def get_pop_details(self,
pop,
dir,
title_prefix,
location,
state_location,
country_location,
decimal=3):
os.makedirs(dir, exist_ok=True)
# want default age brackets and to see that they line up with the average contacts by age bracket created
age_brackets = spdd.get_census_age_brackets(self.datadir, location,
state_location,
country_location)
age_brackets_labels = [
str(age_brackets[b][0]) + '-' + str(age_brackets[b][-1])
for b in sorted(age_brackets.keys())
]
for setting_code in ['H', 'W', 'S']:
average_contacts = utilities.get_average_contact_by_age(
pop, self.datadir, setting_code=setting_code, decimal=decimal)
fmt = f'%.{str(decimal)}f'
# print(f"expected contacts by age for {code}:\n", average_contacts)
utilities.plot_array(
average_contacts,
datadir=self.figDir,
testprefix=
f"{self.n}_seed_{self.seed}_{setting_code}_average_contacts",
expect_label='Expected' if self.generateBaseline else 'Test',
names=age_brackets_labels,
xlabel_rotation=50)
sc.savejson(os.path.join(
dir,
f"{self.n}_seed_{self.seed}_{setting_code}_average_contact.json"
),
dict(enumerate(average_contacts.tolist())),
indent=2)
for method in ['density', 'frequency']:
matrix = sp.calculate_contact_matrix(pop, method, setting_code)
brackets = spdd.get_census_age_brackets(
self.datadir, location, state_location, country_location)
ageindex = spb.get_age_by_brackets_dic(brackets)
agg_matrix = spb.get_aggregate_matrix(matrix, ageindex)
textfile = os.path.join(
dir,
f"{self.n}_seed_{self.seed}_{setting_code}_{method}_contact_matrix.csv"
)
np.savetxt(textfile, agg_matrix, delimiter=",", fmt=fmt)
fig = sp.plot_contacts(pop,
setting_code=setting_code,
density_or_frequency=method,
do_show=False)
fig.savefig(
os.path.join(
self.figDir,
f"{self.n}_seed_{self.seed}_{setting_code}_{method}_contact_matrix.png"
))
def get_pop_details(self,
pop,
dir,
title_prefix,
location,
state_location,
country_location,
decimal=3):
os.makedirs(dir, exist_ok=True)
for setting_code in ['H', 'W', 'S']:
average_contacts = utilities.get_average_contact_by_age(
pop, self.datadir, setting_code=setting_code, decimal=decimal)
fmt = f'%.{str(decimal)}f'
# print(f"expected contacts by age for {code}:\n", average_contacts)
utilities.plot_array(
average_contacts,
datadir=self.figDir,
testprefix=
f"{self.n}_seed_{self.seed}_{setting_code}_average_contacts",
expect_label='Expected' if self.generateBaseline else 'Test')
sc.savejson(os.path.join(
dir,
f"{self.n}_seed_{self.seed}_{setting_code}_average_contact.json"
),
dict(enumerate(average_contacts.tolist())),
indent=2)
for type in ['density', 'frequency']:
matrix = sp.calculate_contact_matrix(pop, type, setting_code)
brackets = sp.get_census_age_brackets(self.datadir,
state_location,
country_location)
ageindex = sp.get_age_by_brackets_dic(brackets)
agg_matrix = sp.get_aggregate_matrix(matrix, ageindex)
np.savetxt(os.path.join(
dir,
f"{self.n}_seed_{self.seed}_{setting_code}_{type}_contact_matrix.csv"
),
agg_matrix,
delimiter=",",
fmt=fmt)
fig = plot_age_mixing_matrices.test_plot_generated_contact_matrix(
setting_code=setting_code,
population=pop,
title_prefix=" Expected "
if self.generateBaseline else " Test ",
density_or_frequency=type)
# fig.show()
fig.savefig(
os.path.join(
self.figDir,
f"{self.n}_seed_{self.seed}_{setting_code}_{type}_contact_matrix.png"
))
sc.tic()
pop = sp.make_population(**params)
sc.toc()
for setting_code in ['H', 'S', 'W']:
average = utilities.get_average_contact_by_age(
pop,
datadir=datadir,
state_location=state_location,
country_location=country_location,
setting_code=setting_code,
decimal=3)
utilities.plot_array(
average,
datadir=figdir,
testprefix=f"{setting_code} {test_prefix} contact by age bracket",
expect_label="contacts",
names=age_brackets_labels,
xlabel_rotation=50)
utilities_dist.check_age_distribution(pop,
n,
datadir=datadir,
figdir=figdir,
location=location,
state_location=state_location,
country_location=country_location,
test_prefix=test_prefix,
skip_stat_check=True)
utilities_dist.check_enrollment_distribution(
def check_employment_age_distribution(pop,
n,
datadir,
figdir,
location=None,
state_location=None,
country_location=None,
file_path=None,
use_default=False,
test_prefix="",
skip_stat_check=False,
do_close=True):
"""
Check the population employment by age distribution against the reference data
Args:
pop : population dictionary
n : population size
datadir : root data directory which has resides the reference data
figdir : directory where to result files are saved
location : name of the location
state_location : name of the state the location is in
country_location : name of the country the location is in
file_path : file path to user specified gender by age bracket distribution data
use_default : if True, try to first use the other parameters to find data specific to the location
under study, otherwise returns default data drawing from Seattle, Washington.
test_prefix : used for prefix of the plot title
skip_stat_check : skip the statistics check for distribution
do_close : close the image immediately if set to True
Returns:
None.
Plots will be save to figdir if provided
"""
figdir = os.path.join(figdir, "employment")
er = sp.get_employment_rates(datadir=datadir,
location=location,
state_location=state_location,
country_location=country_location,
file_path=file_path,
use_default=use_default)
brackets = sp.get_census_age_brackets(datadir=datadir,
state_location=state_location,
country_location=country_location)
ageindex = sp.get_age_by_brackets_dic(brackets)
age_dist = sp.read_age_bracket_distr(datadir=datadir,
location=location,
state_location=state_location,
country_location=country_location,
file_path=file_path,
use_default=use_default)
# counting the actual population by age with employment including teachers and staffs
actual_employed_age_dist, actual_unemployed_age_dist = \
utilities.get_ids_count_by_param(pop,
condition_name=['wpid', 'sc_teacher', 'sc_staff'],
param='age')
utilities.plot_array([
actual_employed_age_dist[k] for k in sorted(actual_employed_age_dist)
],
datadir=figdir,
names=[k for k in sorted(actual_employed_age_dist)],
expect_label='employed by age count',
xlabel_rotation=90,
testprefix="employeed count by age " + test_prefix)
utilities.plot_array([
actual_unemployed_age_dist[k]
for k in sorted(actual_unemployed_age_dist)
],
datadir=figdir,
names=[k for k in sorted(actual_unemployed_age_dist)],
expect_label='unemployed by age count',
xlabel_rotation=90,
testprefix="unemployed count by age " + test_prefix)
sorted_actual_employed_rate = {}
actual_employed_rate = utilities.calc_rate(actual_employed_age_dist,
actual_unemployed_age_dist)
for i in er.keys():
if i in actual_employed_rate:
sorted_actual_employed_rate[i] = actual_employed_rate[i]
else:
sorted_actual_employed_rate[i] = 0
actual_values = np.array(list(sorted_actual_employed_rate.values()))
expected_values = np.array(list(er.values()))
if not skip_stat_check:
utilities.statistic_test(expected_values,
actual_values,
test="x",
comments="employment rate distribution check")
# plotting fill 0 to under age 16 for better display
filled_count = min(er.keys())
expected_values = np.insert(expected_values, 0, np.zeros(filled_count))
actual_values = np.insert(actual_values, 0, np.zeros(filled_count))
names = [i for i in range(0, max(er.keys()) + 1)]
# somehow double stacks for age 100
utilities.plot_array(
expected_values,
actual_values,
names=None,
datadir=figdir,
testprefix="employment rate distribution " + test_prefix,
do_close=do_close,
)
# check if total employment match
expected_employed_brackets = {k: 0 for k in brackets}
actual_employed_brackets = {k: 0 for k in brackets}
for i in names:
expected_employed_brackets[ageindex[i]] += expected_values[i]
if i in actual_employed_age_dist:
actual_employed_brackets[
ageindex[i]] += actual_employed_age_dist[i]
for i in expected_employed_brackets:
expected_employed_brackets[i] = expected_employed_brackets[i] / len(
brackets[i]) * age_dist[i] * n
expected_total = np.array(list(expected_employed_brackets.values()))
actual_total = np.array(list(actual_employed_brackets.values()))
utilities.plot_array(expected_total,
actual_total,
names=brackets.keys(),
datadir=figdir,
testprefix="employment total " + test_prefix,
do_close=do_close)
expected_etotal = np.round(np.sum(expected_total))
actual_etotal = np.round(np.sum(actual_total))
utilities.check_error_percentage(n,
expected_etotal,
actual_etotal,
name="employee")
def check_work_size_distribution(pop,
n,
datadir,
figdir,
location=None,
state_location=None,
country_location=None,
file_path=None,
use_default=False,
test_prefix="",
skip_stat_check=False,
do_close=True):
"""
Check the population workplace size distribution against the reference data
Args:
pop : population dictionary
n : population size
datadir : root data directory which has resides the reference data
figdir : directory where to result files are saved
location : name of the location
state_location : name of the state the location is in
country_location : name of the country the location is in
file_path : file path to user specified gender by age bracket distribution data
use_default : if True, try to first use the other parameters to find data specific to the location
under study, otherwise returns default data drawing from Seattle, Washington.
test_prefix : used for prefix of the plot title
skip_stat_check : skip the statistics check for distribution
do_close : close the image immediately if set to True
Returns:
None.
Plots will be save to figdir if provided
"""
figdir = os.path.join(figdir, "work_size")
wb = sp.get_workplace_size_brackets(datadir=datadir,
location=location,
state_location=state_location,
country_location=country_location,
file_path=file_path,
use_default=use_default)
ws = sp.norm_dic(
sp.get_workplace_size_distr_by_brackets(
datadir=datadir,
location=location,
state_location=state_location,
country_location=country_location,
file_path=file_path,
use_default=use_default))
ws_index = sp.get_index_by_brackets_dic(wb)
upper_bound = max(ws_index.keys())
actual_work_dist, actual_work_dist_none = utilities.get_ids_count_by_param(
pop, "wpid")
actual_worksizes = {}
for v in actual_work_dist.values():
if v > upper_bound:
v = upper_bound
actual_worksizes.setdefault(ws_index[v], 0)
actual_worksizes[ws_index[v]] += 1
actual_values = np.zeros(len(ws.keys()))
for i in range(0, len(ws.keys())):
if i in actual_worksizes:
actual_values[i] = actual_worksizes[i]
actual_values = actual_values / np.nansum(actual_values)
expected_values = np.array(list(ws.values()))
xlabels = [str(wb[b][0]) + '-' + str(wb[b][-1]) for b in sorted(wb.keys())]
utilities.plot_array(expected_values,
actual_values,
names=xlabels,
datadir=figdir,
testprefix="work size distribution " + test_prefix,
do_close=do_close,
xlabel_rotation=50)
if not skip_stat_check:
utilities.statistic_test(expected_values,
actual_values,
test="x",
comments="work size distribution check")
def check_age_distribution(pop,
n,
datadir,
figdir,
location=None,
state_location=None,
country_location=None,
file_path=None,
use_default=False,
test_prefix="test",
skip_stat_check=False,
do_close=True):
"""
Construct histogram from expected age distribution and compare with the actual generated data.
Args:
pop : population dictionary
n : population size
datadir : root data directory which has resides the reference data
figdir : directory where to result files are saved
location : name of the location
state_location : name of the state the location is in
country_location : name of the country the location is in
file_path : file path to user specified gender by age bracket distribution data
use_default : if True, try to first use the other parameters to find data specific to the location
under study, otherwise returns default data drawing from Seattle, Washington.
test_prefix : used for prefix of the plot title
skip_stat_check : skip the statistics check for distribution
do_close : close the image immediately if set to True
Returns:
None.
Plots will be save to figdir if provided
"""
figdir = os.path.join(figdir, "age_distribution")
age_dist = sp.read_age_bracket_distr(datadir=datadir,
location=location,
state_location=state_location,
country_location=country_location,
file_path=file_path,
use_default=use_default)
brackets = sp.get_census_age_brackets(datadir=datadir,
state_location=state_location,
country_location=country_location)
# un-normalized data
# expected_values = np.array(list(age_dist.values())) * n
# actual_values = get_age_distribution_from_pop(pop, brackets, False)
# normalized
expected_values = np.array(list(age_dist.values()))
actual_values = utilities.get_age_distribution_from_pop(pop, brackets)
names = np.array([i[0] for i in brackets.values()])
utilities.plot_array(expected_values,
actual_values,
names,
figdir,
"age_distribution_" + test_prefix,
do_close=do_close)
if not skip_stat_check:
utilities.statistic_test(expected_values,
actual_values,
test="x",
comments="age distribution check")
def check_enrollment_distribution(pop,
n,
datadir,
figdir,
location=None,
state_location=None,
country_location=None,
file_path=None,
use_default=False,
test_prefix="test",
skip_stat_check=False,
do_close=True,
plot_only=False,
school_type=None):
"""
Compute the statistic on expected enrollment-age distribution and compare with actual distribution
check zero enrollment bins to make sure there is nothing generated
Args:
pop : population dictionary
n : population size
datadir : root data directory which has resides the reference data
figdir : directory where to result files are saved
location : name of the location
state_location : name of the state
country_location : name of the country the state_location is in
file_path : file path to user specified gender by age bracket distribution data
use_default : if True, try to first use the other parameters to find data specific to the location
under study, otherwise returns default data drawing from Seattle, Washington.
test_prefix : used for prefix of the plot title
skip_stat_check : skip the statistics check for distribution
do_close : close the image immediately if set to True
plot_only : plot only without doing any data checks
school_type : list of school types e.g. ['pk', 'es', 'ms', 'hs', 'uv']
Returns:
None.
Plots will be save to figdir if provided
"""
expected_dist = sp.get_school_enrollment_rates(
datadir=datadir,
location=location,
state_location=state_location,
country_location=country_location,
file_path=file_path,
use_default=use_default)
age_dist = sp.read_age_bracket_distr(datadir=datadir,
location=location,
state_location=state_location,
country_location=country_location,
file_path=file_path,
use_default=use_default)
brackets = sp.get_census_age_brackets(datadir=datadir,
state_location=state_location,
country_location=country_location)
figdir = os.path.join(figdir, "enrollment")
# get actual school enrollment by age
if school_type is not None:
actual_per_school_type_dict = dict.fromkeys(school_type)
for sc in school_type:
actual_per_school_type_dict[sc] = dict.fromkeys(
list(range(0, 101)), 0)
else:
actual_per_school_type_dict = {}
actual_pool = []
actual_dist = dict.fromkeys(list(range(0, 101)), 0)
for p in pop.values():
if p["scid"] is not None and p["sc_student"] is not None:
for sc in actual_per_school_type_dict.keys():
if p["sc_type"] == sc:
actual_per_school_type_dict[sc][p["age"]] += 1
actual_dist[p["age"]] += 1
actual_pool.append(p["age"])
# plot total school enrollment and individual age distribution
actual_per_school_type_dict["all"] = actual_dist
if school_type is not None:
utilities.plot_array([
sum(actual_per_school_type_dict[i].values())
for i in actual_per_school_type_dict.keys()
],
names=actual_per_school_type_dict.keys(),
datadir=figdir,
testprefix="enrollment_by_school_type\n" +
test_prefix,
expect_label="enrollment",
value_text=True,
do_close=do_close)
for k in actual_per_school_type_dict:
utilities.plot_array(actual_per_school_type_dict[k].values(),
datadir=figdir,
testprefix=f"enrollment_by_age {k}\n" +
test_prefix,
expect_label="enrollment by age bucket",
do_close=do_close)
actual_age_dist = utilities.get_age_distribution_from_pop(pop, brackets)
# adjust expected enrollment percentage by age brackets
expected_combined_dist = dict.fromkeys(list(range(0, len(brackets))), 0)
adjusted_expected_combined_dist = dict.fromkeys(
list(range(0, len(brackets))), 0)
actual_combined_dist = dict.fromkeys(list(range(0, len(brackets))), 0)
scaled_dist = dict.fromkeys(list(range(0, 101)), 0)
adjusted_scaled_dist = dict.fromkeys(list(range(0, 101)), 0)
for i in age_dist:
for j in brackets[i]:
scaled_dist[j] = (expected_dist[j] * n * age_dist[i]) / len(
brackets[i])
adjusted_scaled_dist[j] = (expected_dist[j] * n *
actual_age_dist[i]) / len(brackets[i])
expected_combined_dist[i] += scaled_dist[j]
adjusted_expected_combined_dist[i] += adjusted_scaled_dist[j]
actual_combined_dist[i] += actual_dist[j]
# construct expected pool adjusted based on expected age distribution
expected_pool = []
for key in scaled_dist:
for i in range(0, int(scaled_dist[key])):
expected_pool.append(key)
# construct expected pool adjusted based on the actual age distribution
adjusted_expected_pool = []
for key in adjusted_scaled_dist:
for i in range(0, int(adjusted_scaled_dist[key])):
adjusted_expected_pool.append(key)
print(f"total enrollment expected :{int(sum(scaled_dist.values()))}")
print(
f"total enrollment expected (adjusted) :{int(sum(adjusted_scaled_dist.values()))}"
)
print(f"total enrollment actual :{sum(actual_dist.values())}")
# make sure results are sorted by key
# scaled_dist_dist = dict(sorted(scaled_dist.items()))
actual_dist = dict(sorted(actual_dist.items()))
expected_values = np.array(list(scaled_dist.values()))
adjusted_expected_values = np.array(list(adjusted_scaled_dist.values()))
actual_values = np.array(list(actual_dist.values()))
expected_combined_values = np.array(list(expected_combined_dist.values()))
adjusted_expected_combined_values = np.array(
list(adjusted_expected_combined_dist.values()))
actual_combined_values = np.array(list(actual_combined_dist.values()))
utilities.plot_array(expected_values,
actual_values,
None,
figdir,
"enrollment_" + test_prefix,
do_close=do_close)
utilities.plot_array(adjusted_expected_values,
actual_values,
None,
figdir,
"adjusted enrollment_" + test_prefix,
do_close=do_close)
utilities.plot_array(expected_combined_values,
actual_combined_values,
np.array([i[0] for i in brackets.values()]),
figdir,
"enrollment by age bin" + test_prefix,
do_close=do_close)
utilities.plot_array(adjusted_expected_combined_values,
actual_combined_values,
np.array([i[0] for i in brackets.values()]),
figdir,
"adjusted enrollment by age bin" + test_prefix,
do_close=do_close)
if plot_only:
return
np.savetxt(os.path.join(os.path.dirname(datadir),
f"{test_prefix}_expected.csv"),
expected_values,
delimiter=",")
np.savetxt(os.path.join(os.path.dirname(datadir),
f"{test_prefix}_actual.csv"),
actual_values,
delimiter=",")
# check for expected 0 count bins
# if expected enrollment is 0, actual enrollment must be 0
# if the expected enrollment is greater than threshold, actual enrollment should not be zero
# here we use tentative threshold 9 meaning if we expected 10+ enrollment and actually
# generate 0, we should investigate why
threshold = 9
assert np.sum(actual_values[expected_values == 0]) == 0, \
f"expected enrollment should be 0 for these age bins: " \
f"{str(np.where((expected_values == 0) & (actual_values != 0)))}"
assert len(actual_values[np.where((expected_values > threshold) & (actual_values == 0))]) == 0, \
f"actual enrollment should not be 0 for these age bins: " \
f"{str(np.where((expected_values > threshold) & (actual_values == 0)))}"
# if expected bin count is less than threshold, use range check to allow some buffer
# this is usually observed in smaller population in that expected count is small
# so we allow actual observations to be 0 and up to the expected value plus threshold
i = np.where((expected_values <= threshold) & (expected_values > 0))
u = expected_values[i] + threshold # upper bound
l = np.zeros(len(expected_values[i])) # lower bound can be 0
assert (sum(l <= actual_values[i]) == len(actual_values[i]) and sum(actual_values[i] <= u) == len(
actual_values[i])), \
f"results show too much difference:\n" \
f"expected:{expected_values[i]} \n actual:{actual_values[i]} \n" \
f"please check these age bins: {i}"
# check if pool looks right
# h, bins = np.histogram(np.array(expected_pool), bins=100)
# h, bins = np.histogram(np.array(actual_pool), bins=100)
# plt.bar(bins[:-1],h,width=1)
# plt.show()
if not skip_stat_check:
utilities.statistic_test(adjusted_expected_pool,
actual_pool,
test="ks",
comments="enrollment distribution check")
def check_school_size_distribution(pop,
n,
datadir,
figdir,
location=None,
state_location=None,
country_location=None,
file_path=None,
use_default=False,
test_prefix="",
skip_stat_check=True,
do_close=True,
school_type=None):
"""
Check the school size distribution against the reference data
Args:
pop : population dictionary
n : population size
datadir : root data directory which has resides the reference data
figdir : directory where to result files are saved
location : name of the location
state_location : name of the state
country_location : name of the country the state_location is in
file_path : file path to user specified gender by age bracket distribution data
use_default : if True, try to first use the other parameters to find data specific to the location
under study, otherwise returns default data drawing from Seattle, Washington.
test_prefix : used for prefix of the plot title
skip_stat_check : skip the statistics check for distribution
do_close : close the image immediately if set to True
school_type : list of school types e.g. ['pk', 'es', 'ms', 'hs', 'uv']
Returns:
None.
Plots will be save to figdir if provided
"""
figdir = os.path.join(figdir, "school_size")
sb = sp.get_school_size_brackets(datadir=datadir,
location=location,
state_location=state_location,
country_location=country_location,
file_path=file_path,
use_default=use_default)
sb_index = sp.get_index_by_brackets_dic(sb)
expected_school_size_by_brackets = sp.get_school_size_distr_by_brackets(
datadir=datadir,
location=location,
state_location=state_location,
country_location=country_location)
actual_school, actual_school_none = utilities.get_ids_count_by_param(
pop, "scid")
actual_school_student_only, actual_school_none_student_only = utilities.get_ids_count_by_param(
pop, "sc_student", "scid")
actual_per_school_type_dict = {}
actual_per_school_type_dict_student_only = {}
actual_per_school_type_dict["all"] = actual_school
actual_per_school_type_dict_student_only[
"all"] = actual_school_student_only
if school_type is not None:
for sc in school_type:
actual_per_school_type_dict[sc] = \
utilities.get_ids_count_by_param(pop, "sc_type", param="scid", condition_value=sc)[0]
actual_per_school_type_dict_student_only[sc] = \
utilities.get_ids_count_by_param(pop, "sc_type", param="scid", condition_value=sc, filter_expression={'sc_student':'1'})[0]
# get individual school type size distribution
for k in actual_per_school_type_dict:
actual_scount = dict(Counter(actual_per_school_type_dict[k].values()))
actual_scount_student_only = dict(
Counter(actual_per_school_type_dict_student_only[k].values()))
actual_school_size_by_brackets = sp.norm_dic(
utilities.get_bucket_count(sb_index, sb, actual_scount))
expected_values = np.array(
list(expected_school_size_by_brackets.values()))
actual_values = np.array(list(actual_school_size_by_brackets.values()))
utilities.plot_array(expected_values,
actual_values,
names=sb.keys(),
datadir=figdir,
testprefix="school size " + test_prefix + " " + k,
do_close=do_close)
utilities.plot_array(
actual_per_school_type_dict[k].values(),
datadir=figdir,
expect_label=
f"school count: total {len(actual_per_school_type_dict[k])}",
testprefix="school size total\n" + test_prefix + " " + k,
binned=False,
do_close=do_close)
utilities.plot_array(
actual_per_school_type_dict_student_only[k].values(),
datadir=figdir,
expect_label=
f"school count: total {len(actual_per_school_type_dict[k])}",
testprefix="school size total (student only)\n" + test_prefix +
" " + k,
binned=False,
do_close=do_close)
# statistic_test is not working yet because school sizes are now available by school type. Also depends strongly on population size.
if not skip_stat_check:
utilities.statistic_test(expected_values,
actual_values,
test="x",
comments="school size check")
# check average school size
school_size_brackets = sp.get_school_size_brackets(
datadir=datadir,
location=location,
country_location=country_location,
state_location=state_location)
# calculate the average school size per bracket
average_school_size_in_bracket = [
sum(i) / len(i) for i in school_size_brackets.values()
]
# calculate expected school size based on expected value sum(distribution * size)
expected_average_school_size = sum([
v[1] * average_school_size_in_bracket[v[0]]
for v in expected_school_size_by_brackets.items()
])
actual_average_school_size = sum(
[i * actual_scount[i]
for i in actual_scount]) / sum(actual_scount.values())
utilities.check_error_percentage(n,
expected_average_school_size,
actual_average_school_size,
name=f"average school size:'{k}'")
# check school count distribution
utilities.plot_array([
len(actual_per_school_type_dict[i])
for i in actual_per_school_type_dict
],
names=list(actual_per_school_type_dict.keys()),
datadir=figdir,
expect_label="school count",
testprefix="school count " + test_prefix,
value_text=True)
def check_household_distribution(pop,
n,
datadir,
figdir,
location=None,
state_location=None,
country_location=None,
file_path=None,
use_default=False,
test_prefix="",
skip_stat_check=False,
do_close=True):
"""
Check the household size distribution against the reference data
Args:
pop : population dictionary
n : population size
datadir : root data directory which has resides the reference data
figdir : directory where to result files are saved
location : name of the location
state_location : name of the state the location is in
country_location : name of the country the location is in
file_path : file path to user specified gender by age bracket distribution data
use_default : if True, try to first use the other parameters to find data specific to the location
under study, otherwise returns default data drawing from Seattle, Washington.
test_prefix : used for prefix of the plot title
skip_stat_check : skip the statistics check for distribution
do_close : close the image immediately if set to True
Returns:
None.
Plots will be save to figdir if provided
"""
figdir = os.path.join(figdir, "household")
hs = sp.get_household_size_distr(datadir=datadir,
location=location,
state_location=state_location,
country_location=country_location,
file_path=file_path,
use_default=use_default)
actual_households, actual_households_none = utilities.get_ids_count_by_param(
pop, "hhid")
assert actual_households_none == {}, "all entries must have household ids"
actual_household_count = dict(Counter(actual_households.values()))
sorted_actual_household_count = {}
for i in sorted(actual_household_count):
sorted_actual_household_count[i] = actual_household_count[i]
actual_values = np.array(
list(sp.norm_dic(sorted_actual_household_count).values()))
expected_values = np.array(list(hs.values()))
utilities.plot_array(expected_values,
actual_values,
names=[x for x in list(hs.keys())],
datadir=figdir,
testprefix="household count percentage " +
test_prefix,
do_close=do_close,
value_text=True)
if not skip_stat_check:
utilities.statistic_test(expected_values,
actual_values,
test="x",
comments="household count percentage check")
# check average household size
expected_average_household_size = round(
sum([(i + 1) * expected_values[np.where(i)]
for i in expected_values])[0], 3)
actual_average_household_size = round(
sum([(i + 1) * actual_values[np.where(i)] for i in actual_values])[0],
3)
print(
f"expected average household size: {expected_average_household_size}\n"
f"actual average household size: {actual_average_household_size}")
utilities.check_error_percentage(n,
expected_average_household_size,
actual_average_household_size,
name="average household size")
