def test_TechStock():
from energy_demand.read_write import read_data
base_yr = 2015
curr_yr = 2020
all_technologies = {'boilerA': read_data.TechnologyData()}
all_technologies['boilerA'].fueltype_str = 'electricity'
all_technologies['boilerA'].eff_achieved = 1.0
all_technologies['boilerA'].diff_method = 'linear'
all_technologies['boilerA'].eff_by = 1.0
all_technologies['boilerA'].eff_ey = 1.0
all_technologies['boilerA'].year_eff_ey = 2020
stock_obj = technological_stock.TechStock(
name="name",
technologies=all_technologies,
tech_list={
'heating_non_const': [],
'heating_const': ['boilerA']
},
other_enduse_mode_info={'linear'},
base_yr=base_yr,
curr_yr=curr_yr,
fueltypes={'electricity': 2},
temp_by=np.ones((365, 24)) + 10,
temp_cy=np.ones((365, 24)) + 10,
t_base_heating_by=15.5,
potential_enduses=['heating'],
t_base_heating_cy=15.5,
enduse_technologies={'heating': ['boilerA']})
assert stock_obj.name == "name"
assert stock_obj.get_tech_attr('heating', 'boilerA', 'eff_by') == 1.0
def test_calc_fuel_tech_y():
"""Testing
"""
technologies = {'techA': read_data.TechnologyData()}
technologies['techA'].fueltype_str = 'gas'
technologies['techA'].eff_achieved = 1.0
technologies['techA'].diff_method = 'linear'
technologies['techA'].eff_by = 0.5
technologies['techA'].eff_ey = 0.5
technologies['techA'].year_eff_ey = 2020
fueltypes = {'gas': 0}
tech_stock = technological_stock.TechStock(
name="name",
technologies=technologies,
tech_list={
'heating_non_const': [],
'heating_const': ['techA']
},
other_enduse_mode_info={'linear'},
base_yr=2015,
curr_yr=2020,
fueltypes=fueltypes,
temp_by=np.ones((365, 24)) + 10,
temp_cy=np.ones((365, 24)) + 10,
t_base_heating_by=15.5,
potential_enduses=['heating'],
t_base_heating_cy=15.5,
enduse_technologies={'heating': ['techA']})
result = enduse_func.calc_fuel_tech_y(enduse='heating',
tech_stock=tech_stock,
fuel_tech_y={'techA': 100},
fueltypes_nr=2,
fueltypes={
'heat': 1,
'gas': 0
},
mode_constrained=False)
assert result[1] == 100
result = enduse_func.calc_fuel_tech_y(enduse='heating',
tech_stock=tech_stock,
fuel_tech_y={'techA': 100},
fueltypes_nr=2,
fueltypes={
'heat': 1,
'gas': 0
},
mode_constrained=True)
assert result[0] == 100
def test_service_to_fuel():
"""Testing"""
technologies = {'techA': read_data.TechnologyData()}
technologies['techA'].fueltype_str = 'gas'
technologies['techA'].eff_achieved = 1.0
technologies['techA'].diff_method = 'linear'
technologies['techA'].eff_by = 0.5
technologies['techA'].eff_ey = 0.5
technologies['techA'].year_eff_ey = 2020
fueltypes = {'gas': 0}
tech_stock = technological_stock.TechStock(
name="name",
technologies=technologies,
tech_list={
'heating_non_const': [],
'heating_const': ['techA']
},
other_enduse_mode_info={'linear'},
base_yr=2015,
curr_yr=2020,
fueltypes=fueltypes,
temp_by=np.ones((365, 24)) + 10,
temp_cy=np.ones((365, 24)) + 10,
t_base_heating_by=15.5,
potential_enduses=['heating'],
t_base_heating_cy=15.5,
enduse_technologies={'heating': ['techA']})
fuel_y, fuel_per_tech = enduse_func.service_to_fuel(
"heating", {'techA': 100}, tech_stock, len(fueltypes), fueltypes, True)
assert fuel_per_tech['techA'] == 200
assert fuel_y == np.array([200])
# ----
fueltypes = {'gas': 0, 'heat': 1}
fuel_y, fuel_per_tech = enduse_func.service_to_fuel(
"heating", {'techA': 100}, tech_stock, len(fueltypes), fueltypes,
False)
assert fuel_per_tech['techA'] == 100
assert fuel_y[1] == 100
def test_service_to_fuel():
"""Testing"""
technologies = {'techA': read_data.TechnologyData()}
technologies['techA'].fueltype_str = 'gas'
technologies['techA'].eff_achieved = 1.0
technologies['techA'].diff_method = 'linear'
technologies['techA'].eff_by = 0.5
technologies['techA'].eff_ey = 0.5
technologies['techA'].year_eff_ey = 2020
fueltypes = {'electricity': 0, 'gas': 1}
tech_stock = technological_stock.TechStock(
name="name",
technologies=technologies,
base_yr=2015,
curr_yr=2020,
fueltypes=fueltypes,
temp_by=np.ones((365, 24)) + 10,
temp_cy=np.ones((365, 24)) + 10,
t_base_heating_by=15.5,
potential_enduses=['heating'],
t_base_heating_cy=15.5,
enduse_technologies={'heating': {
'sectorA': ['techA']
}})
fuel_y, fuel_per_tech = enduse_func.service_to_fuel(
"heating", 'sectorA', {'techA': 100}, tech_stock, len(fueltypes),
fueltypes, True)
assert fuel_per_tech['techA'] == 200
assert fuel_y[0] == 0
assert fuel_y[1] == 200
# ----
fueltypes = {'gas': 0, 'heat': 1}
fuel_y, fuel_per_tech = enduse_func.service_to_fuel(
"heating", 'sectorA', {'techA': 100}, tech_stock, len(fueltypes),
fueltypes, False)
assert fuel_per_tech['techA'] == 100
assert fuel_y[1] == 100
def test_fuel_to_service():
"""
"""
enduse = 'heating'
sector = 'sectorA'
fuel_y = {0: 2000}
fuel_tech_p_by = {0: {'techA': 1.0}}
technologies = {'techA': read_data.TechnologyData()}
technologies['techA'].fueltype_str = 'gas'
technologies['techA'].eff_achieved = 1.0
technologies['techA'].diff_method = 'linear'
technologies['techA'].eff_by = 0.5
technologies['techA'].eff_ey = 0.5
technologies['techA'].year_eff_ey = 2020
fueltypes = {'electricity': 0, 'gas': 1} #, 'heat': 1}
tech_stock = technological_stock.TechStock(
name="name",
technologies=technologies,
base_yr=2015,
curr_yr=2020,
fueltypes=fueltypes,
temp_by=np.ones((365, 24)) + 10,
temp_cy=np.ones((365, 24)) + 10,
t_base_heating_by=15.5,
potential_enduses=['heating'],
t_base_heating_cy=15.5,
enduse_technologies={'heating': {
'sectorA': ['techA']
}})
tot_s_y, service_tech = enduse_func.fuel_to_service(
enduse=enduse,
sector=sector,
fuel_y=fuel_y,
fuel_tech_p_by=fuel_tech_p_by,
tech_stock=tech_stock,
fueltypes=fueltypes,
mode_constrained=True)
assert service_tech['techA'] == 1000
# ---
fuel_y = {0: 0, 1: 2000}
fuel_tech_p_by = {0: {}, 1: {'techA': 1.0}}
fueltypes = {'gas': 0, 'heat': 1}
tech_stock = technological_stock.TechStock(
name="name",
technologies=technologies,
base_yr=2015,
curr_yr=2020,
fueltypes=fueltypes,
temp_by=np.ones((365, 24)) + 10,
temp_cy=np.ones((365, 24)) + 10,
t_base_heating_by=15.5,
potential_enduses=['heating'],
t_base_heating_cy=15.5,
enduse_technologies={'heating': {
'sectorA': ['techA']
}})
tot_s_y, service_tech = enduse_func.fuel_to_service(
enduse=enduse,
sector=sector,
fuel_y=fuel_y,
fuel_tech_p_by=fuel_tech_p_by,
tech_stock=tech_stock,
fueltypes=fueltypes,
mode_constrained=False) #Difference
assert service_tech['techA'] == 2000
def __init__(
self,
name,
assumptions,
technologies,
enduses,
temp_by,
temp_cy,
tech_lp,
sectors,
crit_temp_min_max
):
"""Constructor of weather region
"""
self.name = name
fueltypes = lookup_tables.basic_lookups()['fueltypes']
# Base temperatures of current year
rs_t_base_heating_cy = assumptions.non_regional_vars['rs_t_base_heating'][assumptions.curr_yr]
ss_t_base_heating_cy = assumptions.non_regional_vars['ss_t_base_heating'][assumptions.curr_yr]
ss_t_base_cooling_cy = assumptions.non_regional_vars['ss_t_base_cooling'][assumptions.curr_yr]
is_t_base_heating_cy = assumptions.non_regional_vars['is_t_base_heating'][assumptions.curr_yr]
# ==================================================================
# Technology stocks
# ==================================================================
rs_tech_stock = technological_stock.TechStock(
'rs_tech_stock',
technologies,
assumptions.base_yr,
assumptions.curr_yr,
fueltypes,
temp_by,
temp_cy,
assumptions.t_bases.rs_t_heating,
enduses['residential'],
rs_t_base_heating_cy,
assumptions.specified_tech_enduse_by)
ss_tech_stock = technological_stock.TechStock(
'ss_tech_stock',
technologies,
assumptions.base_yr,
assumptions.curr_yr,
fueltypes,
temp_by,
temp_cy,
assumptions.t_bases.ss_t_heating,
enduses['service'],
ss_t_base_heating_cy,
assumptions.specified_tech_enduse_by)
is_tech_stock = technological_stock.TechStock(
'is_tech_stock',
technologies,
assumptions.base_yr,
assumptions.curr_yr,
fueltypes,
temp_by,
temp_cy,
assumptions.t_bases.is_t_heating,
enduses['industry'],
ss_t_base_heating_cy,
assumptions.specified_tech_enduse_by)
self.tech_stock = {
'residential': rs_tech_stock,
'service': ss_tech_stock,
'industry': is_tech_stock}
# ==================================================================
# Load profiles
# ==================================================================
flat_shape_yd, _, flat_shape_y_dh = generic_shapes.flat_shape()
# ==================================================================
# Residential submodel load profiles
# ==================================================================
load_profiles = load_profile.LoadProfileStock("load_profiles")
dummy_sector = None
# --------Calculate HDD/CDD of used weather year
self.rs_hdd_by, _ = hdd_cdd.calc_reg_hdd(
temp_by, assumptions.t_bases.rs_t_heating, assumptions.model_yeardays, crit_temp_min_max)
self.rs_hdd_cy, rs_fuel_shape_heating_yd = hdd_cdd.calc_reg_hdd(
temp_cy, rs_t_base_heating_cy, assumptions.model_yeardays, crit_temp_min_max)
# --------Calculate HDD/CDD of base year weather year
#self.rs_cdd_by, _ = hdd_cdd.calc_reg_cdd(
# temp_by, assumptions.t_bases.rs_t_cooling_by, assumptions.model_yeardays)
#self.rs_cdd_cy, rs_fuel_shape_cooling_yd = hdd_cdd.calc_reg_cdd(
# temp_cy, rs_t_base_cooling_cy, assumptions.model_yeardays)
# -------Calculate climate change correction factors
try:
f_heat_rs_y = np.nan_to_num(
1.0 / float(np.sum(self.rs_hdd_by))) * np.sum(self.rs_hdd_cy)
#self.f_cooling_rs_y = np.nan_to_num(
# 1.0 / float(np.sum(self.rs_cdd_by))) * np.sum(self.rs_cdd_cy)
f_cooling_rs_y = 1
except ZeroDivisionError:
f_heat_rs_y = 1
f_cooling_rs_y = 1
# Calculate rs peak day
rs_peak_day = enduse_func.get_peak_day(self.rs_hdd_cy)
# ========
# Enduse specific profiles
# ========
# -- Apply enduse sepcific shapes for enduses with not technologies with own defined shapes
for enduse in enduses['residential']:
# Enduses where technology specific load profiles are defined for yh
if enduse in ['rs_space_heating']:
pass
else:
# Get all technologies of enduse
tech_list = helpers.get_nested_dict_key(
assumptions.fuel_tech_p_by[enduse][dummy_sector])
# Remove heat pumps from rs_water_heating
tech_list = basic_functions.remove_element_from_list(tech_list, 'heat_pumps_electricity')
shape_y_dh = insert_peak_dh_shape(
peak_day=rs_peak_day,
shape_y_dh=tech_lp['rs_shapes_dh'][enduse]['shape_non_peak_y_dh'],
shape_peak_dh=tech_lp['rs_shapes_dh'][enduse]['shape_peak_dh'])
load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=tech_list,
enduses=[enduse],
shape_yd=tech_lp['rs_shapes_yd'][enduse]['shape_non_peak_yd'],
shape_y_dh=shape_y_dh,
sectors=[dummy_sector],
model_yeardays=assumptions.model_yeardays)
# ==========
# Technology specific profiles for residential heating
# ===========
# ------Heating boiler
load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=assumptions.tech_list['heating_const'],
enduses=['rs_space_heating'],
shape_yd=rs_fuel_shape_heating_yd,
shape_y_dh=tech_lp['rs_profile_boilers_y_dh'],
sectors=[dummy_sector],
model_yeardays=assumptions.model_yeardays)
# ------Heating CHP
rs_profile_chp_y_dh = insert_peak_dh_shape(
peak_day=rs_peak_day,
shape_y_dh=tech_lp['rs_profile_chp_y_dh'],
shape_peak_dh=tech_lp['rs_lp_heating_CHP_dh']['peakday'])
load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=assumptions.tech_list['tech_CHP'],
enduses=['rs_space_heating'],
shape_yd=rs_fuel_shape_heating_yd,
shape_y_dh=rs_profile_chp_y_dh,
sectors=[dummy_sector],
model_yeardays=assumptions.model_yeardays)
# ------Electric heating, storage heating (primary)
load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=assumptions.tech_list['storage_heating_electricity'],
enduses=['rs_space_heating'],
shape_yd=rs_fuel_shape_heating_yd,
shape_y_dh=tech_lp['rs_profile_storage_heater_y_dh'],
sectors=[dummy_sector],
model_yeardays=assumptions.model_yeardays)
# ------Electric heating secondary (direct elec heating)
load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=assumptions.tech_list['secondary_heating_electricity'],
enduses=['rs_space_heating'],
shape_yd=rs_fuel_shape_heating_yd,
shape_y_dh=tech_lp['rs_profile_elec_heater_y_dh'],
sectors=[dummy_sector],
model_yeardays=assumptions.model_yeardays)
# ------Heat pump heating
rs_profile_hp_y_dh = insert_peak_dh_shape(
peak_day=rs_peak_day,
shape_y_dh=tech_lp['rs_profile_hp_y_dh'],
shape_peak_dh=tech_lp['rs_lp_heating_hp_dh']['peakday'])
rs_fuel_shape_hp_yh, rs_hp_shape_yd = get_fuel_shape_heating_hp_yh(
tech_lp_y_dh=rs_profile_hp_y_dh,
tech_stock=rs_tech_stock,
rs_hdd_cy=self.rs_hdd_cy,
model_yeardays=assumptions.model_yeardays)
load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=assumptions.tech_list['heating_non_const'],
enduses=['rs_space_heating', 'rs_water_heating'],
shape_y_dh=rs_profile_hp_y_dh,
shape_yd=rs_hp_shape_yd,
shape_yh=rs_fuel_shape_hp_yh,
sectors=[dummy_sector],
model_yeardays=assumptions.model_yeardays)
# ------District_heating_electricity. Assumption made that same curve as CHP
load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=assumptions.tech_list['tech_district_heating'],
enduses=['rs_space_heating'],
shape_yd=rs_fuel_shape_heating_yd,
shape_y_dh=rs_profile_hp_y_dh,
sectors=[dummy_sector],
model_yeardays=assumptions.model_yeardays)
# ==================================================================
# Service Submodel load profiles
# ==================================================================
# --------HDD/CDD
# current weather_yr
self.ss_hdd_by, _ = hdd_cdd.calc_reg_hdd(
temp_by, assumptions.t_bases.ss_t_heating, assumptions.model_yeardays, crit_temp_min_max)
ss_hdd_cy, ss_fuel_shape_heating_yd = hdd_cdd.calc_reg_hdd(
temp_cy, ss_t_base_heating_cy, assumptions.model_yeardays, crit_temp_min_max)
self.ss_cdd_by, _ = hdd_cdd.calc_reg_cdd(
temp_by, assumptions.t_bases.ss_t_cooling, assumptions.model_yeardays, crit_temp_min_max)
ss_cdd_cy, ss_lp_cooling_yd = hdd_cdd.calc_reg_cdd(
temp_cy, ss_t_base_cooling_cy, assumptions.model_yeardays, crit_temp_min_max)
try:
f_heat_ss_y = np.nan_to_num(
1.0 / float(np.sum(self.ss_hdd_by))) * np.sum(ss_hdd_cy)
f_cooling_ss_y = np.nan_to_num(
1.0 / float(np.sum(self.ss_cdd_by))) * np.sum(ss_cdd_cy)
except ZeroDivisionError:
f_heat_ss_y = 1
f_cooling_ss_y = 1
# ========
# Enduse specific profiles
# ========
# - Assign to each enduse the carbon fuel trust dataset
for enduse in enduses['service']:
# Skip temperature dependent end uses (regional) because load profile in regional load profile stock
if enduse in assumptions.enduse_space_heating or enduse in assumptions.ss_enduse_space_cooling:
pass
else:
for sector in sectors['service']:
# Get technologies with assigned fuel shares
tech_list = helpers.get_nested_dict_key(
assumptions.fuel_tech_p_by[enduse][sector])
# Apply correction factor for weekend_effect
shape_non_peak_yd_weighted = load_profile.abs_to_rel(
tech_lp['ss_shapes_yd'][enduse][sector]['shape_non_peak_yd'] * assumptions.ss_weekend_f)
load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=tech_list,
enduses=[enduse],
shape_yd=shape_non_peak_yd_weighted,
shape_y_dh=tech_lp['ss_shapes_dh'][enduse][sector]['shape_non_peak_y_dh'],
model_yeardays=assumptions.model_yeardays,
sectors=[sector])
# Apply correction factor for weekend_effect for space heating
ss_fuel_shape_heating_yd_weighted = load_profile.abs_to_rel(
ss_fuel_shape_heating_yd * assumptions.ss_weekend_f)
# ========
# Technology specific profiles
# ========
# Flatten list of all potential technologies
ss_space_heating_tech_lists = list(assumptions.tech_list.values())
all_techs_ss_space_heating = [item for sublist in ss_space_heating_tech_lists for item in sublist]
# -----Heat pump (RESIDENTIAL HEAT PUMP PROFILE FOR SERVICE SECTOR)
all_techs_ss_space_heating = basic_functions.remove_element_from_list(
all_techs_ss_space_heating, 'heat_pumps_electricity')
ss_fuel_shape_hp_yh, ss_hp_shape_yd = get_fuel_shape_heating_hp_yh(
tech_lp_y_dh=rs_profile_hp_y_dh,
tech_stock=rs_tech_stock,
rs_hdd_cy=ss_hdd_cy,
model_yeardays=assumptions.model_yeardays)
load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=assumptions.tech_list['heating_non_const'],
enduses=['ss_space_heating', 'ss_water_heating'],
sectors=sectors['service'],
shape_y_dh=rs_profile_hp_y_dh,
shape_yd=ss_hp_shape_yd,
shape_yh=ss_fuel_shape_hp_yh,
model_yeardays=assumptions.model_yeardays)
# ---secondary_heater_electricity Info: The residential direct heating load profile is used
all_techs_ss_space_heating = basic_functions.remove_element_from_list(
all_techs_ss_space_heating, 'secondary_heater_electricity')
# Get aggregated electricity load profile
#ALTERNATIVE :tech_lp['ss_all_tech_shapes_dh']['ss_other_electricity']['shape_non_peak_y_dh']
load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=assumptions.tech_list['secondary_heating_electricity'],
enduses=['ss_space_heating'],
sectors=sectors['service'],
shape_yd=ss_fuel_shape_heating_yd_weighted,
shape_y_dh=tech_lp['rs_profile_elec_heater_y_dh'],
model_yeardays=assumptions.model_yeardays)
# ELEC CURVE ss_fuel_shape_electricity # DIRECT HEATING ss_profile_elec_heater_yh
# ---Heating technologies (all other)
# (the heating shape follows the gas shape of aggregated sectors)
# meaning that for all technologies, the load profile is the same
load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=all_techs_ss_space_heating,
enduses=['ss_space_heating'],
sectors=sectors['service'],
shape_yd=ss_fuel_shape_heating_yd_weighted,
shape_y_dh=tech_lp['ss_all_tech_shapes_dh']['ss_space_heating']['shape_non_peak_y_dh'],
model_yeardays=assumptions.model_yeardays)
# --Add cooling technologies for service sector
coolings_techs = assumptions.tech_list['cooling_const']
for cooling_enduse in assumptions.ss_enduse_space_cooling:
for sector in sectors['service']:
# Apply correction factor for weekend_effect 'cdd_weekend_cfactors'
ss_lp_cooling_yd_weighted = load_profile.abs_to_rel(
ss_lp_cooling_yd * assumptions.cdd_weekend_cfactors)
load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=coolings_techs,
enduses=[cooling_enduse],
sectors=[sector],
shape_yd=ss_lp_cooling_yd_weighted,
shape_y_dh=tech_lp['ss_profile_cooling_y_dh'],
model_yeardays=assumptions.model_yeardays)
# ==================================================================
# Industry submodel load profiles
# ==================================================================
# --------HDD/CDD
# Current weather_yr
self.is_hdd_by, _ = hdd_cdd.calc_reg_hdd(
temp_by, assumptions.t_bases.is_t_heating, assumptions.model_yeardays, crit_temp_min_max)
#is_cdd_by, _ = hdd_cdd.calc_reg_cdd(
# temp_by, assumptions.t_bases.is_t_cooling, assumptions.model_yeardays)
# Take same base temperature as for service sector
is_hdd_cy, is_fuel_shape_heating_yd = hdd_cdd.calc_reg_hdd(
temp_cy, is_t_base_heating_cy, assumptions.model_yeardays, crit_temp_min_max)
#is_cdd_cy, _ = hdd_cdd.calc_reg_cdd(
# temp_cy, ss_t_base_cooling_cy, assumptions.model_yeardays)
try:
f_heat_is_y = np.nan_to_num(1.0 / float(np.sum(self.is_hdd_by))) * np.sum(is_hdd_cy)
#self.f_cooling_is_y = np.nan_to_num(1.0 / float(np.sum(is_cdd_by))) * np.sum(is_cdd_cy)
f_cooling_is_y = 1
except ZeroDivisionError:
f_heat_is_y = 1
f_cooling_is_y = 1
# ========
# Technology specific profiles
# ========
# --Heating technologies
# Flatten list of all potential heating technologies
is_space_heating_tech_lists = list(assumptions.tech_list.values())
all_techs_is_space_heating = [item for sublist in is_space_heating_tech_lists for item in sublist]
# Apply correction factor for weekend_effect for space heating load profile
is_fuel_shape_heating_yd_weighted = load_profile.abs_to_rel(
is_fuel_shape_heating_yd * assumptions.is_weekend_f)
# - Direct electric heating
# Remove tech from all space heating techs
all_techs_is_space_heating = basic_functions.remove_element_from_list(
all_techs_is_space_heating, 'secondary_heater_electricity')
load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=assumptions.tech_list['secondary_heating_electricity'],
enduses=['is_space_heating'],
sectors=sectors['industry'],
shape_yd=is_fuel_shape_heating_yd_weighted,
shape_y_dh=tech_lp['rs_profile_elec_heater_y_dh'],
model_yeardays=assumptions.model_yeardays)
# Add flat load profiles for non-electric heating technologies
load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=all_techs_is_space_heating,
enduses=['is_space_heating'],
sectors=sectors['industry'],
shape_yd=is_fuel_shape_heating_yd_weighted,
shape_y_dh=flat_shape_y_dh,
model_yeardays=assumptions.model_yeardays)
# Apply correction factor for weekend_effect to flat load profile for industry
flat_shape_yd = flat_shape_yd * assumptions.is_weekend_f
flat_shape_yd_weighted = load_profile.abs_to_rel(flat_shape_yd)
# ========
# Enduse specific profiles
# ========
for enduse in enduses['industry']:
if enduse == "is_space_heating":
pass # Do not create non regional stock because temp dependent
else:
for sector in sectors['industry']:
tech_list = helpers.get_nested_dict_key(
assumptions.fuel_tech_p_by[enduse][sector])
load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=tech_list,
enduses=[enduse],
shape_yd=flat_shape_yd_weighted,
shape_y_dh=flat_shape_y_dh,
model_yeardays=assumptions.model_yeardays,
sectors=[sector])
# ---------------
# Load profiles
# ---------------
self.load_profiles = load_profiles
self.f_heat = {
'residential': f_heat_rs_y,
'service': f_heat_ss_y,
'industry': f_heat_is_y}
self.f_colling = {
'residential': f_cooling_rs_y,
'service': f_cooling_ss_y,
'industry': f_cooling_is_y}
def __init__(self, weather_region_name, data, modeltype):
"""Constructor
"""
self.weather_region_name = weather_region_name
# Temperatures
temp_by = data['temperature_data'][weather_region_name][
data['sim_param']['base_yr']]
temp_cy = data['temperature_data'][weather_region_name][
data['sim_param']['curr_yr']]
rs_t_base_heating_cy = hdd_cdd.sigm_temp(data['sim_param'],
data['assumptions'],
'rs_t_base_heating')
rs_t_base_cooling_cy = hdd_cdd.sigm_temp(data['sim_param'],
data['assumptions'],
'rs_t_base_cooling')
rs_t_base_heating_by = hdd_cdd.sigm_temp(data['sim_param'],
data['assumptions'],
'rs_t_base_heating')
rs_t_base_cooling_by = hdd_cdd.sigm_temp(data['sim_param'],
data['assumptions'],
'rs_t_base_cooling')
ss_t_base_heating_cy = hdd_cdd.sigm_temp(data['sim_param'],
data['assumptions'],
'ss_t_base_heating')
ss_t_base_cooling_cy = hdd_cdd.sigm_temp(data['sim_param'],
data['assumptions'],
'ss_t_base_cooling')
ss_t_base_heating_by = hdd_cdd.sigm_temp(data['sim_param'],
data['assumptions'],
'ss_t_base_heating')
ss_t_base_cooling_by = hdd_cdd.sigm_temp(data['sim_param'],
data['assumptions'],
'ss_t_base_cooling')
# -------------------
# Technology stock
# -------------------
if modeltype == 'is_submodel':
self.is_tech_stock = technological_stock.TechStock(
'is_tech_stock', data, temp_by, temp_cy,
data['assumptions']['ss_t_base_heating']['base_yr'],
data['is_all_enduses'], ss_t_base_heating_cy,
data['assumptions']['is_specified_tech_enduse_by'])
elif modeltype == 'rs_submodel':
self.rs_tech_stock = technological_stock.TechStock(
'rs_tech_stock', data, temp_by, temp_cy,
data['assumptions']['rs_t_base_heating']['base_yr'],
data['rs_all_enduses'], rs_t_base_heating_cy,
data['assumptions']['rs_specified_tech_enduse_by'])
elif modeltype == 'ss_submodel':
self.ss_tech_stock = technological_stock.TechStock(
'ss_tech_stock', data, temp_by, temp_cy,
data['assumptions']['ss_t_base_heating']['base_yr'],
data['ss_all_enduses'], ss_t_base_heating_cy,
data['assumptions']['ss_specified_tech_enduse_by'])
# -------------------
# Load profiles
# -------------------
if modeltype == 'rs_submodel':
# --------Profiles
self.rs_load_profiles = load_profile.LoadProfileStock(
"rs_load_profiles")
# --------HDD/CDD
rs_hdd_by, _ = hdd_cdd.get_reg_hdd(temp_by, rs_t_base_heating_by)
rs_cdd_by, _ = hdd_cdd.get_reg_cdd(temp_by, rs_t_base_cooling_by)
rs_hdd_cy, rs_fuel_shape_heating_yd = hdd_cdd.get_reg_hdd(
temp_cy, rs_t_base_heating_cy)
rs_cdd_cy, _ = hdd_cdd.get_reg_cdd(temp_cy, rs_t_base_cooling_cy)
# Climate change correction factors
# (Assumption: Demand for heat correlates directly with fuel)
try:
self.rs_heating_factor_y = np.nan_to_num(
1.0 / float(np.sum(rs_hdd_by))) * np.sum(rs_hdd_cy)
self.rs_cooling_factor_y = np.nan_to_num(
1.0 / float(np.sum(rs_cdd_by))) * np.sum(rs_cdd_cy)
except ZeroDivisionError:
self.rs_heating_factor_y = 1
self.rs_cooling_factor_y = 1
# yd peak factors for heating and cooling
rs_peak_yd_heating_factor = self.get_shape_peak_yd_factor(
rs_hdd_cy)
#rs_peak_yd_cooling_factor = self.get_shape_peak_yd_factor(rs_cdd_cy)
# --Specific heating technologies for residential sector
rs_profile_storage_heater_yh, _ = self.get_shape_heating_boilers_yh(
data, rs_fuel_shape_heating_yd,
'rs_profile_heating_storage_dh')
rs_profile_elec_heater_yh, _ = self.get_shape_heating_boilers_yh(
data, rs_fuel_shape_heating_yd,
'rs_profile_heating_second_heating_dh')
# boiler, non-peak
rs_profile_boilers_yh, rs_profile_boilers_y_dh = self.get_shape_heating_boilers_yh(
data, rs_fuel_shape_heating_yd, 'rs_shapes_heating_boilers_dh')
# heat pumps, non-peak
rs_fuel_shape_hp_yh, rs_fuel_shape_hp_y_dh = self.get_fuel_shape_heating_hp_yh(
data, self.rs_tech_stock, rs_hdd_cy,
'rs_shapes_heating_heat_pump_dh')
rs_fuel_shape_hybrid_tech_yh = self.get_shape_heating_hybrid_yh(
self.rs_tech_stock, 'rs_space_heating',
rs_profile_boilers_y_dh, rs_fuel_shape_hp_y_dh,
rs_fuel_shape_heating_yd, 'hybrid_gas_electricity')
# Cooling residential
#rs_fuel_shape_cooling_yh = self.get_shape_cooling_yh(
# data, rs_fuel_shape_cooling_yd, 'rs_shapes_cooling_dh')
# Heating boiler
self.rs_load_profiles.add_load_profile(
unique_identifier=uuid.uuid4(),
technologies=data['assumptions']['technology_list']
['tech_heating_const'],
enduses=['rs_space_heating', 'rs_water_heating'],
shape_yd=rs_fuel_shape_heating_yd,
shape_yh=rs_profile_boilers_yh,
enduse_peak_yd_factor=rs_peak_yd_heating_factor,
shape_peak_dh=data['rs_shapes_heating_boilers_dh']['peakday'])
# Electric heating, primary...(storage)
self.rs_load_profiles.add_load_profile(
unique_identifier=uuid.uuid4(),
technologies=data['assumptions']['technology_list']
['primary_heating_electricity'],
enduses=['rs_space_heating'],
shape_yd=rs_fuel_shape_heating_yd,
shape_yh=rs_profile_storage_heater_yh,
enduse_peak_yd_factor=rs_peak_yd_heating_factor,
shape_peak_dh=data['rs_profile_heating_storage_dh']['peakday'])
# Electric heating, secondary...
self.rs_load_profiles.add_load_profile(
unique_identifier=uuid.uuid4(),
technologies=data['assumptions']['technology_list']
['secondary_heating_electricity'],
enduses=['rs_space_heating', 'rs_water_heating'],
shape_yd=rs_fuel_shape_heating_yd,
shape_yh=rs_profile_elec_heater_yh,
enduse_peak_yd_factor=rs_peak_yd_heating_factor,
shape_peak_dh=data['rs_profile_heating_second_heating_dh']
['peakday'])
# Hybrid heating
self.rs_load_profiles.add_load_profile(
unique_identifier=uuid.uuid4(),
technologies=data['assumptions']['technology_list']
['tech_heating_hybrid'],
enduses=['rs_space_heating', 'rs_water_heating'],
shape_yd=rs_fuel_shape_heating_yd,
shape_yh=rs_fuel_shape_hybrid_tech_yh,
enduse_peak_yd_factor=rs_peak_yd_heating_factor)
# Heat pump heating
self.rs_load_profiles.add_load_profile(
unique_identifier=uuid.uuid4(),
technologies=data['assumptions']['technology_list']
['tech_heating_temp_dep'],
enduses=['rs_space_heating', 'rs_water_heating'],
shape_yd=rs_fuel_shape_heating_yd,
shape_yh=rs_fuel_shape_hp_yh,
enduse_peak_yd_factor=rs_peak_yd_heating_factor,
shape_peak_dh=data['rs_shapes_heating_heat_pump_dh']
['peakday'])
elif modeltype == 'ss_submodel':
# --------Profiles
self.ss_load_profiles = load_profile.LoadProfileStock(
"ss_load_profiles")
# --------HDD/CDD
ss_hdd_by, _ = hdd_cdd.get_reg_hdd(temp_by, ss_t_base_heating_by)
ss_cdd_by, _ = hdd_cdd.get_reg_cdd(temp_by, ss_t_base_cooling_by)
ss_hdd_cy, ss_fuel_shape_heating_yd = hdd_cdd.get_reg_hdd(
temp_cy, rs_t_base_heating_cy)
ss_cdd_cy, _ = hdd_cdd.get_reg_cdd(temp_cy, ss_t_base_cooling_cy)
try:
self.ss_heating_factor_y = np.nan_to_num(
1.0 / float(np.sum(ss_hdd_by))) * np.sum(ss_hdd_cy)
self.ss_cooling_factor_y = np.nan_to_num(
1.0 / float(np.sum(ss_cdd_by))) * np.sum(ss_cdd_cy)
except ZeroDivisionError:
self.ss_heating_factor_y = 1
self.ss_cooling_factor_y = 1
ss_peak_yd_heating_factor = self.get_shape_peak_yd_factor(
ss_hdd_cy)
#ss_peak_yd_cooling_factor = self.get_shape_peak_yd_factor(ss_cdd_cy)
# --Heating technologies for service sector
# (the heating shape follows the gas shape of aggregated sectors)
ss_fuel_shape_any_tech, ss_fuel_shape = self.ss_get_sector_enduse_shape(
data, ss_fuel_shape_heating_yd, 'ss_space_heating')
# Cooling service
#ss_fuel_shape_cooling_yh = self.get_shape_cooling_yh(data, ss_fuel_shape_cooling_yd, 'ss_shapes_cooling_dh') # Service cooling
#ss_fuel_shape_cooling_yh = self.get_shape_cooling_yh(data, ss_fuel_shape_heating_yd, 'ss_shapes_cooling_dh') # Service cooling #USE HEAT YD BUT COOLING SHAPE
#ss_fuel_shape_cooling_yh = self.get_shape_cooling_yh(data, load_profile.absolute_to_relative(ss_hdd_cy + ss_cdd_cy), 'ss_shapes_cooling_dh') # hdd & cdd
# Hybrid
ss_profile_hybrid_gas_elec_yh = self.get_shape_heating_hybrid_yh(
self.ss_tech_stock, 'ss_space_heating', ss_fuel_shape,
ss_fuel_shape, ss_fuel_shape_heating_yd,
'hybrid_gas_electricity')
self.ss_load_profiles.add_load_profile(
unique_identifier=uuid.uuid4(),
technologies=data['assumptions']['technology_list']
['tech_heating_const'],
enduses=['ss_space_heating', 'ss_water_heating'],
sectors=data['ss_sectors'],
shape_yd=ss_fuel_shape_heating_yd,
shape_yh=ss_fuel_shape_any_tech,
enduse_peak_yd_factor=ss_peak_yd_heating_factor,
shape_peak_dh=data['ss_shapes_dh'])
self.ss_load_profiles.add_load_profile(
unique_identifier=uuid.uuid4(),
technologies=data['assumptions']['technology_list']
['primary_heating_electricity'],
enduses=['ss_space_heating'],
sectors=data['ss_sectors'],
shape_yd=ss_fuel_shape_heating_yd,
shape_yh=ss_fuel_shape_any_tech,
enduse_peak_yd_factor=ss_peak_yd_heating_factor,
shape_peak_dh=data['rs_profile_heating_storage_dh']['peakday'])
self.ss_load_profiles.add_load_profile(
unique_identifier=uuid.uuid4(),
technologies=data['assumptions']['technology_list']
['secondary_heating_electricity'],
enduses=['rs_space_heating', 'rs_water_heating'],
sectors=data['ss_sectors'],
shape_yd=ss_fuel_shape_heating_yd,
shape_yh=ss_fuel_shape_any_tech,
enduse_peak_yd_factor=ss_peak_yd_heating_factor)
self.ss_load_profiles.add_load_profile(
unique_identifier=uuid.uuid4(),
technologies=data['assumptions']['technology_list']
['tech_heating_hybrid'],
enduses=['ss_space_heating', 'ss_water_heating'],
sectors=data['ss_sectors'],
shape_yd=ss_fuel_shape_heating_yd,
shape_yh=ss_profile_hybrid_gas_elec_yh,
enduse_peak_yd_factor=ss_peak_yd_heating_factor,
)
self.ss_load_profiles.add_load_profile(
unique_identifier=uuid.uuid4(),
technologies=data['assumptions']['technology_list']
['tech_heating_temp_dep'],
enduses=['ss_space_heating', 'ss_water_heating'],
sectors=data['ss_sectors'],
shape_yd=ss_fuel_shape_heating_yd,
shape_yh=ss_fuel_shape_any_tech,
enduse_peak_yd_factor=ss_peak_yd_heating_factor)
elif modeltype == 'is_submodel':
# --------Profiles
self.is_load_profiles = load_profile.LoadProfileStock(
"is_load_profiles")
# --------HDD/CDD
is_hdd_by, _ = hdd_cdd.get_reg_hdd(temp_by, ss_t_base_heating_by)
is_cdd_by, _ = hdd_cdd.get_reg_cdd(temp_by, ss_t_base_cooling_by)
# Take same base temperature as for service sector
is_hdd_cy, is_fuel_shape_heating_yd = hdd_cdd.get_reg_hdd(
temp_cy, ss_t_base_heating_cy)
is_cdd_cy, _ = hdd_cdd.get_reg_cdd(temp_cy, ss_t_base_cooling_cy)
try:
self.is_heating_factor_y = np.nan_to_num(
1.0 / float(np.sum(is_hdd_by))) * np.sum(is_hdd_cy)
self.is_cooling_factor_y = np.nan_to_num(
1.0 / float(np.sum(is_cdd_by))) * np.sum(is_cdd_cy)
except ZeroDivisionError:
self.is_heating_factor_y = 1
self.is_cooling_factor_y = 1
is_peak_yd_heating_factor = self.get_shape_peak_yd_factor(
is_hdd_cy)
#is_peak_yd_cooling_factor = self.get_shape_peak_yd_factor(is_cdd_cy)
# --Heating technologies for service sector (the heating shape follows
# the gas shape of aggregated sectors)
#Take from service sector
is_fuel_shape_any_tech, _ = self.ss_get_sector_enduse_shape(
data, is_fuel_shape_heating_yd, 'ss_space_heating')
self.is_load_profiles.add_load_profile(
unique_identifier=uuid.uuid4(),
technologies=data['assumptions']['technology_list']
['tech_heating_const'],
enduses=['is_space_heating'],
sectors=data['is_sectors'],
shape_yd=is_fuel_shape_heating_yd,
shape_yh=is_fuel_shape_any_tech,
enduse_peak_yd_factor=is_peak_yd_heating_factor)
self.is_load_profiles.add_load_profile(
unique_identifier=uuid.uuid4(),
technologies=data['assumptions']['technology_list']
['primary_heating_electricity'],
enduses=['is_space_heating'],
sectors=data['is_sectors'],
shape_yd=is_fuel_shape_heating_yd,
enduse_peak_yd_factor=is_peak_yd_heating_factor,
shape_yh=is_fuel_shape_any_tech)
self.is_load_profiles.add_load_profile(
unique_identifier=uuid.uuid4(),
technologies=data['assumptions']['technology_list']
['secondary_heating_electricity'],
enduses=['is_space_heating'],
sectors=data['is_sectors'],
shape_yd=is_fuel_shape_heating_yd,
shape_yh=is_fuel_shape_any_tech,
enduse_peak_yd_factor=is_peak_yd_heating_factor,
)
self.is_load_profiles.add_load_profile(
unique_identifier=uuid.uuid4(),
technologies=data['assumptions']['technology_list']
['tech_heating_hybrid'],
enduses=['is_space_heating'],
sectors=data['is_sectors'],
shape_yd=is_fuel_shape_heating_yd,
shape_yh=is_fuel_shape_any_tech,
enduse_peak_yd_factor=is_peak_yd_heating_factor,
)
self.is_load_profiles.add_load_profile(
unique_identifier=uuid.uuid4(),
technologies=data['assumptions']['technology_list']
['tech_heating_temp_dep'],
enduses=['is_space_heating'],
sectors=data['is_sectors'],
shape_yd=is_fuel_shape_heating_yd,
shape_yh=is_fuel_shape_any_tech,
enduse_peak_yd_factor=is_peak_yd_heating_factor)
def __init__(
self,
name,
base_yr,
curr_yr,
strategy_variables,
t_bases,
t_diff_param,
tech_lists,
technologies,
assumptions,
fueltypes,
model_yeardays_nrs,
model_yeardays,
yeardays_month_days,
all_enduses,
temp_by,
tech_lp,
sectors,
):
"""Constructor of weather region
"""
self.name = name
# -----------------------------------
# Calculate current year temperatures
# -----------------------------------
temp_cy = change_temp_climate(temp_by, yeardays_month_days,
strategy_variables, base_yr, curr_yr)
# Change base temperatures depending on change in t_base
rs_t_base_heating_cy = hdd_cdd.sigm_temp(
strategy_variables['rs_t_base_heating_future_yr']
['scenario_value'], t_bases.rs_t_heating_by, base_yr, curr_yr,
t_diff_param)
'''rs_t_base_cooling_cy = hdd_cdd.sigm_temp(
strategy_variables['rs_t_base_cooling_future_yr']['scenario_value'],
t_bases.rs_t_cooling_by, base_yr, curr_yr,
t_diff_param)'''
ss_t_base_heating_cy = hdd_cdd.sigm_temp(
strategy_variables['ss_t_base_heating_future_yr']
['scenario_value'], t_bases.ss_t_heating_by, base_yr, curr_yr,
t_diff_param)
ss_t_base_cooling_cy = hdd_cdd.sigm_temp(
strategy_variables['ss_t_base_cooling_future_yr']
['scenario_value'], t_bases.ss_t_cooling_by, base_yr, curr_yr,
t_diff_param)
is_t_base_heating_cy = hdd_cdd.sigm_temp(
strategy_variables['is_t_base_heating_future_yr']
['scenario_value'], t_bases.is_t_heating_by, base_yr, curr_yr,
t_diff_param)
'''is_t_base_cooling_cy = hdd_cdd.sigm_temp(
strategy_variables['is_t_base_cooling_future_yr']['scenario_value'],
t_bases.is_t_cooling_by,
base_yr,
curr_yr,
t_diff_param)'''
# -------------------
# Technology stocks
# -------------------
self.rs_tech_stock = technological_stock.TechStock(
'rs_tech_stock', technologies, tech_lists,
assumptions.enduse_overall_change['other_enduse_mode_info'],
base_yr, curr_yr, fueltypes, temp_by, temp_cy,
t_bases.rs_t_heating_by, all_enduses['rs_enduses'],
rs_t_base_heating_cy, assumptions.rs_specified_tech_enduse_by)
self.ss_tech_stock = technological_stock.TechStock(
'ss_tech_stock', technologies, tech_lists,
assumptions.enduse_overall_change['other_enduse_mode_info'],
base_yr, curr_yr, fueltypes, temp_by, temp_cy,
t_bases.ss_t_heating_by, all_enduses['ss_enduses'],
ss_t_base_heating_cy, assumptions.ss_specified_tech_enduse_by)
self.is_tech_stock = technological_stock.TechStock(
'is_tech_stock', technologies, tech_lists,
assumptions.enduse_overall_change['other_enduse_mode_info'],
base_yr, curr_yr, fueltypes, temp_by, temp_cy,
t_bases.is_t_heating_by, all_enduses['is_enduses'],
ss_t_base_heating_cy, assumptions.is_specified_tech_enduse_by)
# -------------------
# Residential Load profiles
# ------------------
self.rs_load_profiles = load_profile.LoadProfileStock(
"rs_load_profiles")
# --------Calculate HDD/CDD
self.rs_hdd_by, _ = hdd_cdd.calc_reg_hdd(temp_by,
t_bases.rs_t_heating_by,
model_yeardays)
self.rs_hdd_cy, rs_fuel_shape_heating_yd = hdd_cdd.calc_reg_hdd(
temp_cy, rs_t_base_heating_cy, model_yeardays)
#self.rs_cdd_by, _ = hdd_cdd.calc_reg_cdd(
# temp_by, t_bases.rs_t_cooling_by, model_yeardays)
#self.rs_cdd_cy, rs_fuel_shape_cooling_yd = hdd_cdd.calc_reg_cdd(
# temp_cy, rs_t_base_cooling_cy, model_yeardays)
# -------Calculate climate change correction factors
try:
self.f_heat_rs_y = np.nan_to_num(
1.0 / float(np.sum(self.rs_hdd_by))) * np.sum(self.rs_hdd_cy)
#self.f_cooling_rs_y = np.nan_to_num(
# 1.0 / float(np.sum(self.rs_cdd_by))) * np.sum(self.rs_cdd_cy)
self.f_cooling_rs_y = 1
except ZeroDivisionError:
self.f_heat_rs_y = 1
self.f_cooling_rs_y = 1
# yd peak factors for heating and cooling
rs_peak_yd_heating_factor = get_shape_peak_yd_factor(self.rs_hdd_cy)
'''
# RESIDENITAL COOLING
#rs_peak_yd_cooling_factor = get_shape_peak_yd_factor(self.rs_cdd_cy)
rs_cold_techs = tech_lists['rs_cold']
rs_cold_techs.append('placeholder_tech')
# ----Cooling residential
#rs_fuel_shape_cooling_yh = load_profile.calc_yh(
# rs_fuel_shape_cooling_yd, tech_lp['rs_shapes_cooling_dh'], model_yeardays)
#or also (if only yd)
#shape_yh=tech_lp['rs_shapes_dh'][cooling_enduse]['shape_non_peak_y_dh'] * ss_fuel_shape_coolin_yd[:, np.newaxis],
rs_fuel_shape_cooling_yh = self.get_shape_cooling_yh(data, rs_fuel_shape_cooling_yd, 'rs_shapes_cooling_dh')
for cooling_enduse in assumptions.enduse_rs_space_cooling:
self.rs_load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=rs_cold_techs,
enduses=enduse, #['rs_cooling'],
shape_yd=rs_fuel_shape_cooling_yd,
shape_yh=rs_fuel_shape_cooling_yh,
f_peak_yd=rs_peak_yd_cooling_factor,
shape_peak_dh=tech_lp['rs_shapes_cooling_dh']['peakday'])
'''
# ------Heating boiler
rs_profile_boilers_y_dh = load_profile.calc_yh(
rs_fuel_shape_heating_yd, tech_lp['rs_profile_boilers_y_dh'],
model_yeardays)
self.rs_load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=tech_lists['heating_const'],
enduses=['rs_space_heating', 'rs_water_heating'],
shape_yd=rs_fuel_shape_heating_yd,
shape_yh=rs_profile_boilers_y_dh,
f_peak_yd=rs_peak_yd_heating_factor,
shape_peak_dh=tech_lp['rs_lp_heating_boilers_dh']['peakday'])
# ------Heating CHP
rs_profile_chp_y_dh = load_profile.calc_yh(
rs_fuel_shape_heating_yd, tech_lp['rs_profile_chp_y_dh'],
model_yeardays)
self.rs_load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=tech_lists['tech_CHP'],
enduses=['rs_space_heating', 'rs_water_heating'],
shape_yd=rs_fuel_shape_heating_yd,
shape_yh=rs_profile_chp_y_dh,
f_peak_yd=rs_peak_yd_heating_factor,
shape_peak_dh=tech_lp['rs_lp_heating_CHP_dh']['peakday'])
# ------Electric heating, storage heating (primary)
rs_profile_storage_heater_y_dh = load_profile.calc_yh(
rs_fuel_shape_heating_yd,
tech_lp['rs_profile_storage_heater_y_dh'], model_yeardays)
self.rs_load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=tech_lists['storage_heating_electricity'],
enduses=['rs_space_heating', 'rs_water_heating'],
shape_yd=rs_fuel_shape_heating_yd,
shape_yh=rs_profile_storage_heater_y_dh,
f_peak_yd=rs_peak_yd_heating_factor,
shape_peak_dh=tech_lp['rs_lp_storage_heating_dh']['peakday'])
# ------Electric heating secondary (direct elec heating)
rs_profile_elec_heater_y_dh = load_profile.calc_yh(
rs_fuel_shape_heating_yd, tech_lp['rs_profile_elec_heater_y_dh'],
model_yeardays)
self.rs_load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=tech_lists['secondary_heating_electricity'],
enduses=['rs_space_heating', 'rs_water_heating'],
shape_yd=rs_fuel_shape_heating_yd,
shape_yh=rs_profile_elec_heater_y_dh,
f_peak_yd=rs_peak_yd_heating_factor,
shape_peak_dh=tech_lp['rs_lp_second_heating_dh']['peakday'])
# ------Heat pump heating
rs_fuel_shape_hp_yh, _ = get_fuel_shape_heating_hp_yh(
tech_lp['rs_profile_hp_y_dh'], self.rs_tech_stock, self.rs_hdd_cy,
model_yeardays)
self.rs_load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=tech_lists['heating_non_const'],
enduses=['rs_space_heating', 'rs_water_heating'],
shape_yd=rs_fuel_shape_heating_yd,
shape_yh=rs_fuel_shape_hp_yh,
f_peak_yd=rs_peak_yd_heating_factor,
shape_peak_dh=tech_lp['rs_lp_heating_CHP_dh']['peakday'])
# ------District_heating_electricity --> Assumption made that same curve as CHP
rs_profile_chp_y_dh = load_profile.calc_yh(
rs_fuel_shape_heating_yd, tech_lp['rs_profile_chp_y_dh'],
model_yeardays)
self.rs_load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=tech_lists['tech_district_heating'],
enduses=['rs_space_heating', 'rs_water_heating'],
shape_yd=rs_fuel_shape_heating_yd,
shape_yh=rs_profile_chp_y_dh,
f_peak_yd=rs_peak_yd_heating_factor,
shape_peak_dh=tech_lp['rs_lp_heating_boilers_dh']['peakday'])
# -------------------
# Service Load profiles
# ------------------
self.ss_load_profiles = load_profile.LoadProfileStock(
"ss_load_profiles")
# --------HDD/CDD
ss_hdd_by, _ = hdd_cdd.calc_reg_hdd(temp_by, t_bases.ss_t_heating_by,
model_yeardays)
ss_hdd_cy, ss_fuel_shape_heating_yd = hdd_cdd.calc_reg_hdd(
temp_cy, ss_t_base_heating_cy, model_yeardays)
ss_cdd_by, _ = hdd_cdd.calc_reg_cdd(temp_by, t_bases.ss_t_cooling_by,
model_yeardays)
ss_cdd_cy, ss_fuel_shape_coolin_yd = hdd_cdd.calc_reg_cdd(
temp_cy, ss_t_base_cooling_cy, model_yeardays)
try:
self.f_heat_ss_y = np.nan_to_num(
1.0 / float(np.sum(ss_hdd_by))) * np.sum(ss_hdd_cy)
self.f_cooling_ss_y = np.nan_to_num(
1.0 / float(np.sum(ss_cdd_by))) * np.sum(ss_cdd_cy)
except ZeroDivisionError:
self.f_heat_ss_y = 1
self.f_cooling_ss_y = 1
# ----------------------------------------------
# Apply weekend correction factor fo ss heating
# ----------------------------------------------
ss_peak_yd_heating_factor = get_shape_peak_yd_factor(ss_hdd_cy)
ss_peak_yd_cooling_factor = get_shape_peak_yd_factor(ss_cdd_cy)
# --Heating technologies for service sector
#
# (the heating shape follows the gas shape of aggregated sectors)
# meaning that for all technologies, the load profile is the same
ss_fuel_shape_any_tech, ss_fuel_shape = ss_get_sector_enduse_shape(
tech_lp['ss_all_tech_shapes_dh'], ss_fuel_shape_heating_yd,
'ss_space_heating', model_yeardays_nrs)
# Apply correction factor for weekend_effect
# ------
ss_fuel_shape_heating_yd = ss_fuel_shape_heating_yd * assumptions.ss_weekend_f
ss_fuel_shape_heating_yd_weighted = load_profile.abs_to_rel(
ss_fuel_shape_heating_yd)
# ------
# Flatten list of all potential technologies
ss_space_heating_tech_lists = list(tech_lists.values())
all_techs_ss_space_heating = [
item for sublist in ss_space_heating_tech_lists for item in sublist
]
# ----------------
# Get peak day and calculate peak load profile for peak day
# ----------------
peak_day = get_peak_day_single_fueltype(ss_fuel_shape)
ss_space_heating_shape_peak_dh = load_profile.abs_to_rel(
ss_fuel_shape[peak_day])
self.ss_load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=all_techs_ss_space_heating,
enduses=['ss_space_heating'],
sectors=sectors['ss_sectors'],
shape_yd=ss_fuel_shape_heating_yd_weighted,
shape_yh=ss_fuel_shape_any_tech,
f_peak_yd=ss_peak_yd_heating_factor,
shape_peak_dh=ss_space_heating_shape_peak_dh)
#------
# Add cooling technologies for service sector
#------
coolings_techs = tech_lists['cooling_const']
for cooling_enduse in assumptions.ss_enduse_space_cooling:
for sector in sectors['ss_sectors']:
# Apply correction factor for weekend_effect 'cdd_weekend_cfactors'
ss_fuel_shape_coolin_yd = ss_fuel_shape_coolin_yd * assumptions.cdd_weekend_cfactors
ss_fuel_shape_coolin_yd = load_profile.abs_to_rel(
ss_fuel_shape_coolin_yd)
# Ev auch tech_lp['ss_shapes_cooling_dh']
ss_shape_yh = load_profile.calc_yh(
ss_fuel_shape_coolin_yd,
tech_lp['ss_profile_cooling_y_dh'], model_yeardays)
self.ss_load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=coolings_techs,
enduses=[cooling_enduse],
sectors=[sector],
shape_yd=ss_fuel_shape_coolin_yd,
shape_yh=ss_shape_yh,
f_peak_yd=ss_peak_yd_cooling_factor,
shape_peak_dh=tech_lp['ss_shapes_cooling_dh']['peakday'])
# --------------------------------
# Industry submodel
# --------------------------------
self.is_load_profiles = load_profile.LoadProfileStock(
"is_load_profiles")
# --------HDD/CDD
is_hdd_by, _ = hdd_cdd.calc_reg_hdd(temp_by, t_bases.is_t_heating_by,
model_yeardays)
#is_cdd_by, _ = hdd_cdd.calc_reg_cdd(
# temp_by, t_bases.is_t_cooling_by, model_yeardays)
# Take same base temperature as for service sector
is_hdd_cy, is_fuel_shape_heating_yd = hdd_cdd.calc_reg_hdd(
temp_cy, is_t_base_heating_cy, model_yeardays)
#is_cdd_cy, _ = hdd_cdd.calc_reg_cdd(
# temp_cy, ss_t_base_cooling_cy, model_yeardays)
try:
self.f_heat_is_y = np.nan_to_num(
1.0 / float(np.sum(is_hdd_by))) * np.sum(is_hdd_cy)
#self.f_cooling_is_y = np.nan_to_num(1.0 / float(np.sum(is_cdd_by))) * np.sum(is_cdd_cy)
self.f_cooling_is_y = 1
except ZeroDivisionError:
self.f_heat_is_y = 1
self.f_cooling_is_y = 1
is_peak_yd_heating_factor = get_shape_peak_yd_factor(is_hdd_cy)
#is_peak_yd_cooling_factor = self.get_shape_peak_yd_factor(is_cdd_cy)
# Cooling for industrial enduse
# --Heating technologies for service sector (the heating shape follows
# the gas shape of aggregated sectors)
# Flatten list of all potential heating technologies
is_space_heating_tech_lists = list(tech_lists.values())
all_techs_is_space_heating = [
item for sublist in is_space_heating_tech_lists for item in sublist
]
# Apply correction factor for weekend_effect for space heating load profile
is_fuel_shape_heating_yd = is_fuel_shape_heating_yd * assumptions.is_weekend_f
is_fuel_shape_heating_yd = load_profile.abs_to_rel(
is_fuel_shape_heating_yd)
# Y_dh Heating profile is taken from service sector
is_fuel_shape_any_tech, _ = ss_get_sector_enduse_shape(
tech_lp['ss_all_tech_shapes_dh'], is_fuel_shape_heating_yd,
'ss_space_heating', assumptions.model_yeardays_nrs)
# Alternatively generate y_dh flat profile
#from energy_demand.profiles import generic_shapes
#shape_peak_dh, _, shape_peak_yd_factor, shape_non_peak_yd, shape_non_peak_yh = generic_shapes.flat_shape(
# assumptions.model_yeardays_nrs)
#flat_is_fuel_shape_any_tech = np.full((assumptions.model_yeardays_nrs, 24), (1.0/24.0), dtype=float)
#flat_is_fuel_shape_any_tech = flat_is_fuel_shape_any_tech * is_fuel_shape_heating_yd[:, np.newaxis]
self.is_load_profiles.add_lp(
unique_identifier=uuid.uuid4(),
technologies=all_techs_is_space_heating,
enduses=['is_space_heating'],
sectors=sectors['is_sectors'],
shape_yd=is_fuel_shape_heating_yd,
shape_yh=is_fuel_shape_any_tech, #flat_is_fuel_shape_any_tech,
f_peak_yd=is_peak_yd_heating_factor)