def creerPolydegre2(nb_racines=2, rac_radical=True, rac_quotient=False):
if nb_racines == 2:
redo = True
while redo:
a = randrange(1, 4) * (-1) ** randrange(2)
alpha = randrange(1, 10) * (-1) ** randrange(2)
beta = randrange(1, 10)
gamma = [1, randrange(1, 6)][rac_radical]
if rac_quotient:
den = randrange(2, 6)
while pgcd(alpha, den) != 1 or pgcd(beta, den) != 1:
den = randrange(2, 6)
alpha = Fraction(alpha, den)
beta = Fraction(beta, den)
b = -2 * alpha * a
c = a * (alpha ** 2 - gamma * beta ** 2)
if abs(c) <= 10 and c != 0 and not factoriser(repr(Polynome([[a, 2], [b, 1], [c, 0]]))): redo = False
if c.denominator != 1:
c = 'Fraction(%s, %s)' % (c.numerator, c.denominator)
else:
c = c.numerator
if b.denominator != 1:
b = 'Fraction(%s, %s)' % (b.numerator, b.denominator)
else:
b = b.numerator
return Polynome([[a, 2], [b, 1], [c, 0]])
elif nb_racines == 1:
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
return Polynome([[a ** 2, 2], [2 * a * b, 1], [b ** 2, 0]])
else:
pol = [[valeur_alea(-9, 9), 2 - dummy] for dummy in range(3)]
while pol[1][0] ** 2 - 4 * pol[0][0] * pol[2][0] >= 0:
pol = [[valeur_alea(-9, 9), 2 - dummy] for dummy in range(3)]
return Polynome(pol)
def creerPolydegre2(nb_racines=2, rac_radical=True, rac_quotient=False):
if nb_racines == 2:
redo = True
while redo:
a = randrange(1, 4) * (-1) ** randrange(2)
alpha = randrange(1, 10) * (-1) ** randrange(2)
beta = randrange(1, 10)
gamma = [1, randrange(1, 6)][rac_radical]
if rac_quotient:
den = randrange(2, 6)
while pgcd(alpha, den) != 1 or pgcd(beta, den) != 1:
den = randrange(2, 6)
alpha = Fraction(alpha, den)
beta = Fraction(beta, den)
b = -2 * alpha * a
c = a * (alpha ** 2 - gamma * beta ** 2)
if abs(c) <= 10 and c != 0 and not factoriser(repr(Polynome([[a, 2], [b, 1], [c, 0]]))): redo = False
if c.denominator != 1:
c = 'Fraction(%s, %s)' % (c.numerator, c.denominator)
else:
c = c.numerator
if b.denominator != 1:
b = 'Fraction(%s, %s)' % (b.numerator, b.denominator)
else:
b = b.numerator
return Polynome([[a, 2], [b, 1], [c, 0]])
elif nb_racines == 1:
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
return Polynome([[a ** 2, 2], [2 * a * b, 1], [b ** 2, 0]])
else:
pol = [[valeur_alea(-9, 9), 2 - dummy] for dummy in range(3)]
while pol[1][0] ** 2 - 4 * pol[0][0] * pol[2][0] >= 0:
pol = [[valeur_alea(-9, 9), 2 - dummy] for dummy in range(3)]
return Polynome(pol)
def __init__(self):
pol = creerPolydegre2(nb_racines=2, rac_radical=False, rac_quotient=False).monomes
pol2 = [[valeur_alea(-9, 9), 1], [valeur_alea(-9, 9), 0]]
shuffle(pol)
shuffle(pol2)
p = [pol, pol2]
shuffle(p)
p.append(['<', '>', '\\le', '\\ge'][randrange(4)])
self.exercice = p
def __init__(self):
pol = creerPolydegre2(nb_racines=2, rac_radical=False, rac_quotient=False).monomes
pol2 = [[valeur_alea(-9, 9), 1], [valeur_alea(-9, 9), 0]]
shuffle(pol)
shuffle(pol2)
p = [pol, pol2]
shuffle(p)
p.append(['<', '>', '\\le', '\\ge'][randrange(4)])
self.exercice = p
def valeurs_somme_prod(): # cree 3 fractions et un tuple de signes (+,*)
while True:
(base1, base2) = (valeur_alea(-13, 13), valeur_alea(-13, 13))
lepgcd = pgcd(base1, base2)
(base1, base2) = (base1 // lepgcd, base2 // lepgcd)
if base1 != 1 and base2 != 1:
break
(n2, d2) = (base1 * valeur_alea(-10, 10), abs(base2 * valeur_alea(2,
10)))
lepgcd = pgcd(n2, d2)
(n2, d2) = (n2 // lepgcd, d2 // lepgcd)
(n3, d3) = (base2 * valeur_alea(-10, 10), abs(base1 * valeur_alea(2,
10)))
lepgcd = pgcd(n3, d3)
(n3, d3) = (n3 // lepgcd, d3 // lepgcd)
(n1, d1) = (base1 * valeur_alea(-10, 10), abs(pgcd(d2, base2 *
valeur_alea(2, 10))))
lepgcd = pgcd(n1, d1)
(n1, d1) = (n1 // lepgcd, d1 // lepgcd)
if randrange(2) == 0:
s1 = '+'
else:
s1 = '-'
if randrange(2) == 0:
s2 = '*'
else:
s2 = ':'
if s2 == '*':
return ((n1, d1), (n2, d2), (n3, d3), (s1, s2))
else:
return ((n1, d1), (n2, d2), (d3, n3), (s1, s2))
def valeurs_reciproque_thales():
while True:
(a, b, c, d) = (random.randrange(2, 50), random.randrange(2, 50),
random.randrange(2, 20), random.randrange(2, 20))
p1 = pgcd(a, b)
(a, b) = (a / p1, b / p1)
if c < d:
(c, d) = (d, c)
if a != b and int(c / d) != (c * 1.0) / d and 10 < a * c < 200 and \
10 < a * d < 200 and 10 < b * c < 200 and 10 < b * d < 200 and \
.3 < (d * 1.0) / c < .7:
break
t = valeur_alea(-1, 1) # -1 si papillon, 1 si triangle
r = random.randrange(5)
while r == 2:
r = random.randrange(5)
angle = random.randrange(15, 105)
valeurs = (
(a * c) / 10.0,
(b * c) / 10.0,
0,
(a * d) / 10.0,
(b * d) / 10.0,
0,
(a * c - (t * a) * d) / 10.0,
(b * c - (t * b) * d) / 10.0,
angle,
t,
r,
)
return valeurs
def valeurs_reciproque_thales():
while True:
(a, b, c, d) = (random.randrange(2, 50), random.randrange(2, 50),
random.randrange(2, 20), random.randrange(2, 20))
p1 = pgcd(a, b)
(a, b) = (a / p1, b / p1)
if c < d:
(c, d) = (d, c)
if a != b and int(c / d) != (c * 1.0) / d and 10 < a * c < 200 and \
10 < a * d < 200 and 10 < b * c < 200 and 10 < b * d < 200 and \
.3 < (d * 1.0) / c < .7:
break
t = valeur_alea(-1, 1) # -1 si papillon, 1 si triangle
r = random.randrange(5)
while r == 2:
r = random.randrange(5)
angle = random.randrange(15, 105)
valeurs = (
(a * c) / 10.0,
(b * c) / 10.0,
0,
(a * d) / 10.0,
(b * d) / 10.0,
0,
(a * c - (t * a) * d) / 10.0,
(b * c - (t * b) * d) / 10.0,
angle,
t,
r,
)
return valeurs
def PointsCourbes(sens_var=(-1, -1, 0, 1, 1), nb_var=(3, 5), absc=(-5, 5), ordo=(-4, 4), cstes=(0, 1)):
"""Définit les ordonnées entières dans [-5 ; 5] de points d'abscisses entières dans [-5 ; 5]
de telle sorte que la fonction sur chaque intervalle comporte entre 3 et 5 variations différentes,
une seule section pouvant être constante.
La fonction doit avoir des images positives et négatives.
variations= [[-1, -6, -2], [1, -2, 1], [-1, 1, 2], [0, 2, 4]]
"""
while True:
lY, sens, variations = [valeur_alea(ordo[0], ordo[1])], [], []
nb_cste = 0
for dummy in range(absc[1] - absc[0]):
while True:
lg = valeur_alea(1, 4)
# pente maximale entre deux points consécutifs
sens.append(sens_var[randrange(len(sens_var))])
nY = lY[-1] + lg * sens[-1]
if ordo[0] <= nY <= ordo[1]:
if nY * lY[-1] < 0: lY.append(0)
else: lY.append(nY)
if not variations or sens[-1] != variations[-1][0]:
variations.append([sens[-1], dummy + absc[0], dummy + absc[0] + 1])
else:
variations[-1][2] = dummy + absc[0] + 1
break
else:
sens.pop(-1)
if nb_var[0] <= len(variations) <= nb_var[1]:
extremums = []
gextr = [100, -100] # extrema sur l'esnble de définition
for i in range(len(variations)):
if lY[variations[i][1] - absc[0]] > gextr[1]: gextr[1] = lY[variations[i][1] - absc[0]]
elif lY[variations[i][1] - absc[0]] < gextr[0]: gextr[0] = lY[variations[i][1] - absc[0]]
if extremums.count(lY[variations[i][1] - absc[0]]) > 0 and variations[i - 1][0] != 0:
nb_cste = cstes[1] + 1
else:
extremums.append(lY[variations[i][1] - absc[0]])
if variations[i][0] == 0:nb_cste += 1
if extremums.count(lY[-1]): nb_cste = cstes[1] + 1
if lY[-1] > gextr[1]: gextr[1] = lY[-1]
elif lY[-1] < gextr[0]: gextr[0] = lY[-1]
if gextr[0] * gextr[1] >= 0: nb_cste = cstes[1] + 1
if cstes[0] <= nb_cste <= cstes[1]: break
variations[-1][2] = absc[1]
return lY, variations
def __init__(self):
pol = [creerPolydegre2(nb_racines=2, rac_radical=False, rac_quotient=False)]
pol.append(creerPolydegre2(nb_racines=1))
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
pol.append([[a ** 2, 2], [-b ** 2, 0]])
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
pol.append([[a, 2], [b, 1]])
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
pol.append([[a, 2], [b, 0]])
pol.pop(randrange(1, len(pol)))
pol.pop(randrange(1, len(pol)))
pol.pop(randrange(1, len(pol)))
shuffle(pol)
exercice = [pol]
lval = [[[randrange(2, 10) * (-1) ** randrange(2), 1], [randrange(2, 10) * (-1) ** randrange(2), 0]] for dummy in range(3)]
a, b, c = -lval[2][0][0] * lval[1][0][0], lval[0][0][0] - lval[2][0][0] * lval[1][1][0] - lval[2][1][0] * lval[1][0][0], lval[0][1][0] - lval[2][1][0] * lval[1][1][0]
delta = b ** 2 - 4 * a * c
while delta < 0 or carrerise(delta) != 1:
lval = [[[randrange(2, 10) * (-1) ** randrange(2), 1], [randrange(2, 10) * (-1) ** randrange(2), 0]] for dummy in range(3)]
a, b, c = -lval[2][0][0] * lval[1][0][0], lval[0][0][0] - lval[2][0][0] * lval[1][1][0] - lval[2][1][0] * lval[1][0][0], lval[0][1][0] - lval[2][1][0] * lval[1][1][0]
delta = b ** 2 - 4 * a * c
# print delta, Polynome([[a, 2], [b, 1], [c, 0]]), '\cfrac{%s}{%s}' % (-b - sqrt(delta), 2 * a), '\cfrac{%s}{%s}' % (-b + sqrt(delta), 2 * a)
exercice.append(lval)
shuffle(exercice)
self.exercice = exercice
def valeurs_prod_parenth(): # cree 3 fractions et un tuple de signes (*,+)
while True:
(base1, base2) = (valeur_alea(2, 13), valeur_alea(2, 13))
lepgcd = pgcd(base1, base2)
(base1, base2) = (base1 // lepgcd, base2 // lepgcd)
if base1 != 1 and base2 != 1:
break
while True:
n2 = valeur_alea(-13, 13)
lepgcd = pgcd(n2, base1)
if lepgcd == 1:
break
while True:
n3 = valeur_alea(-13, 13)
lepgcd = pgcd(n3, base2)
if lepgcd == 1:
break
while True:
(n1, d1) = (valeur_alea(-10, 10), valeur_alea(2, 10))
lepgcd = pgcd(n1, d1)
if lepgcd != n1 and lepgcd != d1:
break
(n1, d1) = (n1 // lepgcd, d1 // lepgcd)
if randrange(2) == 0:
s1 = '*'
else:
s1 = ':'
if randrange(2) == 0:
s2 = '+'
else:
s2 = '-'
return ((n1, d1), (n2, base1), (n3, base2), (s1, s2))
def __init__(self):
pol = [creerPolydegre2(nb_racines=2, rac_radical=False, rac_quotient=False)]
pol.append(creerPolydegre2(nb_racines=1))
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
pol.append([[a ** 2, 2], [-b ** 2, 0]])
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
pol.append([[a, 2], [b, 1]])
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
pol.append([[a, 2], [b, 0]])
pol.pop(randrange(1, len(pol)))
pol.pop(randrange(1, len(pol)))
pol.pop(randrange(1, len(pol)))
shuffle(pol)
exercice = [pol]
lval = [[[randrange(2, 10) * (-1) ** randrange(2), 1], [randrange(2, 10) * (-1) ** randrange(2), 0]] for dummy in range(3)]
a, b, c = -lval[2][0][0] * lval[1][0][0], lval[0][0][0] - lval[2][0][0] * lval[1][1][0] - lval[2][1][0] * lval[1][0][0], lval[0][1][0] - lval[2][1][0] * lval[1][1][0]
delta = b ** 2 - 4 * a * c
while delta < 0 or carrerise(delta) != 1:
lval = [[[randrange(2, 10) * (-1) ** randrange(2), 1], [randrange(2, 10) * (-1) ** randrange(2), 0]] for dummy in range(3)]
a, b, c = -lval[2][0][0] * lval[1][0][0], lval[0][0][0] - lval[2][0][0] * lval[1][1][0] - lval[2][1][0] * lval[1][0][0], lval[0][1][0] - lval[2][1][0] * lval[1][1][0]
delta = b ** 2 - 4 * a * c
# print delta, Polynome([[a, 2], [b, 1], [c, 0]]), '\cfrac{%s}{%s}' % (-b - sqrt(delta), 2 * a), '\cfrac{%s}{%s}' % (-b + sqrt(delta), 2 * a)
exercice.append(lval)
shuffle(exercice)
self.exercice = exercice
def __init__(self):
val = [valeur_alea(-9, 9), valeur_alea(-9, 9) , valeur_alea(-9, 9)]
pol = Polynome([[val[0], 2], [(-val[0] * (val[1] + val[2])), 1], [(val[0] * val[1] * val[2]), 0]])
while val[2] == val[1] or abs(val[0] * val[1] * val[2]) > 10 or abs(eval(pol((val[1] + val[2]) / 2.))) > 10:
val = [valeur_alea(-9, 9), valeur_alea(-9, 9) , valeur_alea(-9, 9)]
pol = Polynome([[val[0], 2], [(-val[0] * (val[1] + val[2])), 1], [(val[0] * val[1] * val[2]), 0]])
val = [[val[0], 2], [(-val[0] * (val[1] + val[2])), 1], [(val[0] * val[1] * val[2]), 0]]
shuffle(val)
lp = [Polynome(val)]
val = [[valeur_alea(-9, 9), 2 - dummy] for dummy in range(3)]
val[1][0] = valeur_alea(-9, 9) * val[0][0]
pol = Polynome(val)
while val[1][0] ** 2 - 4 * val[0][0] * val[2][0] >= 0 or abs(eval(pol(-val[1][0] / 2. / val[0][0]))) > 10:
val = [[valeur_alea(-9, 9), 2 - dummy] for dummy in range(3)]
val[1][0] = valeur_alea(-9, 9) * val[0][0]
pol = Polynome(val)
shuffle(val)
pol = Polynome(val)
lp.append(pol)
shuffle(lp)
self.exercice = lp
def __init__(self):
val = [valeur_alea(-9, 9), valeur_alea(-9, 9) , valeur_alea(-9, 9)]
pol = Polynome([[val[0], 2], [(-val[0] * (val[1] + val[2])), 1], [(val[0] * val[1] * val[2]), 0]])
while val[2] == val[1] or abs(val[0] * val[1] * val[2]) > 10 or abs(eval(pol((val[1] + val[2]) / 2.))) > 10:
val = [valeur_alea(-9, 9), valeur_alea(-9, 9) , valeur_alea(-9, 9)]
pol = Polynome([[val[0], 2], [(-val[0] * (val[1] + val[2])), 1], [(val[0] * val[1] * val[2]), 0]])
val = [[val[0], 2], [(-val[0] * (val[1] + val[2])), 1], [(val[0] * val[1] * val[2]), 0]]
shuffle(val)
lp = [Polynome(val)]
val = [[valeur_alea(-9, 9), 2 - dummy] for dummy in range(3)]
val[1][0] = valeur_alea(-9, 9) * val[0][0]
pol = Polynome(val)
while val[1][0] ** 2 - 4 * val[0][0] * val[2][0] >= 0 or abs(eval(pol(-val[1][0] / 2. / val[0][0]))) > 10:
val = [[valeur_alea(-9, 9), 2 - dummy] for dummy in range(3)]
val[1][0] = valeur_alea(-9, 9) * val[0][0]
pol = Polynome(val)
shuffle(val)
pol = Polynome(val)
lp.append(pol)
shuffle(lp)
self.exercice = lp
def __init__(self):
pol = [creerPolydegre2(nb_racines=2, rac_radical=True, rac_quotient=False)]
pol.append(creerPolydegre2(nb_racines=1))
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
pol.append([[a ** 2, 2], [-b ** 2, 0]])
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
while a * b == -64:
# sqrt{8} est trop long à décomposer en une demi-ligne
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
pol.append([[a, 2], [b, 0]])
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
pol.append([[a, 2], [b, 1]])
pol.pop(randrange(1, len(pol)))
pol.pop(randrange(1, len(pol)))
shuffle(pol)
for i in range(3):
m = list(pol[i])
shuffle(m)
pol[i] = m
self.exercice = pol
def __init__(self):
pol = [creerPolydegre2(nb_racines=2, rac_radical=True, rac_quotient=False)]
pol.append(creerPolydegre2(nb_racines=1))
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
pol.append([[a ** 2, 2], [-b ** 2, 0]])
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
while a * b == -64:
# sqrt{8} est trop long à décomposer en une demi-ligne
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
pol.append([[a, 2], [b, 0]])
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
pol.append([[a, 2], [b, 1]])
pol.pop(randrange(1, len(pol)))
pol.pop(randrange(1, len(pol)))
shuffle(pol)
for i in range(3):
m = list(pol[i])
shuffle(m)
pol[i] = m
print(str(Polynome(pol[i], "x")))
self.exercice = pol
def valeurs_quotient_frac(): # cree 4 fractions et un tuple de signes (+,+)
while True:
(n1, d1) = (valeur_alea(-10, 10), valeur_alea(2, 10))
lepgcd = pgcd(n1, d1)
if lepgcd != n1 and lepgcd != d1:
break
(n1, d1) = (n1 // lepgcd, d1 // lepgcd)
while True:
(n3, d3) = (valeur_alea(-10, 10), valeur_alea(2, 10))
lepgcd = pgcd(n3, d3)
if lepgcd != n3 and lepgcd != d3:
break
(n3, d3) = (n3 // lepgcd, d3 // lepgcd)
(n2, n4) = (valeur_alea(1, 10), valeur_alea(1, 10))
if randrange(2) == 0:
s1 = '+'
else:
s1 = '-'
if randrange(2) == 0:
s2 = '+'
else:
s2 = '-'
return ((n1, d1), (n2, 1), (n3, d3), (n4, 1), (s1, s2))
def valeurs_puissances(): # renvoie un tuple contenant les valeurs pour les deux exercices sur les puissances
from math import floor, log10
(maxi, emax) = (10, 2)
while True:
(b1, b2) = (valeur_alea(2, maxi), valeur_alea(2, maxi))
(b1, b2) = (b1 / pgcd(b1, b2), b2 / pgcd(b1, b2))
if b1 != 1 and b2 != 1:
break
while True:
(n1, n2) = ((b1 * valeur_alea(2, maxi)) * 10 ** randrange(-emax,
emax), (b2 * valeur_alea(2, maxi)) * 10 ** randrange(-emax,
emax))
n3 = ((b1 * b2) * choice((2, 4, 5, 8))) * 10 ** randrange(-emax,
emax)
if int(floor(log10(((n1 * n2) * 1.) / n3))) != 0 and n1 != 1 and \
n2 != 1 and n3 != 1:
break
(e1, e2, e3, e4) = (valeur_alea(-10, 10), valeur_alea(-10, 10),
valeur_alea(2, 10), valeur_alea(2, 5))
a = verifie_type((n1, n2, n3, e1, e2, e3, e4))
while True:
(b1, b2) = (valeur_alea(2, maxi), valeur_alea(2, maxi))
(b1, b2) = (b1 / pgcd(b1, b2), b2 / pgcd(b1, b2))
if b1 != 1 and b2 != 1:
break
(n1, n2) = ((b1 * valeur_alea(2, maxi)) * 10 ** randrange(-emax, emax +
1), (b2 * valeur_alea(2, maxi)) * 10 ** randrange(-emax,
emax + 1))
n3 = ((b1 * b2) * choice((1, 2, 4, 5, 8))) * 10 ** randrange(-emax,
emax + 1)
(e1, e2, e3, e4) = (valeur_alea(-10, 10), valeur_alea(-10, 10),
valeur_alea(-10, -2), valeur_alea(2, 5))
b = verifie_type((n1, n2, n3, e1, e2, e3, e4))
return (a, b)
def __init__(self):
pol = [[valeur_alea(-9, 9), 2 - dummy] for dummy in range(3)]
while pol[1][0] ** 2 - 4 * pol[0][0] * pol[2][0] >= 0:
pol = [[valeur_alea(-9, 9), 2 - dummy] for dummy in range(3)]
exercice = [list(pol)]
val = [valeur_alea(-9, 9), valeur_alea(-9, 9)]
val.append(Fraction(valeur_alea(-9, 9), val[0]))
while val[2].d == 1:
val = [valeur_alea(-9, 9), valeur_alea(-9, 9)]
val.append(Fraction(valeur_alea(-9, 9), val[0]))
sgn = -val[0] / abs(val[0])
pol = [[val[0], 2], [(-val[0] * (val[1] * val[2].d + val[2].n)) / val[2].d, 1], [(val[0] * val[1] * val[2].n) / val[2].d, 0]]
shuffle(pol)
exercice.append([pol, val[1], val[2]])
val = [sgn * valeur_alea(-9, 9), valeur_alea(-9, 9)]
val.append(Fraction(valeur_alea(-9, 9), val[0]).simplifie())
while isinstance(val[2], int) or val[2].d == 1:
val = [sgn * valeur_alea(-9, 9), valeur_alea(-9, 9)]
val.append(Fraction(valeur_alea(-9, 9), val[0]))
pol = [[val[0], 2], [(-val[0] * (val[1] * val[2].d + val[2].n)) / val[2].d, 1], [(val[0] * val[1] * val[2].n) / val[2].d, 0]]
shuffle(pol)
exercice.append([pol, val[1], val[2]])
self.exercice = exercice
def __init__(self):
val = [valeur_alea(-9, 9), valeur_alea(-9, 9)]
val.append(Fraction(valeur_alea(-9, 9), val[0]))
while val[2].d == 1:
val = [valeur_alea(-9, 9), valeur_alea(-9, 9)]
val.append(Fraction(valeur_alea(-9, 9), val[0]))
pol = [[val[0], 2], [(-val[0] * (val[1] * val[2].d + val[2].n)) / val[2].d, 1], [(val[0] * val[1] * val[2].n) / val[2].d, 0]]
shuffle(pol)
exercice = [[list(pol), val[1], val[2]]]
pol = [creerPolydegre2(nb_racines=0).monomes]
pol.append(creerPolydegre2(nb_racines=1).monomes)
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
sgn = [1, -1][randrange(2)]
pol.append([[sgn * a ** 2, 2], [-sgn * b ** 2, 0]])
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
pol.append([[a, 2], [b, 1]])
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
while abs(pgcd(a, b)) != 1:
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
pol.append([[a, 2], [b, 0]])
pol.pop(randrange(1, len(pol)))
pol.pop(randrange(1, len(pol)))
pol.pop(randrange(1, len(pol)))
shuffle(pol)
exercice.append(pol)
self.exercice = exercice
def __init__(self):
val = [valeur_alea(-9, 9), valeur_alea(-9, 9)]
val.append(Fraction(valeur_alea(-9, 9), val[0]))
while val[2].d == 1:
val = [valeur_alea(-9, 9), valeur_alea(-9, 9)]
val.append(Fraction(valeur_alea(-9, 9), val[0]))
pol = [[val[0], 2], [(-val[0] * (val[1] * val[2].d + val[2].n)) / val[2].d, 1], [(val[0] * val[1] * val[2].n) / val[2].d, 0]]
shuffle(pol)
exercice = [[list(pol), val[1], val[2]]]
pol = [creerPolydegre2(nb_racines=0).monomes]
pol.append(creerPolydegre2(nb_racines=1).monomes)
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
sgn = [1, -1][randrange(2)]
pol.append([[sgn * a ** 2, 2], [-sgn * b ** 2, 0]])
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
pol.append([[a, 2], [b, 1]])
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
while abs(pgcd(a, b)) != 1:
a, b = valeur_alea(-9, 9), valeur_alea(-9, 9)
pol.append([[a, 2], [b, 0]])
pol.pop(randrange(1, len(pol)))
pol.pop(randrange(1, len(pol)))
pol.pop(randrange(1, len(pol)))
shuffle(pol)
exercice.append(pol)
self.exercice = exercice
def __init__(self):
pol = [[valeur_alea(-9, 9), 2 - dummy] for dummy in range(3)]
while pol[1][0] ** 2 - 4 * pol[0][0] * pol[2][0] >= 0:
pol = [[valeur_alea(-9, 9), 2 - dummy] for dummy in range(3)]
exercice = [list(pol)]
val = [valeur_alea(-9, 9), valeur_alea(-9, 9)]
val.append(Fraction(valeur_alea(-9, 9), val[0]))
while val[2].d == 1:
val = [valeur_alea(-9, 9), valeur_alea(-9, 9)]
val.append(Fraction(valeur_alea(-9, 9), val[0]))
sgn = -val[0] / abs(val[0])
pol = [[val[0], 2], [(-val[0] * (val[1] * val[2].d + val[2].n)) / val[2].d, 1], [(val[0] * val[1] * val[2].n) / val[2].d, 0]]
shuffle(pol)
exercice.append([pol, val[1], val[2]])
val = [sgn * valeur_alea(-9, 9), valeur_alea(-9, 9)]
val.append(Fraction(valeur_alea(-9, 9), val[0]).simplifie())
while isinstance(val[2], int) or val[2].d == 1:
val = [sgn * valeur_alea(-9, 9), valeur_alea(-9, 9)]
val.append(Fraction(valeur_alea(-9, 9), val[0]))
pol = [[val[0], 2], [(-val[0] * (val[1] * val[2].d + val[2].n)) / val[2].d, 1], [(val[0] * val[1] * val[2].n) / val[2].d, 0]]
shuffle(pol)
exercice.append([pol, val[1], val[2]])
self.exercice = exercice