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How to use make_step method in Lemoncheesecake
Best Python code snippet using lemoncheesecake
numbers_solvers.py
Source:numbers_solvers.py 
...13 num_in_b1 = int_to_base(n, b1)14 num_in_b2 = int_to_base(n, b2)15 self._print_number_in_base(n, b1, attention=True, mark_pos='num',16 orientation=1)17 self.make_step()18 self.go_to_mark('start')19 self.move_down()20 self.print_number(b1, orientation=1, attention=1)21 self.print_symbol(S.base_conversion, orientation=1,22 attention=1, mark_pos='base_conversion_sign')23 self.print_number(b2, orientation=1, attention=1)24 self.make_step()25 self.go_to_mark_range('num')26 self.move_down(2)27 num_in_b1_rev = num_in_b1.copy()28 num_in_b1_rev.reverse()29 for i, digit in enumerate(num_in_b1_rev):30 self.mark_current_pos('s')31 # TODO why 3?32 self.move_left(3)33 self.print_symbol(S.add)34 self.print_number(digit, orientation=1)35 self.print_symbol(S.product, orientation=1)36 self._print_number_in_base(37 b1**i, base=b2, orientation=1)38 self.print_symbol(S.eq, orientation=1)39 self.print_number(b1**i*digit, orientation=1)40 self.make_step()41 self.go_to_mark('s')42 self.move_down()43 self._print_number_in_base(n, b2, attention=True, reset=True)44 self.paper.make_step()45 self.go_to_mark('base_conversion_sign')46 self.move_down()47 self.print_symbol(S.yes)48 self.set_attention_current_pos()49 self.paper.make_step()50 self.set_attention_current_pos(reset=True)51 self.make_step()52 return53class IsDivisibleBySolver(Solver):54 def play(self, problem):55 a, b = problem['a'], problem['b']56 self.paper.print_number(a)57 self.go_to_mark('start')58 self.move_down()59 self.paper.print_number(b)60 self.paper.print_symbol(S.is_divisible_by)61 self.move_down()62 self.paper.make_step()63 if a % b == 0:64 self.paper.print_symbol(S.yes, attention=True, reset=True)65 else:66 self.paper.print_symbol(S.no, attention=True, reset=True)67 self.paper.make_step()68class DivRemainderSolver(Solver):69 def play(self, problem):70 a = problem['a']71 b = problem['b']72 self.paper._set_position(0, 0)73 self.paper.print_number(a, orientation=1, reset=True)74 self.paper.move_left()75 self.paper.mark_current_pos('margin')76 77 self.paper.move_right()78 self.paper.print_symbol(S.remainder)79 self.paper.print_number(b, orientation=1)80 81 self.paper.make_step()82 for i in range(int((a - a % b) / b)):83 self.paper.go_to_mark('margin')84 self.paper.move_down()85 self.paper.mark_current_pos('margin')86 87 self.paper.print_number(b, orientation=-1)88 self.paper.print_symbol(12, orientation=-1)89 self.paper.go_to_mark('margin')90 self.paper.move_down()91 self.paper.mark_current_pos('margin')92 93 self.paper.make_step(solver='SubtractSolver')94 self.paper.print_number(a - b * (i + 1))95class IsPrimeSolverEasy(Solver):96 def play(self, problem):97 n = problem['a']98 is_prime_ = is_prime(n)99 self.paper.print_number(n, orientation=-1)100 self.mark_current_pos('prime_sign')101 self.paper.print_symbol(S.is_prime, attention=True,102 preserve_pos=True)103 self.move_down()104 self.make_step()105 if is_prime_:106 self.paper.print_symbol(S.yes, attention=True, reset=True)107 else:108 self.paper.print_symbol(S.no, attention=True, reset=True)109 self.paper.make_step()110class IsPrimeSolverHard(Solver):111 def play(self, problem):112 n = problem['a']113 is_prime_ = is_prime(n)114 self.print_number(n, mark_pos=('number'))115 self.mark_current_pos('prime_sign')116 self.paper.print_symbol(S.is_prime, attention=True,117 preserve_pos=True)118 self.paper.make_step()119 # ha elég kicsi a szám, akkor tudhatjuk fejbÅl120 if n <= 23:121 self.move_down()122 sign = S.yes if is_prime_ else S.no123 self.paper.print_symbol(sign, attention=True, reset=True)124 self.paper.make_step()125 return126 self.go_to_mark_range('number', end=True)127 # ha ennél nagyobb, akkor ellenÅrizzük, hogy vannak-e osztói128 self.move_right(1)129 self.print_symbol(S.sqrt, attention=True, reset=True,130 orientation=1)131 self.paper.make_step()132 # +2: mert csak becsüljük a gyököt, inkább legyen biztos.133 # kell?134 sqrt_n = int(np.sqrt(n)) + 2135 self.print_number(sqrt_n, orientation=1, mark_pos='sqrt',136 preserve_pos=True)137 self.paper.make_step()138 possible_divisors = primes_lt(sqrt_n)139 self.move_down()140 self.move_left()141 for divisor in possible_divisors:142 self.mark_current_pos('div_sign')143 self.print_symbol(S.is_divisible_by,144 attention=True, reset=True)145 self.set_attention_mark_range('number')146 self.print_number(divisor, orientation=1,147 attention=True, reset=True)148 self.make_step()149 if n % divisor == 0:150 self.print_symbol(S.yes, attention=True)151 self.go_to_mark('prime_sign')152 self.move_down()153 self.make_step()154 # találtunk osztót, tehát nem prÃm155 self.print_symbol(S.no, attention=True, reset=True)156 self.make_step()157 return158 else:159 self.print_symbol(S.no, attention=True)160 # self.set_attention(sqrt_pos)161 self.make_step()162 self.go_to_mark('div_sign')163 self.move_down()164 self.go_to_mark('prime_sign')165 self.move_down()166 self.print_symbol(S.yes, attention=True, reset=True)167 self.paper.make_step()168class FactorizeSolver(Solver):169 def play(self, problem):170 primes = [2, 3, 5, 7, 11, 13, 17, 19, 23, 29, 31, 37, 41, 43, 47, 53]171 a = problem['a']172 self.paper.print_number(a)173 self.paper.print_symbol(S.factorize)174 self.go_to_mark('start')175 self.move_down()176 i = 0177 j = 0178 factor = primes[i]179 self.make_step()180 while a != 1:181 while (a % factor == 0) and (a != 1):182 self.go_to_mark('start')183 self.move_down(j+1)184 self.move_right()185 self.paper.print_number(a, orientation=-1, attention=True)186 self.paper.print_symbols(187 [S.div],188 orientation=-1, attention=True, reset=True)189 self.paper.print_number(factor, orientation=-1, attention=True)190 self.paper.make_step()191 a = a // factor192 j += 1193 i += 1194 factor = primes[i]195 self.paper.make_step()196 self.paper.make_step()197class PlaceValueSolver(Solver):198 def play(self, problem):199 number = problem['number']200 place = problem['place']201 self.paper.print_number(number, orientation=1, reset=True)202 self.print_symbol(S.last_digit)203 self.paper.print_number(place, orientation=1)204 for i in range(1, place + 1):205 self.paper.make_step()206 self.paper._set_position(i, 0)207 for _ in range(i):208 self.paper.print_symbol(0)209 self.paper.print_number(int(str(number)[i:]), orientation=1)210 self.paper.print_symbol(S.last_digit)211 self.paper.print_number(i, orientation=1)212class RoundNumber(Solver):213 pass214def factorize(num):215 factors = []216 while num != 1:217 for i in range(2, num + 1):218 if num % i == 0:219 factors.append(i)220 num = num // i221 break222 return factors223class DoubleFactorBaseClass(Solver):224 def _print_factors(self, mark, number):225 self.go_to_mark_range(mark, end=True)226 self.move_down()227 self.paper.print_symbol(S.factorize, orientation=0)228 self.paper.move_down()229 factors_a = factorize(number)230 for factor in factors_a:231 self.paper.print_number(factor, orientation=-1, preserve_pos=True)232 self.paper.move_down()233 self.make_step(solver='FactorizeSolver')234 def draw_factors_ab(self, a, b, symbol='gcd'):235 self.paper.move_down(2)236 self.paper.print_symbol(getattr(S, symbol), orientation=-1, mark_pos=symbol)237 self.paper.mark_current_pos('a_current', vertical_offset=2)238 self.paper.print_number(a, orientation=-1, mark_pos='a')239 self.paper.go_to_mark(symbol)240 self.move_right()241 self.paper.print_number(b, orientation=1, mark_pos='b')242 self.paper.mark_current_pos('b_current', vertical_offset=2,243 horizontal_offset=-1)244 self.make_step()245 self._print_factors('a', a)246 self._print_factors('b', b)247 def _move_mark_down(self, mark):248 self.paper.go_to_mark(mark)249 self.paper.delete_word_at_point()250 self.paper.move_down()251 self.paper.mark_current_pos(mark)252 def add_factor_to_c(self, factor):253 self.paper.go_to_mark('c_current')254 if self.first_factor_c:255 self.c_factors = [factor]256 else:257 self.paper.print_symbol(S.product, orientation=1)258 self.c_factors.append(factor)259 self.paper.print_number(factor, orientation=1)260 self.paper.mark_current_pos('c_current')261 self.first_factor_c = False262 def print_solution(self):263 c = np.product(self.c_factors)264 self.paper.go_to_mark('c_current')265 self.paper.print_symbol(S.eq)266 self.paper.print_number(c, orientation=1)267 self.paper.go_to_mark('answer')268 self.print_number(c, orientation=1)269 self.paper.print_symbol(S.end)270class GCDSolver(DoubleFactorBaseClass):271 def play(self, problem):272 a,b = problem['a'], problem['b']273 self.draw_factors_ab(a, b)274 self.paper.go_to_mark('start')275 self.print_symbol(S.gcd)276 self.print_symbol(S.eq)277 self.paper.mark_current_pos('c_current')278 self.paper.go_to_mark('a_current')279 current_factor_a = self.paper.get_number_at_position()280 self.paper.go_to_mark('b_current')281 current_factor_b = self.paper.get_number_at_position()282 self.first_factor_c = True283 self.make_step()284 while current_factor_a != 0:285 while current_factor_a != current_factor_b:286 if 0 in (current_factor_a, current_factor_b):287 current_factor_a = 1288 break289 if current_factor_a < current_factor_b:290 self._move_mark_down('a_current')291 current_factor_a = self.paper.get_number_at_position()292 if current_factor_a > current_factor_b:293 self._move_mark_down('b_current')294 current_factor_b = self.paper.get_number_at_position()295 self.make_step()296 self.add_factor_to_c(current_factor_a)297 self._move_mark_down('a_current')298 current_factor_a = self.paper.get_number_at_position()299 self._move_mark_down('b_current')300 current_factor_b = self.paper.get_number_at_position()301 self.make_step()302 self.print_solution()303 self.paper.set_attention_current_pos()304 self.paper.make_step()305class LCMSolver(DoubleFactorBaseClass):306 307 def play(self, problem):308 a,b = problem['a'], problem['b']309 self.draw_factors_ab(a, b, 'lcm')310 self.paper.go_to_mark('start')311 self.print_symbol(S.lcm)312 self.print_symbol(S.eq)313 self.paper.mark_current_pos('c_current')314 self.make_step()315 self.paper.go_to_mark('a_current')316 current_factor_a = self.paper.get_number_at_position()317 self.paper.go_to_mark('b_current')318 current_factor_b = self.paper.get_number_at_position()319 self.first_factor_c = True320 while current_factor_a + current_factor_b != 0:321 if (current_factor_a < current_factor_b322 and current_factor_a != 0) or current_factor_b == 0:323 self.add_factor_to_c(current_factor_a)324 self._move_mark_down('a_current')325 current_factor = current_factor_a =\326 self.paper.get_number_at_position()327 elif (current_factor_b < current_factor_a328 and current_factor_b != 0) or current_factor_a == 0:329 self.add_factor_to_c(current_factor_b)330 self._move_mark_down('b_current')331 current_factor_b = self.paper.get_number_at_position()332 elif current_factor_a == current_factor_b and current_factor_a != 0:333 current_factor = current_factor_a334 self.add_factor_to_c(current_factor_a)335 self._move_mark_down('a_current')336 current_factor_a = self.paper.get_number_at_position()337 self._move_mark_down('b_current')338 current_factor_b = self.paper.get_number_at_position()339 else:340 raise RuntimeError341 self.make_step()342 self.print_solution()343 self.paper.set_attention_current_pos()...
main.py
Source:main.py
...86 self._knee_joint._pub.publish(numpy.radians(self.current_pos[2]))87 88 rospy.sleep(speed)89 #print(self.current_pos)90 def make_step(self, trajectory, speed):91 """ simulates one full movement of a step """92 for item in trajectory:93 self.move_to_point(item, speed)94 rospy.sleep(0.001)95class Joint():96 """ Simulating servomotor """97 def __init__(self, command, up_limit, low_limit):98 self.command = command99 self._pub = rospy.Publisher(self.command, Float64, queue_size=10)100 self.upper_limit = up_limit101 self.lower_limit = low_limit102 def set_joint_value(self, value):103 """ Publishes recieved value to simulated joint """104 self.value = self.deg2rad(value)105 if self.value >= self.upper_limit:106 self.value = self.upper_limit107 elif self.value <= self.lower_limit:108 self.value = self.lower_limit109 110 self._pub.publish(self.value)111 rospy.loginfo(self.value)112class Robot():113 def __init__(self):114 115 rospy.init_node('robot_control')116 rospy.loginfo("Initializing the robot")117 service=rospy.Service('command_service',Service_GUI_Command, self.get_command)118 self.command = -1119 self._steering_value_sub = rospy.Subscriber('steering_value', Int8, self.update_steering_value)120 self.steering = -1121 self.mode = 0122 # leg objects123 self._leg1 = Leg(name="FL", servo1=joint_node["shoulder1"], servo2=joint_node["limb1"], servo3=joint_node["knee1"])124 self._leg2 = Leg(name="FR", servo1=joint_node["shoulder2"], servo2=joint_node["limb2"], servo3=joint_node["knee2"])125 self._leg3 = Leg(name="BL", servo1=joint_node["shoulder3"], servo2=joint_node["limb3"], servo3=joint_node["knee3"])126 self._leg4 = Leg(name="BR", servo1=joint_node["shoulder4"], servo2=joint_node["limb4"], servo3=joint_node["knee4"])127 def update_steering_value(self, value):128 self.steering = value.data129 def initialize(self):130 """ setting robot legs to base position"""131 self._leg1.set_idle_position()132 self._leg2.set_idle_position()133 self._leg3.set_idle_position()134 self._leg4.set_idle_position()135 def work_threads(self, t1, t2, t3, t4):136 t1.start()137 t2.start()138 t3.start()139 t4.start()140 t1.join()141 t2.join()142 t3.join()143 t4.join()144 def set_idle(self):145 self.speed = 0.01146 t1 = Thread(target=self._leg1.move_to_point, args=(self._leg1.base_position, self.speed,))147 t2 = Thread(target=self._leg2.move_to_point, args=(self._leg2.base_position, self.speed,))148 t3 = Thread(target=self._leg3.move_to_point, args=(self._leg3.base_position, self.speed,))149 t4 = Thread(target=self._leg4.move_to_point, args=(self._leg4.base_position, self.speed,))150 151 self.work_threads(t1, t2, t3, t4)152 def gait_init(self):153 self.speed = 0.01154 self._leg1.move_to_point(gait_p4[2], self.speed)155 self._leg4.move_to_point(gait_p3[2], self.speed)156 self._leg2.move_to_point(gait_p2[2], self.speed)157 self._leg3.move_to_point(gait_p1[2], self.speed)158 def gait(self):159 self.speed1 = 0.01160 self.speed2 = 0.01161 t1 = Thread(target=self._leg1.make_step, args=(gait_p1, self.speed1,))162 t2 = Thread(target=self._leg2.make_step, args=(gait_p3, self.speed2,))163 t3 = Thread(target=self._leg3.make_step, args=(gait_p2, self.speed2,))164 t4 = Thread(target=self._leg4.make_step, args=(gait_p4, self.speed2,))165 self.work_threads(t1, t2, t3, t4)166 t1 = Thread(target=self._leg1.make_step, args=(gait_p2, self.speed2,))167 t2 = Thread(target=self._leg2.make_step, args=(gait_p4, self.speed2,))168 t3 = Thread(target=self._leg3.make_step, args=(gait_p3, self.speed2,))169 t4 = Thread(target=self._leg4.make_step, args=(gait_p1, self.speed1,))170 self.work_threads(t1, t2, t3, t4)171 t1 = Thread(target=self._leg1.make_step, args=(gait_p3, self.speed2,))172 t2 = Thread(target=self._leg2.make_step, args=(gait_p1, self.speed1,))173 t3 = Thread(target=self._leg3.make_step, args=(gait_p4, self.speed2,))174 t4 = Thread(target=self._leg4.make_step, args=(gait_p2, self.speed2,))175 self.work_threads(t1, t2, t3, t4)176 t1 = Thread(target=self._leg1.make_step, args=(gait_p4, self.speed2))177 t2 = Thread(target=self._leg2.make_step, args=(gait_p2, self.speed2))178 t3 = Thread(target=self._leg3.make_step, args=(gait_p1, self.speed1))179 t4 = Thread(target=self._leg4.make_step, args=(gait_p3, self.speed2))180 self.work_threads(t1, t2, t3, t4)181 def trot(self):182 self.speed = 0.01183 t1 = Thread(target=self._leg1.make_step, args=(step1, self.speed,))184 t2 = Thread(target=self._leg2.make_step, args=(step2, self.speed,))185 t3 = Thread(target=self._leg3.make_step, args=(step2, self.speed,))186 t4 = Thread(target=self._leg4.make_step, args=(step1, self.speed,))187 188 self.work_threads(t1, t2, t3, t4)189 def go_left(self):190 self.speed = 0.01191 self._leg1.make_step(left1, self.speed)192 self._leg3.make_step(left1, self.speed)193 194 t1 = Thread(target=self._leg1.move_to_point, args=(self._leg1.base_position, self.speed,))195 t2 = Thread(target=self._leg2.move_to_point, args=(right1[1], self.speed,))196 t3 = Thread(target=self._leg3.move_to_point, args=(self._leg3.base_position, self.speed,))197 t4 = Thread(target=self._leg4.move_to_point, args=(right1[1], self.speed,))198 self.work_threads(t1, t2, t3, t4)199 self._leg2.make_step(side_to_base, self.speed)200 self._leg4.make_step(side_to_base, self.speed)201 def go_right(self):202 self.speed = 0.01203 self._leg2.make_step(right1, self.speed)204 self._leg4.make_step(right1, self.speed)205 t1 = Thread(target=self._leg1.move_to_point, args=(left1[1], self.speed,))206 t2 = Thread(target=self._leg2.move_to_point, args=(self._leg2.base_position, self.speed,))207 t3 = Thread(target=self._leg3.move_to_point, args=(left1[1], self.speed,))208 t4 = Thread(target=self._leg4.move_to_point, args=(self._leg4.base_position, self.speed,))209 self.work_threads(t1, t2, t3, t4)210 self._leg1.make_step(side_to_base, self.speed)211 self._leg3.make_step(side_to_base, self.speed)212 def spin_left(self):213 self.speed = 0.01214 self._leg1.make_step(left1, self.speed)215 self._leg4.make_step(right1, self.speed)216 t1 = Thread(target=self._leg1.move_to_point, args=(self._leg1.base_position, self.speed,))217 t2 = Thread(target=self._leg2.move_to_point, args=(right1[1], self.speed,))218 t3 = Thread(target=self._leg3.move_to_point, args=(left1[1], self.speed,))219 t4 = Thread(target=self._leg4.move_to_point, args=(self._leg4.base_position, self.speed,))220 self.work_threads(t1, t2, t3, t4)221 self._leg2.make_step(side_to_base, self.speed)222 self._leg3.make_step(side_to_base, self.speed)223 def spin_right(self):224 self.speed = 0.01225 self._leg2.make_step(right1, self.speed)226 self._leg3.make_step(left1, self.speed)227 t1 = Thread(target=self._leg1.move_to_point, args=(left1[1], self.speed,))228 t2 = Thread(target=self._leg2.move_to_point, args=(self._leg2.base_position, self.speed,))229 t3 = Thread(target=self._leg3.move_to_point, args=(self._leg3.base_position, self.speed,))230 t4 = Thread(target=self._leg4.move_to_point, args=(right1[1], self.speed,))231 self.work_threads(t1, t2, t3, t4)232 self._leg1.make_step(side_to_base, self.speed)233 self._leg4.make_step(side_to_base, self.speed)234 def go_backwards(self):235 self.speed = 0.01236 t1 = Thread(target=self._leg1.make_step, args=(step1_b, self.speed,))237 t2 = Thread(target=self._leg2.make_step, args=(step2_b, self.speed,))238 t3 = Thread(target=self._leg3.make_step, args=(step2_b, self.speed,))239 t4 = Thread(target=self._leg4.make_step, args=(step1_b, self.speed,))240 241 self.work_threads(t1, t2, t3, t4)242 243 def get_command(self, request):244 if request.command=="FORWARD":245 self.command = 1246 return Service_GUI_CommandResponse("Robot going forward")247 elif request.command=="LEFT":...
test_client.py
Source:test_client.py
...26 sock = get_socket_with_mocked_recv(mock_socket_cls, "HELO happy Pascal 1x1".encode("utf-8"))27 game = init_game(sock, "boring Hawking")28 sock = get_socket_with_mocked_recv(mock_socket_cls, "OMG A 1".encode("utf-8"))29 with pytest.raises(WrongCommand):30 make_step(sock, game)31def test_game_correctly_ends(mocker: MockFixture):32 mock_socket_cls = mocker.patch("socket.socket")33 sock = get_socket_with_mocked_recv(mock_socket_cls, "HELO happy Pascal 1x1".encode("utf-8"))34 game = init_game(sock, "boring Hawking")35 sock = get_socket_with_mocked_recv(mock_socket_cls, "MOVE A 1 STOP X".encode("utf-8"))36 game_over = make_step(sock, game)37 sock.close()38 assert game_over39 assert game.check_winner() == "X"40def test_enemy_wins(mocker: MockFixture):41 mock_socket_cls = mocker.patch("socket.socket")42 sock = get_socket_with_mocked_recv(mock_socket_cls, "HELO happy Pascal 3x3".encode("utf-8"))43 game = init_game(sock, "boring Hawking")44 sock = get_socket_with_mocked_recv(mock_socket_cls, "MOVE A 1".encode("utf-8"))45 set_stdin_value(mocker, "A 2")46 make_step(sock, game)47 sock = get_socket_with_mocked_recv(mock_socket_cls, "MOVE B 2".encode("utf-8"))48 set_stdin_value(mocker, "B 1")49 make_step(sock, game)50 sock = get_socket_with_mocked_recv(mock_socket_cls, "MOVE C 3 STOP X".encode("utf-8"))51 game_over = make_step(sock, game)52 assert game_over53 assert game.check_winner() == "X"54def test_gamer_wins(mocker: MockFixture):55 mock_socket_cls = mocker.patch("socket.socket")56 sock = get_socket_with_mocked_recv(mock_socket_cls, "HELO happy Pascal 3x3".encode("utf-8"))57 game = init_game(sock, "boring Hawking")58 sock = get_socket_with_mocked_recv(mock_socket_cls, "MOVE A 2".encode("utf-8"))59 set_stdin_value(mocker, "A 1")60 make_step(sock, game)61 sock = get_socket_with_mocked_recv(mock_socket_cls, "MOVE B 1".encode("utf-8"))62 set_stdin_value(mocker, "B 2")63 make_step(sock, game)64 sock = get_socket_with_mocked_recv(mock_socket_cls, "MOVE C 2".encode("utf-8"))65 set_stdin_value(mocker, "C 3")66 make_step(sock, game)67 sock = get_socket_with_mocked_recv(mock_socket_cls, "STOP O".encode("utf-8"))68 game_over = make_step(sock, game)69 assert game_over...
test_server.py
Source:test_server.py
...24 game = init_game(sock, 3, "happy Pascal")25 set_stdin_value(mocker, "A 2")26 sock = get_socket_with_mocked_recv(mock_socket_cls, "WRONG_MOVE A 1".encode("utf-8"))27 with pytest.raises(WrongCommand):28 make_step(sock, game)29def test_game_correctly_ends(mocker: MockFixture):30 mock_socket_cls = mocker.patch("socket.socket")31 sock = get_socket_with_mocked_recv(mock_socket_cls, "HELO boring Hawking".encode("utf-8"))32 game = init_game(sock, 1, "happy Pascal")33 sendall_spy = mocker.spy(sock, "sendall")34 set_stdin_value(mocker, "A 1")35 make_step(sock, game)36 sock.close()37 assert game.check_winner() == "X"38 sendall_spy.assert_called_once_with("MOVE A 1 STOP X".encode("utf-8"))39def test_game_continues_after_step(mocker: MockFixture):40 mock_socket_cls = mocker.patch("socket.socket")41 sock = get_socket_with_mocked_recv(mock_socket_cls, "HELO boring Hawking".encode("utf-8"))42 game = init_game(sock, 2, "happy Pascal")43 sock.close()44 set_stdin_value(mocker, "A 1")45 sock = get_socket_with_mocked_recv(mock_socket_cls, "MOVE B 1".encode("utf-8"))46 game_over = make_step(sock, game)47 sock.close()48 assert not game_over49 set_stdin_value(mocker, "A 2")50 sock = mock_socket_cls()51 sendall_spy = mocker.spy(sock, "sendall")52 game_over = make_step(sock, game)53 sock.close()54 assert game_over55 sendall_spy.assert_called_once_with("MOVE A 2 STOP X".encode("utf-8"))56def test_enemy_wins(mocker: MockFixture):57 mock_socket_cls = mocker.patch("socket.socket")58 sock = get_socket_with_mocked_recv(mock_socket_cls, "HELO boring Hawking".encode("utf-8"))59 game = init_game(sock, 3, "happy Pascal")60 set_stdin_value(mocker, "A 2")61 sock = get_socket_with_mocked_recv(mock_socket_cls, "MOVE A 1".encode("utf-8"))62 make_step(sock, game)63 set_stdin_value(mocker, "B 1")64 sock = get_socket_with_mocked_recv(mock_socket_cls, "MOVE B 2".encode("utf-8"))65 make_step(sock, game)66 set_stdin_value(mocker, "C 2")67 sock = get_socket_with_mocked_recv(mock_socket_cls, "MOVE C 3".encode("utf-8"))68 sendall_spy = mocker.spy(sock, "sendall")69 make_step(sock, game)...
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