class VaccinationData:
"""Vaccination campaign progress in Spain"""
def __init__(self):
"""Load the dataset"""
# Connection to the extracted data database for reading, and to the analyzed data for writing
self.db_read = MongoDatabase(MongoDatabase.extracted_db_name)
self.db_write = MongoDatabase(MongoDatabase.analyzed_db_name)
self.df_vaccination_general = self.db_read.read_data(
'vaccination_general')
def __calculate_vaccinated_percentage__(self):
"""Calculate the percentage of vaccinated people"""
population_df = self.db_read.read_data('population_ar',
{'age_range': 'total'},
['autonomous_region', 'total'])
df_vaccination_join = pd.merge(self.df_vaccination_general,
population_df,
on='autonomous_region')
df_vaccination_join['percentage_fully_vaccinated'] = \
100 * df_vaccination_join['number_fully_vaccinated_people'] / df_vaccination_join['total']
df_vaccination_join['percentage_at_least_single_dose'] = \
100 * df_vaccination_join['number_at_least_single_dose_people'] / df_vaccination_join['total']
df_vaccination_join = df_vaccination_join.drop(columns=['total'])
self.df_vaccination_general = df_vaccination_join.replace(
{np.nan: None})
def __calculate_vaccination_deltas__(self):
"""Calculate the number of new vaccinations each day, as well as the moving average"""
df = self.df_vaccination_general.sort_values(['date', 'autonomous_region']).replace({None: np.nan})\
.set_index('date')
df['new_vaccinations'] = df.groupby(
['autonomous_region'])['number_fully_vaccinated_people'].diff()
new_vaccinations_ma = df.groupby(
'autonomous_region')['new_vaccinations'].rolling('7D').mean()
self.df_vaccination_general = pd.merge(df, new_vaccinations_ma, on=['autonomous_region', 'date'])\
.rename(columns={'new_vaccinations_x': 'new_vaccinations', 'new_vaccinations_y': 'new_vaccinations_ma_7d'})\
.reset_index()\
.replace({np.nan: None})
def __move_ages_data__(self):
"""Just move the ages data from the extracted to the analyzed database"""
vaccination_collections_names = [
'vaccination_ages_single', 'vaccination_ages_complete'
]
for collection_name in vaccination_collections_names:
vaccination_collection = self.db_write.db.get_collection(
collection_name)
vaccination_collection.delete_many({})
vaccination_collection.insert_many(
self.db_read.db.get_collection(collection_name).find({}))
def move_data(self):
"""Calculate the vaccination percentage and move the data"""
self.__calculate_vaccinated_percentage__()
self.__calculate_vaccination_deltas__()
self.db_write.store_data(
'vaccination_general',
self.df_vaccination_general.to_dict('records'))
self.__move_ages_data__()
class HospitalsPressure:
"""Hospitals pressure in Spain"""
def __init__(self):
"""Load the dataset"""
# Connection to the extracted data database for reading, and to the analyzed data for writing
self.db_read = MongoDatabase(MongoDatabase.extracted_db_name)
self.db_write = MongoDatabase(MongoDatabase.analyzed_db_name)
# Load the hospitals pressure data
self.hospitals_pressure = self.db_read.read_data(
'hospitals_pressure',
projection=[
'autonomous_region', 'date', 'hospitalized_patients',
'beds_percentage', 'ic_patients', 'ic_beds_percentage'
])
def __aggregate_data__(self):
"""Calculate the data for the whole country"""
pressure_grouped = self.hospitals_pressure.groupby('date')
pressure_patients = pressure_grouped[[
'hospitalized_patients', 'ic_patients'
]].sum()
pressure_beds_percentage = pressure_grouped[[
'beds_percentage', 'ic_beds_percentage'
]].mean()
hospitals_pressure_total = pd.merge(pressure_patients,
pressure_beds_percentage,
on='date').reset_index()
hospitals_pressure_total['autonomous_region'] = 'España'
self.hospitals_pressure = pd.concat(
[self.hospitals_pressure, hospitals_pressure_total])
self.hospitals_pressure = self.hospitals_pressure.sort_values(
by=['date', 'autonomous_region'])
def __calculate_ma__(self):
"""Calculate the moving average for the beds percentages, since the data can be very sharp"""
hospitals_pressure_df = self.hospitals_pressure.set_index('date')
hospitals_ma = hospitals_pressure_df.groupby('autonomous_region')[['beds_percentage', 'ic_beds_percentage']]\
.rolling('14D').mean()
self.hospitals_pressure = pd.merge(hospitals_pressure_df, hospitals_ma, on=['autonomous_region', 'date'])\
.rename(columns={'beds_percentage_x': 'beds_percentage', 'beds_percentage_y': 'beds_percentage_ma_14d',
'ic_beds_percentage_x': 'ic_beds_percentage',
'ic_beds_percentage_y': 'ic_beds_percentage_ma_14d'}) \
.reset_index() \
.replace({np.nan: None})
def transform_and_store(self):
"""Analyze the data, calculate some new variables, and store the results to the database"""
self.__aggregate_data__()
self.__calculate_ma__()
self.__store_data__()
def __store_data__(self):
"""Store the outbreaks description in the database"""
mongo_data = self.hospitals_pressure.to_dict('records')
collection = 'hospitals_pressure'
self.db_write.store_data(collection, mongo_data)
class TransmissionIndicators:
"""
Transmission indicators in Spain: cases with unknown contact,
identified contacts per case and asymptomatic cases percentage.
"""
def __init__(self):
"""Load the dataset"""
# Connection to the extracted data database for reading, and to the analyzed data for writing
self.db_read = MongoDatabase(MongoDatabase.extracted_db_name)
self.db_write = MongoDatabase(MongoDatabase.analyzed_db_name)
# Load the transmission indicators data
self.transmission_indicators = self.db_read.read_data(
'transmission_indicators')
def __transform_data__(self):
"""Get only the desired data and transform it to a single-level hierarchy"""
ti_df = self.transmission_indicators
ti_df['cases_unknown_contact'] = ti_df[
'transmission_indicators'].apply(
lambda x: x['cases_unknown_contact']['percentage'])
ti_df['identified_contacts_per_case'] = ti_df[
'transmission_indicators'].apply(
lambda x: x['identified_contacts_per_case']['median'])
ti_df['asymptomatic_percentage'] = ti_df[
'transmission_indicators'].apply(
lambda x: x['asymptomatic_percentage'])
self.transmission_indicators = ti_df.drop(
columns='transmission_indicators')
def __aggregate_data__(self):
"""Calculate the data for the whole country"""
grouped_data = self.transmission_indicators.groupby('date')
grouped_df = grouped_data.mean().reset_index()
grouped_df['autonomous_region'] = 'España'
self.transmission_indicators = pd.concat(
[self.transmission_indicators, grouped_df])
self.transmission_indicators = self.transmission_indicators.sort_values(
by=['date', 'autonomous_region'])
def transform_and_store(self):
"""Transform, aggregate, and store the data"""
self.__transform_data__()
self.__aggregate_data__()
self.__store_data__()
def __store_data__(self):
"""Store the outbreaks description in the database"""
mongo_data = self.transmission_indicators.to_dict('records')
collection = 'transmission_indicators'
self.db_write.store_data(collection, mongo_data)
class SymptomsData:
"""Most common symptoms"""
spanish_translation = {
'aki': 'Infección aguda de riñón',
'dhiarrea': 'Diarrea',
'other_respiratory': 'Otras afecciones respiratorias',
'vomit': 'Vómitos',
'dyspnoea': 'Disnea',
'fever': 'Fiebre',
'ards': 'Síndrome de dificultad respiratoria aguda',
'cough': 'Tos',
'sore_throat': 'Dolor de garganta'
}
def __init__(self):
"""Load the dataset"""
# Connection to the extracted data database for reading, and to the analyzed data for writing
self.db_read = MongoDatabase(MongoDatabase.extracted_db_name)
self.db_write = MongoDatabase(MongoDatabase.analyzed_db_name)
self.symptoms_df = self.db_read.read_data(
'clinic_description', {'date': dt(2020, 5, 29)},
['symptom', 'patients.total.percentage'])
def move_data(self):
"""Get the total percentage and store the data in the analyzed database"""
self.__transform_data__()
self.__store_data__()
def __transform_data__(self):
"""Get only the total percentage and translate the symptoms to Spanish"""
self.symptoms_df['percentage'] = self.symptoms_df['patients'].apply(
lambda x: x['total']['percentage'])
self.symptoms_df = self.symptoms_df.drop(columns='patients')
# Translate the symptoms to Spanish
self.symptoms_df['symptom'] = self.symptoms_df['symptom'].replace(
SymptomsData.spanish_translation)
def __store_data__(self):
"""Store the processed data in the database"""
self.db_write.store_data('symptoms',
self.symptoms_df.to_dict('records'))
class OutbreaksDescription:
"""Outbreaks description in Spain"""
def __init__(self):
"""Load the dataset"""
# Connection to the extracted data database for reading, and to the analyzed data for writing
self.db_read = MongoDatabase(MongoDatabase.extracted_db_name)
self.db_write = MongoDatabase(MongoDatabase.analyzed_db_name)
# Load the outbreaks description
self.outbreaks_description_df = self.db_read.read_data(
'outbreaks_description')
def move_data(self):
"""Just move the data from the extracted to the analyzed database"""
self.__store_data__()
def __store_data__(self):
"""Store the outbreaks description in the database"""
mongo_data = self.outbreaks_description_df.to_dict('records')
collection = 'outbreaks_description'
self.db_write.store_data(collection, mongo_data)
class DiagnosticTests:
"""Dataset with the number of diagnostic tests made each day on each Autonomous Region"""
def __init__(self):
"""Load the datasets"""
# Connection to the extracted data database for reading, and to the analyzed data for writing
self.db_read = MongoDatabase(MongoDatabase.extracted_db_name)
self.db_write = MongoDatabase(MongoDatabase.analyzed_db_name)
# Load the diagnostic tests, Spanish population and COVID cases datasets
self.diagnostic_tests_df = self.db_read.read_data('diagnostic_tests')
self.population_df = self.db_read.read_data(
'population_ar', {'age_range': 'total'},
['autonomous_region', 'total'])
def __process_dataset__(self):
"""
Get the data for the whole country, the total number of tests, the average positivity, and the number of
total tests per 100k inhabitants.
"""
# Number of tests and average positivity in the whole country
diagnostics_grouped = self.diagnostic_tests_df.groupby('date')
diagnostics_total_tests = diagnostics_grouped[
'total_diagnostic_tests'].sum()
diagnostics_avg_positivity = diagnostics_grouped['positivity'].mean()
diagnostics_df_total = pd.merge(diagnostics_total_tests,
diagnostics_avg_positivity,
on='date').reset_index()
diagnostics_df_total['autonomous_region'] = 'España'
self.diagnostic_tests_df = pd.concat(
[self.diagnostic_tests_df, diagnostics_df_total])
self.diagnostic_tests_df = self.diagnostic_tests_df.sort_values(
by=['date', 'autonomous_region'])
# Moving average for positivity (the positivity line is very sharp)
diagnostics_df = self.diagnostic_tests_df.set_index('date')
positivity_ma = diagnostics_df.groupby(
'autonomous_region')['positivity'].rolling('14D').mean()
self.diagnostic_tests_df = pd.merge(diagnostics_df, positivity_ma, on=['autonomous_region', 'date'])\
.rename(columns={'positivity_x': 'positivity', 'positivity_y': 'positivity_ma_14d'}) \
.reset_index() \
.replace({np.nan: None})
# Number of total tests
diagnostic_tests_df_total = self.diagnostic_tests_df[['date', 'autonomous_region', 'total_diagnostic_tests']] \
.groupby(['date', 'autonomous_region']).sum().groupby('autonomous_region').cumsum().reset_index()
self.diagnostic_tests_df = pd.merge(
self.diagnostic_tests_df,
diagnostic_tests_df_total,
on=['date', 'autonomous_region']).rename(
columns={
'total_diagnostic_tests_x': 'new_diagnostic_tests',
'total_diagnostic_tests_y': 'total_diagnostic_tests'
})
# Moving average for number of total tests
diagnostics_df = self.diagnostic_tests_df.set_index('date')
diagnostics_ma = diagnostics_df.groupby(
'autonomous_region')['new_diagnostic_tests'].rolling('14D').mean()
self.diagnostic_tests_df = pd.merge(diagnostics_df, diagnostics_ma, on=['autonomous_region', 'date'])\
.rename(columns={'new_diagnostic_tests_x': 'new_diagnostic_tests',
'new_diagnostic_tests_y': 'new_diagnostic_tests_ma_14d'}) \
.reset_index() \
.replace({np.nan: None})
# Average positivity for each Autonomous Region
diagnostic_tests_df_avg_positivity = self.diagnostic_tests_df[[
'date', 'autonomous_region', 'positivity'
]].groupby(['date',
'autonomous_region']).sum().groupby('autonomous_region')
avg_positivity_df = diagnostic_tests_df_avg_positivity.cumsum().rename(
columns={'positivity': 'sum'})
avg_positivity_df[
'count'] = diagnostic_tests_df_avg_positivity.cumcount()
avg_positivity_df['average_positivity'] = avg_positivity_df[
'sum'] / avg_positivity_df['count']
avg_positivity_df = avg_positivity_df.drop(columns=['sum', 'count'])
self.diagnostic_tests_df = pd.merge(self.diagnostic_tests_df,
avg_positivity_df,
on=['date', 'autonomous_region'])
# Total tests / 100 000 inhabitants
diagnostics_population_df = pd.merge(self.diagnostic_tests_df, self.population_df, on='autonomous_region') \
.rename(columns={'total': 'population'})
diagnostics_population_df[
'total_tests_per_population'] = 100000 * diagnostics_population_df[
'total_diagnostic_tests'] / diagnostics_population_df[
'population']
self.diagnostic_tests_df = diagnostics_population_df.drop(
columns='population')
def __store_data__(self):
"""Store the processed dataset in the database"""
mongo_data = self.diagnostic_tests_df.replace({
np.nan: None
}).to_dict('records')
collection = 'diagnostic_tests'
self.db_write.store_data(collection, mongo_data)
def process_and_store(self):
"""Analyze the data, calculate some new variables, and store the results to the database"""
self.__process_dataset__()
self.__store_data__()
class PopulationPyramidVariation:
"""Create a table with the population pyramid variation suffered due to COVID"""
age_range_translations = {
'0-1': '0-9',
'0-4': '0-9',
'1-4': '0-9',
'5-9': '0-9',
'10-14': '10-19',
'15-19': '10-19',
'20-24': '20-29',
'25-29': '20-29',
'30-34': '30-39',
'35-39': '30-39',
'40-44': '40-49',
'45-49': '40-49',
'50-54': '50-59',
'55-59': '50-59',
'60-64': '60-69',
'65-69': '60-69',
'70-74': '70-79',
'75-79': '70-79',
'80-84': '80+',
'85-89': '80+',
'90-94': '80+',
'95+': '80+',
'≥90': '80+',
'Total': 'total'
}
def __init__(self):
"""Load the datasets"""
# Connection to the extracted data database for reading the population data, and to the analyzed data for
# writing, as well as for reading the aggregated deaths
self.db_read = MongoDatabase(MongoDatabase.extracted_db_name)
self.db_write = MongoDatabase(MongoDatabase.analyzed_db_name)
# Load the data
self.covid_deaths_df = self.db_write.read_data(
'covid_vs_all_deaths', None,
['gender', 'age_range', 'covid_deaths'])
self.population_df = self.db_read.read_data(
'population_ar', {'autonomous_region': 'España'},
['age_range', 'M', 'F', 'total'])
def process_and_store_data(self):
self.__transform_data__()
self.__store_data__()
def __transform_data__(self):
"""Create the table with the joined data from both DataFrames"""
# Replace the age range in the population DataFrame
self.population_df['age_range'] = self.population_df['age_range']. \
replace(PopulationPyramidVariation.age_range_translations)
self.population_df = self.population_df.groupby(
'age_range').sum().reset_index()
# Melt the gender columns in the population DataFrame
self.population_df = self.population_df.melt(id_vars='age_range',
var_name='gender')
# Group horizontally the two DataFrames together
self.population_pyramid_covid_df = \
pd.merge(self.population_df, self.covid_deaths_df,
on=['age_range', 'gender']).rename(columns={'value': 'alive_population'})
self.population_pyramid_covid_df['alive_population'] = \
self.population_pyramid_covid_df['alive_population'] - self.population_pyramid_covid_df['covid_deaths']
def __store_data__(self):
"""Store the data in the database"""
mongo_data = self.population_pyramid_covid_df.to_dict('records')
collection = 'population_pyramid_variation'
self.db_write.store_data(collection, mongo_data)
class DeathCauses:
"""Death causes in Spain"""
age_range_translations = {
'0-1': '0-9',
'0-4': '0-9',
'1-4': '0-9',
'5-9': '0-9',
'10-14': '10-19',
'15-19': '10-19',
'20-24': '20-29',
'25-29': '20-29',
'30-34': '30-39',
'35-39': '30-39',
'40-44': '40-49',
'45-49': '40-49',
'50-54': '50-59',
'55-59': '50-59',
'60-64': '60-69',
'65-69': '60-69',
'70-74': '70-79',
'75-79': '70-79',
'80-84': '80+',
'85-89': '80+',
'90-94': '80+',
'95+': '80+',
'≥90': '80+',
'Total': 'total'
}
def __init__(self):
"""Load the datasets"""
# Connection to the extracted data database for reading, and to the analyzed data for writing, as well as
# for reading the aggregated deaths
self.db_read = MongoDatabase(MongoDatabase.extracted_db_name)
self.db_write = MongoDatabase(MongoDatabase.analyzed_db_name)
# Load the death causes
self.death_causes_df = self.db_read.read_data('death_causes')
# Load the COVID deaths until now. If it hasn't been yet a year since 15th March 2020, get the deaths until
# today and calculate the proportional number to 365 days. If it's been more than one year,
# get the number of deaths of the last 365 days.
today = dt.today() - td(
days=7
) # the today deaths data might not be available yet, so we'll use the data from one week ago
today = dt(today.year, today.month,
today.day) # remove the time from the today datetime object
if today - dt(2020, 3, 15) >= td(days=365):
# Get the number of deaths of the last 365 days
deaths_one_year_ago_df = self.db_write.read_data(
'deaths', {
'autonomous_region': 'España',
'date': today - td(days=365)
}, ['age_range', 'total_deaths', 'gender'])
deaths_today_df = self.db_write.read_data('deaths', {
'autonomous_region': 'España',
'date': today
}, ['age_range', 'total_deaths', 'gender'])
self.covid_deaths_df = deaths_today_df
self.covid_deaths_df['total_deaths'] = \
self.covid_deaths_df['total_deaths'] - deaths_one_year_ago_df['total_deaths']
else:
# Get the number of deaths until today, and calculate the remaining proportion to complete a year
deaths_today_df = self.db_write.read_data('deaths', {
'autonomous_region': 'España',
'date': today
}, ['age_range', 'total_deaths', 'gender'])
proportion = 365 / (today - dt(2020, 3, 15)).days
self.covid_deaths_df = deaths_today_df
self.covid_deaths_df['total_deaths'] = self.covid_deaths_df[
'total_deaths'] * proportion
def process_and_store_data(self):
"""Analyze the data, calculate some new variables, and store the results to the database"""
self.__calculate_top_10_death_causes__()
self.__store_data__()
def __calculate_top_10_death_causes__(self):
"""Calculate the top 10 death causes in Spain and the percentage of total deaths whose cause was COVID"""
# Use the same age ranges in the three dataframes
self.death_causes_df['age_range'] = self.death_causes_df['age_range']. \
replace(DeathCauses.age_range_translations)
self.death_causes_df = self.death_causes_df.groupby(
['age_range', 'death_cause', 'gender']).sum().reset_index()
# Get "all causes" death cause and then remove it
all_causes_sum_df = self.death_causes_df[
self.death_causes_df['death_cause'] == 'Todas las causas'].copy()
death_causes_df = self.death_causes_df[
self.death_causes_df['death_cause'] != 'Todas las causas']
# Group the 2018 death causes with the COVID-19 deaths
self.covid_deaths_df['death_cause'] = 'COVID-19'
death_causes_total = pd.concat([self.covid_deaths_df, death_causes_df])
# Get the top 10 death causes for each age range and gender
death_causes_top_10 = death_causes_total.sort_values(
['age_range', 'total_deaths', 'gender'],
ascending=False).groupby(['age_range', 'gender']).head(10)
death_causes_top_10['total_deaths'] = death_causes_top_10[
'total_deaths'].round().astype("int")
self.death_causes_top_10 = death_causes_top_10
# Calculate the percentage of deaths produced by COVID
covid_vs_all_deaths = pd.merge(
self.covid_deaths_df,
all_causes_sum_df,
on=['age_range', 'gender']).rename(columns={
'total_deaths_x': 'covid_deaths',
'total_deaths_y': 'other_deaths'
}).drop(columns=['death_cause_y', 'death_cause_x'])
covid_vs_all_deaths['covid_percentage'] = 100 * covid_vs_all_deaths[
'covid_deaths'] / (covid_vs_all_deaths['covid_deaths'] +
covid_vs_all_deaths['other_deaths'])
self.covid_vs_all_deaths = covid_vs_all_deaths
def __store_data__(self):
"""Store the top death causes and the COVID deaths percentage in the database"""
mongo_data_top_death_causes = self.death_causes_top_10.to_dict(
'records')
collection = 'top_death_causes'
self.db_write.store_data(collection, mongo_data_top_death_causes)
mongo_data_covid_vs_all_deaths = self.covid_vs_all_deaths.to_dict(
'records')
collection = 'covid_vs_all_deaths'
self.db_write.store_data(collection, mongo_data_covid_vs_all_deaths)
class DailyCOVIDData:
"""
Daily data of the COVID pandemic in Spain, with the number of new cases, hospitalizations, and deaths by
Autonomous Region and age range.
"""
@staticmethod
def calculate_increase_percentage(data):
"""Return the percentage increase or decrease in the new cases, deaths, or hospitalizations"""
if data[0] == 0:
return 0
return 100 * ((data[-1] - data[0]) / data[0])
def __init__(self):
"""Load the data from the database and store it into a Pandas DataFrame"""
# Connection to the extracted data database for reading, and to the analyzed data for writing
self.db_read = MongoDatabase(MongoDatabase.extracted_db_name)
self.db_write = MongoDatabase(MongoDatabase.analyzed_db_name)
# Load the data from the DB
self.df = self.db_read.read_data('daily_data')
self.population_df = self.db_read.read_data('population_ar')
# Aggregate the data
self.__merge__population__()
def __merge__population__(self):
"""Merge the COVID daily data dataset with the population dataset"""
# Change the population age ranges to the COVID daily data ones
age_range_translations = {
'0-4': '0-9',
'5-9': '0-9',
'10-14': '10-19',
'15-19': '10-19',
'20-24': '20-29',
'25-29': '20-29',
'30-34': '30-39',
'35-39': '30-39',
'40-44': '40-49',
'45-49': '40-49',
'50-54': '50-59',
'55-59': '50-59',
'60-64': '60-69',
'65-69': '60-69',
'70-74': '70-79',
'75-79': '70-79',
'80-84': '80+',
'85-89': '80+',
'≥90': '80+',
'Total': 'total'
}
self.population_df['age_range'] = self.population_df[
'age_range'].replace(age_range_translations)
self.population_df = self.population_df.groupby(
['age_range', 'autonomous_region']).sum().reset_index()
# Replace the M, F, total columns by a single 'gender' column
self.population_df = self.population_df.melt(
id_vars=['autonomous_region', 'age_range'],
value_vars=['M', 'F', 'total'],
var_name='gender')
# Merge the COVID dataset with the population data
covid_population_df = pd.merge(self.df, self.population_df, on=['autonomous_region', 'age_range', 'gender']) \
.rename(columns={'value': 'population'})
covid_population_df['date'] = pd.to_datetime(
covid_population_df['date'])
self.df = covid_population_df.set_index('date')
def process_and_store_cases(self):
"""Create a DataFrame with all the data related to the cases"""
# Get only the cases from the dataset
cases_df = self.df.copy()[[
'gender', 'age_range', 'autonomous_region', 'new_cases',
'total_cases', 'population'
]]
# Calculate the cases per population
cases_df['new_cases_per_population'] = 100000 * cases_df[
'new_cases'] / cases_df['population']
cases_df['total_cases_per_population'] = 100000 * cases_df[
'total_cases'] / cases_df['population']
# CI last 14 days
cases_ci = cases_df.groupby([
'autonomous_region', 'gender', 'age_range'
])['new_cases_per_population'].rolling('14D', min_periods=1).sum()
cases_df = pd.merge(
cases_df,
cases_ci,
on=['autonomous_region', 'date', 'gender', 'age_range']).rename(
columns={
'new_cases_per_population_x': 'new_cases_per_population',
'new_cases_per_population_y': 'ci_last_14_days'
})
cases_df['inverted_ci'] = cases_df['ci_last_14_days'].apply(
lambda x: 100000 / x if x > 10 else 10000)
# Daily, weekly and monthly increase
increase_cases_df_1d = cases_df.groupby(
['autonomous_region', 'gender',
'age_range'])['new_cases'].rolling('7D').mean().rolling(2).apply(
DailyCOVIDData.calculate_increase_percentage, raw=True)
increase_cases_df_7d = cases_df.groupby(
['autonomous_region', 'gender',
'age_range'])['new_cases'].rolling('14D').mean().rolling(8).apply(
DailyCOVIDData.calculate_increase_percentage, raw=True)
increase_cases_df_30d = cases_df.groupby([
'autonomous_region', 'gender', 'age_range'
])['new_cases'].rolling('60D').mean().rolling(31).apply(
DailyCOVIDData.calculate_increase_percentage, raw=True)
increase_cases_percentages = pd.DataFrame({
'daily_increase':
increase_cases_df_1d,
'weekly_increase':
increase_cases_df_7d,
'monthly_increase':
increase_cases_df_30d
})
cases_df = pd.merge(
cases_df,
increase_cases_percentages,
on=['autonomous_region', 'date', 'age_range', 'gender'])
# New cases moving average
new_cases_ma_1w = cases_df.groupby(
['autonomous_region', 'gender',
'age_range'])['new_cases_per_population'].rolling('8D').mean()
new_cases_ma_2w = cases_df.groupby(
['autonomous_region', 'gender',
'age_range'])['new_cases_per_population'].rolling('15D').mean()
new_cases_ma = pd.DataFrame({
'new_cases_ma_1w': new_cases_ma_1w,
'new_cases_ma_2w': new_cases_ma_2w
})
cases_df = pd.merge(
cases_df,
new_cases_ma,
on=['autonomous_region', 'date', 'age_range', 'gender'])
cases_df = cases_df.drop(columns=['population'])
# Store the data
self.db_write.store_data('cases',
cases_df.reset_index().to_dict('records'))
def process_and_store_deaths(self):
"""Create a DataFrame with all the data related to the deaths"""
# Get only the deaths from the dataset
deaths_df = self.df.copy()[[
'gender', 'age_range', 'autonomous_region', 'new_deaths',
'total_deaths', 'new_cases', 'total_cases', 'population'
]]
# Calculate the deaths per population
deaths_df['new_deaths_per_population'] = 100000 * deaths_df[
'new_deaths'] / deaths_df['population']
deaths_df['total_deaths_per_population'] = 100000 * deaths_df[
'total_deaths'] / deaths_df['population']
# Daily, weekly and monthly increase
increase_deaths_df_1d = deaths_df.groupby(
['autonomous_region', 'gender',
'age_range'])['new_deaths'].rolling('2D').apply(
DailyCOVIDData.calculate_increase_percentage, raw=True)
increase_deaths_df_7d = deaths_df.groupby(
['autonomous_region', 'gender',
'age_range'])['new_deaths'].rolling('8D').apply(
DailyCOVIDData.calculate_increase_percentage, raw=True)
increase_deaths_df_14d = deaths_df.groupby(
['autonomous_region', 'gender',
'age_range'])['new_deaths'].rolling('15D').apply(
DailyCOVIDData.calculate_increase_percentage, raw=True)
increase_deaths_df_30d = deaths_df.groupby(
['autonomous_region', 'gender',
'age_range'])['new_deaths'].rolling('31D').apply(
DailyCOVIDData.calculate_increase_percentage, raw=True)
increase_deaths_percentages = pd.DataFrame({
'daily_increase':
increase_deaths_df_1d,
'weekly_increase':
increase_deaths_df_7d,
'two_weeks_increase':
increase_deaths_df_14d,
'monthly_increase':
increase_deaths_df_30d
})
deaths_df = pd.merge(
deaths_df,
increase_deaths_percentages,
on=['autonomous_region', 'date', 'age_range', 'gender'])
# New deaths moving average
new_deaths_ma_1w = deaths_df.groupby(
['autonomous_region', 'gender',
'age_range'])['new_deaths_per_population'].rolling('8D').mean()
new_deaths_ma_2w = deaths_df.groupby(
['autonomous_region', 'gender',
'age_range'])['new_deaths_per_population'].rolling('15D').mean()
new_deaths_ma = pd.DataFrame({
'new_deaths_ma_1w': new_deaths_ma_1w,
'new_deaths_ma_2w': new_deaths_ma_2w
})
deaths_df = pd.merge(
deaths_df,
new_deaths_ma,
on=['autonomous_region', 'date', 'age_range', 'gender'])
# Mortality percentage
deaths_df['new_cases_per_population'] = 100000 * deaths_df[
'new_cases'] / deaths_df['population']
new_cases_ma_2w = deaths_df.groupby(
['autonomous_region', 'gender',
'age_range'])['new_cases_per_population'].rolling('15D').mean()
new_cases_ma_2w_df = pd.DataFrame({'new_cases_ma_2w': new_cases_ma_2w})
deaths_df = pd.merge(
deaths_df,
new_cases_ma_2w_df,
on=['autonomous_region', 'date', 'age_range', 'gender'])
deaths_df['mortality_2w'] = 100 * (deaths_df['new_deaths_ma_2w'] / deaths_df['new_cases_ma_2w']). \
replace(np.nan, 0)
deaths_df['mortality_total'] = 100 * (
deaths_df['total_deaths'] / deaths_df['total_cases']).replace(
np.nan, 0)
deaths_df = deaths_df.drop(columns=[
'new_cases_ma_2w', 'new_cases_per_population', 'new_cases',
'total_cases', 'population'
])
# Store the data
self.db_write.store_data('deaths',
deaths_df.reset_index().to_dict('records'))
def process_and_store_hospitalizations(self):
"""Create a DataFrame with all the data related to the hospitalizations"""
# Get only the hospitalizations from the dataset
hospitalizations_df = self.df.copy()[[
'gender', 'age_range', 'autonomous_region', 'new_hospitalizations',
'total_hospitalizations', 'new_ic_hospitalizations',
'total_ic_hospitalizations', 'new_cases', 'total_cases',
'population'
]]
# Calculate the hospitalizations per population
hospitalizations_df[
'new_hospitalizations_per_population'] = 100000 * hospitalizations_df[
'new_hospitalizations'] / hospitalizations_df['population']
hospitalizations_df[
'total_hospitalizations_per_population'] = 100000 * hospitalizations_df[
'total_hospitalizations'] / hospitalizations_df['population']
hospitalizations_df[
'new_ic_hospitalizations_per_population'] = 100000 * hospitalizations_df[
'new_ic_hospitalizations'] / hospitalizations_df['population']
hospitalizations_df[
'total_ic_hospitalizations_per_population'] = 100000 * hospitalizations_df[
'total_ic_hospitalizations'] / hospitalizations_df['population']
# Daily, weekly and monthly increase
increase_hospitalizations_df_1d = hospitalizations_df.groupby(['autonomous_region', 'gender', 'age_range'])[
['new_hospitalizations', 'new_ic_hospitalizations']].rolling('2D'). \
apply(DailyCOVIDData.calculate_increase_percentage, raw=True)
increase_hospitalizations_df_7d = hospitalizations_df.groupby(['autonomous_region', 'gender', 'age_range'])[
['new_hospitalizations', 'new_ic_hospitalizations']].rolling('8D'). \
apply(DailyCOVIDData.calculate_increase_percentage, raw=True)
increase_hospitalizations_df_14d = hospitalizations_df.groupby(['autonomous_region', 'gender', 'age_range'])[
['new_hospitalizations', 'new_ic_hospitalizations']].rolling('15D'). \
apply(DailyCOVIDData.calculate_increase_percentage, raw=True)
increase_hospitalizations_df_30d = hospitalizations_df.groupby(['autonomous_region', 'gender', 'age_range'])[
['new_hospitalizations', 'new_ic_hospitalizations']].rolling('31D'). \
apply(DailyCOVIDData.calculate_increase_percentage, raw=True)
increase_hospitalizations_percentages = pd.DataFrame({
'hospitalizations_daily_increase':
increase_hospitalizations_df_1d['new_hospitalizations'],
'hospitalizations_weekly_increase':
increase_hospitalizations_df_7d['new_hospitalizations'],
'hospitalizations_two_weeks_increase':
increase_hospitalizations_df_14d['new_hospitalizations'],
'hospitalizations_monthly_increase':
increase_hospitalizations_df_30d['new_hospitalizations'],
'ic_daily_increase':
increase_hospitalizations_df_1d['new_ic_hospitalizations'],
'ic_weekly_increase':
increase_hospitalizations_df_7d['new_ic_hospitalizations'],
'ic_two_weeks_increase':
increase_hospitalizations_df_14d['new_ic_hospitalizations'],
'ic_monthly_increase':
increase_hospitalizations_df_30d['new_ic_hospitalizations']
})
hospitalizations_df = pd.merge(
hospitalizations_df,
increase_hospitalizations_percentages,
on=['autonomous_region', 'date', 'age_range', 'gender'])
# New hospitalizations moving average
new_hospitalizations_ma_1w = hospitalizations_df.groupby(
['autonomous_region', 'gender', 'age_range'])[[
'new_hospitalizations_per_population',
'new_ic_hospitalizations_per_population'
]].rolling('8D').mean()
new_hospitalizations_ma_2w = hospitalizations_df.groupby(
['autonomous_region', 'gender', 'age_range'])[[
'new_hospitalizations_per_population',
'new_ic_hospitalizations_per_population'
]].rolling('15D').mean()
new_hospitalizations_ma = pd.DataFrame({
'new_hospitalizations_ma_1w':
new_hospitalizations_ma_1w['new_hospitalizations_per_population'],
'new_hospitalizations_ma_2w':
new_hospitalizations_ma_2w['new_hospitalizations_per_population'],
'new_ic_ma_1w':
new_hospitalizations_ma_1w[
'new_ic_hospitalizations_per_population'],
'new_ic_ma_2w':
new_hospitalizations_ma_2w[
'new_ic_hospitalizations_per_population']
})
hospitalizations_df = pd.merge(
hospitalizations_df,
new_hospitalizations_ma,
on=['autonomous_region', 'date', 'age_range', 'gender'])
# Hospitalization percentage
hospitalizations_df['new_cases_per_population'] = \
100000 * hospitalizations_df['new_cases'] / hospitalizations_df['population']
new_cases_ma_2w = hospitalizations_df.groupby(
['autonomous_region', 'gender',
'age_range'])['new_cases_per_population'].rolling('15D').mean()
new_cases_ma_2w_df = pd.DataFrame({'new_cases_ma_2w': new_cases_ma_2w})
hospitalizations_df = pd.merge(
hospitalizations_df,
new_cases_ma_2w_df,
on=['autonomous_region', 'date', 'age_range', 'gender'])
hospitalizations_df['hospitalization_ratio_2w'] = 100 * (
hospitalizations_df['new_hospitalizations_ma_2w'] /
hospitalizations_df['new_cases_ma_2w']).replace(np.nan, 0)
hospitalizations_df['hospitalization_ratio_total'] = 100 * (
hospitalizations_df['total_hospitalizations'] /
hospitalizations_df['total_cases']).replace(np.nan, 0)
hospitalizations_df['hospitalization_ic_ratio_2w'] = 100 * (
hospitalizations_df['new_ic_ma_2w'] /
hospitalizations_df['new_cases_ma_2w']).replace(np.nan, 0)
hospitalizations_df['hospitalization_ic_ratio_total'] = 100 * (
hospitalizations_df['total_ic_hospitalizations'] /
hospitalizations_df['total_cases']).replace(np.nan, 0)
hospitalizations_df = hospitalizations_df.drop(columns=[
'new_cases_ma_2w', 'new_cases_per_population', 'new_cases',
'total_cases', 'population'
])
# Store the data
self.db_write.store_data(
'hospitalizations',
hospitalizations_df.reset_index().to_dict('records'))
