def test_wallbounce():
if getz(4):
printbold("4: Testing Wall bounce")
qg = QGOL()
qg.bc[0,0,0] = Cell(True)
qg.bc[0,1,0] = Cell(True)
qg.bc[-1,1,0] = Cell(True)
qg.bc[-1,0,0] = Cell(True)
qg.bc[1,1,0] = Cell(True)
qg.bc[1,0,0] = Cell(True)
qg.bc[2,1,0] = Cell(True)
qg.bc[2,0,0] = Cell(True)
qg.bc[3,3,3] = Cell(True)
print("Wandering cell in position : ",[(x,y,z) for conf in qg.s.cs for (x,y,z) in conf.tuple() if z])
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
print("Wandering cell in position : ",[(x,y,z) for conf in qg.s.cs for (x,y,z) in conf.tuple() if z])
return qg
def test_walls():
if getz(3):
printbold("3: Testing Walls")
qg = QGOL()
qg.bc[0,0,0] = Cell(True)
qg.bc[0,1,0] = Cell(True)
qg.bc[-1,1,0] = Cell(True)
qg.bc[-1,0,0] = Cell(True)
qg.bc[1,1,0] = Cell(True)
qg.bc[1,0,0] = Cell(True)
qg.bc[2,1,0] = Cell(True)
qg.bc[2,0,0] = Cell(True)
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
return qg
def test_hadamard():
printbold("12: Implementing a Hadamard Gate")
qg = QGOL()
qg.bc[0,0,0] = Cell(True)
qg.bc[0,1,0] = Cell(True)
qg.bc[-1,1,0] = Cell(True)
qg.bc[-1,0,0] = Cell(True)
qg.bc[1,1,0] = Cell(True)
qg.bc[1,0,0] = Cell(True)
qg.bc[2,1,0] = Cell(True)
qg.bc[2,0,0] = Cell(True)
qg.bc[1,-2,3] = Cell(True)
qg.bc[5,-6,7] = Cell(True)
qg.bc[-20,-18,19] = Cell(True)
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.evolve(100)
print(qg)
assert qg.numconf() == 8
return qg
def test_4cells():
printbold("15: Testing usual errored case with 4 cells (randomized)")
qg = find_error()(4)
print(qg)
qg.next()
print(qg)
assert qg.numconf() > 0
return qg
def test_2cells():
printbold("13: Testing usual errored case with 2 cells (randomized)")
qg = find_error()(2)
print(qg)
qg.next()
print(qg)
assert qg.numconf() == 1
return qg
def test_crossing():
printbold("16: Testing crossing (it should change the phase)")
qg = QGOL()
qg.bc[0,0,0] = Cell(True)
qg.bc[0,1,1] = Cell(True)
print(qg)
qg.next()
print(qg)
assert qg.numconf() > 0
return qg
def test_L_usual2():
if getz(11):
printbold("11: Testing Rule 3 and further evolution: another usual L shape")
qg = QGOL()
qg.bc[-1,0,0] = Cell(True)
qg.bc[-1,1,0] = Cell(True)
qg.bc[-1,0,1] = Cell(True)
print(qg)
qg.next()
print(qg)
return qg
def test_dislocLXaxis():
if getz(8):
printbold("8: Testing Rule 3: dislocated L shape along X axis")
qg = QGOL()
qg.bc[1,0,1] = Cell(True)
qg.bc[1,1,0] = Cell(True)
qg.bc[0,1,0] = Cell(True)
print(qg)
qg.next()
print(qg)
return qg
def test_LXaxis():
if getz(7):
printbold("7: Testing Rule 3: L shape along X axis")
qg = QGOL()
qg.bc[1,1,1] = Cell(True)
qg.bc[1,1,0] = Cell(True)
qg.bc[0,1,0] = Cell(True)
print(qg)
qg.next()
print(qg)
return qg
def test_stablesquare():
printbold("1: Testing stability of the well placed square")
qg = QGOL()
qg.bc[6,6,40] = Cell(True)
qg.bc[6,7,40] = Cell(True)
qg.bc[5,7,40] = Cell(True)
qg.bc[5,6,40] = Cell(True)
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
return qg
def test_unstablesquare():
if getz(2):
printbold("2: Testing unstability of the ill placed square")
qg = QGOL()
qg.bc[0,0,0] = Cell(True)
qg.bc[0,1,0] = Cell(True)
qg.bc[1,1,0] = Cell(True)
qg.bc[1,0,0] = Cell(True)
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
return qg
def test_L_usual():
if getz(10):
printbold("10: Testing Rule 3 and further evolution: usual L shape")
qg = QGOL()
qg.bc[0,0,0] = Cell(True)
qg.bc[1,1,0] = Cell(True)
qg.bc[1,0,0] = Cell(True)
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
return qg
def test_dislocLYaxis():
if getz(9):
printbold("9: Testing Rule 3 and further evolution: dislocated L shape along Y axis")
qg = QGOL()
qg.bc[0,0,0] = Cell(True)
qg.bc[1,1,1] = Cell(True)
qg.bc[0,1,0] = Cell(True)
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
qg.next()
print(qg)
return qg
