def analyze_jsonout(space,
minAttack,
maxAttack,
interval,
fname,
iterations=200):
print("Beginning system size analysis...")
results = dict()
print(' running 30 bus test case... ', end='', flush=True)
c30 = pp.case30()
n_b = len(c30['branch'])
results['30bus'] = equal_freespace(c30,
space,
int(n_b * minAttack),
int(n_b * maxAttack),
interval,
iterations=iterations)
print('finished!')
print(' running 57 bus test case... ', end='', flush=True)
c57 = pp.case57()
n_b = len(c57['branch'])
results['57bus'] = equal_freespace(c57,
space,
int(n_b * minAttack),
int(n_b * maxAttack),
interval,
iterations=iterations)
print('finished!')
print(' running 118 bus test case... ', end='', flush=True)
c118 = pp.case118()
n_b = len(c118['branch'])
results['118bus'] = equal_freespace(c118,
space,
int(n_b * minAttack),
int(n_b * maxAttack),
interval,
iterations=iterations)
print('finished!')
print(' running 300 bus test case... ', end='', flush=True)
c300 = pp.case300()
n_b = len(c300['branch'])
results['300bus'] = equal_freespace(c300,
space,
int(n_b * minAttack),
int(n_b * maxAttack),
interval,
iterations=iterations)
print('finished!')
with open(fname, 'w') as outfile:
json.dump(results, outfile)
print("Full system size analysis complete!")
def test_buses_to_ppc_subgrid(iterations=2000):
# out of date
for i in range(iterations):
grid1 = pp.case118()
buses_array_idx = sorted(
random.sample(range(118), random.randint(1, 118)))
buses = grid1['bus'][buses_array_idx]
bus_ids = buses[:, idx_bus.BUS_I].astype(int)
grid1['bus'] = buses
del_gens = []
for i, gen in enumerate(grid1['gen']):
if int(gen[idx_gen.GEN_BUS]) not in bus_ids:
del_gens.append(i)
grid1['gen'] = np.delete(grid1['gen'], del_gens, 0)
del_branches = []
for i, branch in enumerate(grid1['branch']):
if int(branch[idx_brch.F_BUS]) not in bus_ids or int(
branch[idx_brch.T_BUS]) not in bus_ids:
del_branches.append(i)
grid1['branch'] = np.delete(grid1['branch'], del_branches, 0)
grid2 = pp.case118()
grid2 = buses_to_ppc_subgrid(set(bus_ids), grid2)
assert (np.array_equal(grid1['bus'][:, idx_bus.BUS_I],
grid2['bus'][:, idx_bus.BUS_I]))
try:
assert (np.array_equal(grid1['gen'][:, idx_gen.GEN_BUS],
grid2['gen'][:, idx_gen.GEN_BUS]))
except:
# no generators in the component
assert (len(grid1['gen']) == 0)
assert (grid2['gen'][0, idx_gen.GEN_BUS]
not in pp.case118()['gen'][:, idx_gen.GEN_BUS])
try:
assert (np.array_equal(grid1['branch'][:, idx_brch.F_BUS],
grid2['branch'][:, idx_brch.F_BUS]))
assert (np.array_equal(grid1['branch'][:, idx_brch.T_BUS],
grid2['branch'][:, idx_brch.T_BUS]))
except:
assert (len(grid1['branch']) == 0 and len(grid2['branch']) == 0)
def test_ppc_to_nx(iterations=2000):
for i in range(iterations):
grid = pp.case118()
all_branches = grid['branch'][:, 0:2]
branches = sorted(random.sample(range(1, 187), random.randint(0, 186)))
del_branches = sorted(list(set(range(1, 187)) - set(branches)))
branches = [1, 2, 3]
del_branches = list(range(4, 187))
grid['branch'][np.array(del_branches, dtype=int) - 1,
idx_brch.BR_X] = np.inf
graph = nx.Graph()
graph.add_nodes_from(range(1, 119))
graph.add_edges_from(all_branches[np.array(branches) - 1].astype(int))
assert (nx.could_be_isomorphic(ppc_to_nx(grid), graph))
###################### Entereing Execution Mode ##########################################################
status = h.helicsFederateEnterInitializingMode(fed)
status = h.helicsFederateEnterExecutingMode(fed)
#Pypower Processing (inputs)
hours = 24
total_inteval = int(60 * 60 * hours)
grantedtime = -1
pf_interval = 5 * 60 # in seconds (minimim_resolution)
acopf_interval = 15 * 60 # in seconds (minimim_resolution)
random.seed(0)
peak_demand = []
ppc = []
case_format = case118()
peak_demand = case_format['bus'][:, 2][:].copy()
ppc = case_format.copy()
###################### creating fixed load profiles for each bus based on PF interval #############################
# load profiles (inputs)
profiles = spio.loadmat('normalized_load_data_1min_ORIGINAL.mat',
squeeze_me=True,
struct_as_record=False)
load_profiles_1min = profiles['my_data']
resolution_load = numpy.floor(total_inteval / pf_interval)
points = numpy.floor(
numpy.linspace(0,
len(load_profiles_1min) - 1, resolution_load + 1))
time_pf = numpy.linspace(0, total_inteval, resolution_load + 1)
def analyze_csvout(factor,
minAttack,
maxAttack,
interval,
fname,
iterations=200):
print('Beginning system size analysis...')
with open(fname, 'w', newline='') as csvfile:
writer = csv.writer(csvfile)
#space = lambda case : avg_line_flow(case) * factor
space = lambda case: 100
print(' running 30 bus test case... ')
writer.writerow(['IEEE 30 bus test case'])
#c30 = equalize_generation(pp.case30())
c30 = pp.case30()
out30 = equal_freespace(c30,
space(c30),
0,
len(c30['branch']),
interval,
iterations=iterations,
printProgress=True)
print(' finished!')
for key in sorted(out30['average'].keys()):
writer.writerow([key, out30[key]])
print(' running 57 bus test case... ')
writer.writerow([])
writer.writerow(['IEEE 57 bus test case'])
#c57 = equalize_generation(pp.case57())
c57 = pp.case57()
out57 = equal_freespace(c57,
space(c57),
0,
len(c57['branch']),
interval,
iterations=iterations,
printProgress=True)
print(' finished!')
for key in sorted(out57['average'].keys()):
writer.writerow([key, out57[key]])
print(' running 118 bus test case... ')
writer.writerow([])
writer.writerow(['IEEE 118 bus test case'])
#c118 = equalize_generation(pp.case118())
c118 = pp.case118()
out118 = equal_freespace(c118,
space(c118),
0,
len(c118['branch']),
interval,
iterations=iterations,
printProgress=True)
print(' finished!')
for key in sorted(out118.keys()):
writer.writerow([key, out118['average'][key]])
print(' running 300 bus test case... ')
writer.writerow([])
writer.writerow(['IEEE 300 bus test case'])
#c300 = equalize_generation(pp.case300())
c300 = pp.case300()
out300 = equal_freespace(c300,
space(c300),
0,
len(c300['branch']),
interval,
iterations=iterations,
printProgress=True)
print(' finished!')
for key in sorted(out300.keys()):
writer.writerow([key, out300['average'][key]])
print('System size analysis complete!')
