def run_game():
app_settings = Settings()
pygame.init()
screen = pygame.display.set_mode(
(app_settings.screen_width, app_settings.screen_height))
pygame.display.set_caption("Visualization")
# pygame.event.set_blocked(None)
data = f.init_data(app_settings.num_of_objects, app_settings.screen_width,
app_settings.screen_height)
for i in range(len(data)):
for j in range(len(data)):
# Чтобы игра не зависла
for event in pygame.event.get():
if event.type == pygame.QUIT:
sys.exit()
if data[i] < data[j]:
t = data[i]
data[i] = data[j]
data[j] = t
screen.fill(app_settings.bg_color)
f.draw(screen, data, app_settings.screen_width,
app_settings.screen_height)
pygame.display.flip()
while True:
for event in pygame.event.get():
if event.type == pygame.QUIT:
sys.exit()
def updateScreen(background_color, screen, arrow, board):
"""更新屏幕上的新图像"""
# 每个循环重新绘制弹出屏幕
screen.fill(background_color)
arrow.build()
func.draw(board, screen)
# 弹出新绘制的屏幕
pygame.display.flip()
def run_game():
pygame.init()
settings = Settings()
# 创建存储棋子的编组
pieces = Group()
screen = pygame.display.set_mode(
(settings.screen_width, settings.screen_height), 4, 0)
chequer = Chequer(settings, screen, pieces)
pygame.display.set_caption("五子棋")
background = pygame.image.load("background3.jpg").convert()
#按钮
button_d = Button(screen, "悔棋", 30, (65, 49), (20, 20, 90, 55))
button_d2 = Button(screen, "悔棋", 35, (65, 49), (18, 18, 95, 63))
button_r = Button(screen, "重新開始", 30, (200, 49), (130, 20, 140, 58))
button_r2 = Button(screen, "重新開始", 33, (200, 49), (128, 18, 145, 62))
button_s = Button(screen, "設置", 30, (525, 49), (480, 20, 90, 55))
button_s2 = Button(screen, "設置", 35, (525, 49), (478, 18, 95, 63))
#弹框
msg_box_reset = Msg_box(screen, "確定重新開始？", "確定", "取消")
box_black_win = Msg_box(screen, "黑棋獲勝!", "重置", "退出游戲")
box_white_win = Msg_box(screen, "白棋獲勝!", "重置", "退出游戲")
box_get_draw = Msg_box(screen, '棋盤下滿了,平局!', "重置", "退出游戲")
box_get_draw2 = Msg_box(screen, '時間到,此局平局!', "重置", "退出游戲")
box_open_jinshou = Msg_box(screen, "開啓黑棋禁手？", "開啓", "禁手規則")
box_close_jinshou = Msg_box(screen, "關閉黑棋禁手？", "關閉", "禁手規則")
box_jinshou = Msg_box(screen, "黑棋禁手,不能落子", "確定", "禁手規則")
#倒计时
count_down = Count_down(screen)
while True:
f.check_events(settings, chequer, pieces, button_d2, button_r2,
button_s2, msg_box_reset, count_down)
#screen.fill((settings.bg_color))
screen.blit(background, (0, 0))
chequer.lines()
chequer.cirs()
chequer.get_mouse_pos(pieces)
for pos in settings.poslist_b:
chequer.set_piece(pos, chequer.black)
for pos in settings.poslist_w:
chequer.set_piece(pos, chequer.white)
##绘制各种按钮————悔棋，重新开始，设置
f.draw_button(button_d, button_d2)
f.draw_button(button_r, button_r2)
f.draw_button(button_s, button_s2)
f.draw(settings, msg_box_reset, box_black_win, box_white_win,
box_get_draw, box_get_draw2, box_open_jinshou,
box_close_jinshou, box_jinshou)
#f.tine_down(settings)
f.prep_time(settings, count_down)
count_down.draw()
pygame.display.flip()
def run_game():
app_settings = Settings()
pygame.init()
screen = pygame.display.set_mode(
(app_settings.screen_width, app_settings.screen_height))
pygame.display.set_caption("Visualization")
data = f.init_data(app_settings.num_of_objects, app_settings.screen_width,
app_settings.screen_height)
f.bubbleSort(data)
while True:
screen.fill(app_settings.bg_color)
f.draw(screen, data, app_settings.screen_width,
app_settings.screen_height)
for event in pygame.event.get():
if event.type == pygame.QUIT:
sys.exit()
pygame.display.flip()
proxy = ["_"] * len(word)
# clear the console
f.clear()
# play the intro text
f.intro()
# prompt the player to start the game
raw_input("\n\nPress ENTER when you are ready!")
# clear the console
f.clear()
# first drawing of the gallows!!
f.draw(guesses)
#print a playful message to the player
f.message(guesses, random.choice(m[guesses]))
# print out the hidden word proxy
# the proxy starts out as a string of underscores
# which are replaced with letters when the player
# guesses correctly
f.printProxy(proxy)
# START THE GAME LOOP
# The game loop continues to run until the
# player has won or until our friend is hanged
while True:
# deconstructing the tuple into
# play the intro text
f.intro()
# prompt the player to start the game
raw_input("\n\nPress ENTER when you are ready!")
# clear the console
f.clear()
# first drawing of the gallows!!
f.draw(guesses)
#print a playful message to the player
f.message(guesses, random.choice(m[guesses]))
# print out the hidden word proxy
# the proxy starts out as a string of underscores
# which are replaced with letters when the player
# guesses correctly
f.printProxy(proxy)
# START THE GAME LOOP
# The game loop continues to run until the
playerXpos = 5
PLAYER_Y_POS = 200
compXpos = 5
COMP_Y_POS = 25
PLAYER_TOTAL_Y = 185
COMP_TOTAL_Y = 13
# reset window
graphics.window(WINDOWWIDTH, WINDOWHEIGHT)
# indicate where each players hand is
graphics.displayText("Player:", 5, PLAYER_Y_POS - 15)
graphics.displayText("Computer:", 5, COMP_Y_POS - 15)
# picks two cards for each hand
for card in range(2):
functions.deal_Card(playerHand)
playerXpos = functions.draw(playerXpos, PLAYER_Y_POS, playerHand)
functions.deal_Card(compHand)
compXpos = functions.draw(compXpos, COMP_Y_POS, compHand)
#gets and displays the total of player hand and comphand
compTotal = str(functions.get_total(compHand))
playerTotal = str(functions.get_total(playerHand))
player2Total = str(functions.get_total(player2hand))
graphics.displayText(playerTotal, playerXpos, PLAYER_TOTAL_Y)
graphics.displayText(compTotal, compXpos, COMP_TOTAL_Y)
pygame.display.update()
#Players turn is first
turn = "player"
import functions import classes pic_file = "../data/monalisa.jpg" s_o_m = functions.initialize_som() image = classes.Dataset(pic_file) functions.train(image,s_o_m) functions.save_som(s_o_m,pic_file) functions.draw(s_o_m) functions.reproduce(image,s_o_m,image.size[0],image.size[1]) # import after database updated with new SOM import db_check db_check.similar_som()
# and print each one.
elif commands[0].lower() == "help" or commands[0].lower() == "?":
fn.help_command()
# if the command is 'exit' print a goodbye message and set
# is_running to False, ending the while loop and ending the prog.
elif commands[0].lower() == "exit" or commands[0].lower() == "x!":
txt.print_blue("Bye!")
is_running = False
# if the command is 'draw' try to figure out which shape was
# provided and if it's an invalid shape, print error msg,
# if no shape is provided, also print an error message,
# otherwise draw the shape.
elif commands[0].lower() == "draw" or commands[0].lower() == "dr":
try:
if len(commands) >= 2:
fn.draw(commands)
else:
raise err.FieldNotProvidedError
except err.FieldNotProvidedError:
txt.print_red(
"FieldNotProvidedError: Cannot execute: not enough arguments!"
)
except err.InvalidShapeError:
txt.print_red("InvalidShapeError: Invalid shape!")
# if the command is 'to-base-10', try to figure out which int
# was provided using startswith and converting it based upon this.
# If the base does not match, provide an error message. If the
# user doesn't provide some fields, write an error, and if the
# user writes the wrong integer, write an error as well.
elif commands[0].lower() == "to-base-10" or commands[0].lower(
) == "tbt":
# # print(lap)
# Avg_mtx = np.diag(np.ones(num_grid - 1)/2, 1) + np.diag(np.ones(num_grid - 1)/2, -1)
# Avg_mtx[[0, num_grid - 1], [0, num_grid - 1]] = 1
# Avg_mtx[[0, num_grid - 1], [1, num_grid - 2]] = 0
# print(Avg_mtx)
# err = 1e2
v_old = v
# while err > tol:
for i in tqdm(range(num_iter)):
v_new = v_old
for i in range(1, num_grid - 1):
for j in range(1, num_grid - 1):
# if i in range(45, 55) and j in range(49, 52):
# continue
v_new[i, j] = np.sum(v_old[[i - 1, i + 1, i, i],
[j, j, j - 1, j + 1]]) / 4
# for pos, val in fixed_points:
# v_new[pos] = val
# err = np.sum((v_new - v_old)**2)
v_old = v_new
print(v_old)
# print("Error:", err)
draw(X, Y, v_old, type='3d')
E = np.gradient(-v_old)
print(E)
draw(X, Y, E, type='quiver')
if tried != -1:
tried, last = functions.test(im, p_bot, game, last, mode, change,
tried, random)
random = False
if tried >= 15:
change = False
if mode == "tree":
print("> I'M SORRY, BACK TO CHOPPING")
else:
print("> I'M SORRY, BACK TO MINING")
tried = 0
functions.draw(im)
functions.grid(im)
cv2.imshow("frame1", im)
delta = time.time() - start
if delta < SLEEP_TIME:
time.sleep(SLEEP_TIME - delta)
key = cv2.waitKey(1) & 0xFF
if key == ESC_KEY:
break
else:
time.sleep(1)
def updateScreen(background, screen, board):
"""更新屏幕上的新图像"""
# 每个循环重新绘制弹出屏幕
screen.fill(background)
func.draw(board, screen)
pygame.display.flip()
for i in range(all_length):
x_forecast.append(i)
min_trend = numpy.polyfit(x, min_years, 2)
max_trend = numpy.polyfit(x, max_years, 2)
min_trendline = []
max_trendline = []
x0_min_years = min_years[0]
x0_max_years = max_years[0]
for i in range(yearly_range):
min_years[i] = min_years[i] / x0_min_years
max_years[i] = max_years[i] / x0_max_years
x0_min_trend = x_forecast[0] * x_forecast[0] * min_trend[0] + x_forecast[
0] * min_trend[1] + min_trend[2]
x0_max_trend = x_forecast[0] * x_forecast[0] * max_trend[0] + x_forecast[
0] * max_trend[1] + max_trend[2]
for i in range(all_length):
min_trendline.append(
(x_forecast[i] * x_forecast[i] * min_trend[0] +
x_forecast[i] * min_trend[1] + min_trend[2]) / x0_min_trend)
max_trendline.append(
(x_forecast[i] * x_forecast[i] * max_trend[0] +
x_forecast[i] * max_trend[1] + max_trend[2]) / x0_max_trend)
print min_trendline
draw(ice_extent, min_years, max_years, min_trendline, max_trendline,
dates_month, dates_year, dates_forecast)
import numpy as np
import functions as fn
img1 =cv2.imread('normal.jpg',0)
#test
#roi
img1_process=img1[0:np.shape(img1)[0],11:109]
img1_show = cv2.cvtColor(img1_process, cv2.COLOR_GRAY2BGR)
thresh=fn.Inhence_and_threshod(img1_process,111)
image1, contours1, hierarchy = cv2.findContours( #找最外層的輪廓
fn.inner_fill(thresh), cv2.RETR_EXTERNAL, cv2.CHAIN_APPROX_SIMPLE)
mor1_color = cv2.cvtColor(fn.inner_fill(thresh), cv2.COLOR_GRAY2BGR)
img1_color = cv2.cvtColor(img1, cv2.COLOR_GRAY2BGR)
fn.draw(contours1,img1_color)
fn.find_roi_coordinate(contours1,img1_color)
tmp1 = np.hstack((img1_show,mor1_color,img1_color))
cv2.imshow("normal",tmp1)
k = cv2.waitKey(0)
if k==ord('ｑ'):
cv2.destroyAllWindows()
