def thermal_networks_in_individual(locator, weather_features, DCN_barcode,
DHN_barcode, district_heating_network,
district_cooling_network,
column_names_buildings_heating,
column_names_buildings_cooling):
# local variables
ground_temp = weather_features.ground_temp
# EVALUATE CASES TO CREATE A NETWORK OR NOT
if district_heating_network: # network exists
if not os.path.exists(
locator.get_optimization_network_results_summary(
'DH', DHN_barcode)):
total_demand = createTotalNtwCsv(DHN_barcode, locator,
column_names_buildings_heating)
num_total_buildings = len(column_names_buildings_heating)
buildings_in_heating_network = total_demand.Name.values
# Run the substation and distribution routines
substation.substation_main_heating(locator,
total_demand,
buildings_in_heating_network,
DHN_barcode=DHN_barcode)
DH_network_summary_individual = summarize_network.network_main(
locator, buildings_in_heating_network, ground_temp,
num_total_buildings, "DH", DHN_barcode)
else:
DH_network_summary_individual = pd.read_csv(
locator.get_optimization_network_results_summary(
'DH', DHN_barcode))
else:
DH_network_summary_individual = None
if district_cooling_network: # network exists
if not os.path.exists(
locator.get_optimization_network_results_summary(
'DC', DCN_barcode)):
total_demand = createTotalNtwCsv(DCN_barcode, locator,
column_names_buildings_cooling)
num_total_buildings = len(column_names_buildings_cooling)
buildings_in_cooling_network = total_demand.Name.values
# Run the substation and distribution routines
substation.substation_main_cooling(locator,
total_demand,
buildings_in_cooling_network,
DCN_barcode=DCN_barcode)
DC_network_summary_individual = summarize_network.network_main(
locator, buildings_in_cooling_network, ground_temp,
num_total_buildings, 'DC', DCN_barcode)
else:
DC_network_summary_individual = pd.read_csv(
locator.get_optimization_network_results_summary(
'DC', DCN_barcode))
else:
DC_network_summary_individual = None
return DH_network_summary_individual, DC_network_summary_individual
def preproccessing(locator, total_demand, buildings_heating_demand, buildings_cooling_demand,
weather_file, district_heating_network, district_cooling_network):
"""
This function aims at preprocessing all data for the optimization.
:param locator: path to locator function
:param total_demand: dataframe with total demand and names of all building in the area
:param building_names: dataframe with names of all buildings in the area
:param weather_file: path to wather file
:type locator: class
:type total_demand: list
:type building_names: list
:type weather_file: string
:return:
- extraCosts: extra pareto optimal costs due to electricity and process heat (
these are treated separately and not considered inside the optimization)
- extraCO2: extra pareto optimal emissions due to electricity and process heat (
these are treated separately and not considered inside the optimization)
- extraPrim: extra pareto optimal primary energy due to electricity and process heat (
these are treated separately and not considered inside the optimization)
- solar_features: extraction of solar features form the results of the solar technologies
calculation.
:rtype: float, float, float, float
"""
# local variables
network_depth_m = Z0
print("PRE-PROCESSING 1/2: weather properties")
T_ambient = epwreader.epw_reader(weather_file)['drybulb_C']
ground_temp = calc_ground_temperature(locator, T_ambient, depth_m=network_depth_m)
print("PRE-PROCESSING 2/2: thermal networks") # at first estimate a distribution with all the buildings connected
if district_heating_network:
num_tot_buildings = len(buildings_heating_demand)
DHN_barcode = ''.join(str(1) for e in range(num_tot_buildings))
substation.substation_main_heating(locator, total_demand, buildings_heating_demand,
DHN_barcode=DHN_barcode)
summarize_network.network_main(locator, buildings_heating_demand, ground_temp, num_tot_buildings, "DH",
DHN_barcode)
# "_all" key for all buildings
if district_cooling_network:
num_tot_buildings = len(buildings_cooling_demand)
DCN_barcode = ''.join(str(1) for e in range(num_tot_buildings))
substation.substation_main_cooling(locator, total_demand, buildings_cooling_demand, DCN_barcode=DCN_barcode)
summarize_network.network_main(locator, buildings_cooling_demand,
ground_temp, num_tot_buildings, "DC",
DCN_barcode) # "_all" key for all buildings
network_features = NetworkOptimizationFeatures(district_heating_network, district_cooling_network, locator)
return network_features
def disconnected_buildings_heating_main(locator, total_demand, building_names,
config, prices, lca):
"""
Computes the parameters for the operation of disconnected buildings
output results in csv files.
There is no optimization at this point. The different technologies are calculated and compared 1 to 1 to
each technology. it is a classical combinatorial problem.
:param locator: locator class
:param building_names: list with names of buildings
:type locator: class
:type building_names: list
:return: results of operation of buildings located in locator.get_optimization_decentralized_folder
:rtype: Nonetype
"""
t0 = time.perf_counter()
prop_geometry = Gdf.from_file(locator.get_zone_geometry())
geometry = pd.DataFrame({
'Name': prop_geometry.Name,
'Area': prop_geometry.area
})
geothermal_potential_data = dbf.dbf_to_dataframe(
locator.get_building_supply())
geothermal_potential_data = pd.merge(geothermal_potential_data,
geometry,
on='Name')
geothermal_potential_data['Area_geo'] = geothermal_potential_data['Area']
weather_path = locator.get_weather_file()
weather_data = epwreader.epw_reader(weather_path)[[
'year', 'drybulb_C', 'wetbulb_C', 'relhum_percent', 'windspd_ms',
'skytemp_C'
]]
T_ground_K = calc_ground_temperature(locator,
weather_data['drybulb_C'],
depth_m=10)
supply_systems = SupplySystemsDatabase(locator)
# This will calculate the substation state if all buildings where connected(this is how we study this)
substation.substation_main_heating(locator, total_demand, building_names)
n = len(building_names)
cea.utilities.parallel.vectorize(disconnected_heating_for_building,
config.get_number_of_processes())(
building_names,
repeat(supply_systems, n),
repeat(T_ground_K, n),
repeat(geothermal_potential_data, n),
repeat(lca, n), repeat(locator, n),
repeat(prices, n))
print(time.perf_counter() - t0,
"seconds process time for the Disconnected Building Routine \n")
def thermal_network_simplified(locator, config, network_name):
# local variables
network_type = config.thermal_network.network_type
min_head_substation_kPa = config.thermal_network.min_head_substation
thermal_transfer_unit_design_head_m = min_head_substation_kPa * 1000 / M_WATER_TO_PA
coefficient_friction_hazen_williams = config.thermal_network.hw_friction_coefficient
velocity_ms = config.thermal_network.peak_load_velocity
fraction_equivalent_length = config.thermal_network.equivalent_length_factor
peak_load_percentage = config.thermal_network.peak_load_percentage
# GET INFORMATION ABOUT THE NETWORK
edge_df, node_df = get_thermal_network_from_shapefile(locator, network_type, network_name)
# GET INFORMATION ABOUT THE DEMAND OF BUILDINGS AND CONNECT TO THE NODE INFO
# calculate substations for all buildings
# local variables
total_demand = pd.read_csv(locator.get_total_demand())
volume_flow_m3pers_building = pd.DataFrame()
T_sup_K_building = pd.DataFrame()
T_re_K_building = pd.DataFrame()
Q_demand_kWh_building = pd.DataFrame()
if network_type == "DH":
buildings_name_with_heating = get_building_names_with_load(total_demand, load_name='QH_sys_MWhyr')
buildings_name_with_space_heating = get_building_names_with_load(total_demand, load_name='Qhs_sys_MWhyr')
DHN_barcode = "0"
if (buildings_name_with_heating != [] and buildings_name_with_space_heating != []):
building_names = [building for building in buildings_name_with_heating if building in
node_df.Building.values]
substation.substation_main_heating(locator, total_demand, building_names, DHN_barcode=DHN_barcode)
else:
raise Exception('problem here')
for building_name in building_names:
substation_results = pd.read_csv(
locator.get_optimization_substations_results_file(building_name, "DH", DHN_barcode))
volume_flow_m3pers_building[building_name] = substation_results["mdot_DH_result_kgpers"] / P_WATER_KGPERM3
T_sup_K_building[building_name] = substation_results["T_supply_DH_result_K"]
T_re_K_building[building_name] = np.where(substation_results["T_return_DH_result_K"] >273.15,
substation_results["T_return_DH_result_K"], np.nan)
Q_demand_kWh_building[building_name] = (substation_results["Q_heating_W"] + substation_results[
"Q_dhw_W"]) / 1000
if network_type == "DC":
buildings_name_with_cooling = get_building_names_with_load(total_demand, load_name='QC_sys_MWhyr')
DCN_barcode = "0"
if buildings_name_with_cooling != []:
building_names = [building for building in buildings_name_with_cooling if building in
node_df.Building.values]
substation.substation_main_cooling(locator, total_demand, building_names, DCN_barcode=DCN_barcode)
else:
raise Exception('problem here')
for building_name in building_names:
substation_results = pd.read_csv(
locator.get_optimization_substations_results_file(building_name, "DC", DCN_barcode))
volume_flow_m3pers_building[building_name] = substation_results[
"mdot_space_cooling_data_center_and_refrigeration_result_kgpers"] / P_WATER_KGPERM3
T_sup_K_building[building_name] = substation_results[
"T_supply_DC_space_cooling_data_center_and_refrigeration_result_K"]
T_re_K_building[building_name] = substation_results[
"T_return_DC_space_cooling_data_center_and_refrigeration_result_K"]
Q_demand_kWh_building[building_name] = substation_results[
"Q_space_cooling_data_center_and_refrigeration_W"] / 1000
import cea.utilities
with cea.utilities.pushd(locator.get_thermal_network_folder()):
# Create a water network model
wn = wntr.network.WaterNetworkModel()
# add loads
building_base_demand_m3s = {}
for building in volume_flow_m3pers_building.keys():
building_base_demand_m3s[building] = volume_flow_m3pers_building[building].max()
pattern_demand = (volume_flow_m3pers_building[building].values / building_base_demand_m3s[building]).tolist()
wn.add_pattern(building, pattern_demand)
# add nodes
consumer_nodes = []
building_nodes_pairs = {}
building_nodes_pairs_inversed = {}
for node in node_df.iterrows():
if node[1]["Type"] == "CONSUMER":
demand_pattern = node[1]['Building']
base_demand_m3s = building_base_demand_m3s[demand_pattern]
consumer_nodes.append(node[0])
building_nodes_pairs[node[0]] = demand_pattern
building_nodes_pairs_inversed[demand_pattern] = node[0]
wn.add_junction(node[0],
base_demand=base_demand_m3s,
demand_pattern=demand_pattern,
elevation=thermal_transfer_unit_design_head_m,
coordinates=node[1]["coordinates"])
elif node[1]["Type"] == "PLANT":
base_head = int(thermal_transfer_unit_design_head_m*1.2)
start_node = node[0]
name_node_plant = start_node
wn.add_reservoir(start_node,
base_head=base_head,
coordinates=node[1]["coordinates"])
else:
wn.add_junction(node[0],
elevation=0,
coordinates=node[1]["coordinates"])
# add pipes
for edge in edge_df.iterrows():
length_m = edge[1]["length_m"]
edge_name = edge[0]
wn.add_pipe(edge_name, edge[1]["start node"],
edge[1]["end node"],
length=length_m * (1 + fraction_equivalent_length),
roughness=coefficient_friction_hazen_williams,
minor_loss=0.0,
status='OPEN')
# add options
wn.options.time.duration = 8759 * 3600 # this indicates epanet to do one year simulation
wn.options.time.hydraulic_timestep = 60 * 60
wn.options.time.pattern_timestep = 60 * 60
wn.options.solver.accuracy = 0.01
wn.options.solver.trials = 100
# 1st ITERATION GET MASS FLOWS AND CALCULATE DIAMETER
sim = wntr.sim.EpanetSimulator(wn)
results = sim.run_sim()
max_volume_flow_rates_m3s = results.link['flowrate'].abs().max()
pipe_names = max_volume_flow_rates_m3s.index.values
pipe_catalog = pd.read_excel(locator.get_database_distribution_systems(), sheet_name='THERMAL_GRID')
Pipe_DN, D_ext_m, D_int_m, D_ins_m = zip(
*[calc_max_diameter(flow, pipe_catalog, velocity_ms=velocity_ms, peak_load_percentage=peak_load_percentage) for
flow in max_volume_flow_rates_m3s])
pipe_dn = pd.Series(Pipe_DN, pipe_names)
diameter_int_m = pd.Series(D_int_m, pipe_names)
diameter_ext_m = pd.Series(D_ext_m, pipe_names)
diameter_ins_m = pd.Series(D_ins_m, pipe_names)
# 2nd ITERATION GET PRESSURE POINTS AND MASSFLOWS FOR SIZING PUMPING NEEDS - this could be for all the year
# modify diameter and run simulations
edge_df['Pipe_DN'] = pipe_dn
edge_df['D_int_m'] = D_int_m
for edge in edge_df.iterrows():
edge_name = edge[0]
pipe = wn.get_link(edge_name)
pipe.diameter = diameter_int_m[edge_name]
sim = wntr.sim.EpanetSimulator(wn)
results = sim.run_sim()
# 3rd ITERATION GET FINAL UTILIZATION OF THE GRID (SUPPLY SIDE)
# get accumulated head loss per hour
unitary_head_ftperkft = results.link['headloss'].abs()
unitary_head_mperm = unitary_head_ftperkft * FT_TO_M / (FT_TO_M * 1000)
head_loss_m = unitary_head_mperm.copy()
for column in head_loss_m.columns.values:
length_m = edge_df.loc[column]['length_m']
head_loss_m[column] = head_loss_m[column] * length_m
reservoir_head_loss_m = head_loss_m.sum(axis=1) + thermal_transfer_unit_design_head_m*1.2 # fixme: only one thermal_transfer_unit_design_head_m from one substation?
# apply this pattern to the reservoir and get results
base_head = reservoir_head_loss_m.max()
pattern_head_m = (reservoir_head_loss_m.values / base_head).tolist()
wn.add_pattern('reservoir', pattern_head_m)
reservoir = wn.get_node(name_node_plant)
reservoir.head_timeseries.base_value = int(base_head)
reservoir.head_timeseries._pattern = 'reservoir'
sim = wntr.sim.EpanetSimulator(wn)
results = sim.run_sim()
# POSTPROCESSING
# $ POSTPROCESSING - PRESSURE/HEAD LOSSES PER PIPE PER HOUR OF THE YEAR
# at the pipes
unitary_head_loss_supply_network_ftperkft = results.link['headloss'].abs()
linear_pressure_loss_Paperm = unitary_head_loss_supply_network_ftperkft * FT_WATER_TO_PA / (FT_TO_M * 1000)
head_loss_supply_network_Pa = linear_pressure_loss_Paperm.copy()
for column in head_loss_supply_network_Pa.columns.values:
length_m = edge_df.loc[column]['length_m']
head_loss_supply_network_Pa[column] = head_loss_supply_network_Pa[column] * length_m
head_loss_return_network_Pa = head_loss_supply_network_Pa.copy(0)
# at the substations
head_loss_substations_ft = results.node['head'][consumer_nodes].abs()
head_loss_substations_Pa = head_loss_substations_ft * FT_WATER_TO_PA
#POSTPORCESSING MASSFLOW RATES
# MASS_FLOW_RATE (EDGES)
flow_rate_supply_m3s = results.link['flowrate'].abs()
massflow_supply_kgs = flow_rate_supply_m3s * P_WATER_KGPERM3
# $ POSTPROCESSING - PRESSURE LOSSES ACCUMULATED PER HOUR OF THE YEAR (TIMES 2 to account for return)
accumulated_head_loss_supply_Pa = head_loss_supply_network_Pa.sum(axis=1)
accumulated_head_loss_return_Pa = head_loss_return_network_Pa.sum(axis=1)
accumulated_head_loss_substations_Pa = head_loss_substations_Pa.sum(axis=1)
accumulated_head_loss_total_Pa = accumulated_head_loss_supply_Pa + accumulated_head_loss_return_Pa + accumulated_head_loss_substations_Pa
# $ POSTPROCESSING - THERMAL LOSSES PER PIPE PER HOUR OF THE YEAR (SUPPLY)
# calculate the thermal characteristics of the grid
temperature_of_the_ground_K = calculate_ground_temperature(locator)
thermal_coeffcient_WperKm = pd.Series(
np.vectorize(calc_linear_thermal_loss_coefficient)(diameter_ext_m, diameter_int_m, diameter_ins_m), pipe_names)
average_temperature_supply_K = T_sup_K_building.mean(axis=1)
thermal_losses_supply_kWh = results.link['headloss'].copy()
thermal_losses_supply_kWh.reset_index(inplace=True, drop=True)
thermal_losses_supply_Wperm = thermal_losses_supply_kWh.copy()
for pipe in pipe_names:
length_m = edge_df.loc[pipe]['length_m']
massflow_kgs = massflow_supply_kgs[pipe]
k_WperKm_pipe = thermal_coeffcient_WperKm[pipe]
k_kWperK = k_WperKm_pipe * length_m / 1000
thermal_losses_supply_kWh[pipe] = np.vectorize(calc_thermal_loss_per_pipe)(average_temperature_supply_K.values,
massflow_kgs.values,
temperature_of_the_ground_K,
k_kWperK,
)
thermal_losses_supply_Wperm[pipe] = (thermal_losses_supply_kWh[pipe] / length_m) * 1000
# return pipes
average_temperature_return_K = T_re_K_building.mean(axis=1)
thermal_losses_return_kWh = results.link['headloss'].copy()
thermal_losses_return_kWh.reset_index(inplace=True, drop=True)
for pipe in pipe_names:
length_m = edge_df.loc[pipe]['length_m']
massflow_kgs = massflow_supply_kgs[pipe]
k_WperKm_pipe = thermal_coeffcient_WperKm[pipe]
k_kWperK = k_WperKm_pipe * length_m / 1000
thermal_losses_return_kWh[pipe] = np.vectorize(calc_thermal_loss_per_pipe)(average_temperature_return_K.values,
massflow_kgs.values,
temperature_of_the_ground_K,
k_kWperK,
)
# WRITE TO DISK
# LINEAR PRESSURE LOSSES (EDGES)
linear_pressure_loss_Paperm.to_csv(locator.get_network_linear_pressure_drop_edges(network_type, network_name),
index=False)
# MASS_FLOW_RATE (EDGES)
flow_rate_supply_m3s = results.link['flowrate'].abs()
massflow_supply_kgs = flow_rate_supply_m3s * P_WATER_KGPERM3
massflow_supply_kgs.to_csv(locator.get_thermal_network_layout_massflow_edges_file(network_type, network_name),
index=False)
# VELOCITY (EDGES)
velocity_edges_ms = results.link['velocity'].abs()
velocity_edges_ms.to_csv(locator.get_thermal_network_velocity_edges_file(network_type, network_name),
index=False)
# PRESSURE LOSSES (NODES)
pressure_at_nodes_ft = results.node['pressure'].abs()
pressure_at_nodes_Pa = pressure_at_nodes_ft * FT_TO_M * M_WATER_TO_PA
pressure_at_nodes_Pa.to_csv(locator.get_network_pressure_at_nodes(network_type, network_name), index=False)
# MASS_FLOW_RATE (NODES)
# $ POSTPROCESSING - MASSFLOWRATES PER NODE PER HOUR OF THE YEAR
flow_rate_supply_nodes_m3s = results.node['demand'].abs()
massflow_supply_nodes_kgs = flow_rate_supply_nodes_m3s * P_WATER_KGPERM3
massflow_supply_nodes_kgs.to_csv(locator.get_thermal_network_layout_massflow_nodes_file(network_type, network_name),
index=False)
# thermal demand per building (no losses in the network or substations)
Q_demand_Wh_building = Q_demand_kWh_building * 1000
Q_demand_Wh_building.to_csv(locator.get_thermal_demand_csv_file(network_type, network_name), index=False)
# pressure losses total
# $ POSTPROCESSING - PUMPING NEEDS PER HOUR OF THE YEAR (TIMES 2 to account for return)
flow_rate_substations_m3s = results.node['demand'][consumer_nodes].abs()
head_loss_supply_kWperm = (linear_pressure_loss_Paperm * (flow_rate_supply_m3s * 3600)) / (3.6E6 * PUMP_ETA)
head_loss_return_kWperm = head_loss_supply_kWperm.copy()
pressure_loss_supply_edge_kW = (head_loss_supply_network_Pa * (flow_rate_supply_m3s * 3600)) / (3.6E6 * PUMP_ETA)
head_loss_return_kW = pressure_loss_supply_edge_kW.copy()
head_loss_substations_kW = (head_loss_substations_Pa * (flow_rate_substations_m3s * 3600)) / (3.6E6 * PUMP_ETA)
accumulated_head_loss_supply_kW = pressure_loss_supply_edge_kW.sum(axis=1)
accumulated_head_loss_return_kW = head_loss_return_kW.sum(axis=1)
accumulated_head_loss_substations_kW = head_loss_substations_kW.sum(axis=1)
accumulated_head_loss_total_kW = accumulated_head_loss_supply_kW + \
accumulated_head_loss_return_kW + \
accumulated_head_loss_substations_kW
head_loss_system_Pa = pd.DataFrame({"pressure_loss_supply_Pa": accumulated_head_loss_supply_Pa,
"pressure_loss_return_Pa": accumulated_head_loss_return_Pa,
"pressure_loss_substations_Pa": accumulated_head_loss_substations_Pa,
"pressure_loss_total_Pa": accumulated_head_loss_total_Pa})
head_loss_system_Pa.to_csv(locator.get_network_total_pressure_drop_file(network_type, network_name),
index=False)
# $ POSTPROCESSING - PLANT HEAT REQUIREMENT
plant_load_kWh = thermal_losses_supply_kWh.sum(axis=1) * 2 + Q_demand_kWh_building.sum(
axis=1) - accumulated_head_loss_total_kW.values
plant_load_kWh.to_csv(locator.get_thermal_network_plant_heat_requirement_file(network_type, network_name),
header=['thermal_load_kW'], index=False)
# pressure losses per piping system
pressure_loss_supply_edge_kW.to_csv(
locator.get_thermal_network_pressure_losses_edges_file(network_type, network_name), index=False)
# pressure losses per substation
head_loss_substations_kW = head_loss_substations_kW.rename(columns=building_nodes_pairs)
head_loss_substations_kW.to_csv(locator.get_thermal_network_substation_ploss_file(network_type, network_name),
index=False)
# pumping needs losses total
pumping_energy_system_kWh = pd.DataFrame({"pressure_loss_supply_kW": accumulated_head_loss_supply_kW,
"pressure_loss_return_kW": accumulated_head_loss_return_kW,
"pressure_loss_substations_kW": accumulated_head_loss_substations_kW,
"pressure_loss_total_kW": accumulated_head_loss_total_kW})
pumping_energy_system_kWh.to_csv(
locator.get_network_energy_pumping_requirements_file(network_type, network_name), index=False)
# pumping needs losses total
temperatures_plant_C = pd.DataFrame({"temperature_supply_K": average_temperature_supply_K,
"temperature_return_K": average_temperature_return_K})
temperatures_plant_C.to_csv(locator.get_network_temperature_plant(network_type, network_name), index=False)
# thermal losses
thermal_losses_supply_kWh.to_csv(locator.get_network_thermal_loss_edges_file(network_type, network_name),
index=False)
thermal_losses_supply_Wperm.to_csv(locator.get_network_linear_thermal_loss_edges_file(network_type, network_name),
index=False)
# thermal losses total
accumulated_thermal_losses_supply_kWh = thermal_losses_supply_kWh.sum(axis=1)
accumulated_thermal_losses_return_kWh = thermal_losses_return_kWh.sum(axis=1)
accumulated_thermal_loss_total_kWh = accumulated_thermal_losses_supply_kWh + accumulated_thermal_losses_return_kWh
thermal_losses_total_kWh = pd.DataFrame({"thermal_loss_supply_kW": accumulated_thermal_losses_supply_kWh,
"thermal_loss_return_kW": accumulated_thermal_losses_return_kWh,
"thermal_loss_total_kW": accumulated_thermal_loss_total_kWh})
thermal_losses_total_kWh.to_csv(locator.get_network_total_thermal_loss_file(network_type, network_name),
index=False)
# return average temperature of supply at the substations
T_sup_K_nodes = T_sup_K_building.rename(columns=building_nodes_pairs_inversed)
average_year = T_sup_K_nodes.mean(axis=1)
for node in node_df.index.values:
T_sup_K_nodes[node] = average_year
T_sup_K_nodes.to_csv(locator.get_network_temperature_supply_nodes_file(network_type, network_name),
index=False)
# return average temperature of return at the substations
T_return_K_nodes = T_re_K_building.rename(columns=building_nodes_pairs_inversed)
average_year = T_return_K_nodes.mean(axis=1)
for node in node_df.index.values:
T_return_K_nodes[node] = average_year
T_return_K_nodes.to_csv(locator.get_network_temperature_return_nodes_file(network_type, network_name),
index=False)
# summary of edges used for the calculation
fields_edges = ['length_m', 'Pipe_DN', 'Type_mat', 'D_int_m']
edge_df[fields_edges].to_csv(locator.get_thermal_network_edge_list_file(network_type, network_name))
fields_nodes = ['Type', 'Building']
node_df[fields_nodes].to_csv(locator.get_thermal_network_node_types_csv_file(network_type, network_name))
# correct diameter of network and save to the shapefile
from cea.utilities.dbf import dataframe_to_dbf, dbf_to_dataframe
fields = ['length_m', 'Pipe_DN', 'Type_mat']
edge_df = edge_df[fields]
edge_df['name'] = edge_df.index.values
network_edges_df = dbf_to_dataframe(
locator.get_network_layout_edges_shapefile(network_type, network_name).split('.shp')[0] + '.dbf')
network_edges_df = network_edges_df.merge(edge_df, left_on='Name', right_on='name', suffixes=('_x', ''))
network_edges_df = network_edges_df.drop(['Pipe_DN_x', 'Type_mat_x', 'name', 'length_m_x'], axis=1)
dataframe_to_dbf(network_edges_df,
locator.get_network_layout_edges_shapefile(network_type, network_name).split('.shp')[0] + '.dbf')
def preproccessing(locator, total_demand, buildings_heating_demand, buildings_cooling_demand,
weather_file, district_heating_network, district_cooling_network):
"""
This function aims at preprocessing all data for the optimization.
:param locator: path to locator function
:param total_demand: dataframe with total demand and names of all building in the area
:param building_names: dataframe with names of all buildings in the area
:param weather_file: path to wather file
:type locator: class
:type total_demand: list
:type building_names: list
:type weather_file: string
:return:
- extraCosts: extra pareto optimal costs due to electricity and process heat (
these are treated separately and not considered inside the optimization)
- extraCO2: extra pareto optimal emissions due to electricity and process heat (
these are treated separately and not considered inside the optimization)
- extraPrim: extra pareto optimal primary energy due to electricity and process heat (
these are treated separately and not considered inside the optimization)
- solar_features: extraction of solar features form the results of the solar technologies
calculation.
:rtype: float, float, float, float
"""
print("PRE-PROCESSING 0/4: initialize directory")
shutil.rmtree(locator.get_optimization_master_results_folder())
shutil.rmtree(locator.get_optimization_network_results_folder())
shutil.rmtree(locator.get_optimization_slave_results_folder())
shutil.rmtree(locator.get_optimization_substations_folder())
print("PRE-PROCESSING 1/4: weather features") # at first estimate a distribution with all the buildings connected
weather_features = WeatherFeatures(weather_file, locator)
print("PRE-PROCESSING 2/4: conversion systems database") # at first estimate a distribution with all the buildings connected
supply_systems = SupplySystemsDatabase(locator)
print("PRE-PROCESSING 3/4: feedstocks systems database") # at first estimate a distribution with all the buildings connected
prices = Prices(supply_systems)
lca = LcaCalculations(supply_systems)
print("PRE-PROCESSING 4/4: network features") # at first estimate a distribution with all the buildings connected
if district_heating_network:
num_tot_buildings = len(buildings_heating_demand)
DHN_barcode = ''.join(str(1) for e in range(num_tot_buildings))
substation.substation_main_heating(locator, total_demand, buildings_heating_demand,
DHN_barcode=DHN_barcode)
summarize_network.network_main(locator, buildings_heating_demand, weather_features.ground_temp, num_tot_buildings, "DH",
DHN_barcode)
# "_all" key for all buildings
if district_cooling_network:
num_tot_buildings = len(buildings_cooling_demand)
DCN_barcode = ''.join(str(1) for e in range(num_tot_buildings))
substation.substation_main_cooling(locator, total_demand, buildings_cooling_demand, DCN_barcode=DCN_barcode)
summarize_network.network_main(locator, buildings_cooling_demand,
weather_features.ground_temp, num_tot_buildings, "DC",
DCN_barcode) # "_all" key for all buildings
network_features = NetworkOptimizationFeatures(district_heating_network, district_cooling_network, locator)
return weather_features, network_features, prices, lca
def extract_loads_individual(locator, DCN_barcode, DHN_barcode,
district_heating_network,
district_cooling_network,
column_names_buildings_heating,
column_names_buildings_cooling):
# local variables
weather_file = locator.get_weather_file()
network_depth_m = Z0
T_ambient = epwreader.epw_reader(weather_file)['drybulb_C']
ground_temp = calc_ground_temperature(locator,
T_ambient,
depth_m=network_depth_m)
# EVALUATE CASES TO CREATE A NETWORK OR NOT
if district_heating_network: # network exists
network_file_name_heating = "DH_Network_summary_result_" + hex(
int(str(DHN_barcode), 2)) + ".csv"
if not os.path.exists(
locator.get_optimization_network_results_summary(
'DH', DHN_barcode)):
total_demand = createTotalNtwCsv(DHN_barcode, locator,
column_names_buildings_heating)
num_total_buildings = len(column_names_buildings_heating)
buildings_in_heating_network = total_demand.Name.values
# Run the substation and distribution routines
substation.substation_main_heating(locator,
total_demand,
buildings_in_heating_network,
DHN_barcode=DHN_barcode)
results = summarize_network.network_main(
locator, buildings_in_heating_network, ground_temp,
num_total_buildings, "DH", DHN_barcode)
else:
results = pd.read_csv(
locator.get_optimization_network_results_summary(
'DH', DHN_barcode))
Q_DHNf_W = results['Q_DHNf_W'].values
Q_heating_max_W = Q_DHNf_W.max()
Qcdata_netw_total_kWh = results['Qcdata_netw_total_kWh'].values
Q_wasteheat_datacentre_max_W = Qcdata_netw_total_kWh.max()
else:
Q_heating_max_W = 0.0
Q_wasteheat_datacentre_max_W = 0.0
network_file_name_heating = ""
if district_cooling_network: # network exists
network_file_name_cooling = "DC_Network_summary_result_" + hex(
int(str(DCN_barcode), 2)) + ".csv"
if not os.path.exists(
locator.get_optimization_network_results_summary(
'DC', DCN_barcode)):
total_demand = createTotalNtwCsv(DCN_barcode, locator,
column_names_buildings_cooling)
num_total_buildings = len(column_names_buildings_cooling)
buildings_in_cooling_network = total_demand.Name.values
# Run the substation and distribution routines
substation.substation_main_cooling(locator,
total_demand,
buildings_in_cooling_network,
DCN_barcode=DCN_barcode)
results = summarize_network.network_main(
locator, buildings_in_cooling_network, ground_temp,
num_total_buildings, 'DC', DCN_barcode)
else:
results = pd.read_csv(
locator.get_optimization_network_results_summary(
'DC', DCN_barcode))
# if heat recovery is ON, then only need to satisfy cooling load of space cooling and refrigeration
Q_DCNf_W = results[
"Q_DCNf_space_cooling_data_center_and_refrigeration_W"].values
Q_cooling_max_W = Q_DCNf_W.max()
else:
Q_cooling_max_W = 0.0
network_file_name_cooling = ""
Q_heating_nom_W = Q_heating_max_W * (1 + Q_MARGIN_FOR_NETWORK)
Q_cooling_nom_W = Q_cooling_max_W * (1 + Q_MARGIN_FOR_NETWORK)
return Q_cooling_nom_W, Q_heating_nom_W, Q_wasteheat_datacentre_max_W, network_file_name_cooling, network_file_name_heating
def extract_loads_individual(locator, config, individual_with_name_dict,
DCN_barcode, DHN_barcode,
district_heating_network,
district_cooling_network,
column_names_buildings_heating,
column_names_buildings_cooling):
# local variables
weather_file = locator.get_weather_file()
network_depth_m = Z0
T_ambient = epwreader.epw_reader(weather_file)['drybulb_C']
ground_temp = calc_ground_temperature(locator,
T_ambient,
depth_m=network_depth_m)
# EVALUATE CASES TO CREATE A NETWORK OR NOT
if district_heating_network: # network exists
if DHN_barcode.count("1") == len(column_names_buildings_heating):
network_file_name_heating = "DH_Network_summary_result_" + hex(
int(str(DHN_barcode), 2)) + ".csv"
Q_DHNf_W = pd.read_csv(
locator.get_optimization_network_results_summary(
'DH', DHN_barcode),
usecols=["Q_DHNf_W"]).values
Q_heating_max_W = Q_DHNf_W.max()
elif DHN_barcode.count("1") == 0: # no network at all
network_file_name_heating = "DH_Network_summary_result_" + hex(
int(str(DHN_barcode), 2)) + ".csv"
Q_heating_max_W = 0
else:
network_file_name_heating = "DH_Network_summary_result_" + hex(
int(str(DHN_barcode), 2)) + ".csv"
if not os.path.exists(
locator.get_optimization_network_results_summary(
'DH', DHN_barcode)):
total_demand = createTotalNtwCsv(
DHN_barcode, locator, column_names_buildings_heating)
num_total_buildings = len(column_names_buildings_heating)
buildings_in_heating_network = total_demand.Name.values
# Run the substation and distribution routines
substation.substation_main_heating(
locator,
total_demand,
buildings_in_heating_network,
DHN_barcode=DHN_barcode)
summarize_network.network_main(locator,
buildings_in_heating_network,
ground_temp,
num_total_buildings, "DH",
DHN_barcode)
Q_DHNf_W = pd.read_csv(
locator.get_optimization_network_results_summary(
'DH', DHN_barcode),
usecols=["Q_DHNf_W"]).values
Q_heating_max_W = Q_DHNf_W.max()
else:
Q_heating_max_W = 0.0
network_file_name_heating = ""
if district_cooling_network: # network exists
if DCN_barcode.count("1") == len(column_names_buildings_cooling):
network_file_name_cooling = "DC_Network_summary_result_" + hex(
int(str(DCN_barcode), 2)) + ".csv"
if individual_with_name_dict['HPServer'] == 1:
# if heat recovery is ON, then only need to satisfy cooling load of space cooling and refrigeration
Q_DCNf_W_no_server_demand = pd.read_csv(
locator.get_optimization_network_results_summary(
'DC', DCN_barcode),
usecols=["Q_DCNf_space_cooling_and_refrigeration_W"
]).values
Q_DCNf_W_with_server_demand = pd.read_csv(
locator.get_optimization_network_results_summary(
'DC', DCN_barcode),
usecols=[
"Q_DCNf_space_cooling_data_center_and_refrigeration_W"
]).values
Q_DCNf_W = Q_DCNf_W_no_server_demand + (
(Q_DCNf_W_with_server_demand - Q_DCNf_W_no_server_demand) *
(individual_with_name_dict['HPShare']))
else:
Q_DCNf_W = pd.read_csv(
locator.get_optimization_network_results_summary(
'DC', DCN_barcode),
usecols=[
"Q_DCNf_space_cooling_data_center_and_refrigeration_W"
]).values
Q_cooling_max_W = Q_DCNf_W.max()
elif DCN_barcode.count("1") == 0:
network_file_name_cooling = "DC_Network_summary_result_" + hex(
int(str(DCN_barcode), 2)) + ".csv"
Q_cooling_max_W = 0.0
else:
network_file_name_cooling = "DC_Network_summary_result_" + hex(
int(str(DCN_barcode), 2)) + ".csv"
if not os.path.exists(
locator.get_optimization_network_results_summary(
'DC', DCN_barcode)):
total_demand = createTotalNtwCsv(
DCN_barcode, locator, column_names_buildings_cooling)
num_total_buildings = len(column_names_buildings_cooling)
buildings_in_cooling_network = total_demand.Name.values
# Run the substation and distribution routines
substation.substation_main_cooling(
locator,
total_demand,
buildings_in_cooling_network,
DCN_barcode=DCN_barcode)
summarize_network.network_main(locator,
buildings_in_cooling_network,
ground_temp,
num_total_buildings, 'DC',
DCN_barcode)
Q_DCNf_W_no_server_demand = pd.read_csv(
locator.get_optimization_network_results_summary(
'DC', DCN_barcode),
usecols=["Q_DCNf_space_cooling_and_refrigeration_W"]).values
Q_DCNf_W_with_server_demand = pd.read_csv(
locator.get_optimization_network_results_summary(
'DC', DCN_barcode),
usecols=[
"Q_DCNf_space_cooling_data_center_and_refrigeration_W"
]).values
# if heat recovery is ON, then only need to satisfy cooling load of space cooling and refrigeration
if district_heating_network and individual_with_name_dict[
'HPServer'] == 1:
Q_DCNf_W = Q_DCNf_W_no_server_demand + (
(Q_DCNf_W_with_server_demand - Q_DCNf_W_no_server_demand) *
(individual_with_name_dict['HPShare']))
else:
Q_DCNf_W = Q_DCNf_W_with_server_demand
Q_cooling_max_W = Q_DCNf_W.max()
else:
Q_cooling_max_W = 0.0
network_file_name_cooling = ""
Q_heating_nom_W = Q_heating_max_W * (1 + Q_MARGIN_FOR_NETWORK)
Q_cooling_nom_W = Q_cooling_max_W * (1 + Q_MARGIN_FOR_NETWORK)
return Q_cooling_nom_W, Q_heating_nom_W, network_file_name_cooling, network_file_name_heating
def disconnected_buildings_heating_main(locator, total_demand, building_names, config, prices, lca):
"""
Computes the parameters for the operation of disconnected buildings
output results in csv files.
There is no optimization at this point. The different technologies are calculated and compared 1 to 1 to
each technology. it is a classical combinatorial problem.
:param locator: locator class
:param building_names: list with names of buildings
:type locator: class
:type building_names: list
:return: results of operation of buildings located in locator.get_optimization_decentralized_folder
:rtype: Nonetype
"""
t0 = time.clock()
prop_geometry = Gdf.from_file(locator.get_zone_geometry())
geometry = pd.DataFrame({'Name': prop_geometry.Name, 'Area': prop_geometry.area})
geothermal_potential_data = dbf.dbf_to_dataframe(locator.get_building_supply())
geothermal_potential_data = pd.merge(geothermal_potential_data, geometry, on='Name')
geothermal_potential_data['Area_geo'] = geothermal_potential_data['Area']
weather_path = locator.get_weather_file()
weather_data = epwreader.epw_reader(weather_path)[['year', 'drybulb_C', 'wetbulb_C',
'relhum_percent', 'windspd_ms', 'skytemp_C']]
T_ground_K = calc_ground_temperature(locator, weather_data['drybulb_C'], depth_m=10)
# This will calculate the substation state if all buildings where connected(this is how we study this)
substation.substation_main_heating(locator, total_demand, building_names)
for building_name in building_names:
print('running for building %s') %(building_name)
# run substation model to derive temperatures of the building
substation_results = pd.read_csv(locator.get_optimization_substations_results_file(building_name, "DH", ""))
q_load_Wh = np.vectorize(calc_new_load)(substation_results["mdot_DH_result_kgpers"],
substation_results["T_supply_DH_result_K"],
substation_results["T_return_DH_result_K"])
Qnom_W = q_load_Wh.max()
# Create empty matrices
Opex_a_var_USD = np.zeros((13, 7))
Capex_total_USD = np.zeros((13, 7))
Capex_a_USD = np.zeros((13, 7))
Opex_a_fixed_USD = np.zeros((13, 7))
Capex_opex_a_fixed_only_USD = np.zeros((13, 7))
Opex_a_USD = np.zeros((13, 7))
GHG_tonCO2 = np.zeros((13, 7))
PEN_MJoil = np.zeros((13, 7))
# indicate supply technologies for each configuration
Opex_a_var_USD[0][0] = 1 # Boiler NG
Opex_a_var_USD[1][1] = 1 # Boiler BG
Opex_a_var_USD[2][2] = 1 # Fuel Cell
resourcesRes = np.zeros((13, 4))
Q_Boiler_for_GHP_W = np.zeros((10, 1)) # Save peak capacity of GHP Backup Boilers
GHP_el_size_W = np.zeros((10, 1)) # Save peak capacity of GHP
# save supply system activation of all supply configurations
heating_dispatch = {}
# Supply with the Boiler / FC / GHP
Tret_K = substation_results["T_return_DH_result_K"].values
Tsup_K = substation_results["T_supply_DH_result_K"].values
mdot_kgpers = substation_results["mdot_DH_result_kgpers"].values
## Start Hourly calculation
print building_name, ' decentralized heating supply systems simulations...'
Tret_K = np.where(Tret_K > 0.0, Tret_K, Tsup_K)
## 0: Boiler NG
BoilerEff = np.vectorize(Boiler.calc_Cop_boiler)(q_load_Wh, Qnom_W, Tret_K)
Qgas_to_Boiler_Wh = np.divide(q_load_Wh, BoilerEff, out=np.zeros_like(q_load_Wh), where=BoilerEff != 0.0)
Boiler_Status = np.where(Qgas_to_Boiler_Wh > 0.0, 1, 0)
# add costs
Opex_a_var_USD[0][4] += sum(prices.NG_PRICE * Qgas_to_Boiler_Wh) # CHF
GHG_tonCO2[0][5] += calc_emissions_Whyr_to_tonCO2yr(sum(Qgas_to_Boiler_Wh), lca.NG_TO_CO2_EQ) # ton CO2
PEN_MJoil[0][6] += calc_pen_Whyr_to_MJoilyr(sum(Qgas_to_Boiler_Wh), lca.NG_TO_OIL_EQ) # MJ-oil-eq
# add activation
resourcesRes[0][0] += sum(q_load_Wh) # q from NG
heating_dispatch[0] = {'Q_Boiler_gen_directload_W': q_load_Wh,
'Boiler_Status': Boiler_Status,
'NG_Boiler_req_W': Qgas_to_Boiler_Wh,
'E_hs_ww_req_W': np.zeros(8760)}
## 1: Boiler BG
# add costs
Opex_a_var_USD[1][4] += sum(prices.BG_PRICE * Qgas_to_Boiler_Wh) # CHF
GHG_tonCO2[1][5] += calc_emissions_Whyr_to_tonCO2yr(sum(Qgas_to_Boiler_Wh), lca.NG_TO_CO2_EQ) # ton CO2
PEN_MJoil[1][6] += calc_pen_Whyr_to_MJoilyr(sum(Qgas_to_Boiler_Wh), lca.NG_TO_OIL_EQ) # MJ-oil-eq
# add activation
resourcesRes[1][1] += sum(q_load_Wh) # q from BG
heating_dispatch[1] = {'Q_Boiler_gen_directload_W': q_load_Wh,
'Boiler_Status': Boiler_Status,
'BG_Boiler_req_W': Qgas_to_Boiler_Wh,
'E_hs_ww_req_W': np.zeros(8760)}
## 2: Fuel Cell
(FC_Effel, FC_Effth) = np.vectorize(FC.calc_eta_FC)(q_load_Wh, Qnom_W, 1, "B")
Qgas_to_FC_Wh = q_load_Wh / (FC_Effth + FC_Effel) # FIXME: should be q_load_Wh/FC_Effth?
el_from_FC_Wh = Qgas_to_FC_Wh * FC_Effel
FC_Status = np.where(Qgas_to_FC_Wh > 0.0, 1, 0)
# add variable costs, emissions and primary energy
Opex_a_var_USD[2][4] += sum(prices.NG_PRICE * Qgas_to_FC_Wh - prices.ELEC_PRICE_EXPORT * el_from_FC_Wh) # CHF, extra electricity sold to grid
GHG_tonCO2_from_FC = (0.0874 * Qgas_to_FC_Wh * 3600E-6 + 773 * 0.45 * el_from_FC_Wh * 1E-6 -
lca.EL_TO_CO2_EQ * el_from_FC_Wh * 3600E-6) / 1E3
GHG_tonCO2[2][5] += sum(GHG_tonCO2_from_FC) # tonCO2
# Bloom box emissions within the FC: 773 lbs / MWh_el (and 1 lbs = 0.45 kg)
# http://www.carbonlighthouse.com/2011/09/16/bloom-box/
PEN_MJoil_from_FC = 1.51 * Qgas_to_FC_Wh * 3600E-6 - lca.EL_TO_OIL_EQ * el_from_FC_Wh * 3600E-6
PEN_MJoil[2][6] += sum(PEN_MJoil_from_FC) # MJ-oil-eq
# add activation
resourcesRes[2][0] = sum(q_load_Wh) # q from NG
resourcesRes[2][2] = sum(el_from_FC_Wh) # el for GHP # FIXME: el from FC
heating_dispatch[2] = {'Q_Fuelcell_gen_directload_W': q_load_Wh,
'Fuelcell_Status': FC_Status,
'NG_FuelCell_req_W': Qgas_to_FC_Wh,
'E_Fuelcell_gen_export_W': el_from_FC_Wh,
'E_hs_ww_req_W': np.zeros(8760)}
# 3-13: Boiler NG + GHP
for i in range(10):
# set nominal size for Boiler and GHP
QnomBoiler_W = i / 10.0 * Qnom_W
mdot_kgpers_Boiler = i / 10.0 * mdot_kgpers
QnomGHP_W = Qnom_W - QnomBoiler_W
# GHP operation
Texit_GHP_nom_K = QnomGHP_W / (mdot_kgpers * HEAT_CAPACITY_OF_WATER_JPERKGK) + Tret_K
el_GHP_Wh, q_load_NG_Boiler_Wh, \
qhot_missing_Wh, \
Texit_GHP_K, q_from_GHP_Wh = np.vectorize(calc_GHP_operation)(QnomGHP_W, T_ground_K, Texit_GHP_nom_K,
Tret_K, Tsup_K, mdot_kgpers, q_load_Wh)
GHP_el_size_W[i][0] = max(el_GHP_Wh)
GHP_Status = np.where(q_from_GHP_Wh > 0.0, 1, 0)
# GHP Backup Boiler operation
if max(qhot_missing_Wh) > 0.0:
print "GHP unable to cover the whole demand, boiler activated!"
Qnom_GHP_Backup_Boiler_W = max(qhot_missing_Wh)
BoilerEff = np.vectorize(Boiler.calc_Cop_boiler)(qhot_missing_Wh, Qnom_GHP_Backup_Boiler_W, Texit_GHP_K)
Qgas_to_GHPBoiler_Wh = np.divide(qhot_missing_Wh, BoilerEff,
out=np.zeros_like(qhot_missing_Wh), where=BoilerEff != 0.0)
else:
Qgas_to_GHPBoiler_Wh = np.zeros(q_load_Wh.shape[0])
Qnom_GHP_Backup_Boiler_W = 0.0
Q_Boiler_for_GHP_W[i][0] = Qnom_GHP_Backup_Boiler_W
GHPbackupBoiler_Status = np.where(qhot_missing_Wh > 0.0, 1, 0)
# NG Boiler operation
BoilerEff = np.vectorize(Boiler.calc_Cop_boiler)(q_load_NG_Boiler_Wh, QnomBoiler_W, Texit_GHP_K)
Qgas_to_Boiler_Wh = np.divide(q_load_NG_Boiler_Wh, BoilerEff,
out=np.zeros_like(q_load_NG_Boiler_Wh), where=BoilerEff != 0.0)
Boiler_Status = np.where(q_load_NG_Boiler_Wh > 0.0, 1, 0)
# add costs
# electricity
el_total_Wh = el_GHP_Wh
Opex_a_var_USD[3 + i][4] += sum(prices.ELEC_PRICE * el_total_Wh) # CHF
GHG_tonCO2[3 + i][5] += calc_emissions_Whyr_to_tonCO2yr(sum(el_total_Wh), lca.EL_TO_CO2_EQ) # ton CO2
PEN_MJoil[3 + i][6] += calc_pen_Whyr_to_MJoilyr(sum(el_total_Wh), lca.EL_TO_OIL_EQ) # MJ-oil-eq
# gas
Q_gas_total_Wh = Qgas_to_GHPBoiler_Wh + Qgas_to_Boiler_Wh
Opex_a_var_USD[3 + i][4] += sum(prices.NG_PRICE * Q_gas_total_Wh) # CHF
GHG_tonCO2[3 + i][5] += calc_emissions_Whyr_to_tonCO2yr(sum(Q_gas_total_Wh), lca.NG_TO_CO2_EQ) # ton CO2
PEN_MJoil[3 + i][6] += calc_pen_Whyr_to_MJoilyr(sum(Q_gas_total_Wh), lca.NG_TO_OIL_EQ) # MJ-oil-eq
# add activation
resourcesRes[3 + i][0] = sum(qhot_missing_Wh + q_load_NG_Boiler_Wh)
resourcesRes[3 + i][2] = sum(el_GHP_Wh)
resourcesRes[3 + i][3] = sum(q_from_GHP_Wh)
heating_dispatch[3 + i] = {'Q_GHP_gen_directload_W': q_from_GHP_Wh,
'Q_BackupBoiler_gen_directload_W': qhot_missing_Wh,
'Q_Boiler_gen_directload_W': q_load_NG_Boiler_Wh,
'GHP_Status': GHP_Status,
'BackupBoiler_Status': GHPbackupBoiler_Status,
'Boiler_Status': Boiler_Status,
'NG_BackupBoiler_req_Wh': Qgas_to_GHPBoiler_Wh,
'NG_Boiler_req_Wh': Qgas_to_Boiler_Wh,
'E_hs_ww_req_W': el_GHP_Wh}
# Add all costs
# 0: Boiler NG
Capex_a_Boiler_USD, Opex_a_fixed_Boiler_USD, Capex_Boiler_USD = Boiler.calc_Cinv_boiler(Qnom_W, locator, config,
'BO1')
Capex_total_USD[0][0] = Capex_Boiler_USD
Capex_a_USD[0][0] = Capex_a_Boiler_USD
Opex_a_fixed_USD[0][0] = Opex_a_fixed_Boiler_USD
Capex_opex_a_fixed_only_USD[0][0] = Capex_a_Boiler_USD + Opex_a_fixed_Boiler_USD # TODO:variable price?
# 1: Boiler BG
Capex_total_USD[1][0] = Capex_Boiler_USD
Capex_a_USD[1][0] = Capex_a_Boiler_USD
Opex_a_fixed_USD[1][0] = Opex_a_fixed_Boiler_USD
Capex_opex_a_fixed_only_USD[1][0] = Capex_a_Boiler_USD + Opex_a_fixed_Boiler_USD # TODO:variable price?
# 2: Fuel Cell
Capex_a_FC_USD, Opex_fixed_FC_USD, Capex_FC_USD = FC.calc_Cinv_FC(Qnom_W, locator, config)
Capex_total_USD[2][0] = Capex_FC_USD
Capex_a_USD[2][0] = Capex_a_FC_USD
Opex_a_fixed_USD[2][0] = Opex_fixed_FC_USD
Capex_opex_a_fixed_only_USD[2][0] = Capex_a_FC_USD + Opex_fixed_FC_USD # TODO:variable price?
# 3-13: BOILER + GHP
for i in range(10):
Opex_a_var_USD[3 + i][0] = i / 10.0 # Boiler share
Opex_a_var_USD[3 + i][3] = 1 - i / 10.0 # GHP share
# Get boiler costs
QnomBoiler_W = i / 10.0 * Qnom_W
Capex_a_Boiler_USD, Opex_a_fixed_Boiler_USD, Capex_Boiler_USD = Boiler.calc_Cinv_boiler(QnomBoiler_W,
locator,
config, 'BO1')
Capex_total_USD[3 + i][0] += Capex_Boiler_USD
Capex_a_USD[3 + i][0] += Capex_a_Boiler_USD
Opex_a_fixed_USD[3 + i][0] += Opex_a_fixed_Boiler_USD
Capex_opex_a_fixed_only_USD[3 + i][
0] += Capex_a_Boiler_USD + Opex_a_fixed_Boiler_USD # TODO:variable price?
# Get back up boiler costs
Qnom_Backup_Boiler_W = Q_Boiler_for_GHP_W[i][0]
Capex_a_GHPBoiler_USD, Opex_a_fixed_GHPBoiler_USD, Capex_GHPBoiler_USD = Boiler.calc_Cinv_boiler(
Qnom_Backup_Boiler_W, locator,
config, 'BO1')
Capex_total_USD[3 + i][0] += Capex_GHPBoiler_USD
Capex_a_USD[3 + i][0] += Capex_a_GHPBoiler_USD
Opex_a_fixed_USD[3 + i][0] += Opex_a_fixed_GHPBoiler_USD
Capex_opex_a_fixed_only_USD[3 + i][
0] += Capex_a_GHPBoiler_USD + Opex_a_fixed_GHPBoiler_USD # TODO:variable price?
# Get ground source heat pump costs
Capex_a_GHP_USD, Opex_a_fixed_GHP_USD, Capex_GHP_USD = HP.calc_Cinv_GHP(GHP_el_size_W[i][0], locator,
config)
Capex_total_USD[3 + i][0] += Capex_GHP_USD
Capex_a_USD[3 + i][0] += Capex_a_GHP_USD
Opex_a_fixed_USD[3 + i][0] += Opex_a_fixed_GHP_USD
Capex_opex_a_fixed_only_USD[3 + i][0] += Capex_a_GHP_USD + Opex_a_fixed_GHP_USD # TODO:variable price?
# Best configuration
Best = np.zeros((13, 1))
indexBest = 0
TAC_USD = np.zeros((13, 2))
TotalCO2 = np.zeros((13, 2))
TotalPrim = np.zeros((13, 2))
for i in range(13):
TAC_USD[i][0] = TotalCO2[i][0] = TotalPrim[i][0] = i
Opex_a_USD[i][1] = Opex_a_fixed_USD[i][0] + + Opex_a_var_USD[i][4]
TAC_USD[i][1] = Capex_opex_a_fixed_only_USD[i][0] + Opex_a_var_USD[i][4]
TotalCO2[i][1] = GHG_tonCO2[i][5]
TotalPrim[i][1] = PEN_MJoil[i][6]
CostsS = TAC_USD[np.argsort(TAC_USD[:, 1])]
CO2S = TotalCO2[np.argsort(TotalCO2[:, 1])]
PrimS = TotalPrim[np.argsort(TotalPrim[:, 1])]
el = len(CostsS)
rank = 0
Bestfound = False
optsearch = np.empty(el)
optsearch.fill(3)
indexBest = 0
geothermal_potential = geothermal_potential_data.set_index('Name')
# Check the GHP area constraint
for i in range(10):
QGHP = (1 - i / 10.0) * Qnom_W
areaAvail = geothermal_potential.ix[building_name, 'Area_geo']
Qallowed = np.ceil(areaAvail / GHP_A) * GHP_HMAX_SIZE # [W_th]
if Qallowed < QGHP:
optsearch[i + 3] += 1
Best[i + 3][0] = - 1
while not Bestfound and rank < el:
optsearch[int(CostsS[rank][0])] -= 1
optsearch[int(CO2S[rank][0])] -= 1
optsearch[int(PrimS[rank][0])] -= 1
if np.count_nonzero(optsearch) != el:
Bestfound = True
indexBest = np.where(optsearch == 0)[0][0]
rank += 1
# get the best option according to the ranking.
Best[indexBest][0] = 1
# Save results in csv file
performance_results = {
"Nominal heating load": Qnom_W,
"Capacity_BaseBoiler_NG_W": Qnom_W * Opex_a_var_USD[:, 0],
"Capacity_FC_NG_W": Qnom_W * Opex_a_var_USD[:, 2],
"Capacity_GS_HP_W": Qnom_W * Opex_a_var_USD[:, 3],
"TAC_USD": TAC_USD[:, 1],
"Capex_a_USD": Capex_a_USD[:, 0],
"Capex_total_USD": Capex_total_USD[:, 0],
"Opex_fixed_USD": Opex_a_fixed_USD[:, 0],
"Opex_var_USD": Opex_a_var_USD[:, 4],
"GHG_tonCO2": GHG_tonCO2[:, 5],
"PEN_MJoil": PEN_MJoil[:, 6],
"Best configuration": Best[:, 0]}
results_to_csv = pd.DataFrame(performance_results)
fName_result = locator.get_optimization_decentralized_folder_building_result_heating(building_name)
results_to_csv.to_csv(fName_result, sep=',')
# save activation for the best supply system configuration
best_activation_df = pd.DataFrame.from_dict(heating_dispatch[indexBest]) #
best_activation_df.to_csv(
locator.get_optimization_decentralized_folder_building_result_heating_activation(building_name))
print time.clock() - t0, "seconds process time for the Disconnected Building Routine \n"