def setUp(self):
cells.reset()
self.x = cells.Cell(None, name="x", value=1)
self.b = cells.Cell(None, name="b", rule=lambda s, p: (p or 40) + 2)
self.a = cells.Cell(
None,
name="a",
rule=lambda s, p: self.b.getvalue() * self.x.getvalue())
def setUp(self):
cells.reset()
self.x = cells.Cell(None, name="x", value=21)
self.captured_notify_flag = None
def a_rule(s, p):
self.captured_notify_flag = self.x.notifying
return self.x.getvalue() * 2
self.a = cells.Cell(None, name="a", rule=a_rule)
def testA_AlternateEqualityTester(self):
"""5. A cell must allow an alternate function to be passed which tests
for equality of the previous & new values."""
x = cells.Cell(None,
name="x",
value=5,
unchanged_if=lambda old, new: abs(old - new) < 5)
a = cells.Cell(None, name="a", rule=lambda s, p: x.getvalue() * 2)
self.assertTrue(a.getvalue() == 10)
x.set(7) # will *not* set, since |5-7| < 5
self.assertTrue(a.getvalue() == 10) # and so no propogation happens
x.set(11) # will set, since |5-11| > 5
self.assertTrue(a.getvalue() == 22)
def testB_DelWorks(self):
"""6. A cell must be garbage collected appropriately; that is,
other cells must not prevent it from being GCd because of
internal references.
"""
import weakref
self.x = cells.Cell(None, value=3)
a = cells.Cell(None, rule=lambda s, p: self.x.getvalue() + 1)
ref_x = weakref.ref(self.x)
a.getvalue()
del (self.x)
self.assertFalse(ref_x())
def check_merge(cell1, cell2, rotations, interface, mask, params):
if cell1.stats["Area"] <= 0 or cell2.stats["Area"] <= 0: # check if both cells exist
return False
# check if any cell is small enough for automatic merge
if cell1.stats["Area"] < params.cell_force_merge_below or \
cell2.stats["Area"] < params.cell_force_merge_below:
return True
# check if dividing cells
if params.merge_dividing_cells and \
interface >= params.merge_min_interface:
tmp = cells.Cell(0)
tmp.outline.extend(cell1.outline)
tmp.outline.extend(cell2.outline)
tmp.lines.extend(cell1.lines)
tmp.lines.extend(cell2.lines)
tmp.stats["Area"] = cell1.stats["Area"] + cell2.stats["Area"]
tmp.compute_axes(rotations, mask.shape)
tmpshort = tmp.stats["Width"]
maxshort = max(cell1.stats["Width"], cell2.stats["Width"])
if tmpshort <= maxshort * params.merge_length_tolerance:
return True
else:
return False
else:
return False
def test_ReturnWithoutRecalculation(self):
"""A cell does not recalculate itself if it is current
"""
cells.cellenv.curr = None
x = cells.Cell(None, name="x", rule=lambda s, p: (p or 39) + 3)
self.assertTrue(
x.getvalue() == x.getvalue()) # should not calculate twice
def testC_QueriedCellRecalculates(self):
"""Rule 3 part c: A cell B which calls changed cell X, must
recalculate when queried"""
# x <-- a --> b
# ^__________/
# we're gonna have to jury-rig this, since we can't let b
# recalculate first naturally
self.b = cells.Cell(None,
name="b",
rule=lambda s, p: (p or 2) * self.x.getvalue())
self.b.add_calls(self.x) # set up dependencies for b by hand
self.b.add_called_by(self.a)
self.a.add_calls(self.b, self.x) # and for a
self.x.add_called_by(self.a, self.b) # .. and x
# run a fake x.set(3) in the desired order:
cells.cellenv.dp += 1 #
self.x.value = 3 # TODO: verify everything's done here
self.x.changed_dp = cells.cellenv.dp
self.x.dp = cells.cellenv.dp
self.a.updatecell() # causes b.updatecell() to run
self.assertTrue(self.b.value == 6) # which causes b's rule to run
self.x.changed = False
# but now that x's change has propogated, further updates on a:
self.a.updatecell()
# which will call b.updatecell(), won't cause b.run()
self.assertTrue(self.b.value == 6)
def test_3_ChangingKeyValuePropogates(self):
def y_rule(model, prev):
return self.x.keys()
y = cells.Cell(None, name="y", rule=y_rule)
y.getvalue() # establish deps
self.failUnless(y.getvalue() == []) # no keys in x yet
self.x['foo'] = 'blah blah' # cause propogation
self.failUnless(y.getvalue() == ['foo'])
def add_cells_at_location(self,
x,
y,
mass=.3,
energy=None,
color=None,
x_vel=0,
y_vel=0):
self.cell_list.append(cells.Cell(x, y, mass, energy, x_vel, y_vel))
def runTest(self):
environment = Environment(
) #environment already initialized in test.py
# test that environment is a singleton
self.assertTrue(Environment() is environment)
# test that environment initializes properly
self.assertEquals(len(environment.cell_list), 10)
self.assertEquals(len(environment.food_set), 10)
self.assertTrue(environment.width > 0)
self.assertTrue(environment.height > 0)
# test that cells are within bounds
for cell in environment.cell_list:
self.assertTrue(
cell.pos.x >= 0 and cell.pos.x <= environment.width
and cell.pos.y >= 0 and cell.pos.y <= environment.height,
"Cell location out of bounds.")
# ..and food is within bounds
for f in environment.food_set:
self.assertTrue(
f.pos.x >= 0 and f.pos.x <= environment.width and f.pos.y >= 0
and f.pos.y <= environment.height,
"Food location out of bounds.")
environment.cell_list = []
# test that a cell will find and eat food underneath it
c = cells.Cell(environment.width / 2, environment.height / 2)
environment.cell_list.append(c)
food_count = len(environment.food_set)
environment.food_set.add(
food.Food(environment.width / 2, environment.height / 2))
environment.tick()
# test that food list count was decremented after food is eaten
self.assertEqual(len(environment.food_set), food_count)
# test that food inside the cell is eaten
environment.food_set.add(
food.Food(environment.width / 2 + c.radius - 0.000001,
environment.height / 2))
environment.tick()
self.assertEqual(len(environment.food_set), food_count)
# test that food outside the cell is not eaten
environment.food_set.add(
food.Food(environment.width / 2 + c.radius + 0.000001,
environment.height / 2))
environment.tick()
self.assertEqual(len(environment.food_set), food_count + 1)
# test that add_cells adds the right number of cells
num_cells = len(environment.cell_list)
add_cells_count = random.randint(0, 100)
environment.add_cells(add_cells_count)
self.assertEqual(
len(environment.cell_list) - add_cells_count, num_cells)
def create_cell():
"""
Создаёт новый эелемент "Клетка" и добавляет его в список объектов и списки интерфейса
Параметр нового объекта запрашивается у пользователя
"""
size = simpledialog.askinteger('Размер клетки', 'Введите размер клетки:')
try:
new_cell = cells.Cell(size)
cell_list.append(new_cell)
renew_list_boxes()
messagebox.showinfo('Создание клетки',
f'Создана новая клетка:\n{str(new_cell)}')
except ValueError as e:
messagebox.showerror('Ошибка', e)
except TypeError:
messagebox.showinfo('Отмена', 'Операция отменена')
def setUp(self):
# h i j
# | | |
# v v v
# a --> b --> c
# | |
# \-- > x <---/
cells.reset()
self.runlog = []
self.x = cells.Cell(None, name="x", value=5)
def anon_rule(name, getfrom):
def rule(s, p):
self.runlog.append(name)
return getfrom.getvalue() + (p or 0)
return rule
self.c = cells.Cell(None, name="c", rule=anon_rule('c', self.x))
self.b = cells.Cell(None, name="b", rule=anon_rule('b', self.c))
def a_rule(s, p):
self.runlog.append("a")
return self.b.getvalue() + self.x.getvalue() + (p or 0)
self.a = cells.Cell(None, name="a", rule=a_rule)
self.h = cells.Cell(None, name="h", rule=anon_rule('h', self.a))
self.i = cells.Cell(None, name="i", rule=anon_rule('i', self.b))
self.j = cells.Cell(None, name="j", rule=anon_rule('j', self.c))
# build dependencies
self.h.getvalue()
self.i.getvalue()
self.j.getvalue()
self.runlog = []
# run an x.set(3) in the desired order:
self.x.propogation_list = lambda s, e: [self.a, self.c]
self.c.propogation_list = lambda s, e: [self.b, self.j]
self.b.propogation_list = lambda s, e: [self.a, self.i]
self.x.set(3)
def add_cells(cell_count):
''' Add cell_count number of cells of random colors at random locations to the world'''
for i in range(cell_count):
World.cell_list.append(
cells.Cell(random.uniform(0, World.width),
random.uniform(0, World.height)))
def setUp(self):
cells.reset()
self.x = cells.Cell(None, name="x", value=21)
def new_cell(self, x, y):
return cells.Cell(x, y)
def propogate(self, propogate_first=None):
"""
propogate(self, propogate_first=None) -> None
Propogates an updatecell command to the set of cells which call
this cell.
@param propogate_first: If cell C{A} asks cell C{B} to update,
and cell C{B}'s value changes (causing a C{propogate}
call), it must propogate to C{A} first, before any of the
other cells which call C{B}.
"""
if cells.cellenv.curr_propogator:
_debug(self.name, "propogating. Old propogator was",
cells.cellenv.curr_propogator.name)
else:
_debug(self.name, "propogating. No old propogator")
prev_propogator = cells.cellenv.curr_propogator
cells.cellenv.curr_propogator = self
self.changed_dp = cells.cellenv.dp
self.notifying = True
if self.owner:
self.owner._run_observers(self)
# first, notify the 'propogate_first' cell
if propogate_first:
# append everything but the propogate_first cell onto the deferred
# propogation FIFO
cells.cellenv.queued_updates.extend(
Cell.propogation_list(self, propogate_first))
_debug(
self.name, "first propogating to", propogate_first.name,
"then adding", [
cell.name
for cell in Cell.propogation_list(self, propogate_first)
], "to deferred")
_debug(self.name, "asking", propogate_first.name,
"to update first")
propogate_first.updatecell()
_debug(self.name, "finished propogating to first update",
propogate_first.name)
else:
_debug(self.name, "propogating to", [
cell.name
for cell in Cell.propogation_list(self, propogate_first)
])
# weird for testing
for cell in Cell.propogation_list(self, propogate_first):
if cell.lazy:
_debug(self.name, "saw", cell.name,
", but it's lazy -- not updating")
else:
_debug(self.name, "asking", cell.name, "to update")
cell.updatecell(self)
self.notifying = False
cells.cellenv.curr_propogator = prev_propogator
if cells.cellenv.curr_propogator:
_debug(self.name, "finished propogating; switching to propogating",
str(cells.cellenv.curr_propogator.name))
else:
_debug(self.name, "finished propogating. No old propogator")
# run deferred stuff if no cell is currently propogating
if not cells.cellenv.curr_propogator:
# first, updates:
# okay, this is a little hacky:
cells.cellenv.curr_propogator = cells.Cell(
None, name="queued propogation dummy")
_debug("no cell propogating! running deferred updates.")
to_update = cells.cellenv.queued_updates
cells.cellenv.queued_updates = []
for cell in to_update:
if cell.lazy:
_debug(self.name, "saw", cell.name,
", but it's lazy -- not running deferred updated")
else:
_debug("Running deferred update on", cell.name)
cell.updatecell(self)
cells.cellenv.curr_propogator = None
# next, deferred set-ish commands:
_debug("running deferred sets")
to_set = cells.cellenv.deferred_sets
cells.cellenv.deferred_sets = []
for cell, cmdargtuple in to_set:
cmd, argtuple = cmdargtuple
args, kwargs = argtuple
_debug("running deferred", cmd, "on", cell.name)
args, kwargs = argtuple
getattr(cell, cmd)(*args, **kwargs)
def add_cell_at_location(pos):
"""Add a cell at location"""
World.cell_list.append(cells.Cell(pos.x, pos.y))
def add_cells(self, cell_count):
for i in range(cell_count):
self.cell_list.append(
cells.Cell(random.uniform(0, self.width),
random.uniform(0, self.height)))
