def MUL_PP_P(koefs_1, powers_1, koefs_2, powers_2):
    # Артамонов Артур, гр.0306
    # Умножение многочленов

    new_koefs = []
    new_powers = []

    for i in range(len(koefs_1)):
        for j in range(len(koefs_2)):
            k = rat.MUL_QQ_Q(koefs_1[i], koefs_2[j])  # Умножаем фонтанчиком
            n = nat.ADD_NN_N(powers_1[i],
                             powers_2[j])  # коэффициенты и степени

            new_koefs.append(k)
            new_powers.append(n)

    super_new_powers = []
    super_new_koefs = []

    deleted = set()
    t = [[0], [1]]
    # Складываем одночлены с одинаковыми степенями
    for i in range(len(new_powers)):
        x = new_powers[i]
        if new_powers.count(x) > 1:
            q = i
            for j in range(q + 1, len(new_powers)):
                if new_powers[j] == x:
                    k = rat.ADD_QQ_Q(new_koefs[q], new_koefs[j])
                    t = rat.ADD_QQ_Q(t, k)

            if new_powers[i][0] not in deleted:
                super_new_koefs.append(t)
                super_new_powers.append(new_powers[i])
                deleted.add(new_powers[i][0])

        else:
            super_new_koefs.append(new_koefs[i])
            super_new_powers.append(new_powers[i])

    n = len(super_new_powers)
    # Сортировка пузырьком
    n = len(super_new_powers)
    for j in range(n - 1):
        for i in range(n - j - 1):
            a = int(''.join(map(str, super_new_powers[i])))
            b = int(''.join(map(str, super_new_powers[i + 1])))
            if a < b:
                super_new_powers[i], super_new_powers[
                    i + 1] = super_new_powers[i + 1], super_new_powers[i]
                super_new_koefs[i], super_new_koefs[i + 1] = super_new_koefs[
                    i + 1], super_new_koefs[i]

    return super_new_koefs, super_new_powers
Esempio n. 2
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 def test_zeros(self):
     zero = [
         [0, 1, [0]],
         [1, [1]],
     ]
     expect = zero
     result = rational.ADD_QQ_Q(zero, zero)
     self.assertEqual(result, expect)
Esempio n. 3
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 def test_zero(self):
     number = [
         [0, 3, [5, 6, 3]],
         [2, [3, 1]],
     ]
     zero = [
         [0, 1, [0]],
         [1, [1]],
     ]
     expect = number
     result = rational.ADD_QQ_Q(number, zero)
     self.assertEqual(result, expect)
Esempio n. 4
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 def on_btn_q_add_released(self):
     try:
         q1 = self.get_q_q(1)
         q2 = self.get_q_q(2)
         result = rational.ADD_QQ_Q(q1, q2)
         self.add_history_record('%s + %s = %s' % (
             pretty.rational(q1),
             pretty.rational(q2),
             pretty.rational(result),
             ))
     except Exception as e:
         self.on_exception(e)
def ADD_PP_P(koefs_1, powers_1, koefs_2, powers_2):

    new_koefs = []
    new_powers = []

    if len(powers_2) > len(powers_1):
        koefs_1, koefs_2 = koefs_2, koefs_1
        powers_1, powers_2 = powers_2, powers_1

    for i in range(len(powers_1)):
        x = powers_1[i]
        c = koefs_1[i]

        q = 0
        for j in range(len(powers_2)):
            if q != -1:
                q += 1
            if powers_2[j] == x:
                q = -1
                k = rat.ADD_QQ_Q(koefs_2[j], c)
                new_koefs.append(k)
                new_powers.append(powers_2[j])

        if q == len(powers_2):
            new_koefs.append(c)
            new_powers.append(x)

    for i in range(len(powers_2)):
        x = powers_2[i]
        c = koefs_2[i]

        q = 0
        for j in range(len(powers_1)):
            if q != -1:
                q += 1
            if powers_1[j] == x:
                q = -1

        if q == len(powers_1):
            new_koefs.append(c)
            new_powers.append(x)

    n = len(new_powers)
    for j in range(n - 1):
        for i in range(n - j - 1):
            a = int(''.join(map(str, new_powers[i])))
            b = int(''.join(map(str, new_powers[i + 1])))
            if a < b:
                new_powers[i], new_powers[i + 1] = new_powers[i +
                                                              1], new_powers[i]
                new_koefs[i], new_koefs[i + 1] = new_koefs[i + 1], new_koefs[i]

    return new_koefs, new_powers
Esempio n. 6
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 def test_positive(self):
     number1 = [
         [0, 1, [5]],
         [1, [3]],
     ]
     number2 = [
         [0, 1, [2]],
         [1, [7]],
     ]
     expect = [
         [0, 2, [1, 4]],
         [2, [1, 2]],
     ]
     result = rational.ADD_QQ_Q(number1, number2)
     self.assertEqual(result, expect)
Esempio n. 7
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 def test_negative_second(self):
     number1 = [
         [0, 1, [5]],
         [1, [3]],
     ]
     number2 = [
         [1, 1, [2]],
         [1, [7]],
     ]
     expect = [
         [0, 2, [9, 2]],
         [2, [1, 2]],
     ]
     result = rational.ADD_QQ_Q(number1, number2)
     self.assertEqual(result, expect)
def open_window_rat_sum():
    layout = [[sg.Text('Enter two rationals')], [sg.Input(key='dig1')],
              [sg.Button('+', key='start')], [sg.Input(key='dig2')],
              [sg.Text(size=(400, 10), key='out')]]
    window = sg.Window('The sum of rational numbers',
                       layout,
                       size=(460, 260),
                       resizable=True)
    while True:
        event, values = window.read()
        if event == "start":
            window['out'].update(
                RatToStr(
                    rat.TRANS_Q_Z(
                        rat.ADD_QQ_Q(StrToRat(values['dig1']),
                                     StrToRat(values['dig2'])))))
        if event == sg.WINDOW_CLOSED:
            break