def test_number_of_vars(self):
for t in self.testtimesteps:
DCs._solve_DC_flows_(self.network_constr, self.N, t,\
self.mode, self.sum_of_squared_flows_constr,
self.mean_loads)
expected_number = 3*self.Nnodes
self.assertTrue(len(self.network_constr.getVars())==expected_number)
def setUp(self):
self.N = europe_plus_Nodes()
self.mean_loads = [n.mean for n in self.N]
self.mode = 'linear'
self.network_constr, self.sum_of_squared_flows_constr \
= DCs.build_DC_network(self.N, b=1e3)
self.network_copper, self.sum_of_squared_flows_copper\
= DCs.build_DC_network(self.N, copper=True)
self.Nlinks = len(au.AtoKh(self.N)[-1])
self.Nnodes = len(self.N)
self.testtimesteps = [52094, 52095, 52096, \
0, 7, 50, 100, 1434, 32049, 198391]
def test_only_bal_or_curt(self):
""" This test makes sure that in the unconstrained case,
all the total balancing or the total curtailment is 0
"""
for t in self.testtimesteps:
results = DCs._solve_DC_flows_(self.network_copper, self.N, t, \
self.mode, self.sum_of_squared_flows_copper,\
self.mean_loads)
bal = results[1::3]
curt = results[2::3]
self.assertTrue(sum(bal)<=1e-5 or sum(curt)<=1e-5)
def setUp(self):
self.N = europe_plus_Nodes()
self.model = DCs.build_DC_network(self.N)[0]
self.Nlinks = len(au.AtoKh(self.N)[-1])
self.Nnodes = len(self.N)
