def main():
parser = optparse.OptionParser(description="Produces `.dot` output from `.chem` input.")
parser.add_option("-i", "--infile", dest="infile", help="read from INFILE in .chem format (if ommited, use stdin)", metavar="INFILE")
parser.add_option("-o", "--outfile", dest="outfile", help="write to OUTFILE in .dot format (if ommited, use stdout)", metavar="OUTFILE")
parser.add_option("-n", "--names", dest="names", help="style of molecular species naming. One of 'full', 'id', 'blank'", metavar="NAMES", default=None)
parser.add_option("-l", "--layout", dest="layout", help="layout to assign to the dot file")
(options, args) = parser.parse_args()
rn = None
if options.infile is None:
#read from standard in
rn = ReactionNetwork.from_string(sys.stdin.read())
else:
#read from provided filename
rn = ReactionNetwork.from_filename(options.infile)
dot = net_to_dot(rn, names=options.names)
if options.layout is not None:
dot["graph"]["layout"] = options.layout
dotstr = str(dot)
if options.outfile is None:
#print to standard out
sys.stdout.write(dotstr)
else:
#write to provided filename
outfile = open(options.outfile, "w")
outfile.write(dotstr)
outfile.close()
def main():
parser = optparse.OptionParser(
description="Pretty-printer and syntax checker for .chem files.")
parser.add_option("-i",
"--infile",
dest="infile",
help="read from INFILE (if ommited, use stdin)",
metavar="INFILE")
parser.add_option(
"-o",
"--outfile",
dest="outfile",
help="write to OUTFILE in .chem format (if ommited, use stdout)",
metavar="OUTFILE")
(options, args) = parser.parse_args()
rn = None
if options.infile is None:
#read from standard in
rn = ReactionNetwork.from_string(sys.stdin.read())
else:
#read from provided filename
rn = ReactionNetwork.from_filename(options.infile)
chemstr = str(rn)
if options.outfile is None:
#print to standard out
sys.stdout.write(chemstr)
else:
#write to provided filename
outfile = open(options.outfile, "w")
outfile.write(chemstr)
outfile.close()
def main():
parser = optparse.OptionParser(description="Pretty-printer and syntax checker for .chem files.")
parser.add_option(
"-i", "--infile", dest="infile", help="read from INFILE (if ommited, use stdin)", metavar="INFILE"
)
parser.add_option(
"-o",
"--outfile",
dest="outfile",
help="write to OUTFILE in .chem format (if ommited, use stdout)",
metavar="OUTFILE",
)
(options, args) = parser.parse_args()
rn = None
if options.infile is None:
# read from standard in
rn = ReactionNetwork.from_string(sys.stdin.read())
else:
# read from provided filename
rn = ReactionNetwork.from_filename(options.infile)
chemstr = str(rn)
if options.outfile is None:
# print to standard out
sys.stdout.write(chemstr)
else:
# write to provided filename
outfile = open(options.outfile, "w")
outfile.write(chemstr)
outfile.close()
def setUp(self):
self.rates = {(("A", "B"), ("B", "C")): 2.0}
self.net = ReactionNetwork(self.rates)
self.othernet = ReactionNetwork(self.rates)
self.wrongrates = {(("A", "B"), ("B", "C")): 3.0}
self.wrongnet = ReactionNetwork(self.wrongrates)
def setUp(self):
self.rates = {
(OrderedFrozenBag(["A", "B"]), OrderedFrozenBag(["B", "C"])): 2.0
}
self.net = ReactionNetwork(self.rates)
self.othernet = ReactionNetwork(self.rates)
self.wrongrates = {
(OrderedFrozenBag(["A", "B"]), OrderedFrozenBag(["B", "C"])): 3.0
}
self.wrongnet = ReactionNetwork(self.wrongrates)
def setUp(self):
self.instring = "A + B -2.0>\tC +\tB"
#this string includes:
# different kinds of whitespace
# disordered products
# floating-point rate
self.net = ReactionNetwork.from_string(self.instring)
self.othernet = ReactionNetwork.from_string(self.instring)
self.wrongstring = "A + B\t-3.0> C + B"
self.wrongnet = ReactionNetwork.from_string(self.wrongstring)
def setUp(self):
self.instring = "A + B -2.0>\tC +\tB"
#this string includes:
# different kinds of whitespace
# disordered products
# floating-point rate
self.net = ReactionNetwork.from_string(self.instring)
self.othernet = ReactionNetwork.from_string(self.instring)
self.wrongstring = "A + B\t-3.0> C + B"
self.wrongnet = ReactionNetwork.from_string(self.wrongstring)
def reactionnet(self):
"""
A property that generates and caches a :py:class:`~.ReactionNetwork` object
representing the reaction network exhibited by this bucket.
Rates are calculated based on repeats of events in this bucket. This may have a large sampling
error depending on how many repeates there were.
"""
if self._reactionnet == None:
#need to create a rates structure, then convert it to a reactionnet
rates = {}
seenreactants = {}
for event in self.events:
reactants = event.reactants
products = event.products
reaction = (reactants, products)
if event.rateconstant is None:
if reaction not in rates:
rates[reaction] = 0
rates[reaction] += 1
else:
if reaction not in rates:
rates[reaction] = event.rateconstant
else:
assert rates[reaction] == event.rateconstant
self._reactionnet = ReactionNetwork(rates)
return self._reactionnet
def setUp(self):
self.rates = {(OrderedFrozenBag(["A", "B"]), OrderedFrozenBag(["B", "C"])):2.0}
self.net = ReactionNetwork(self.rates)
self.othernet = ReactionNetwork(self.rates)
self.wrongrates = {(OrderedFrozenBag(["A", "B"]), OrderedFrozenBag(["B", "C"])):3.0}
self.wrongnet = ReactionNetwork(self.wrongrates)
class TestReactionNetwork(unittest.TestCase):
"""
This is the main class to test ReactionNetwork class.
It relies on setUp to generate a ReactionNetwork instance which
is then probed by the other functions
"""
def setUp(self):
self.rates = {
(OrderedFrozenBag(["A", "B"]), OrderedFrozenBag(["B", "C"])): 2.0
}
self.net = ReactionNetwork(self.rates)
self.othernet = ReactionNetwork(self.rates)
self.wrongrates = {
(OrderedFrozenBag(["A", "B"]), OrderedFrozenBag(["B", "C"])): 3.0
}
self.wrongnet = ReactionNetwork(self.wrongrates)
def test_seen(self):
"""
Makes sure the molecules that were specified are in seen.
Also checks that they are in sorted order.
"""
self.assertEqual(self.net.seen, ("A", "B", "C"))
def test_reactions(self):
"""
Makes sure the reactions that were specified are in reactions.
Also checks that they are in sorted order
TODO check sorted order between reactions
"""
self.assertEqual(
self.net.reactions,
((OrderedFrozenBag(["A", "B"]), OrderedFrozenBag(["B", "C"])), ))
def test_rate(self):
self.assertEqual(
self.net.rate(OrderedFrozenBag(["A", "B"]),
OrderedFrozenBag(["B", "C"])), 2.0)
def test_reaction_to_string(self):
"""
Check that it convert a reaction to a string correctly
"""
target = """A + B\t-2.0>\tB + C"""
self.assertEqual(
self.net.reaction_to_string(
(OrderedFrozenBag(["A", "B"]), OrderedFrozenBag(["B", "C"])),
2.0), target)
def test_to_string(self):
"""
Check that it converts to a string correctly
"""
target = """A + B\t-2.0>\tB + C"""
self.assertEqual(str(self.net), target)
def test_equal(self):
"""
As ReactionNetwork has a custom __eq__ function, it is tested
here.
Needs to both pass and fail.
"""
self.assertTrue(self.net != None)
self.assertTrue(self.net != "SPAM!")
self.assertEqual(self.net, self.othernet)
self.assertTrue(self.net != self.wrongnet)
def test_hash(self):
"""
As ReactionNetwork has a custom __hash__ function, it is tested
here.
Needs to both pass and fail.
Technically, the fail here could be true and still be a hash
but it is supposed to usually be wrong so assume that it will be
wrong.
"""
self.assertEqual(hash(self.net), hash(self.othernet))
#technically, this could be true and still be a hash
#but it is supposed to usually be wrong
self.assertTrue(hash(self.net) != hash(self.wrongnet))
class TestReactionNetwork(unittest.TestCase):
"""
This is the main class to test ReactionNetwork class.
It relies on setUp to generate a ReactionNetwork instance which
is then probed by the other functions
"""
def setUp(self):
self.rates = {(OrderedFrozenBag(["A", "B"]), OrderedFrozenBag(["B", "C"])):2.0}
self.net = ReactionNetwork(self.rates)
self.othernet = ReactionNetwork(self.rates)
self.wrongrates = {(OrderedFrozenBag(["A", "B"]), OrderedFrozenBag(["B", "C"])):3.0}
self.wrongnet = ReactionNetwork(self.wrongrates)
def test_seen(self):
"""
Makes sure the molecules that were specified are in seen.
Also checks that they are in sorted order.
"""
self.assertEqual(self.net.seen, ("A", "B", "C"))
def test_reactions(self):
"""
Makes sure the reactions that were specified are in reactions.
Also checks that they are in sorted order
TODO check sorted order between reactions
"""
self.assertEqual(self.net.reactions, ((OrderedFrozenBag(["A", "B"]), OrderedFrozenBag(["B", "C"])),) )
def test_rate(self):
self.assertEqual(self.net.rate(OrderedFrozenBag(["A", "B"]), OrderedFrozenBag(["B", "C"])), 2.0)
def test_reaction_to_string(self):
"""
Check that it convert a reaction to a string correctly
"""
target = """A + B\t-2.0>\tB + C"""
self.assertEqual(self.net.reaction_to_string((OrderedFrozenBag(["A", "B"]), OrderedFrozenBag(["B", "C"])), 2.0), target)
def test_to_string(self):
"""
Check that it converts to a string correctly
"""
target = """A + B\t-2.0>\tB + C"""
self.assertEqual(str(self.net), target)
def test_equal(self):
"""
As ReactionNetwork has a custom __eq__ function, it is tested
here.
Needs to both pass and fail.
"""
self.assertTrue(self.net != None)
self.assertTrue(self.net != "SPAM!")
self.assertEqual(self.net, self.othernet)
self.assertTrue(self.net != self.wrongnet)
def test_hash(self):
"""
As ReactionNetwork has a custom __hash__ function, it is tested
here.
Needs to both pass and fail.
Technically, the fail here could be true and still be a hash
but it is supposed to usually be wrong so assume that it will be
wrong.
"""
self.assertEqual(hash(self.net), hash(self.othernet))
#technically, this could be true and still be a hash
#but it is supposed to usually be wrong
self.assertTrue(hash(self.net) != hash(self.wrongnet))
