def check_null_sink(fname, given_spec):
"""Testing for null sink case without a source facility.
No transactions are expected in this test; therefore, a table with
transaction records must not exist in order to pass this test.
"""
clean_outs()
if not cyclus_has_coin():
raise SkipTest("Cyclus does not have COIN")
# Cyclus simulation input for null sink testing
sim_input = os.path.join(INPUT, fname)
holdsrtn = [1] # needed because nose does not send() to test generator
outfile = which_outfile()
cmd = ["cyclus", "-o", outfile, "--input-file", sim_input]
yield check_cmd, cmd, '.', holdsrtn
rtn = holdsrtn[0]
if rtn != 0:
return # don't execute further commands
legal_paths = ["/AgentEntry", "/Info"]
illegal_paths = ["/Transactions"] # this must contain tables to test
# Check if these tables exist
yield assert_true, tables_exist(outfile, legal_paths)
if not tables_exist(outfile, legal_paths):
outfile.close()
clean_outs()
return # don't execute further commands
# Get specific data
if outfile == h5out:
output = tables.open_file(h5out, mode="r")
agent_entry = output.get_node("/AgentEntry")[:]
info = output.get_node("/Info")[:]
output.close()
else:
conn = sqlite3.connect(outfile)
conn.row_factory = sqlite3.Row
cur = conn.cursor()
exc = cur.execute
agent_entry = exc('SELECT * FROM AgentEntry').fetchall()
info = exc('SELECT * FROM Info').fetchall()
conn.close()
# Sink's deployment
agent_ids = to_ary(agent_entry, "AgentId")
spec = to_ary(agent_entry, "Spec")
sink_id = find_ids(given_spec, spec, agent_ids)
# Test if one SimpleSink is deployed
yield assert_equal, len(sink_id), 1
# No resource exchange is expected
yield assert_false, tables_exist(outfile, illegal_paths)
clean_outs()
def check_null_sink(fname, given_spec):
"""Testing for null sink case without a source facility.
No transactions are expected in this test; therefore, a table with
transaction records must not exist in order to pass this test.
"""
clean_outs()
if not cyclus_has_coin():
raise SkipTest("Cyclus does not have COIN")
# Cyclus simulation input for null sink testing
sim_input = os.path.join(INPUT, fname)
holdsrtn = [1] # needed because nose does not send() to test generator
outfile = which_outfile()
cmd = ["cyclus", "-o", outfile, "--input-file", sim_input]
yield check_cmd, cmd, '.', holdsrtn
rtn = holdsrtn[0]
if rtn != 0:
return # don't execute further commands
legal_paths = ["/AgentEntry", "/Info"]
illegal_paths = ["/Transactions"] # this must contain tables to test
# Check if these tables exist
yield assert_true, tables_exist(outfile, legal_paths)
if not tables_exist(outfile, legal_paths):
outfile.close()
clean_outs()
return # don't execute further commands
# Get specific data
if outfile == h5out:
output = tables.open_file(h5out, mode = "r")
agent_entry = output.get_node("/AgentEntry")[:]
info = output.get_node("/Info")[:]
output.close()
else:
conn = sqlite3.connect(outfile)
conn.row_factory = sqlite3.Row
cur = conn.cursor()
exc = cur.execute
agent_entry = exc('SELECT * FROM AgentEntry').fetchall()
info = exc('SELECT * FROM Info').fetchall()
conn.close()
# Sink's deployment
agent_ids = to_ary(agent_entry, "AgentId")
spec = to_ary(agent_entry, "Spec")
sink_id = find_ids(given_spec, spec, agent_ids)
# Test if one SimpleSink is deployed
yield assert_equal, len(sink_id), 1
# No resource exchange is expected
yield assert_false, tables_exist(outfile, illegal_paths)
clean_outs()
def test_stub_example():
"""Testing for the stubs example."""
clean_outs()
# Cyclus simulation input for null sink testing
sim_input = "./input/stub_example.xml"
holdsrtn = [1] # needed because nose does not send() to test generator
outfile = which_outfile()
cmd = ["cyclus", "-o", outfile, "--input-file", sim_input]
yield check_cmd, cmd, os.getcwd(), holdsrtn
rtn = holdsrtn[0]
if rtn != 0:
return # don't execute further commands
legal_paths = ["/AgentEntry", "/Info"]
illegal_paths = ["/Transactions"] # this must contain tables to test
# Check if these tables exist
yield assert_true, tables_exist(outfile, legal_paths)
if not tables_exist(outfile, legal_paths):
outfile.close()
clean_outs()
return # don't execute further commands
# Get specific data
if outfile == h5out:
output = tables.open_file(h5out, mode="r")
agent_entry = output.get_node("/AgentEntry")[:]
info = output.get_node("/Info")[:]
output.close()
else:
conn = sqlite3.connect(sqliteout)
conn.row_factory = sqlite3.Row
cur = conn.cursor()
exc = cur.execute
agent_entry = exc('SELECT * FROM AgentEntry').fetchall()
info = exc('SELECT * FROM Info').fetchall()
conn.close()
# Sink's deployment
agent_ids = to_ary(agent_entry, "AgentId")
spec = to_ary(agent_entry, "Spec")
sink_id = find_ids("stubs:StubFacility:StubFacility", spec, agent_ids)
# Test if one SimpleSink is deployed
yield assert_equal, len(sink_id), 1
# No resource exchange is expected
yield assert_false, tables_exist(outfile, illegal_paths)
clean_outs()
def test_stub_example():
"""Testing for the stubs example."""
clean_outs()
# Cyclus simulation input for null sink testing
sim_input = "./input/stub_example.xml"
holdsrtn = [1] # needed because nose does not send() to test generator
outfile = which_outfile()
cmd = ["cyclus", "-o", outfile, "--input-file", sim_input]
yield check_cmd, cmd, os.getcwd(), holdsrtn
rtn = holdsrtn[0]
if rtn != 0:
return # don't execute further commands
legal_paths = ["/AgentEntry", "/Info"]
illegal_paths = ["/Transactions"] # this must contain tables to test
# Check if these tables exist
yield assert_true, tables_exist(outfile, legal_paths)
if not tables_exist(outfile, legal_paths):
outfile.close()
clean_outs()
return # don't execute further commands
# Get specific data
if outfile == h5out:
output = tables.open_file(h5out, mode = "r")
agent_entry = output.get_node("/AgentEntry")[:]
info = output.get_node("/Info")[:]
output.close()
else:
conn = sqlite3.connect(sqliteout)
conn.row_factory = sqlite3.Row
cur = conn.cursor()
exc = cur.execute
agent_entry = exc('SELECT * FROM AgentEntry').fetchall()
info = exc('SELECT * FROM Info').fetchall()
conn.close()
# Sink's deployment
agent_ids = to_ary(agent_entry, "AgentId")
spec = to_ary(agent_entry, "Spec")
sink_id = find_ids("stubs:StubFacility:StubFacility", spec, agent_ids)
# Test if one SimpleSink is deployed
yield assert_equal, len(sink_id), 1
# No resource exchange is expected
yield assert_false, tables_exist(outfile, illegal_paths)
clean_outs()
def test_source_to_sink():
"""Tests simulations with one facility that has a conversion factor.
The trivial cycle simulation involves only one KFacility which provides
what it requests itself. The conversion factors for requests and bids
are kept the same so that the facility provides exactly what it requests.
The amount of the transactions follow a power law.
Amount = InitialAmount * ConversionFactor ^ Time
This equation is used to test each transaction amount.
"""
# A reference simulation input for the trivial cycle simulation.
ref_input = "./input/trivial_cycle.xml"
# Conversion factors for the three simulations
k_factors = [0.95, 1, 2]
for k_factor in k_factors:
clean_outs()
sim_input = create_sim_input(ref_input, k_factor, k_factor)
holdsrtn = [1] # needed because nose does not send() to test generator
outfile = which_outfile()
cmd = ["cyclus", "-o", outfile, "--input-file", sim_input]
yield check_cmd, cmd, '.', holdsrtn
rtn = holdsrtn[0]
if rtn != 0:
return # don't execute further commands
# tables of interest
paths = ["/AgentEntry", "/Resources", "/Transactions", "/Info"]
# Check if these tables exist
yield assert_true, tables_exist(outfile, paths)
if not tables_exist(outfile, paths):
outfile.close()
clean_outs()
return # don't execute further commands
# Get specific tables and columns
if outfile == h5out:
output = tables.open_file(h5out, mode="r")
agent_entry = output.get_node("/AgentEntry")[:]
info = output.get_node("/Info")[:]
resources = output.get_node("/Resources")[:]
transactions = output.get_node("/Transactions")[:]
output.close()
else:
conn = sqlite3.connect(sqliteout)
conn.row_factory = sqlite3.Row
cur = conn.cursor()
exc = cur.execute
agent_entry = exc('SELECT * FROM AgentEntry').fetchall()
info = exc('SELECT * FROM Info').fetchall()
resources = exc('SELECT * FROM Resources').fetchall()
transactions = exc('SELECT * FROM Transactions').fetchall()
conn.close()
# Find agent ids
agent_ids = to_ary(agent_entry, "AgentId")
spec = to_ary(agent_entry, "Spec")
facility_id = find_ids(":agents:KFacility", spec, agent_ids)
# Test for only one KFacility
yield assert_equal, len(facility_id), 1
sender_ids = to_ary(transactions, "SenderId")
receiver_ids = to_ary(transactions, "ReceiverId")
expected_sender_array = np.empty(sender_ids.size)
expected_sender_array.fill(facility_id[0])
expected_receiver_array = np.empty(receiver_ids.size)
expected_receiver_array.fill(facility_id[0])
yield assert_array_equal, sender_ids, expected_sender_array
yield assert_array_equal, receiver_ids, expected_receiver_array
# Transaction ids must be equal range from 1 to the number of rows
expected_trans_ids = np.arange(0, sender_ids.size, 1)
yield assert_array_equal, \
to_ary(transactions, "TransactionId"), \
expected_trans_ids
# Track transacted resources
resource_ids = to_ary(resources, "ResourceId")
quantities = to_ary(resources, "Quantity")
# Almost equal cases due to floating point k_factors
i = 0
initial_capacity = quantities[0]
for q in quantities:
yield assert_almost_equal, q, initial_capacity * k_factor**i
i += 1
clean_outs()
os.remove(sim_input)
def test_minimal_cycle():
"""Tests simulations with two facilities with several conversion factors.
The commodities of the facilities are different. Facility A offers a
commodity A and requests commodity B; whereas, Facility B offers a
commodity B and requests commodity A. In addition, it is also assumed that
the first requests and offers are the same quantities for respective
receivers and senders.
The amount of the transactions follow a power law.
Amount = InitialAmount * ConversionFactor ^ Time
This equation is used to test each transaction amount.
"""
# A reference simulation input for minimal cycle with different commodities
ref_input = "./input/minimal_cycle.xml"
# Conversion factors for the simulations
k_factors = [0.95, 1, 2]
for k_factor_a in k_factors:
for k_factor_b in k_factors:
clean_outs()
sim_input = change_minimal_input(ref_input, k_factor_a, k_factor_b)
holdsrtn = [1] # needed b/c nose does not send() to test generator
outfile = which_outfile()
cmd = ["cyclus", "-o", outfile, "--input-file", sim_input]
yield check_cmd, cmd, '.', holdsrtn
rtn = holdsrtn[0]
if rtn != 0:
return # don't execute further commands
# tables of interest
paths = ["/AgentEntry", "/Resources", "/Transactions",
"/Info"]
# Check if these tables exist
yield assert_true, tables_exist(outfile, paths)
if not tables_exist(outfile, paths):
outfile.close()
clean_outs()
return # don't execute further commands
# Get specific tables and columns
if outfile == h5out:
output = tables.open_file(h5out, mode = "r")
agent_entry = output.root.AgentEntry[:]
info = output.get_node("/Info")[:]
resources = output.get_node("/Resources")[:]
transactions = output.get_node("/Transactions")[:]
output.close()
else:
conn = sqlite3.connect(sqliteout)
conn.row_factory = sqlite3.Row
cur = conn.cursor()
exc = cur.execute
agent_entry = exc('SELECT * FROM AgentEntry').fetchall()
info = exc('SELECT * FROM Info').fetchall()
resources = exc('SELECT * FROM Resources').fetchall()
transactions = exc('SELECT * FROM Transactions').fetchall()
conn.close()
# Find agent ids
agent_ids = to_ary(agent_entry, "AgentId")
spec = to_ary(agent_entry, "Spec")
agent_protos = to_ary(agent_entry, "Prototype")
duration = to_ary(info, "Duration")[0]
facility_id = find_ids(":agents:KFacility", spec, agent_ids)
# Test for two KFacility
yield assert_equal, len(facility_id), 2
# Test for one Facility A and Facility B
facility_a = find_ids("FacilityA", agent_protos, agent_ids)
facility_b = find_ids("FacilityB", agent_protos, agent_ids)
yield assert_equal, len(facility_a), 1
yield assert_equal, len(facility_b), 1
# Test if both facilities are KFracilities
# Assume FacilityA is deployed first according to the schema
yield assert_equal, facility_a[0], facility_id[0]
yield assert_equal, facility_b[0], facility_id[1]
# Test if the transactions are strictly between Facility A and
# Facility B. There are no Facility A to Facility A or vice versa.
sender_ids = to_ary(transactions, "SenderId")
receiver_ids = to_ary(transactions, "ReceiverId")
pattern_one = np.arange(0, sender_ids.size, 2)
pattern_two = np.arange(1, sender_ids.size, 2)
pattern_a = pattern_one # expected pattern for Facility A as sender
pattern_b = pattern_two # expected pattern for Facility B as sender
# Re-assign in case the expected patterns are incorrect
if sender_ids[0] == facility_b[0]:
pattern_a = pattern_two
pattern_b = pattern_one
yield assert_array_equal, \
np.where(sender_ids == facility_a[0])[0], \
pattern_a, "Fac A Pattern A"
yield assert_array_equal, \
np.where(receiver_ids == facility_a[0])[0], \
pattern_b, "Fac A Pattern B" # reverse pattern when acted as a receiver
yield assert_array_equal, \
np.where(sender_ids == facility_b[0])[0], \
pattern_b, "Fac B Pattern A"
yield assert_array_equal, \
np.where(receiver_ids == facility_b[0])[0], \
pattern_a, "Fac B Pattern B" # reverse pattern when acted as a receiver
# Transaction ids must be equal range from 1 to the number of rows
expected_trans_ids = np.arange(sender_ids.size)
yield assert_array_equal, \
to_ary(transactions, "TransactionId"), \
expected_trans_ids
# When k_factors are very low and the simulation time is big
# the number of transactions maybe shortened due to the lower
# limit cyclus::eps() for transaction amounts.
# Expect not to have shortened transactions, so for two facilities,
# there must be (2 * duration) number of transactions.
exp = 2 * duration
obs = sender_ids.size
yield assert_equal, exp, obs, "number of transactions, {} != {}".format(exp, obs)
# Track transacted resources
quantities = to_ary(resources, "Quantity")
# Almost equal cases due to floating point k_factors
init_capacity_a = quantities[0]
init_capacity_b = quantities[1]
j = 0
for p in pattern_a:
yield assert_almost_equal, quantities[p], \
init_capacity_a * k_factor_a ** j
j += 1
j = 0
for p in pattern_b:
yield assert_almost_equal, quantities[p], \
init_capacity_b * k_factor_b ** j
j += 1
clean_outs()
os.remove(sim_input)
def test_source_to_sink():
"""Tests linear growth of sink inventory by checking if the transactions
were of equal quantities and only between sink and source facilities.
"""
clean_outs()
# Cyclus simulation input for Source and Sink
sim_inputs = ["./input/source_to_sink.xml"]
for sim_input in sim_inputs:
holdsrtn = [1] # needed because nose does not send() to test generator
outfile = which_outfile()
cmd = ["cyclus", "-o", outfile, "--input-file", sim_input]
yield check_cmd, cmd, '.', holdsrtn
rtn = holdsrtn[0]
if rtn != 0:
return # don't execute further commands
# Tables of interest
paths = ["/AgentEntry", "/Resources", "/Transactions", "/Info"]
# Check if these tables exist
yield assert_true, tables_exist(outfile, paths)
if not tables_exist(outfile, paths):
outfile.close()
clean_outs()
return # don't execute further commands
# Get specific tables and columns
if outfile == h5out:
output = tables.open_file(h5out, mode="r")
agent_entry = output.get_node("/AgentEntry")[:]
info = output.get_node("/Info")[:]
resources = output.get_node("/Resources")[:]
transactions = output.get_node("/Transactions")[:]
output.close()
else:
conn = sqlite3.connect(outfile)
conn.row_factory = sqlite3.Row
cur = conn.cursor()
exc = cur.execute
agent_entry = exc('SELECT * FROM AgentEntry').fetchall()
info = exc('SELECT * FROM Info').fetchall()
resources = exc('SELECT * FROM Resources').fetchall()
transactions = exc('SELECT * FROM Transactions').fetchall()
conn.close()
# Find agent ids of source and sink facilities
agent_ids = to_ary(agent_entry, "AgentId")
spec = to_ary(agent_entry, "Spec")
source_id = find_ids(":agents:Source", spec, agent_ids)
sink_id = find_ids(":agents:Sink", spec, agent_ids)
# Test for only one source and one sink are deployed in the simulation
yield assert_equal, len(source_id), 1
yield assert_equal, len(sink_id), 1
# Check if transactions are only between source and sink
sender_ids = to_ary(transactions, "SenderId")
receiver_ids = to_ary(transactions, "ReceiverId")
expected_sender_array = np.empty(sender_ids.size)
expected_sender_array.fill(source_id[0])
expected_receiver_array = np.empty(receiver_ids.size)
expected_receiver_array.fill(sink_id[0])
yield assert_array_equal, sender_ids, expected_sender_array
yield assert_array_equal, receiver_ids, expected_receiver_array
# Transaction ids must be equal range from 1 to the number of rows
expected_trans_ids = np.arange(0, sender_ids.size, 1)
yield assert_array_equal, \
to_ary(transactions, "TransactionId"),\
expected_trans_ids
# Track transacted resources
resource_ids = to_ary(resources, "ResourceId")
quantities = to_ary(resources, "Quantity")
expected_quantities = np.empty(resource_ids.size)
# Expect that every transaction quantity is the same amount
expected_quantities.fill(quantities[0])
yield assert_array_equal, quantities, expected_quantities
clean_outs()
def test_minimal_cycle():
"""Tests simulations with two facilities with several conversion factors.
The commodities of the facilities are different. Facility A offers a
commodity A and requests commodity B; whereas, Facility B offers a
commodity B and requests commodity A. In addition, it is also assumed that
the first requests and offers are the same quantities for respective
receivers and senders.
The amount of the transactions follow a power law.
Amount = InitialAmount * ConversionFactor ^ Time
This equation is used to test each transaction amount.
"""
# A reference simulation input for minimal cycle with different commodities
ref_input = "./input/minimal_cycle.xml"
# Conversion factors for the simulations
k_factors = [0.95, 1, 2]
for k_factor_a in k_factors:
for k_factor_b in k_factors:
clean_outs()
sim_input = change_minimal_input(ref_input, k_factor_a, k_factor_b)
holdsrtn = [1] # needed b/c nose does not send() to test generator
outfile = which_outfile()
cmd = ["cyclus", "-o", outfile, "--input-file", sim_input]
yield check_cmd, cmd, '.', holdsrtn
rtn = holdsrtn[0]
if rtn != 0:
return # don't execute further commands
# tables of interest
paths = ["/AgentEntry", "/Resources", "/Transactions", "/Info"]
# Check if these tables exist
yield assert_true, tables_exist(outfile, paths)
if not tables_exist(outfile, paths):
outfile.close()
clean_outs()
return # don't execute further commands
# Get specific tables and columns
if outfile == h5out:
output = tables.open_file(h5out, mode="r")
agent_entry = output.root.AgentEntry[:]
info = output.get_node("/Info")[:]
resources = output.get_node("/Resources")[:]
transactions = output.get_node("/Transactions")[:]
output.close()
else:
conn = sqlite3.connect(sqliteout)
conn.row_factory = sqlite3.Row
cur = conn.cursor()
exc = cur.execute
agent_entry = exc('SELECT * FROM AgentEntry').fetchall()
info = exc('SELECT * FROM Info').fetchall()
resources = exc('SELECT * FROM Resources').fetchall()
transactions = exc('SELECT * FROM Transactions').fetchall()
conn.close()
# Find agent ids
agent_ids = to_ary(agent_entry, "AgentId")
spec = to_ary(agent_entry, "Spec")
agent_protos = to_ary(agent_entry, "Prototype")
duration = to_ary(info, "Duration")[0]
facility_id = find_ids(":agents:KFacility", spec, agent_ids)
# Test for two KFacility
yield assert_equal, len(facility_id), 2
# Test for one Facility A and Facility B
facility_a = find_ids("FacilityA", agent_protos, agent_ids)
facility_b = find_ids("FacilityB", agent_protos, agent_ids)
yield assert_equal, len(facility_a), 1
yield assert_equal, len(facility_b), 1
# Test if both facilities are KFracilities
# Assume FacilityA is deployed first according to the schema
yield assert_equal, facility_a[0], facility_id[0]
yield assert_equal, facility_b[0], facility_id[1]
# Test if the transactions are strictly between Facility A and
# Facility B. There are no Facility A to Facility A or vice versa.
sender_ids = to_ary(transactions, "SenderId")
receiver_ids = to_ary(transactions, "ReceiverId")
pattern_one = np.arange(0, sender_ids.size, 2)
pattern_two = np.arange(1, sender_ids.size, 2)
pattern_a = pattern_one # expected pattern for Facility A as sender
pattern_b = pattern_two # expected pattern for Facility B as sender
# Re-assign in case the expected patterns are incorrect
if sender_ids[0] == facility_b[0]:
pattern_a = pattern_two
pattern_b = pattern_one
yield assert_array_equal, \
np.where(sender_ids == facility_a[0])[0], \
pattern_a
yield assert_array_equal, \
np.where(receiver_ids == facility_a[0])[0], \
pattern_b # reverse pattern when acted as a receiver
yield assert_array_equal, \
np.where(sender_ids == facility_b[0])[0], \
pattern_b
yield assert_array_equal, \
np.where(receiver_ids == facility_b[0])[0], \
pattern_a # reverse pattern when acted as a receiver
# Transaction ids must be equal range from 1 to the number of rows
expected_trans_ids = np.arange(sender_ids.size)
yield assert_array_equal, \
to_ary(transactions, "TransactionId"), \
expected_trans_ids
# When k_factors are very low and the simulation time is big
# the number of transactions maybe shortened due to the lower
# limit cyclus::eps() for transaction amounts.
# Expect not to have shortened transactions, so for two facilities,
# there must be (2 * duration) number of transactions.
yield assert_equal, sender_ids.size, 2 * duration
# Track transacted resources
quantities = to_ary(resources, "Quantity")
# Almost equal cases due to floating point k_factors
init_capacity_a = quantities[0]
init_capacity_b = quantities[1]
j = 0
for p in pattern_a:
yield assert_almost_equal, quantities[p], \
init_capacity_a * k_factor_a ** j
j += 1
j = 0
for p in pattern_b:
yield assert_almost_equal, quantities[p], \
init_capacity_b * k_factor_b ** j
j += 1
clean_outs()
os.remove(sim_input)
def test_inventories():
"""Testing for inventory and compact inventory table creation.
"""
clean_outs()
# Cyclus simulation input with inventory table
sim_inputs = [
os.path.join(INPUT, "inventory.xml"),
os.path.join(INPUT, "inventory_compact.xml")
]
paths = [["/ExplicitInventory"], ["/ExplicitInventoryCompact"]]
for sim, path in zip(sim_inputs, paths):
holdsrtn = [1] # needed because nose does not send() to test generator
outfile = sqliteout
cmd = ["cyclus", "-o", outfile, "--input-file", sim]
yield check_cmd, cmd, '.', holdsrtn
rtn = holdsrtn[0]
if rtn != 0:
return # don't execute further commands
# Check if inventory tables exist
assert_true, tables_exist(outfile, path)
if not tables_exist(outfile, path):
print(
'Inventory table does not exist despite true entry in control section of input file.'
)
outfile.close()
clean_outs()
return # don't execute further commands
# Get specific table
table = path[0]
if outfile == h5out:
output = tables.open_file(h5out, mode="r")
inventory = output.get_node(table)[:]
compositions = output.get_node("/Compositions")[:]
output.close()
else:
conn = sqlite3.connect(outfile)
conn.row_factory = sqlite3.Row
cur = conn.cursor()
exc = cur.execute
sqltable = table.replace('/', '')
sql = "SELECT * FROM %s" % sqltable
inventory = exc(sql).fetchall()
compositions = exc('SELECT * FROM Compositions').fetchall()
conn.close()
# Test that quantity increases as expected with k=1
if "Compact" not in table:
time = to_ary(inventory, "Time")
quantity = to_ary(inventory, "Quantity")
nucid = to_ary(inventory, "NucId")
massfrac = to_ary(compositions, "MassFrac")
nucid_comp = to_ary(compositions, "NucId")
expected_quantity = []
expected_nucid = []
repeat = 100
for t in time:
if t != repeat:
expected_quantity.append((t + 1) * massfrac[1])
expected_nucid.append(nucid_comp[1])
else:
expected_quantity.append((t + 1) * massfrac[0])
expected_nucid.append(nucid_comp[0])
t = repeat
assert_array_equal, quantity, expected_quantity
assert_array_equal, nucid, expected_nucid
return # don't execute further commands
else:
# composition will be the same in compact inventory
return # don't execute further commands
clean_outs()
def test_inventories():
"""Testing for inventory and compact inventory table creation.
"""
clean_outs()
# Cyclus simulation input with inventory table
sim_inputs = ["./input/inventory.xml", "./input/inventory_compact.xml"]
paths = [["/ExplicitInventory"], ["/ExplicitInventoryCompact"]]
for sim, path in zip(sim_inputs, paths):
holdsrtn = [1] # needed because nose does not send() to test generator
outfile = sqliteout
cmd = ["cyclus", "-o", outfile, "--input-file", sim]
yield check_cmd, cmd, '.', holdsrtn
rtn = holdsrtn[0]
if rtn != 0:
return # don't execute further commands
# Check if inventory tables exist
assert_true, tables_exist(outfile, path)
if not tables_exist(outfile, path):
print('Inventory table does not exist despite true entry in control section of input file.')
outfile.close()
clean_outs()
return # don't execute further commands
# Get specific table
table = path[0]
if outfile == h5out:
output = tables.open_file(h5out, mode = "r")
inventory = output.get_node(table)[:]
compositions = output.get_node("/Compositions")[:]
output.close()
else:
conn = sqlite3.connect(outfile)
conn.row_factory = sqlite3.Row
cur = conn.cursor()
exc = cur.execute
sqltable = table.replace('/', '')
sql = "SELECT * FROM %s" % sqltable
inventory = exc(sql).fetchall()
compositions = exc('SELECT * FROM Compositions').fetchall()
conn.close()
# Test that quantity increases as expected with k=1
if "Compact" not in table:
time = to_ary(inventory, "Time")
quantity = to_ary(inventory, "Quantity")
nucid = to_ary(inventory, "NucId")
massfrac = to_ary(compositions, "MassFrac")
nucid_comp = to_ary(compositions, "NucId")
expected_quantity = []
expected_nucid = []
repeat = 100
for t in time:
if t != repeat:
expected_quantity.append((t+1)*massfrac[1])
expected_nucid.append(nucid_comp[1])
else:
expected_quantity.append((t+1)*massfrac[0])
expected_nucid.append(nucid_comp[0])
t = repeat
assert_array_equal, quantity, expected_quantity
assert_array_equal, nucid, expected_nucid
return # don't execute further commands
else:
# composition will be the same in compact inventory
return # don't execute further commands
clean_outs()
def test_source_to_sink():
"""Tests simulations with one facility that has a conversion factor.
The trivial cycle simulation involves only one KFacility which provides
what it requests itself. The conversion factors for requests and bids
are kept the same so that the facility provides exactly what it requests.
The amount of the transactions follow a power law.
Amount = InitialAmount * ConversionFactor ^ Time
This equation is used to test each transaction amount.
"""
if not cyclus_has_coin():
raise SkipTest("Cyclus does not have COIN")
# A reference simulation input for the trivial cycle simulation.
ref_input = os.path.join(INPUT, "trivial_cycle.xml")
# Conversion factors for the three simulations
k_factors = [0.95, 1, 2]
for k_factor in k_factors:
clean_outs()
sim_input = create_sim_input(ref_input, k_factor, k_factor)
holdsrtn = [1] # needed because nose does not send() to test generator
outfile = which_outfile()
cmd = ["cyclus", "-o", outfile, "--input-file", sim_input]
yield check_cmd, cmd, '.', holdsrtn
rtn = holdsrtn[0]
if rtn != 0:
return # don't execute further commands
# tables of interest
paths = ["/AgentEntry", "/Resources", "/Transactions",
"/Info"]
# Check if these tables exist
yield assert_true, tables_exist(outfile, paths)
if not tables_exist(outfile, paths):
outfile.close()
clean_outs()
return # don't execute further commands
# Get specific tables and columns
if outfile == h5out:
output = tables.open_file(h5out, mode = "r")
agent_entry = output.get_node("/AgentEntry")[:]
info = output.get_node("/Info")[:]
resources = output.get_node("/Resources")[:]
transactions = output.get_node("/Transactions")[:]
output.close()
else:
conn = sqlite3.connect(sqliteout)
conn.row_factory = sqlite3.Row
cur = conn.cursor()
exc = cur.execute
agent_entry = exc('SELECT * FROM AgentEntry').fetchall()
info = exc('SELECT * FROM Info').fetchall()
resources = exc('SELECT * FROM Resources').fetchall()
transactions = exc('SELECT * FROM Transactions').fetchall()
conn.close()
# Find agent ids
agent_ids = to_ary(agent_entry, "AgentId")
spec = to_ary(agent_entry, "Spec")
facility_id = find_ids(":agents:KFacility", spec, agent_ids)
# Test for only one KFacility
yield assert_equal, len(facility_id), 1
sender_ids = to_ary(transactions, "SenderId")
receiver_ids = to_ary(transactions, "ReceiverId")
expected_sender_array = np.empty(sender_ids.size)
expected_sender_array.fill(facility_id[0])
expected_receiver_array = np.empty(receiver_ids.size)
expected_receiver_array.fill(facility_id[0])
yield assert_array_equal, sender_ids, expected_sender_array
yield assert_array_equal, receiver_ids, expected_receiver_array
# Transaction ids must be equal range from 1 to the number of rows
expected_trans_ids = np.arange(0, sender_ids.size, 1)
yield assert_array_equal, \
to_ary(transactions, "TransactionId"), \
expected_trans_ids
# Track transacted resources
resource_ids = to_ary(resources, "ResourceId")
quantities = to_ary(resources, "Quantity")
# Almost equal cases due to floating point k_factors
i = 0
initial_capacity = quantities[0]
for q in quantities:
yield assert_almost_equal, q, initial_capacity * k_factor ** i
i += 1
clean_outs()
os.remove(sim_input)
def check_source_to_sink(fname, source_spec, sink_spec):
"""Tests linear growth of sink inventory by checking if the transactions
were of equal quantities and only between sink and source facilities.
"""
clean_outs()
if not cyclus_has_coin():
raise SkipTest("Cyclus does not have COIN")
# Cyclus simulation input for Source and Sink
sim_inputs = [os.path.join(INPUT, fname)]
for sim_input in sim_inputs:
holdsrtn = [1] # needed because nose does not send() to test generator
outfile = which_outfile()
cmd = ["cyclus", "-o", outfile, "--input-file", sim_input]
yield check_cmd, cmd, '.', holdsrtn
rtn = holdsrtn[0]
if rtn != 0:
return # don't execute further commands
# Tables of interest
paths = ["/AgentEntry", "/Resources", "/Transactions", "/Info"]
# Check if these tables exist
yield assert_true, tables_exist(outfile, paths)
if not tables_exist(outfile, paths):
clean_outs()
return # don't execute further commands
# Get specific tables and columns
if outfile == h5out:
output = tables.open_file(h5out, mode = "r")
agent_entry = output.get_node("/AgentEntry")[:]
info = output.get_node("/Info")[:]
resources = output.get_node("/Resources")[:]
transactions = output.get_node("/Transactions")[:]
output.close()
else:
conn = sqlite3.connect(outfile)
conn.row_factory = sqlite3.Row
cur = conn.cursor()
exc = cur.execute
agent_entry = exc('SELECT * FROM AgentEntry').fetchall()
info = exc('SELECT * FROM Info').fetchall()
resources = exc('SELECT * FROM Resources').fetchall()
transactions = exc('SELECT * FROM Transactions').fetchall()
conn.close()
# Find agent ids of source and sink facilities
agent_ids = to_ary(agent_entry, "AgentId")
spec = to_ary(agent_entry, "Spec")
source_id = find_ids(source_spec, spec, agent_ids)
sink_id = find_ids(sink_spec, spec, agent_ids)
# Test for only one source and one sink are deployed in the simulation
yield assert_equal, len(source_id), 1
yield assert_equal, len(sink_id), 1
# Check if transactions are only between source and sink
sender_ids = to_ary(transactions, "SenderId")
receiver_ids = to_ary(transactions, "ReceiverId")
expected_sender_array = np.empty(sender_ids.size)
expected_sender_array.fill(source_id[0])
expected_receiver_array = np.empty(receiver_ids.size)
expected_receiver_array.fill(sink_id[0])
yield assert_array_equal, sender_ids, expected_sender_array
yield assert_array_equal, receiver_ids, expected_receiver_array
# Transaction ids must be equal range from 1 to the number of rows
expected_trans_ids = np.arange(0, sender_ids.size, 1)
yield assert_array_equal, \
to_ary(transactions, "TransactionId"),\
expected_trans_ids
# Track transacted resources
resource_ids = to_ary(resources, "ResourceId")
quantities = to_ary(resources, "Quantity")
expected_quantities = np.empty(resource_ids.size)
# Expect that every transaction quantity is the same amount
expected_quantities.fill(quantities[0])
yield assert_array_equal, quantities, expected_quantities
clean_outs()