def test_nonlocking():
'''Test for lockups'''
def test(clk, enable, d, set, dset, width):
# Check for 11...1 -> 11...1
set.next = True
dset.next = intbv(-1)[width:]
enable.next = True
clk.next = 1
yield delay(10)
clk.next = 0
set.next = False
yield delay(10)
clk.next = 1
yield delay(10)
clk.next = 0
yield delay(10)
assert d.val != intbv(-1)[width:]
# Check for 00...0 -> 00...0
set.next = True
dset.next = intbv(0)[width:]
enable.next = True
clk.next = 1
yield delay(10)
clk.next = 0
set.next = False
yield delay(10)
clk.next = 1
yield delay(10)
clk.next = 0
yield delay(10)
assert d.val != intbv(0)[width:]
raise StopSimulation
for reverse, width in combinations([True, False], TESTED_WIDTHS):
clk = Signal(bool(0))
enable = Signal(True)
d = Signal(intbv(0)[width:])
set = Signal(False)
dset = Signal(intbv(0)[width:])
lfsr = LFSR(clk, enable, d, set, dset, width=width,
non_locking=True, reverse=reverse)
chk = test(clk, enable, d, set, dset, width)
print 'nonlocking ', width, reverse
sim = Simulation(lfsr, chk)
sim.run(quiet=1)
for direction, width in combinations([0, 1], TESTED_WIDTHS):
clk = Signal(bool(0))
enable = Signal(True)
d = Signal(intbv(0)[width:])
dir = Signal(bool(direction))
set = Signal(False)
dset = Signal(intbv(0)[width:])
lfsr = reversible_LFSR(clk, enable, d, dir, set, dset,
width=width, non_locking=True)
chk = test(clk, enable, d, set, dset, width)
print 'nonlocking2 ', width, direction
sim = Simulation(lfsr, chk)
sim.run(quiet=1)
def test_period():
'''Test for correct period'''
def test(clk, enable, d, set, dset, width):
set.next = True
dset.next = intbv(0)[width:]
enable.next = False
yield posedge(clk)
set.next = False
enable.next = True
yield posedge(clk)
used = {}
while True:
if int(d.val) in used:
actual = used.keys()
actual.sort()
expected = range(2 ** width - 1)
assert actual == expected
raise StopSimulation
used[int(d.val)] = 1
yield posedge(clk)
for non_locking, reverse, width in combinations(
[True, False], [True, False], TESTED_WIDTHS_PERIOD):
clk = Signal(False)
enable = Signal(False)
d = Signal(intbv(0)[width:])
set = Signal(False)
dset = Signal(intbv(0)[width:])
lfsr = LFSR(clk, enable, d, set, dset, width=width,
non_locking=non_locking, reverse=reverse)
chk = test(clk, enable, d, set, dset, width)
clkgen_inst = clockGen(clk)
print 'period', non_locking, reverse, width
sim = Simulation(clkgen_inst, lfsr, chk)
sim.run(quiet=1)
for non_locking, direction, width in combinations(
[True, False], [0, 1], TESTED_WIDTHS_PERIOD):
clk = Signal(bool(0))
enable = Signal(False)
d = Signal(intbv(0)[width:])
set = Signal(bool(0))
dset = Signal(intbv(0)[width:])
dir = Signal(bool(direction))
lfsr = reversible_LFSR(clk, enable, d, dir, set, dset, width=width,
non_locking=non_locking)
chk = test(clk, enable, d, set, dset, width)
print 'period2', non_locking, direction, width
sim = Simulation(lfsr, chk)
sim.run(quiet=1)
def runCombos(self):
starttime=time.time()
names = []
classSize=[]
stu = []
for i in self.p3.names:
names.append(i.get())
for z in self.p4.studentsper:
stu.append(int(z.get()))
roomList, roomCount = importRooms.scan(self.p3.roomSheet.get())
combos = []
sizes=[]
y = 0
for x,studentsper in zip(self.returns,stu):
combos.append(combinations.combinations(x[1], int(self.p4.entries[y].get()) ,x[0] ,roomCount,studentsper))
sizes.append(int(self.p4.entries[y].get()))
y+=1
for printer in combos:
print(len(printer))
finalRoomCombo,finalStudentAssignments,LeaderDays=sort.Sorter([m[0] for m in self.returns],combos,names,sizes,roomList,[n[1] for n in self.returns],stu)
print(time.time()-starttime)
#assign the rooms
for subj,subject in zip(finalRoomCombo,names):
for group in subj:
roomList[group].taken=True
leaderAssignments,leaderRooms=assign.assignLeaders(self.leaderData,LeaderDays,roomList,sizes,finalRoomCombo)
#print(time.time()-starttime)
#f2=open('variables2.txt','wb')
#pickle.dump([roomList,leaderAssignments,leaderRooms])
#assign everything
data=[]
for n in self.returns:
data.append(n)
assignEverything.assign(roomList,finalRoomCombo,finalStudentAssignments,leaderRooms,leaderAssignments,names)
def test_combinations(self):
self.assertEqual(combinations.combinations('HACK', '2'), '''A
C
H
K
AC
AH
AK
CH
CK
HK''')
def generate_haps(self, pheno_seq):
""" pheno_seq example
|<------- 2 alleles --------->|
|<- g_size = 4 ->|
[[1, 2, 1], [0, 0, 1, 1, 1, 1]]
^
|_ 2 copies of allele 1 """
allele_list = self.generate_allele_list(pheno_seq)
hap_list = combinations(allele_list)
return hap_list
def test_reverse():
'''Test for correct reversing'''
def test(clk, enable0, enable1, d0, d1, set0, set1,
dset0, dset1, width):
enable0.next = True
enable1.next = True
set0.next = True
set1.next = True
dset0.next = intbv(0)[width:]
dset1.next = intbv(0)[width:]
clk.next = True
yield delay(10)
set0.next = False
set1.next = False
clk.next = False
yield delay(10)
seq0 = []
seq1 = []
for i in range(2 ** width):
seq0.append(int(d0.val))
seq1.append(int(d1.val))
clk.next = True
yield delay(10)
clk.next = False
yield delay(10)
seq1.reverse()
assert seq0 == seq1
raise StopSimulation
for non_locking, width in combinations(
[True, False], TESTED_WIDTHS_PERIOD):
clk = Signal(bool(0))
enable0 = Signal(bool(0))
enable1 = Signal(bool(0))
d0 = Signal(intbv(0)[width:])
d1 = Signal(intbv(0)[width:])
set0 = Signal(bool(0))
set1 = Signal(bool(0))
dset0 = Signal(intbv(0)[width:])
dset1 = Signal(intbv(0)[width:])
lfsr0 = LFSR(clk, enable0, d0, set0, dset0, width=width,
non_locking=non_locking, reverse=False)
lfsr1 = LFSR(clk, enable1, d1, set1, dset1, width=width,
non_locking=non_locking, reverse=True)
chk = test(clk, enable0, enable1, d0, d1,
set0, set1, dset0, dset1, width)
print 'reverse ', non_locking, width
sim = Simulation(lfsr0, lfsr1, chk)
sim.run(quiet=1)
def main():
# Пробуем получить из базы последний обработанный запрос
last_record = session.query(Suggests).order_by(
Suggests.number.desc()).first()
if last_record:
number = last_record.number
query = last_record.query
else:
number, query = None, None
# Инициализируем генератор стартовых слов
generator = combinations(config.COMBINATIONS_STRING,
config.MIN_LENGTH_R,
config.MAX_LENGTH_R,
number=number,
query=query)
with Pool(config.THREAD_COUNT) as p:
p.map(get_suggest, generator)
def test_reversible():
'''Test for correct reversing behavior in reversible lfsrs'''
def test(clk, enable, d, dir, set, dset, width, l):
set.next = True
dset.next = intbv(0)[width:]
enable.next = True
clk.next = 1
yield delay(10)
clk.next = 0
set.next = False
yield delay(10)
clk.next = 1
yield delay(10)
for i in range(l):
v0 = d.val
clk.next = 0
yield delay(10)
clk.next = 1
yield delay(10)
clk.next = 0
dir.next = not dir
yield delay(10)
clk.next = 1
yield delay(10)
assert v0 == d.val
raise StopSimulation
for non_locking, direction, width, l in combinations(
[True, False], [0, 1],
TESTED_WIDTHS_REVERSIBLE, TESTED_LEN_REVERSIBLE):
clk = Signal(bool(0))
enable = Signal(bool(0))
d = Signal(intbv(0)[width:])
dir = Signal(bool(direction))
set = Signal(bool(0))
dset = Signal(intbv(0)[width:])
lfsr = reversible_LFSR(clk, enable, d, dir, set, dset,
width=width, non_locking=non_locking)
chk = test(clk, enable, d, dir, set, dset, width, l)
print 'reversible ', non_locking, direction, width, l
sim = Simulation(lfsr, chk)
sim.run(quiet=1)
def runCombos(self):
starttime = time.time()
names = []
classSize = []
stu = []
for i in self.p3.names:
names.append(i.get())
for z in self.p4.studentsper:
stu.append(int(z.get()))
roomList, roomCount = importRooms.scan(self.p3.roomSheet.get())
combos = []
sizes = []
y = 0
for x, studentsper in zip(self.returns, stu):
combos.append(combinations.combinations(x[1], int(self.p4.entries[y].get()), x[0], roomCount, studentsper))
sizes.append(int(self.p4.entries[y].get()))
y += 1
for printer in combos:
print(len(printer))
finalRoomCombo, finalStudentAssignments, LeaderDays = sort.Sorter(
[m[0] for m in self.returns], combos, names, sizes, roomList, [n[1] for n in self.returns], stu
)
print(time.time() - starttime)
# assign the rooms
for subj, subject in zip(finalRoomCombo, names):
for group in subj:
roomList[group].taken = True
leaderAssignments, leaderRooms = assign.assignLeaders(
self.leaderData, LeaderDays, roomList, sizes, finalRoomCombo
)
# print(time.time()-starttime)
# f2=open('variables2.txt','wb')
# pickle.dump([roomList,leaderAssignments,leaderRooms])
# assign everything
data = []
for n in self.returns:
data.append(n)
assignEverything.assign(
roomList, finalRoomCombo, finalStudentAssignments, leaderRooms, leaderAssignments, names
)
def chances(runonce = 0):
''' How many combinations are there?
What is the chance to win any money?
'''
win = '? zł'
if runonce == 0:
cb = combinations.combinations(49, 6)
cb = str(cb)
print('Ilość kombinacji w:\n')
print('Lotto: ' + combinations.splitthousands(cb, '.'))
cb = combinations.combinations(42, 5)
cb = str(cb)
print('Mini Lotto: ' + combinations.splitthousands(cb, '.'))
cb = int(combinations.combinations(80, 10) / combinations.combinations(20, 10))
cb = str(cb)
print('Multi Multi: ' + combinations.splitthousands(cb, '.'))
input('Wciśnij ENTER: ')
running2 = True
while running2:
try:
clearscreen()
print('Obliczanie prawdopodobieństwa wygranej.')
print('-------------------------------')
print('1. Lotto')
print('2. Mini Lotto')
print('3. Multi Multi')
print('q - wyjście do głównego menu')
game = input('Wybierz grę: ')
if game == 'q':
return game
if game != '' and int(game) in range(1, 4):
game = int(game)
if game == 1: # Lotto
gamename = 'Lotto'
nums = 49
start = 3
stop = 7
numsdrawed = 6
running2 = False
if game == 2: # Mini Lotto
gamename = 'Mini Lotto'
nums = 42
start = 3
stop = 6
numsdrawed = 5
running2 = False
if game == 3: # Multi Multi
gamename = 'Multi Multi'
nums = 80
running2 = False
running3 = True
while running3:
numsdrawed = input('Podaj ilość typowanych liczb (1 do 10): ')
try:
if int(numsdrawed) in range(1, 11):
numsdrawed = int(numsdrawed)
running3 = False
if numsdrawed >= 5 and numsdrawed <= 7:
start = 3
elif numsdrawed >= 2 and numsdrawed <= 4:
start = 2
elif numsdrawed == 1:
start = 1
else:
start = 4
stop = numsdrawed + 1
machinedrawed = 20
except:
running3 = True
if game != 3:
machinedrawed = numsdrawed
except:
print('Wprowadzono błędne dane!')
clearscreen()
print('Prawdopodobieństwo trafienia w '+ gamename)
print('Typowano ' + str(numsdrawed) + ' z ' +str(nums))
print('-------------------------------')
running = True
numsmatched = numsdrawed
print('Trafiono:')
while running:
try:
if numsdrawed is not None and numsdrawed in range(start, stop):
if gamename == 'Multi Multi' and numsdrawed == 10 and numsmatched == 10:
win = '250 000 zł'
elif gamename == 'Multi Multi' and numsdrawed == 10 and numsmatched == 9:
win = '10 000 zł'
elif gamename == 'Multi Multi' and numsdrawed == 10 and numsmatched == 8:
win = '520 zł'
elif gamename == 'Multi Multi' and numsdrawed == 10 and numsmatched == 7:
win = '140 zł'
elif gamename == 'Multi Multi' and numsdrawed == 10 and numsmatched == 6:
win = '12 zł'
elif gamename == 'Multi Multi' and numsdrawed == 10 and numsmatched == 5:
win = '4 zł'
elif gamename == 'Multi Multi' and numsdrawed == 10 and numsmatched == 4:
win = '2 zł'
if gamename == 'Multi Multi' and numsdrawed == 9 and numsmatched == 9:
win = '70 000 zł'
elif gamename == 'Multi Multi' and numsdrawed == 9 and numsmatched == 8:
win = '2 000 zł'
elif gamename == 'Multi Multi' and numsdrawed == 9 and numsmatched == 7:
win = '300 zł'
elif gamename == 'Multi Multi' and numsdrawed == 9 and numsmatched == 6:
win = '42 zł'
elif gamename == 'Multi Multi' and numsdrawed == 9 and numsmatched == 5:
win = '8 zł'
elif gamename == 'Multi Multi' and numsdrawed == 9 and numsmatched == 4:
win = '2 zł'
if gamename == 'Multi Multi' and numsdrawed == 8 and numsmatched == 8:
win = '22 000 zł'
elif gamename == 'Multi Multi' and numsdrawed == 8 and numsmatched == 7:
win = '600 zł'
elif gamename == 'Multi Multi' and numsdrawed == 8 and numsmatched == 6:
win = '60 zł'
elif gamename == 'Multi Multi' and numsdrawed == 8 and numsmatched == 5:
win = '20 zł'
elif gamename == 'Multi Multi' and numsdrawed == 8 and numsmatched == 4:
win = '4 zł'
if gamename == 'Multi Multi' and numsdrawed == 7 and numsmatched == 7:
win = '6 000 zł'
elif gamename == 'Multi Multi' and numsdrawed == 7 and numsmatched == 6:
win = '200 zł'
elif gamename == 'Multi Multi' and numsdrawed == 7 and numsmatched == 5:
win = '20 zł'
elif gamename == 'Multi Multi' and numsdrawed == 7 and numsmatched == 4:
win = '4 zł'
elif gamename == 'Multi Multi' and numsdrawed == 7 and numsmatched == 3:
win = '2 zł'
if gamename == 'Multi Multi' and numsdrawed == 6 and numsmatched == 6:
win = '1 300 zł'
elif gamename == 'Multi Multi' and numsdrawed == 6 and numsmatched == 5:
win = '120 zł'
elif gamename == 'Multi Multi' and numsdrawed == 6 and numsmatched == 4:
win = '8 zł'
elif gamename == 'Multi Multi' and numsdrawed == 6 and numsmatched == 3:
win = '2 zł'
if gamename == 'Multi Multi' and numsdrawed == 5 and numsmatched == 5:
win = '700 zł'
elif gamename == 'Multi Multi' and numsdrawed == 5 and numsmatched == 4:
win = '20 zł'
elif gamename == 'Multi Multi' and numsdrawed == 5 and numsmatched == 3:
win = '4 zł'
if gamename == 'Multi Multi' and numsdrawed == 4 and numsmatched == 4:
win = '84 zł'
elif gamename == 'Multi Multi' and numsdrawed == 4 and numsmatched == 3:
win = '8 zł'
elif gamename == 'Multi Multi' and numsdrawed == 4 and numsmatched == 2:
win = '2 zł'
if gamename == 'Multi Multi' and numsdrawed == 3 and numsmatched == 3:
win = '54 zł'
elif gamename == 'Multi Multi' and numsdrawed == 3 and numsmatched == 2:
win = '2 zł'
if gamename == 'Multi Multi' and numsdrawed == 2 and numsmatched == 2:
win = '16 zł'
if gamename == 'Multi Multi' and numsdrawed == 1 and numsmatched == 1:
win = '4 zł'
cb = combinations.matched(nums, numsdrawed, numsmatched, machinedrawed)
cb = str(cb)
print(str(numsmatched) + ': ' + '1:' + combinations.splitthousands(cb,'.') + ' (' + win + ')')
numsmatched = numsmatched - 1
win = '? zł'
if numsmatched == start - 1:
running = False
except:
print('Wprowadzono błędne dane!')
input('Wciśnij ENTER: ')
clearscreen()
chances(1)
import time
#import excel file, print data
starttime=time.time()
import studentImport
blah=[]
datas=[]
data,times = studentImport.scan('/home/jasper/pilot/data.xls','Calc II')
data2,times2 = studentImport.scan('/home/jasper/pilot/data2.xls','Chem I')
import importRooms
rooms,roomCount=importRooms.scan('/home/jasper/pilot/rooms.xlsx')
blah.append(times)
blah.append(times2)
datas.append(data)
datas.append(data2)
import combinations
combos=[]
combos.append(combinations.combinations(blah[0],8,data,roomCount))
combos.append(combinations.combinations(blah[1],10,data2,roomCount))
print(len(combos[0]))
print(len(combos[1]))
import sort
finalCombo,finalAssignments,finalWaitList=sort.Sorter(datas,combos,['Calc II','Chem I'],[8,10],rooms,blah)
print(len(finalCombo))
#determine which finalCombo fits the leader availability the best
#leaderData=leaderImport.scan()
#import assign
def test_combinations(value: List[Any], expected_result: List[List]):
actual_result = combinations(*value)
assert actual_result == expected_result
