def theworks(context):
"""All technologies.
>>> class C: pass
>>> c = C()
>>> c.generators = []
>>> theworks(c)
>>> len(c.generators)
28
"""
re100(context)
# pylint: disable=redefined-outer-name
# use polygon 38
geo = generators.Geothermal_HSA(regions.nsw, 0,
configfile.get('generation', 'hsa-geothermal-trace'), 38)
pt = generators.ParabolicTrough(regions.nsw, 0, 2, 6,
configfile.get('generation', 'cst-trace'), 12)
coal = generators.Black_Coal(regions.nsw, 0)
coal_ccs = generators.Coal_CCS(regions.nsw, 0)
ccgt = generators.CCGT(regions.nsw, 0)
ccgt_ccs = generators.CCGT_CCS(regions.nsw, 0)
ocgt = generators.OCGT(regions.nsw, 0)
batt = generators.Battery(regions.nsw, 0, 0)
diesel = generators.Diesel(regions.nsw, 0)
dem = generators.DemandResponse(regions.nsw, 0, 300)
g = context.generators
context.generators = [geo, pt, coal, coal_ccs, ccgt, ccgt_ccs] + \
g[:-4] + [ocgt, diesel, batt, dem]
def _one_per_poly(region):
"""Return three lists of wind, PV and CST generators, one per polygon.
>>> import regions
>>> wind, pv, cst = _one_per_poly(regions.tas)
>>> len(wind), len(pv), len(cst)
(4, 4, 4)
"""
pv = []
wind = []
cst = []
for poly in polygons.in_region(region):
wind.append(generators.Wind(region, 0,
configfile.get('generation', 'wind-trace'),
poly - 1,
delimiter=',',
build_limit=polygons.wind_limit[poly],
label='poly %d wind' % poly))
pv.append(generators.PV1Axis(region, 0,
configfile.get('generation', 'pv1axis-trace'),
poly - 1,
build_limit=polygons.pv_limit[poly],
label='poly %d PV' % poly))
cst.append(generators.CentralReceiver(region, 0, 2, 6,
configfile.get('generation', 'cst-trace'),
poly - 1,
build_limit=polygons.cst_limit[poly],
label='poly %d CST' % poly))
return wind, pv, cst
def _one_per_poly(region):
"""Return three lists of wind, PV and CST generators, one per polygon.
>>> import regions
>>> wind, pv, cst = _one_per_poly(regions.tas)
>>> len(wind), len(pv), len(cst)
(4, 4, 4)
"""
pv = []
wind = []
cst = []
for poly in region.polygons:
wind.append(
generators.Wind(
poly,
0,
configfile.get("generation", "wind-trace"),
poly - 1,
delimiter=",",
build_limit=polygons.wind_limit[poly],
label="poly %d wind" % poly,
)
)
pv.append(
generators.PV1Axis(
poly,
0,
configfile.get("generation", "pv1axis-trace"),
poly - 1,
build_limit=polygons.pv_limit[poly],
label="poly %d PV" % poly,
)
)
cst.append(
generators.CentralReceiver(
poly,
0,
2,
6,
configfile.get("generation", "cst-trace"),
poly - 1,
build_limit=polygons.cst_limit[poly],
label="poly %d CST" % poly,
)
)
return wind, pv, cst
def theworks(context):
"""All technologies.
>>> class C: pass
>>> c = C()
>>> c.generators = []
>>> theworks(c)
>>> len(c.generators)
190
"""
re100(context)
# pylint: disable=redefined-outer-name
geo = generators.Geothermal_HSA(polygons.wildcard, 0, configfile.get("generation", "hsa-geothermal-trace"), 38)
pt = generators.ParabolicTrough(polygons.wildcard, 0, 2, 6, configfile.get("generation", "cst-trace"), 12)
coal = generators.Black_Coal(polygons.wildcard, 0)
coal_ccs = generators.Coal_CCS(polygons.wildcard, 0)
ccgt = generators.CCGT(polygons.wildcard, 0)
ccgt_ccs = generators.CCGT_CCS(polygons.wildcard, 0)
ocgt = generators.OCGT(polygons.wildcard, 0)
batt = generators.Battery(polygons.wildcard, 0, 0)
diesel = generators.Diesel(polygons.wildcard, 0)
dem = generators.DemandResponse(polygons.wildcard, 0, 300)
g = context.generators
context.generators = [geo, pt, coal, coal_ccs, ccgt, ccgt_ccs] + g[:-4] + [ocgt, diesel, batt, dem]
def re100_geothermal_hsa(context):
"""100% renewables plus HSA geothermal.
>>> class C: pass
>>> c = C()
>>> re100_geothermal_hsa(c)
>>> isinstance(c.generators[0], generators.Geothermal_HSA)
True
"""
re100(context)
g = context.generators
poly = 38
geo = generators.Geothermal_HSA(
poly, 0, configfile.get("generation", "hsa-geothermal-trace"), poly, "HSA geothermal"
)
context.generators = [geo] + g
def re100_geothermal_egs(context):
"""100% renewables plus EGS geothermal.
>>> class C: pass
>>> c = C()
>>> re100_geothermal_egs(c)
>>> isinstance(c.generators[0], generators.Geothermal)
True
"""
re100(context)
g = context.generators
poly = 14
geo = generators.Geothermal_EGS(
poly, 0, configfile.get("generation", "egs-geothermal-trace"), poly, "EGS geothermal"
)
context.generators = [geo] + g
def re100_geothermal_hsa(context):
"""100% renewables plus HSA geothermal.
>>> class C: pass
>>> c = C()
>>> re100_geothermal_hsa(c)
>>> isinstance(c.generators[0], generators.Geothermal_HSA)
True
"""
re100(context)
g = context.generators
geo = generators.Geothermal_HSA(regions.vic, 0,
configfile.get('generation', 'hsa-geothermal-trace'),
38, # (polygon 38)
'HSA geothermal')
context.generators = [geo] + g
def re100_geothermal_egs(context):
"""100% renewables plus EGS geothermal.
>>> class C: pass
>>> c = C()
>>> re100_geothermal_egs(c)
>>> isinstance(c.generators[0], generators.Geothermal)
True
"""
re100(context)
g = context.generators
geo = generators.Geothermal_EGS(regions.qld, 0,
configfile.get('generation', 'egs-geothermal-trace'),
14, # (polygon 14)
'EGS geothermal')
context.generators = [geo] + g
import matplotlib.dates as mdates
import matplotlib.pyplot as plt
import numpy as np
import configfile
import consts
import generators
import regions
import polygons
# Demand is in 30 minute intervals. NOTE: the number of rows in the
# demand file now dictates the number of timesteps in the simulation.
# Generate a list of column numbers
cols = tuple(range(regions.numregions + 2))
demand = np.genfromtxt(configfile.get('demand', 'demand-trace'), comments='#', usecols=cols)
demand = demand.transpose()
# Check for date, time and n demand columns (for n regions).
assert demand.shape[0] == 2 + regions.numregions, demand.shape[0]
# The number of rows must be even.
assert demand.shape[1] % 2 == 0, "odd number of rows in half-hourly demand data"
# Find the start date of the demand data.
f = open(configfile.get('demand', 'demand-trace'))
for line in f:
if re.search(r'^\s*#', line):
continue
cols = line.split()
year, month, day = cols[0].split('/')
startdate = dt.datetime(int(year), int(month), int(day))
def re100(context):
"""100% renewable electricity.
>>> class C: pass
>>> c = C()
>>> re100(c)
>>> len(c.generators)
184
"""
from generators import CentralReceiver, Wind, PV1Axis, Hydro, PumpedHydro, Biofuel
result = []
# The following list is in merit order.
for g in [PV1Axis, Wind, PumpedHydro, Hydro, CentralReceiver, Biofuel]:
if g == PumpedHydro:
result += [h for h in _hydro() if isinstance(h, PumpedHydro)]
elif g == Hydro:
result += [h for h in _hydro() if isinstance(h, Hydro) and not isinstance(h, PumpedHydro)]
elif g == Biofuel:
for poly in range(1, 44):
result.append(g(poly, 0, label="polygon %d GT" % poly))
elif g == PV1Axis:
for poly in range(1, 44):
result.append(
g(
poly,
0,
configfile.get("generation", "pv1axis-trace"),
poly - 1,
build_limit=polygons.pv_limit[poly],
label="polygon %d PV" % poly,
)
)
elif g == CentralReceiver:
for poly in range(1, 44):
result.append(
g(
poly,
0,
2,
6,
configfile.get("generation", "cst-trace"),
poly - 1,
build_limit=polygons.cst_limit[poly],
label="polygon %d CST" % poly,
)
)
elif g == Wind:
for poly in range(1, 44):
result.append(
g(
poly,
0,
configfile.get("generation", "wind-trace"),
poly - 1,
delimiter=",",
build_limit=polygons.wind_limit[poly],
label="polygon %d wind" % poly,
)
)
else: # pragma: no cover
raise ValueError
context.generators = result
def re100(context):
# pylint: disable=unused-argument
"""100% renewable electricity.
>>> class C: pass
>>> c = C()
>>> re100(c)
>>> len(c.generators)
22
"""
from generators import CentralReceiver, Wind, PV1Axis, Hydro, PumpedHydro, Biofuel
capfactor = {CentralReceiver: 0.60, Wind: 0.40, PV1Axis: 0.33, Hydro: None, PumpedHydro: None, Biofuel: None}
energy_fraction = {CentralReceiver: 0.40, Wind: 0.30, PV1Axis: 0.10, Hydro: None, PumpedHydro: None, Biofuel: None}
result = []
# The following list is in merit order.
for g in [PV1Axis, Wind, PumpedHydro, Hydro, CentralReceiver, Biofuel]:
if capfactor[g] is not None:
capacity = 204.4 * consts.twh * energy_fraction[g] / (capfactor[g] * 8760)
if g == PumpedHydro:
result += [h for h in _hydro() if isinstance(h, PumpedHydro)]
elif g == Hydro:
result += [h for h in _hydro() if isinstance(h, Hydro) and not isinstance(h, PumpedHydro)]
elif g == Biofuel:
# 24 GW biofuelled gas turbines (fixed)
# distribute 24GW of biofuelled turbines across chosen regions
# the region list is in order of approximate demand
rgns = [regions.nsw, regions.qld, regions.sa, regions.tas, regions.vic]
for r in rgns:
result.append(Biofuel(r, 24000 / len(rgns), label=r.id + ' GT'))
elif g == PV1Axis:
# Hand chosen polygons with high capacity factors
for poly in [14, 21, 13, 37]:
rgn = polygons.region_table[poly]
# Put 25% PV capacity in each region.
result.append(g(rgn, capacity * 0.25,
configfile.get('generation', 'pv1axis-trace'),
poly - 1,
build_limit=polygons.pv_limit[poly],
label='polygon %d PV' % poly))
elif g == CentralReceiver:
polys = [14, 20, 21]
capacity /= len(polys)
for poly in polys:
rgn = polygons.region_table[poly]
result.append(g(rgn, capacity, 2, 6,
configfile.get('generation', 'cst-trace'),
poly - 1,
build_limit=polygons.cst_limit[poly],
label='polygon %d CST' % poly))
elif g == Wind:
# Hand chosen polygons with high capacity factors
for poly in [1, 20, 24, 39, 43]:
rgn = polygons.region_table[poly]
# Put 20% wind capacity in each region.
result.append(g(rgn, capacity * 0.2,
configfile.get('generation', 'wind-trace'),
poly - 1,
delimiter=',',
build_limit=polygons.wind_limit[poly],
label='polygon %d wind' % poly))
else: # pragma: no cover
raise(ValueError)
context.generators = result
