def test_coefficient_proratisation_only_contract_periods_wide():
    tax_benefit_system = FranceTaxBenefitSystem()
    scenario = tax_benefit_system.new_scenario()
    scenario.init_single_entity(period='2017', # wide: we simulate for the year
        parent1=dict(salaire_de_base={'2017-11':2300},
        effectif_entreprise=1,
        code_postal_entreprise="75001",
        categorie_salarie=u'prive_non_cadre',
        contrat_de_travail_debut='2017-11-1',
        contrat_de_travail_fin='2017-12-01',
        allegement_fillon_mode_recouvrement=u'progressif'))
    simulation = scenario.new_simulation()
    assert_equal(simulation.calculate('coefficient_proratisation','2017-11'),1)
    assert_equal(simulation.calculate('coefficient_proratisation','2017-12'),0)
    assert_equal(simulation.calculate('coefficient_proratisation','2017-10'),0)
    assert_equal(simulation.calculate_add('coefficient_proratisation','2017'),1)
Ejemplo n.º 2
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def test_coefficient_proratisation_only_contract_periods_wide():
    tax_benefit_system = FranceTaxBenefitSystem()
    scenario = tax_benefit_system.new_scenario()
    init_single_entity(scenario, period='2017',  # wide: we simulate for the year
        parent1=dict(salaire_de_base={'2017-11': 2300},
        effectif_entreprise=1,
        code_postal_entreprise="75001",
        categorie_salarie=u'prive_non_cadre',
        contrat_de_travail_debut={2017: '2017-11-01'},
        contrat_de_travail_fin={2017: '2017-12-01'},
        allegement_fillon_mode_recouvrement=u'progressif'))
    simulation = scenario.new_simulation()
    assert simulation.calculate('coefficient_proratisation', '2017-11') == 1
    assert simulation.calculate('coefficient_proratisation', '2017-12') == 0
    assert simulation.calculate('coefficient_proratisation', '2017-10') == 0
    assert simulation.calculate_add('coefficient_proratisation', '2017') == 1
def test_coefficient_proratisation_only_contract_periods_narrow():
    tax_benefit_system = FranceTaxBenefitSystem()
    scenario = tax_benefit_system.new_scenario()
    init_single_entity(
        scenario,
        period='2017-11',  # narrow: we simulate for the month
        parent1=dict(salaire_de_base={'2017-11': 2300},
                     effectif_entreprise=1,
                     code_postal_entreprise="75001",
                     categorie_salarie='prive_non_cadre',
                     contrat_de_travail_debut={2017: '2017-11-01'},
                     contrat_de_travail_fin={2017: '2017-12-01'},
                     allegement_fillon_mode_recouvrement='progressif'))
    simulation = scenario.new_simulation()
    assert simulation.calculate('coefficient_proratisation', '2017-11') == 1
    assert simulation.calculate('coefficient_proratisation', '2017-12') == 0
    assert simulation.calculate('coefficient_proratisation', '2017-10') == 0
    assert simulation.calculate_add('coefficient_proratisation', '2017') == 1
Ejemplo n.º 4
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from openfisca_france import FranceTaxBenefitSystem
tax_benefit_system = FranceTaxBenefitSystem()
scenario = tax_benefit_system.new_scenario()
scenario.init_single_entity(
    period = 2015,
    parent1 = dict(
        age = 30,
        salaire_de_base = 50000,
        ),
    enfants = [
        dict(age = 12),
        dict(age = 18),
        ],
    )
simulation = scenario.new_simulation()

#Some variable can only be computed on a monthly basis
#simulation.calculate('af', '2015')
print(simulation.calculate('af', '2015-01')) #calculate variable af for January 2015
simulation.calculate_add("af", "2015") #to sum on the whole year

#Some variable can only be computed on a anual basis
simulation.calculate('irpp', period = '2015')

scenario.init_single_entity(
    period = 2019,
    parent1 = dict(
        age = 30,
        salaire_de_base = 70000,
        ),
    )
from copy import deepcopy
import pprint

from openfisca_france import FranceTaxBenefitSystem
from tests.test_entities import TEST_CASE_AGES

tbs = FranceTaxBenefitSystem()
period = '2020'

test_case = deepcopy(TEST_CASE_AGES)
test_case['period'] = period
# pprint.pprint(test_case)
simulation = tbs.new_scenario().init_from_dict(test_case).new_simulation()
print(simulation.calculate('revenu_disponible', period))
Ejemplo n.º 6
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from openfisca_france import FranceTaxBenefitSystem
import matplotlib.pylab as plt
import numpy as np
import pandas as pd

#Create a df to store my alloc
salaire_de_base = np.linspace(0, 100000, 100)
print(salaire_de_base)

# Create a new scenario from openfisca_france
tax_benefit_system = FranceTaxBenefitSystem()
scenario = tax_benefit_system.new_scenario()

scenario.init_single_entity(

    # Axe declaration
    axes=[
        dict(  # in a dictionary
            count=100,  # 'count' : indicates the number of step
            min=0,
            max=100000,
            name='salaire_de_base',  # the variable you want to make evolve
        ),
    ],
    period=2014,
    parent1=dict(date_naissance='1980-01-01', ))

simulation = scenario.new_simulation()

#Add variable related to irpp
income_tax = -simulation.calculate('irpp', 2014)
Ejemplo n.º 7
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csg_ded_ap = reform_simulation.calculate("csg_deductible_salaire", "2018-01")
crds_ap = reform_simulation.calculate("crds", "2018")
net_ap = reform_simulation.calculate('revenu_net', '2018')
ir_ap = reform_simulation.calculate('irpp', '2018')
presta_ap = reform_simulation.calculate("prestations_sociales", "2018")
famille_ap = reform_simulation.calculate("prestations_familiales", "2018")
minima_ap = reform_simulation.calculate("minima_sociaux", "2018")
al_ap = reform_simulation.calculate("aide_logement", "2018-12")
ppa_ap = reform_simulation.calculate("ppa", "2018-12")
rd_ap = reform_simulation.calculate('revenu_disponible', '2018')

###################################
# Computation of th ecounterfactual
###################################
#Indicate that you want to perfom the standard system on this scenario
reference_scenario = init_profile(tax_benefit_system.new_scenario())

#Simulate the standard scenario
reference_simulation = reference_scenario.new_simulation()

# Variables in the counterfactual situation
s_brut_av = reference_simulation.calculate("salaire_de_base", "2018-01")
cot_soc_av = reference_simulation.calculate("cotisations_salariales",
                                            "2018-01")
cot_cho_av = reference_simulation.calculate("chomage_salarie", "2018-01")
csg_av = reference_simulation.calculate("csg", "2018")
csg_ded_av = reference_simulation.calculate("csg_deductible_salaire",
                                            "2018-01")
crds_av = reference_simulation.calculate("crds", "2018")
net_av = reference_simulation.calculate('revenu_net', '2018')
ir_av = reference_simulation.calculate('irpp', '2018')