def get_Spante(c1, c2, d1, d2):
Lage1 = Ebene()
Lage1.p_E = np.array([c1, 0, 0])
Lage2 = Ebene()
Lage2.p_E = np.array([c2, 0, 0])
Sp1 = []
Sp2 = []
"""Spante1"""
for i in range(0, 2):
if i == 0:
Lage1_1 = Lage1
Lage1_1.p_E[0] = c1 - d1
else:
Lage1_1 = Lage1
Lage1_1.p_E[0] = c1 + d1
SP1 = [[]]
SP1[0] = Schnittpunkt(lifting.x_t[-1][0], lifting.x_t[-1][3], Lage1_1)
SP1.append(Schnittpunkt(lifting.x_t[-1][0], lifting.x_t[-1][16], Lage1_1))
SP1.append(Schnittpunkt(lifting.x_t[-1][12], lifting.x_t[-1][16], Lage1_1))
SP1.append(Schnittpunkt(lifting.x_t[-1][1], lifting.x_t[-1][16], Lage1_1))
SP1.append(Schnittpunkt(lifting.x_t[-1][1], lifting.x_t[-1][4], Lage1_1))
for i in range(0, len(SP1) - 1):
SP1.append([SP1[3 - i][0], (SP1[4][1] * 2 - SP1[3 - i][1]), SP1[3 - i][2]])
Sp1.append(SP1)
"""Spante2"""
for i in range(0, 2):
Lage2_2 = Lage2
if i == 0:
Lage2_2.p_E[0] = c2 - d2
else:
Lage2_2.p_E[0] = c2 + d2
SP2 = [[]]
SP2[0] = Schnittpunkt(lifting.x_t[-1][3], lifting.x_t[-1][6], Lage2_2)
SP2.append(Schnittpunkt(lifting.x_t[-1][3], lifting.x_t[-1][18], Lage2_2))
SP2.append(Schnittpunkt(lifting.x_t[-1][16], lifting.x_t[-1][18], Lage2_2))
SP2.append(Schnittpunkt(lifting.x_t[-1][4], lifting.x_t[-1][18], Lage2_2))
SP2.append(Schnittpunkt(lifting.x_t[-1][4], lifting.x_t[-1][7], Lage2_2))
for i in range(0, len(SP2) - 1):
SP2.append([SP2[3 - i][0], (SP2[4][1] * 2 - SP2[3 - i][1]), SP2[3 - i][2]])
Sp2.append(SP2)
Ausgabe(Sp1[0], c1, d1 * 2, max(lifting.x_t[-1][:][2]), max(lifting.x_t[-1][:, 0]) - min(lifting.x_t[-1][:, 0]))
Ausgabe(Sp1[1], c1, d1 * 2, max(lifting.x_t[-1][:][2]), max(lifting.x_t[-1][:, 0]) - min(lifting.x_t[-1][:, 0]))
Ausgabe(Sp2[0], c2, d2 * 2, max(lifting.x_t[-1][:][2]), max(lifting.x_t[-1][:, 0]) - min(lifting.x_t[-1][:, 0]))
Ausgabe(Sp2[1], c2, d2 * 2, max(lifting.x_t[-1][:][2]), max(lifting.x_t[-1][:, 0]) - min(lifting.x_t[-1][:, 0]))
def get_Spante(c1 , c2, c3, d1, d2, d3):
Lage1 = Ebene()
Lage1.p_E = np.array([c1, 0, 0])
Lage2 = Ebene()
Lage2.p_E = np.array([c2, 0, 0])
Lage3 = Ebene()
Lage3.p_E = np.array([c3, 0, 0])
Sp1 = []
Sp2 = []
Sp3 = []
'''Spante1'''
for i in range(0, 2):
if i == 0:
Lage1_1 = Lage1
Lage1_1.p_E[0] = c1 - d1
else:
Lage1_1 = Lage1
Lage1_1.p_E[0] = c1 + d1
SP1 = [[]]
SP1[0] = Schnittpunkt(folding.x_t[-1][0], folding.x_t[-1][2], Lage1_1)
SP1.append(Schnittpunkt(folding.x_t[-1][0], folding.x_t[-1][8], Lage1_1))
SP1.append(Schnittpunkt(folding.x_t[-1][6], folding.x_t[-1][8], Lage1_1))
SP1.append(Schnittpunkt(folding.x_t[-1][1], folding.x_t[-1][8], Lage1_1))
SP1.append(Schnittpunkt(folding.x_t[-1][1], folding.x_t[-1][3], Lage1_1))
Sp1.append(SP1)
'''Spante2'''
for i in range(0, 2):
Lage2_2 = Lage2
if i == 0:
Lage2_2.p_E[0] = c2 - d2
else:
Lage2_2.p_E[0] = c2 + d2
SP2 = [[]]
SP2[0] = Schnittpunkt(folding.x_t[-1][0], folding.x_t[-1][2], Lage2_2)
SP2.append(Schnittpunkt(folding.x_t[-1][8], folding.x_t[-1][2], Lage2_2))
SP2.append(Schnittpunkt(folding.x_t[-1][8], folding.x_t[-1][9], Lage2_2))
SP2.append(Schnittpunkt(folding.x_t[-1][8], folding.x_t[-1][3], Lage2_2))
SP2.append(Schnittpunkt(folding.x_t[-1][1], folding.x_t[-1][3], Lage2_2))
Sp2.append(SP2)
'''Spante3'''
for i in range(0, 2):
if i == 0:
Lage3_3 = Lage3
Lage3_3.p_E[0] = c3 - d3
else:
Lage3_3 = Lage3
Lage3_3.p_E[0] = c3 + d3
SP3 = [[]]
SP3[0] = Schnittpunkt(folding.x_t[-1][2], folding.x_t[-1][4], Lage3_3)
SP3.append(Schnittpunkt(folding.x_t[-1][9], folding.x_t[-1][4], Lage3_3))
SP3.append(Schnittpunkt(folding.x_t[-1][9], folding.x_t[-1][7], Lage3_3))
SP3.append(Schnittpunkt(folding.x_t[-1][9], folding.x_t[-1][5], Lage3_3))
SP3.append(Schnittpunkt(folding.x_t[-1][3], folding.x_t[-1][5], Lage3_3))
Sp3.append(SP3)
Ausgabe(Sp1[0], c1, d1 * 2, max(folding.x_t[-1][:][2]), max(folding.x_t[-1][:, 0]) - min(folding.x_t[-1][:, 0]))
Ausgabe(Sp1[1], c1, d1 * 2, max(folding.x_t[-1][:][2]), max(folding.x_t[-1][:, 0]) - min(folding.x_t[-1][:, 0]))
Ausgabe(Sp2[0], c2, d2 * 2, max(folding.x_t[-1][:][2]), max(folding.x_t[-1][:, 0]) - min(folding.x_t[-1][:, 0]))
Ausgabe(Sp2[1], c2, d2 * 2, max(folding.x_t[-1][:][2]), max(folding.x_t[-1][:, 0]) - min(folding.x_t[-1][:, 0]))
Ausgabe(Sp3[0], c3, d3 * 2, max(folding.x_t[-1][:][2]), max(folding.x_t[-1][:, 0]) - min(folding.x_t[-1][:, 0]))
Ausgabe(Sp3[1], c3, d3 * 2, max(folding.x_t[-1][:][2]), max(folding.x_t[-1][:, 0]) - min(folding.x_t[-1][:, 0]))