60 + (2 * i)),
(j * 2 - 1))
bot2_source = 'W%s%d' % (chr(60 + (2 * 1)),
(j * 2))
match = Match(number=j,
bracket_id=self.id,
bracket_side="B",
round=round_letter,
bot1_source_match=bot1_source,
bot2_source_match=bot2_source)
match.put()
# insert final A-side match
round_letter = chr(63 + (2 * (num_rounds + 1)))
bot1_source = 'W%s1' % chr(63 + (2 * num_rounds))
bot2_source = 'W%s1' % chr(60 + (2 * (num_b_rounds + 1)))
match = Match(number=1,
bracket_id=self.id,
bracket_side="A",
round=round_letter,
bot1_source_match=bot1_source,
bot2_source_match=bot2_source)
match.put()
matches_to_update = Match.get_by_bracket_round(self.id, 'A')
for match in matches_to_update:
match.check()
else: #ROUNDROBIN
bot_index = 1 # start at 1 because bot0 can't fight bot0 etc
for bot in bots:
match_index = 1
for i in xrange(bot_index, len(bots)):
match = Match(number=match_index,
round=chr(64 + bot_index),
bracket_id=self.id,
bracket_side="A",
bot1_id=bot.id,
bot2_id=bots[i].id)
match.put()
match_index += 1
bot_index += 1
return True
import app.aggregators.team_goals as team_goals_aggregator
from app.helpers.aggregation import combine_aggregations
from app.models.match import Match
from collections import Counter
from tests.testing_helper import get_empty_match
match1 = Match(get_empty_match())
match2 = Match(get_empty_match())
def test_both_teams_score():
match1.homeTeamGoals = 2
match1.awayTeamGoals = 3
match2.homeTeamGoals = 0
match2.awayTeamGoals = 1
final_aggregation = compute_both_teams_aggregation(match1, match2)
assert final_aggregation['gg'] == 1
def test_one_team_did_not_score():
match1.homeTeamGoals = 0
match1.awayTeamGoals = 3
match2.homeTeamGoals = 0
match2.awayTeamGoals = 1
final_aggregation = compute_both_teams_aggregation(match1, match2)
assert final_aggregation['ng'] == 2
from tests.testing_helper import get_empty_match
from app.models.match import Match
from app.constants.outcome import Outcome
import app.helpers.outcome as oh
match = Match(get_empty_match())
"""Tests if expected outcome is equal to actual outcome"""
def test_if_outcome_comparison_is_correct():
match.finalOutcome = Outcome.HOME_WIN
assert oh.compare(match.finalOutcome, Outcome.HOME_WIN) == 1
def test_if_outcome_comparison_is_not_correct():
match.finalOutcome = Outcome.HOME_WIN
assert oh.compare(match.finalOutcome, Outcome.AWAY_WIN) == 0
"""Test if double chance matches the expected outcomes"""
def test_if_double_chance_comparison_is_correct():
match.finalOutcome = Outcome.HOME_WIN
assert oh.double_chance(match.finalOutcome, Outcome.HOME_WIN, Outcome.DRAW) == 1
def test_if_double_chance_comparison_is_not_correct():
match.finalOutcome = Outcome.AWAY_WIN
assert oh.double_chance(match.finalOutcome, Outcome.HOME_WIN, Outcome.DRAW) == 0
from collections import Counter
import app.aggregators.mixed as mixed_games_aggregator
from app.constants.outcome import Outcome
from app.helpers.aggregation import combine_aggregations
from app.models.match import Match
from tests.testing_helper import get_empty_match
match1 = Match(get_empty_match())
match2 = Match(get_empty_match())
match3 = Match(get_empty_match())
match4 = Match(get_empty_match())
match5 = Match(get_empty_match())
match6 = Match(get_empty_match())
def test_double_win():
match1.outcome1stHalf = Outcome.HOME_WIN
match1.outcome2ndHalf = Outcome.HOME_WIN
match2.outcome1stHalf = Outcome.AWAY_WIN
match2.outcome2ndHalf = Outcome.AWAY_WIN
match3.outcome1stHalf = Outcome.AWAY_WIN
match3.outcome2ndHalf = Outcome.AWAY_WIN
final_aggregation = compute_aggregation(match1, match2, match3)
assert final_aggregation['double-win-t1'] == 1
assert final_aggregation['double-win-t2'] == 2
from tests.testing_helper import get_empty_match
from app.models.match import Match
import app.helpers.goals as gh
actual_match = Match(get_empty_match())
"""Goals sum"""
def test_goal_sum_is_equal_or_greater_than_expected_sum():
actual_match.homeTeamGoals = 2
actual_match.awayTeamGoals = 1
match_goals_sum = actual_match.homeTeamGoals + actual_match.awayTeamGoals
assert gh.compare_sums(match_goals_sum, 3) == 1
def test_goal_sum_is_not_equal_or_greater_than_expected_sum():
actual_match.homeTeamGoals = 0
actual_match.awayTeamGoals = 1
match_goals_sum = actual_match.homeTeamGoals + actual_match.awayTeamGoals
assert gh.compare_sums(match_goals_sum, 2) == 0
"""Goals sum exact"""
def test_goal_sum_is_exact_the_expected_sum():
actual_match.homeTeamGoals = 2
actual_match.awayTeamGoals = 1
match_goals_sum = actual_match.homeTeamGoals + actual_match.awayTeamGoals
assert gh.compare_sums(match_goals_sum, 3, is_exact=True) == 1