# Author(s): Angriest Bird, Hiddengearz, Killerrabbit

# GDP Calculation
# Calculating things for the money system
# Interest rates are set in GDP/C - need modifier based on debt_ratio, to avoid rich countries getting infinite rich by taking huge loans and reinvesting abroad
# Variable explanations
# treasury_rate - How much money your country is making daily
# tax_gain - money your gaining from taxes
# int_investments_rate - weekly ROI generated by international investments
# int_investments_collected_rate - share of that ROI added to the treasury
# int_investments_reinvest_rate - share of that ROI added back to the principal
# resource_sale_rate - money your gaining from exports

# expense_gain - total amount of money your spending
# debt_rate - How much money your country owes in debt
# interest_rate - the interest  rate you pay DAILY on debt.
# econ_cycle_upg_cost - cost to upgrade economic cycle
# bureaucracy_gain - cost for bureaucracy law
# education_gain - cost of education law
# health_gain - cost of health care law
# welfare_gain - cost of welfare law
# military_rate - cost of military law
# personnel_cost - how much you pay soldiers and maintenance on equipment

# corporation_tax - Value of the Corporate taxes
# population_tax - value of the population tax
# corporation_tax_rate - Corporate Tax rate
# population_tax_rate - pop tax rate

###Treasury reset### -- Legacy commands. Moved this functionality to a update_display command
#In a couple places I've left a comment saying referring to treasury reset explanation. This is the explanation
#It took me a while to figure out why you add debt_rate to treasury_rate so ill try to explain (Gearz)
#When your debt_rate changes you need to "reset the treasury_rate" so you return
#how much you were taking from the treasury before and then take the new amount you need
#e.g treasury_rate $10B, you take $2B for your current debt_rate. Treasury rate = $8B
#Your new debt_rate is $4B. So you need to "reset the treasury" you give the treasury_rate back the $2B
#So treasury_rate is now back to $10B, now subtract the $4B and now treasury rate is $6B

# Constants
# Adjusted the GDP scaling for all laws
@spending_laws_gdp_scaling = 0.006
# Adjusts the money control factor for tax gain
@money_control_factor_scaling = 0.238
# Adjusts the percentage of refugees off of your total population
@refugee_percentage_adjuster = 0.005
# Minimum workers per building
@minimum_workers_per_building = 0.00001
# Resource Sales Rate Constant
@resource_sale_rate_constant = 0.00298
# Upper bound for math expression clamps — HOI4 requires both min and max on every clamp, so this serves as a sane "effectively unbounded" max
@math_expressions_max = 1000000
# Upper clamp on spending-law base costs before the per-level multiplier; effectively unbounded, distinct from @math_expressions_max (1e6)
@spending_cost_clamp_max = 100000000
# Population Tax Adjuster
@population_tax_adjuster = 0.008

# GDP per-building contribution coefficients: output = total * (base_factor + prod_factor * productivity) * manpower_fulfillment
@gdp_civ_base_factor = 17.5
@gdp_civ_prod_factor = 20
@gdp_mil_base_factor = 1.5
@gdp_mil_prod_factor = 1
@gdp_dockyard_base_factor = 1.5
@gdp_dockyard_prod_factor = 1
@gdp_office_base_factor = 50
@gdp_office_prod_factor = 50
@gdp_agriculture_district_base_factor = 25
@gdp_agriculture_district_prod_factor = 25
@gdp_microchip_base_factor = 32
@gdp_microchip_prod_factor = 35
@gdp_composite_base_factor = 28
@gdp_composite_prod_factor = 30
@gdp_synthetic_base_factor = 10
@gdp_synthetic_prod_factor = 10

# Spending-law base cost per capita (billion $ per 10 000 000 people)
@bureau_base_cost_per_capita = 0.0007
@police_base_cost_per_capita = 0.00098
@education_base_cost_per_capita = 0.00036
@health_base_cost_per_capita = 0.00062
@social_base_cost_per_capita = 0.00115
# Civil servant salary per worker, added to the bureaucracy output term in calculate_gdp
@bureau_salary_per_worker = 0.001
# tweak this to modify the operative cost of all equipment
@equipment_operative_cost_multiplier = 5

setup_spending_law_tables = {
	clear_array = global.bureau_law_idea
	resize_array = { array = global.bureau_law_idea size = 1 }
	add_to_array = { global.bureau_law_idea = token:bureau_01 }
	add_to_array = { global.bureau_law_idea = token:bureau_02 }
	add_to_array = { global.bureau_law_idea = token:bureau_03 }
	add_to_array = { global.bureau_law_idea = token:bureau_04 }
	add_to_array = { global.bureau_law_idea = token:bureau_05 }

	clear_array = global.police_law_idea
	resize_array = { array = global.police_law_idea size = 1 }
	add_to_array = { global.police_law_idea = token:police_01 }
	add_to_array = { global.police_law_idea = token:police_02 }
	add_to_array = { global.police_law_idea = token:police_03 }
	add_to_array = { global.police_law_idea = token:police_04 }
	add_to_array = { global.police_law_idea = token:police_05 }

	clear_array = global.edu_law_idea
	resize_array = { array = global.edu_law_idea size = 1 }
	add_to_array = { global.edu_law_idea = token:edu_01 }
	add_to_array = { global.edu_law_idea = token:edu_02 }
	add_to_array = { global.edu_law_idea = token:edu_03 }
	add_to_array = { global.edu_law_idea = token:edu_04 }
	add_to_array = { global.edu_law_idea = token:edu_05 }

	clear_array = global.health_law_idea
	resize_array = { array = global.health_law_idea size = 1 }
	add_to_array = { global.health_law_idea = token:health_01 }
	add_to_array = { global.health_law_idea = token:health_02 }
	add_to_array = { global.health_law_idea = token:health_03 }
	add_to_array = { global.health_law_idea = token:health_04 }
	add_to_array = { global.health_law_idea = token:health_05 }
	add_to_array = { global.health_law_idea = token:health_06 }

	clear_array = global.social_law_idea
	resize_array = { array = global.social_law_idea size = 1 }
	add_to_array = { global.social_law_idea = token:social_01 }
	add_to_array = { global.social_law_idea = token:social_02 }
	add_to_array = { global.social_law_idea = token:social_03 }
	add_to_array = { global.social_law_idea = token:social_04 }
	add_to_array = { global.social_law_idea = token:social_05 }
	add_to_array = { global.social_law_idea = token:social_06 }

	clear_array = global.defence_law_idea
	resize_array = { array = global.defence_law_idea size = 1 }
	add_to_array = { global.defence_law_idea = token:defence_00 }
	add_to_array = { global.defence_law_idea = token:defence_01 }
	add_to_array = { global.defence_law_idea = token:defence_02 }
	add_to_array = { global.defence_law_idea = token:defence_03 }
	add_to_array = { global.defence_law_idea = token:defence_04 }
	add_to_array = { global.defence_law_idea = token:defence_05 }
	add_to_array = { global.defence_law_idea = token:defence_06 }
	add_to_array = { global.defence_law_idea = token:defence_07 }
	add_to_array = { global.defence_law_idea = token:defence_08 }
	add_to_array = { global.defence_law_idea = token:defence_09 }

	clear_array = global.bureau_workers
	resize_array = { array = global.bureau_workers size = 1 }
	add_to_array = { global.bureau_workers = 0.00075 }
	add_to_array = { global.bureau_workers = 0.0015 }
	add_to_array = { global.bureau_workers = 0.003 }
	add_to_array = { global.bureau_workers = 0.00525 }
	add_to_array = { global.bureau_workers = 0.009 }

	clear_array = global.health_workers
	resize_array = { array = global.health_workers size = 1 }
	add_to_array = { global.health_workers = 0.15 }
	add_to_array = { global.health_workers = 0.30 }
	add_to_array = { global.health_workers = 0.50 }
	add_to_array = { global.health_workers = 0.70 }
	add_to_array = { global.health_workers = 0.90 }
	add_to_array = { global.health_workers = 1.10 }
}

# Effect: setup_spending_ladders
# Purpose: Populates the global per-level spending multiplier arrays once at game start for the ladders
setup_spending_ladders = {
	setup_spending_law_tables = yes
	if = {
		limit = { NOT = { has_global_flag = spending_ladders_initialized } }
		clear_array = global.spending_ladder_standard
		add_to_array = { array = global.spending_ladder_standard value = 1 }
		add_to_array = { array = global.spending_ladder_standard value = 1.6 }
		add_to_array = { array = global.spending_ladder_standard value = 2.2 }
		add_to_array = { array = global.spending_ladder_standard value = 2.8 }
		add_to_array = { array = global.spending_ladder_standard value = 3.4 }

		clear_array = global.spending_ladder_education
		add_to_array = { array = global.spending_ladder_education value = 1 }
		add_to_array = { array = global.spending_ladder_education value = 2.25 }
		add_to_array = { array = global.spending_ladder_education value = 3.5 }
		add_to_array = { array = global.spending_ladder_education value = 4.75 }
		add_to_array = { array = global.spending_ladder_education value = 6 }

		clear_array = global.spending_ladder_health
		add_to_array = { array = global.spending_ladder_health value = 1.1 }
		add_to_array = { array = global.spending_ladder_health value = 2.2 }
		add_to_array = { array = global.spending_ladder_health value = 4.4 }
		add_to_array = { array = global.spending_ladder_health value = 6.5 }
		add_to_array = { array = global.spending_ladder_health value = 8.8 }
		add_to_array = { array = global.spending_ladder_health value = 11 }

		clear_array = global.spending_ladder_social
		add_to_array = { array = global.spending_ladder_social value = 1 }
		add_to_array = { array = global.spending_ladder_social value = 2.5 }
		add_to_array = { array = global.spending_ladder_social value = 4 }
		add_to_array = { array = global.spending_ladder_social value = 5.5 }
		add_to_array = { array = global.spending_ladder_social value = 7.5 }
		add_to_array = { array = global.spending_ladder_social value = 9.5 }

		clear_array = global.spending_ladder_defence
		add_to_array = { array = global.spending_ladder_defence value = 0.00046 }
		add_to_array = { array = global.spending_ladder_defence value = 0.005 }
		add_to_array = { array = global.spending_ladder_defence value = 0.01 }
		add_to_array = { array = global.spending_ladder_defence value = 0.015 }
		add_to_array = { array = global.spending_ladder_defence value = 0.023 }
		add_to_array = { array = global.spending_ladder_defence value = 0.03 }
		add_to_array = { array = global.spending_ladder_defence value = 0.04 }
		add_to_array = { array = global.spending_ladder_defence value = 0.05 }
		add_to_array = { array = global.spending_ladder_defence value = 0.063 }
		add_to_array = { array = global.spending_ladder_defence value = 0.1 }

		set_global_flag = spending_ladders_initialized
	}
}

# Effect: ingame_update_setup
# Purpose: Aggregates every income and expense stream, then refreshes the economy UI; the weekly economic tick
ingame_update_setup = {
	#National values (GDP, pop etc.) MUST BE FIRST
	update_state_variables = yes

	# create_dynamic_country (civil-war splits, copy_tag) can inherit an unowned capital, leaving capital_scope invalid; reassign it to an owned state.
	if = {
		limit = {
			any_owned_state = { always = yes }
			NOT = { capital_scope = { always = yes } }
		}
		random_owned_state = { ROOT = { set_capital = { state = PREV } } }
	}

	#Income
	calculate_int_investments_rate = yes
	calculate_resource_sale_rate = yes
	calculate_tax_gain = yes
	calculate_seigniorage_income = yes
	calculate_additional_income_rate = yes

	#Currency multipliers — applied after all income streams are computed
	apply_currency_multipliers = yes

	#Expenses
	expense_modifier_calculations = yes
	update_military_rate = yes
	update_bureaucracy_rate = yes
	update_police_rate = yes
	update_education_rate = yes
	update_health_rate = yes
	update_social_rate = yes
	update_infra_rate = yes
	calculate_interest_rate = yes
	calculate_additional_expense_rate = yes

	#Various
	update_economic_cycle_cost = yes
	update_employment_productivity_output_dynamic_modifier = yes
	calculate_migration_mechanic_values = yes

	#Visuals
	update_display = yes
	if = { limit = { is_ai = no }
		update_money_dirty_variable = yes
		refresh_investment_gui = yes
	}

	if = { limit = { is_debug = yes }
		log = "[GetDateText]: [THIS.GetName]: Weekly Economic Update: Treasury: [?THIS.treasury] Treasury Rate: [?THIS.treasury_rate] Debt: [?THIS.debt] Interest Rate: [?THIS.interest_rate] Population Tax Rate: [?THIS.population_tax_rate] Corporate Tax Rate: [?THIS.corporate_tax_rate]"
	}
}

# Effect: update_money_dirty_variable
# Purpose: Updates the dirty variable which in turn updates the money UI and the research screen
update_money_dirty_variable = {
	if = { limit = { is_ai = no }
		force_update_map_mode = { mapmode = gdp_c_map_mode }
		force_update_map_mode = { mapmode = energy_consumption_map_mode }
		force_update_map_mode = { mapmode = productivity_map_mode }

		md_check_research_slot_alert = yes
	}
	add_to_variable = { global.update_monie_ui = 1 }
	add_to_variable = { global.research_screen_ui = 1 }
}

# Effect: expense_modifier_calculations
# Purpose: Computes the common spending modifier combining inflation and GDP-per-capita scaling
expense_modifier_calculations = {
	set_temp_variable = { inflation_multiplier = { value = 1 add = modifier@inflation_cost_multiplier_modifier } }

	set_temp_variable = { gdp_scaling_modifier = { value = gdp_per_capita multiply = @spending_laws_gdp_scaling add = 1 } }

	set_variable = {
		common_money_modifier = {
			value = inflation_multiplier
			multiply = {
				value = gdp_per_capita
				multiply = @spending_laws_gdp_scaling
				add = 1
			}
		}
	}
}

# Effect: calculate_tax_rate
# Purpose: Calculates the tax rate of a given nation where you flow in the corporate_tax_rate of a given nation
calculate_tax_rate = {
	hidden_effect = {
		if = { limit = { NOT = { has_dynamic_modifier = { modifier = impact_of_tax_dynamic_modifier } } }
			add_dynamic_modifier = { modifier = impact_of_tax_dynamic_modifier }
		}

		set_variable = {
			consumer_goods_from_corporate_tax = {
				value = corporate_tax_rate
				multiply = 0.015
			}
		}

		set_variable = {
			receiving_investment_cost_form_corporate_tax = {
				value = corporate_tax_rate
				multiply = 0.01
			}
		}

		# Productivity
		set_variable = {
			productivity_growth_modifier_from_corporate_tax = {
				value = corporate_tax_rate
				multiply = -1
				add = 20
				multiply = 0.005
			}
		}

		set_variable = {
			stability_factor_from_population_tax = {
				value = population_tax_rate
				multiply = -0.01
			}
		}

		# Average Tax Rate
		set_variable = {
			tax_rate = {
				value = corporate_tax_rate
				add = population_tax_rate
				multiply = 0.5
				round = yes
			}
		}

		set_variable = {
			tax_rate_change_5 = {
				value = 250
				multiply = {
					value = 1
					add = modifier@tax_rate_change_multiplier_modifier
				}
				round = yes
			}
		}
		set_variable = {
			tax_rate_change = {
				value = 50
				multiply = {
					value = 1
					add = modifier@tax_rate_change_multiplier_modifier
				}
				round = yes
			}
		}
	}
}

# Effect: calculate_tax_gain
# Purpose: Calculates the amount of taxes earned based of ROOT's corporate taxes and population taxes
calculate_tax_gain = {
	# Update starting tax rate
	calculate_tax_rate = yes

	# Subsistence Agriculture Tax Gain Income
	# Build unified agriculture multiplier: 0.019 * corporate_tax_rate * 0.01 * (agricolture_productivity_modifier * agriculture_tax_modifier + 1)
	set_variable = {
		agriculture_tax_gain = {
			value = gdp_from_agriculture
			multiply = {
				value = modifier@agricolture_productivity_modifier
				multiply = modifier@agriculture_tax_modifier
				add = 1
				multiply = corporate_tax_rate
				multiply = 0.00019
			}
			clamp = { min = 0.001 max = 100000000 }
		}
	}

	set_temp_variable = {
		unified_building_multiplier = {
			value = @money_control_factor_scaling
			multiply = corporate_tax_rate
			# Tax Gain Multiplier
			multiply = {
				value = 1
				add = modifier@tax_gain_multiplier_modifier
			}
			multiply = 0.007
			# Corporate Tax Income
			multiply = {
				value = 1
				add = modifier@corporate_tax_income_multiplier_modifier
			}
			# Overall productivity
			multiply = {
				value = overall_productivity
				divide = global.productivity_center
			}
		}
	}

	# Set base building counts (base tax constants will be factored into building-specific unified multipliers)
	# Civilian Factories - base constant 2.5
	# Military Factories - base constant 0.2
	# Naval Dockyards - base constant 0.2
	# Offices - base constant 5
	# Microchip Plants - base constant 4
	# Composites Plants - base constant 3.5
	# Synthetic Refineries - base constant 3
	# Agriculture Districts - base constant 2.60

	# Civilian Factories
	if = { limit = { check_variable = { industrial_complex_total > 0 } }
		set_variable = {
			civil_fac_tax = {
				value = industrial_complex_total
				multiply = {
					value = 1
					add = modifier@civilian_industry_tax_modifier
					multiply = {
						value = 1
						add = modifier@civilian_factories_productivity
					}
					multiply = civilian_factories_manpower_fulfillment
					multiply = {
						value = unified_building_multiplier
						multiply = 2.5
					}
				}
				clamp = { min = 0 max = 100000000 }
			}
		}
	}
	else = { set_variable = { civil_fac_tax = 0 } }

	# Military Factories
	if = { limit = { check_variable = { military_factory_total > 0 } }
		set_variable = {
			military_fac_tax = {
				value = military_factory_total
				multiply = {
					value = 1
					add = modifier@military_industry_tax_modifier
					multiply = {
						value = 1
						add = modifier@military_factories_productivity
					}
					multiply = military_factories_manpower_fulfillment
					multiply = {
						value = unified_building_multiplier
						multiply = 0.2
					}
				}
				clamp = { min = 0 max = 100000000 }
			}
		}
	}
	else = { set_variable = { military_fac_tax = 0 } }

	# Dockyards
	if = { limit = { check_variable = { naval_factory_total > 0 } }
		set_variable = {
			dockyard_tax = {
				value = naval_factory_total
				multiply = {
					value = 1
					add = modifier@dockyard_income_tax_modifier
					multiply = {
						value = 1
						add = modifier@dockyard_productivity
					}
					multiply = naval_factories_manpower_fulfillment
					multiply = {
						value = unified_building_multiplier
						multiply = 0.2
					}
				}
				clamp = { min = 0 max = 100000000 }
			}
		}
	}
	else = { set_variable = { dockyard_tax = 0 } }

	# Offices
	if = { limit = { check_variable = { office_park_total > 0 } }
		set_variable = {
			office_tax = {
				value = office_park_total
				multiply = {
					value = 1
					add = modifier@office_park_income_tax_modifier
					multiply = {
						value = 1
						add = modifier@offices_productivity
					}
					multiply = offices_manpower_fulfillment
					multiply = {
						value = unified_building_multiplier
						multiply = 5
					}
				}
				clamp = { min = 0 max = 100000000 }
			}
		}
	}
	else = { set_variable = { office_tax = 0 } }

	# Agriculture Districts
	if = { limit = { check_variable = { agriculture_district_total > 0 } }
		set_variable = {
			agriculture_district_tax = {
				value = agriculture_district_total
				multiply = {
					value = 1
					add = modifier@agriculture_district_income_tax_modifier
					multiply = {
						value = 1
						add = modifier@agricolture_productivity_modifier
					}
					multiply = agriculture_district_manpower_fulfillment
					multiply = {
						value = unified_building_multiplier
						multiply = 2.6
					}
				}
				clamp = { min = 0 max = 100000000 }
			}
		}
	}
	else = { set_variable = { agriculture_district_tax = 0 } }

	# Microchip Plants
	if = { limit = { check_variable = { microchip_plant_total > 0 } }
		set_variable = {
			microchip_plant_tax = {
				value = microchip_plant_total
				multiply = {
					value = 1
					add = modifier@microchip_plant_income_tax_modifier
					multiply = {
						value = 1
						add = modifier@microchip_plant_productivity_modifier
					}
					multiply = microchip_plant_manpower_fulfillment
					multiply = {
						value = unified_building_multiplier
						multiply = 3.6
					}
				}
				clamp = { min = 0 max = 100000000 }
			}
		}
	}
	else = { set_variable = { microchip_plant_tax = 0 } }

	# Composite Plants
	if = { limit = { check_variable = { composite_plant_total > 0 } }
		set_variable = {
			composite_plant_tax = {
				value = composite_plant_total
				multiply = {
					value = 1
					add = modifier@composite_plant_income_tax_modifier
					multiply = {
						value = 1
						add = modifier@composite_plant_productivity_modifier
					}
					multiply = composite_plant_manpower_fulfillment
					multiply = {
						value = unified_building_multiplier
						multiply = 3.15
					}
				}
				clamp = { min = 0 max = 100000000 }
			}
		}
	}
	else = { set_variable = { composite_plant_tax = 0 } }

	# Synthetic Refineries
	if = { limit = { check_variable = { synthetic_refinery_total > 0 } }
		set_variable = {
			synthetic_refinery_tax = {
				value = synthetic_refinery_total
				multiply = {
					value = 1
					add = modifier@synthetic_refinery_productivity_modifier
					multiply = {
						value = 1
						add = modifier@synthetic_refinery_income_tax_modifier
					}
					multiply = synthetic_refinery_manpower_fulfillment
					multiply = {
						value = unified_building_multiplier
						multiply = 2.7
					}
				}
				clamp = { min = 0 max = 100000000 }
			}
		}
	}
	else = { set_variable = { synthetic_refinery_tax = 0 } }

	# Nuclear Reactors
	if = { limit = { check_variable = { nuclear_reactors > 0 } }
		set_variable = {
			nuclear_reactor_tax = {
				value = nuclear_reactors
				multiply = {
					value = 1
					add = modifier@infrastructure_tax_gain_multiplier_modifier
					multiply = nuclear_reactors_manpower_fulfillment
					multiply = {
						value = unified_building_multiplier
						multiply = 2.875
					}
				}
				clamp = { min = 0 max = 100000000 }
			}
		}
	}
	else = { set_variable = { nuclear_reactor_tax = 0 } }

	# Fossil Power Plants
	if = { limit = { check_variable = { number_of_fossil_pps > 0 } }
		set_variable = {
			fossil_powerplant_tax = {
				value = number_of_fossil_pps
				multiply = {
					value = 1
					add = modifier@infrastructure_tax_gain_multiplier_modifier
					multiply = fossil_powerplants_manpower_fulfillment
					multiply = {
						value = unified_building_multiplier
						multiply = 0.31875
					}
				}
				clamp = { min = 0 max = 100000000 }
			}
		}
	}
	else = { set_variable = { fossil_powerplant_tax = 0 } }

	# Renewable Energy Infrastructure
	if = { limit = { check_variable = { renewable_energy_infra > 0 } }
		set_variable = {
			renewable_energy_tax = {
				value = renewable_energy_infra
				multiply = {
					value = 1
					add = modifier@infrastructure_tax_gain_multiplier_modifier
					multiply = renewable_energy_infra_manpower_fulfillment
					multiply = {
						value = unified_building_multiplier
						multiply = 1.5
					}
				}
				clamp = { min = 0 max = 100000000 }
			}
		}
	}
	else = { set_variable = { renewable_energy_tax = 0 } }

	# Internet Stations
	if = { limit = { check_variable = { internet_station_total > 0 } }
		set_variable = {
			internet_station_tax = {
				value = internet_station_total
				multiply = {
					value = 1
					add = modifier@infrastructure_tax_gain_multiplier_modifier
					multiply = internet_stations_manpower_fulfillment
					multiply = {
						value = unified_building_multiplier
						multiply = 0.525
					}
				}
				clamp = { min = 0 max = 100000000 }
			}
		}
	}
	else = { set_variable = { internet_station_tax = 0 } }

	# Rail Terminals
	if = { limit = { check_variable = { rail_terminal_total > 0 } }
		set_variable = {
			rail_terminal_tax = {
				value = rail_terminal_total
				multiply = {
					value = 1
					add = modifier@infrastructure_tax_gain_multiplier_modifier
					multiply = rail_terminal_manpower_fulfillment
					multiply = {
						value = unified_building_multiplier
						multiply = 0.4375
					}
				}
				clamp = { min = 0 max = 100000000 }
			}
		}
	}
	else = { set_variable = { rail_terminal_tax = 0 } }

	# Healthcare Corporate Income Tax
	# Represents the private healthcare market: hospitals, pharmaceutical companies, medical devices, insurance
	# Uses healthcare_gdp_var computed in calculate_gdp (last cycle) as the tax base
	if = { limit = { has_idea = health_01 } set_temp_variable = { healthcare_income_rate = 0.01 } }
	else_if = { limit = { has_idea = health_02 } set_temp_variable = { healthcare_income_rate = 0.016 } }
	else_if = { limit = { has_idea = health_03 } set_temp_variable = { healthcare_income_rate = 0.022 } }
	else_if = { limit = { has_idea = health_04 } set_temp_variable = { healthcare_income_rate = 0.028 } }
	else_if = { limit = { has_idea = health_05 } set_temp_variable = { healthcare_income_rate = 0.034 } }
	else_if = { limit = { has_idea = health_06 } set_temp_variable = { healthcare_income_rate = 0.04 } }

	set_variable = {
		healthcare_tax_gain = {
			value = healthcare_gdp_var
			multiply = healthcare_income_rate
			multiply = {
				value = 1
				add = modifier@healthcare_income_multiplier_modifier
				clamp = { min = 0 max = 100 }
			}
			# Corporate tax rate + display factor (0.007) + gain multipliers
			# Does NOT include overall_productivity — healthcare_gdp_var already absorbed it via gdp_total
			multiply = {
				value = corporate_tax_rate
				multiply = {
					value = 1
					add = modifier@tax_gain_multiplier_modifier
				}
				multiply = 0.007
				multiply = {
					value = 1
					add = modifier@corporate_tax_income_multiplier_modifier
				}
			}
			clamp = { min = 0 max = 100000000 }
		}
	}

	set_variable = {
		corporate_tax = {
			value = 0
			add = healthcare_tax_gain
			add = agriculture_tax_gain
			add = agriculture_district_tax
			add = civil_fac_tax
			add = military_fac_tax
			add = dockyard_tax
			add = office_tax
			add = microchip_plant_tax
			add = composite_plant_tax
			add = synthetic_refinery_tax
			add = nuclear_reactor_tax
			add = fossil_powerplant_tax
			add = renewable_energy_tax
			add = internet_station_tax
			add = rail_terminal_tax

			clamp = { min = 0 max = 100000000 }
		}
	}


	##POP
	set_variable = {
		population_tax = {
			value = population_total_m
			multiply = population_tax_rate
			multiply = 0.45
			# Build unified population tax multiplier: gdp/c_scaling * (1 + pop_tax_modifier) * tax gain modifier * 0.007
			multiply = {
				value = gdp_per_capita
				multiply = @population_tax_adjuster
				add = 0.75
				multiply = {
					value = 1
					add = modifier@tax_gain_multiplier_modifier
				}
				multiply = {
					value = 1
					add = modifier@population_tax_income_multiplier_modifier
				}
				multiply = 0.007
			}
			clamp = { min = 0 max = 100000000 }
		}
	}

	set_variable = {
		tax_gain = {
			value = corporate_tax
			add = population_tax
		}
	}
}

# Effect: calculate_additional_income_rate
# Purpose: Aggregates special income sources (seigniorage, ideas, canal revenue, foreign aid)
calculate_additional_income_rate = {
	set_variable = { additional_income_rate = 0 }

	# Apply seigniorage_income_modifier as a multiplier on the issuer base:
	# income = base × (1 + modifier). When no decision is active modifier = 0,
	# so the factor is 1.0 and the base is unchanged.
	if = { limit = { check_variable = { seigniorage_base > 0 } }
		add_to_temp_variable = { seigniorage_mod = 1.0 }
		multiply_temp_variable = { seigniorage_base = seigniorage_mod }
		add_to_variable = { additional_income_rate = seigniorage_base }
		set_variable = { seigniorage_income_display = seigniorage_base }
	}
	else = { set_variable = { seigniorage_income_display = 0 } }
	# Additional incomes, set income amount as a variable (weekly gain)
	if = { limit = { original_tag = GRN }
		if = {
			limit = { has_idea = GRN_idea_colonial_subsidy }
			set_temp_variable = { GRN_colonial_subsidy = 0.300 }
			add_to_variable = { additional_income_rate = GRN_colonial_subsidy }
		}
	}
	if = { limit = { original_tag = HEZ }
		if = {
			limit = { has_idea = HEZ_our_cartels_in_south_america }
			set_variable = { HEZ_south_american_cartels_income = 0.250 }
			add_to_variable = { additional_income_rate = HEZ_south_american_cartels_income }
		}
		if = {
			limit = { has_completed_focus = HEZ_International_Hezbollah }
			add_to_variable = { additional_income_rate = hezbollah_weekly_income_from_sold_weapons_variable }
		}
		if = {
			limit = { OR = { has_idea = HEZ_iranian_business_5 has_idea = HEZ_iranian_business_6 } }
			set_variable = { HEZ_iranian_business_income = 0.200 }
			add_to_variable = { additional_income_rate = HEZ_iranian_business_income }
		}
		if = {
			limit = {
				has_completed_focus = HEZ_Lebanese_Support
				country_exists = LEB
				NOT = { has_war_with = LEB }
			}
			if = {
				limit = {
					LEB = {
						OR = {
							AND = {
								check_variable = { influence_array^0 = HEZ }
								check_variable = { influence_array_val^0 > 49.999 }
							}
							AND = {
								check_variable = { influence_array^1 = HEZ }
								check_variable = { influence_array_val^1 > 49.999 }
							}
						}
					}
				}
				set_variable = { HEZ_lebanese_support_money = 2.000 }
			}
			else_if = {
				limit = {
					LEB = {
						OR = {
							AND = {
								check_variable = { influence_array^0 = HEZ }
								check_variable = { influence_array_val^0 > 19.999 }
							}
							AND = {
								check_variable = { influence_array^1 = HEZ }
								check_variable = { influence_array_val^1 > 19.999 }
							}
							AND = {
								check_variable = { influence_array^2 = HEZ }
								check_variable = { influence_array_val^2 > 19.999 }
							}
							AND = {
								check_variable = { influence_array^3 = HEZ }
								check_variable = { influence_array_val^3 > 19.999 }
							}
						}
					}
				}
				set_variable = { HEZ_lebanese_support_money = 1.000 }
			}
			else = {
				set_variable = { HEZ_lebanese_support_money = 0.250 }
			}
			add_to_variable = { additional_income_rate = HEZ_lebanese_support_money }
		}
		if = {
			limit = {
				has_completed_focus = HEZ_Increased_Iranian_Support
				country_exists = PER
				has_government = communism
				NOT = { has_war_with = PER }
			}
			if = {
				limit = {
					PER = {
						OR = {
							AND = {
								check_variable = { influence_array^0 = HEZ }
								check_variable = { influence_array_val^0 > 49.999 }
							}
							AND = {
								check_variable = { influence_array^1 = HEZ }
								check_variable = { influence_array_val^1 > 49.999 }
							}
						}
					}
				}
				set_variable = { HEZ_iranian_support_money = 2.000 }
			}
			else_if = {
				limit = {
					PER = {
						OR = {
							AND = {
								check_variable = { influence_array^0 = HEZ }
								check_variable = { influence_array_val^0 > 19.999 }
							}
							AND = {
								check_variable = { influence_array^1 = HEZ }
								check_variable = { influence_array_val^1 > 19.999 }
							}
							AND = {
								check_variable = { influence_array^2 = HEZ }
								check_variable = { influence_array_val^2 > 19.999 }
							}
							AND = {
								check_variable = { influence_array^3 = HEZ }
								check_variable = { influence_array_val^3 > 19.999 }
							}
						}
					}
				}
				set_variable = { HEZ_iranian_support_money = 1.000 }
			}
			else = {
				set_variable = { HEZ_iranian_support_money = 0.250 }
			}
			add_to_variable = { additional_income_rate = HEZ_iranian_support_money }
		}
		if = {
			 limit = { always = yes } # This is to stop Hezbollah's economy collapsing early.
			set_variable = { HEZ_unknown_funds_income = 0.400 }
			add_to_variable = { additional_income_rate = HEZ_unknown_funds_income }
		}
	}
	if = { limit = { has_idea = full_control_of_suez }
		set_variable = { additional_income_suez = 0.1 }
		add_to_variable = { additional_income_rate = additional_income_suez }
	}
	if = { limit = { has_idea = partial_control_of_suez }
		set_variable = { additional_income_suez_partial = 0.05 }
		add_to_variable = { additional_income_rate = additional_income_suez_partial }
	}
	if = { limit = { has_idea = full_control_of_panama }
		set_variable = { additional_income_panama = 0.05 }
		add_to_variable = { additional_income_rate = additional_income_panama }
	}
	if = { limit = { has_idea = gateway_to_asia }
		set_variable = { gateway_to_asia_income = 0.1 }
		add_to_variable = { additional_income_rate = gateway_to_asia_income }
	}
	if = { limit = { has_idea = MICROSTATE_fix }
		set_variable = { additional_income_microstate_fix_var = 0.35 }
		add_to_variable = { additional_income_rate = additional_income_microstate_fix_var }
	}
	if = { limit = { has_idea = saudi_aid }
		set_variable = { additional_income_saudi_aid = { value = population_total multiply = 0.00002 } }	#Millions of people
		add_to_variable = { additional_income_rate = additional_income_saudi_aid }
	}
	if = { limit = { has_idea = iranian_aid }
		set_variable = { additional_income_iranian_aid = { value = gdp_total multiply = 0.004 } }	#20% of GDP yearly
		add_to_variable = { additional_income_rate = additional_income_iranian_aid }
	}
	if = {
		limit = { has_idea = iranian_aid_custom }
		set_variable = { additional_income_iranian_aid_custom = { value = gdp_total multiply = 0.004 } }	#20% of GDP yearly
		add_to_variable = { additional_income_rate = additional_income_iranian_aid_custom }
	}
	if = {
		limit = { check_variable = { ROOT.pmc_profits > 0 } }
		set_variable = { additional_income_pmc = ROOT.pmc_profits }
		add_to_variable = { additional_income_rate = additional_income_pmc }
	}
	if = {
		limit = { has_country_flag = is_cartel_nation }
		if = {
			limit = { has_country_flag = CARTEL_deal_with_the_devil_flag }
			set_variable = { cartel_deal_with_the_devil = { value = gdp_total multiply = 0.005 } }
			add_to_variable = { additional_income_rate = cartel_deal_with_the_devil }
		}
		if = {
			limit = {
				OR = {
					neutrality_neutral_oligarch_are_in_power = yes
					has_dynamic_modifier = { modifier = narco_state_bonuses }
				}
			}
			set_temp_variable = { strength_modifier = { value = ROOT.strength_of_cartels multiply = 0.01 add = 1 } }
			set_variable = { CARTEL_drug_trade_money = { value = gdp_total multiply = 0.009 multiply = strength_modifier } }
			add_to_variable = { additional_income_rate = CARTEL_drug_trade_money }
		}
	}
	if = {
		limit = { has_idea = agrarian_economy }
		set_variable = { additional_income_agrarian_economy = weekly_harvest_billion }
		add_to_variable = { additional_income_rate = additional_income_agrarian_economy }
	}
	# EU
	if = {
		limit = { NOT = { has_global_flag = GAME_RULE_eu_disabled } }
		if = {
			limit = {
				has_idea = EU_member
				NOT = { has_idea = EUU_subsidies_suspended }
			}
			set_variable = { EU_subsidies = { value = THIS.EU_natural_subsidies add = THIS.EU_growth_subsidies add = THIS.EU_admin_subsidies add = THIS.EU_global_exp_subsidies multiply = 0.019 } }

			add_to_variable = { additional_income_rate = EU_subsidies }
		}
	}
	if = {
		limit = { has_idea = blood_diamond_trade }
		set_variable = { additional_income_blood_diamond_trade = 0.04 }
		add_to_variable = { additional_income_rate = additional_income_blood_diamond_trade }
	}
	if = {
		limit = { has_idea = USA_usaid }
		set_variable = { additional_income_USA_usaid = { value = population_total multiply = 0.00016 } }	#Millions of people
		add_to_variable = { additional_income_rate = additional_income_USA_usaid }
	}
	if = {
		limit = { has_idea = HOL_dutchaid }
		set_variable = { additional_income_HOL_dutchaid = { value = population_total multiply = 0.00004 } }	#Millions of people
		add_to_variable = { additional_income_rate = additional_income_HOL_dutchaid }
	}
	# Overlord Subsidization
	if = {
		limit = { has_country_flag = overlord_subsidies }
		set_variable = { additional_income_overlord_subsidies = { value = gdp_total multiply = 0.005 } }
		add_to_variable = { additional_income_rate = additional_income_overlord_subsidies }
	}
	# Imposing Taxation on Religious Institutions
	if = { limit = { has_idea = internal_factions_taxing_religious_institutions }
		set_variable = { additional_income_taxing_religious_institutions = population_total_m }
		set_temp_variable = { gdp_per_capita_temp = { value = gdp_per_capita divide = 750 } }
		multiply_variable = { additional_income_taxing_religious_institutions = gdp_per_capita_temp }
		add_to_variable = { additional_income_rate = additional_income_taxing_religious_institutions }
	}

	# Landmark Income from Tourism
	if = {
		limit = { has_full_control_of_state = 177 }
		set_temp_variable = { total_arabic_population = 0 }
		for_each_scope_loop = {
			array = global.arabic_countries
			add_to_temp_variable = { PREV.total_arabic_population = population_total_m }
		}
		set_variable = { additional_income_landmark_kaaba_tourism = { value = total_arabic_population multiply = 0.003 } }
		add_to_variable = { additional_income_rate = additional_income_landmark_kaaba_tourism }
	}

	# Country Specific Income
	# Abkhazia
	if = {
		limit = { original_tag = ABK }
		if = {
			limit = { has_idea = ABK_tourism1_idea }
			set_variable = { additional_income_ABK_tourism = 0.20 }
			add_to_variable = { additional_income_rate = additional_income_ABK_tourism }
		}
		if = {
			limit = { has_idea = ABK_tourism2_idea }
			set_variable = { additional_income_ABK_tourism2 = 0.35 }
			add_to_variable = { additional_income_rate = additional_income_ABK_tourism2 }
		}
	}
	# Albion Defence Services
	else_if = {
		limit = { original_tag = ADS }

		if = {
			limit = { has_idea = ENG_ADS_money }
			set_variable = { additional_income_ENG_ADS_money = 2.0 } #10% of GDP yearly estimated weekly
			add_to_variable = { additional_income_rate = additional_income_ENG_ADS_money }
		}
	}
	# United Kingdom
	else_if = {
		limit = { original_tag = ENG }
		if = {
			limit = {
				has_idea = ENG_the_macabre_alliance
			}
			set_variable = { additional_income_ENG_columbia_oil = { value = COL.oil_exports multiply = 0.2 } }
			add_to_variable = { additional_income_rate = additional_income_ENG_columbia_oil }
		}
	}
	# Afghanistan
	else_if = {
		limit = { original_tag = AFG }
		if = {
			limit = { has_idea = AFG_idea_opium_economy }
			set_variable = { additional_income_AFG_idea_opium_economy = { value = population_total multiply = 0.00375 } }	#Millions of people
			add_to_variable = { additional_income_rate = additional_income_AFG_idea_opium_economy }
		}
		if = {
			limit = { has_idea = AFG_idea_opium_barons }
			set_variable = { additional_income_AFG_idea_opium_barons = { value = population_total multiply = 0.00625 } }	#Millions of people
			add_to_variable = { additional_income_rate = additional_income_AFG_idea_opium_barons }
		}
		if = {
			limit = { has_idea = AFG_idea_state_sponsored_opium_industry }
			set_variable = { additional_income_AFG_idea_state_sponsored_opium_industry = { value = population_total multiply = 0.00875 } } #per million of people
			add_to_variable = { additional_income_rate = additional_income_AFG_idea_state_sponsored_opium_industry }
		}
		if = {
			limit = { has_idea = AFG_agro_income1 }
			set_variable = { additional_income_AFG_agro_modernisation = 0.12 }
			add_to_variable = { additional_income_rate = additional_income_AFG_agro_modernisation }
		}
		if = {
			limit = { has_idea = AFG_western_klep1 }
			set_variable = { additional_income_AFG_western_klep1 = 0.18 }
			add_to_variable = { additional_income_rate = additional_income_AFG_western_klep1 }
		}
		if = {
			limit = { has_idea = AFG_tolls_income1 }
			#Maintained by AFG_update_national_tollage, which runs when a toll level or state control moves
			add_to_variable = { additional_income_rate = additional_income_AFG_tolls_income1 }
		}
	}
	# Armenia
	else_if = {
		limit = { original_tag = ARM }
		if = {
			limit = {
				has_idea = ARM_has_artsakh_idea
			}
			set_variable = { additional_income_ARM_marz_arm = 0.350 }
			add_to_variable = { additional_income_rate = additional_income_ARM_marz_arm }
		}
	}
	# Belarus
	else_if = {
		limit = { original_tag = BLR }
		if = {
			limit = { has_idea = BLR_tourism }
			set_variable = { additional_income_BLR_tourism = 0.15 }
			add_to_variable = { additional_income_rate = additional_income_BLR_tourism }
		}
		if = {
			limit = { has_idea = BLR_Kommunarka_invest }
			set_variable = { BLR_Kommunarka_invest_gain = 0.02 }
			add_to_variable = { additional_income_rate = BLR_Kommunarka_invest_gain }
		}
		if = {
			limit = { has_idea = BLR_Kommunarka_invest_cis }
			set_variable = { BLR_Kommunarka_invest_cis_gain = 0.12 }
			add_to_variable = { additional_income_rate = BLR_Kommunarka_invest_cis_gain }
		}
		if = {
			limit = { has_idea = BLR_minotor_servise_blr }
			set_variable = { additional_income_BLR_minotor_servise_blr = 0.300 }
			add_to_variable = { additional_income_rate = additional_income_BLR_minotor_servise_blr }
		}
		if = {
			limit = { has_idea = BLR_mzkt_contract_blr }
			set_variable = { additional_income_BLR_mzkt_contract_blr = 0.100 }
			add_to_variable = { additional_income_rate = additional_income_BLR_mzkt_contract_blr }
		}
		if = {
			limit = { check_variable = { BLR.current_azot_capacity > 0 } }
			set_variable = { additional_income_azot = { value = BLR.current_azot_capacity multiply = 0.050 } }
			add_to_variable = { additional_income_rate = additional_income_azot }
		}
		if = {
			limit = { has_idea = BLR_kal_with }
			set_variable = { additional_income_BLR_kal_with = 0.150 }
			add_to_variable = { additional_income_rate = additional_income_BLR_kal_with }
		}
		else_if = {
			limit = { has_idea = BLR_kal_without }
			set_variable = { additional_income_BLR_kal_without = 0.210 }
			add_to_variable = { additional_income_rate = additional_income_BLR_kal_without }
		}
	}
	# Bolivia
	else_if = {
		limit = { original_tag = BOL }
		if = {
			limit = { OR = { has_idea = BOL_tourism has_idea = BOL_tourism2 } }
			set_variable = { additional_income_BOL_tourism = 0.50 }
			add_to_variable = { additional_income_rate = additional_income_BOL_tourism }
		}
	}
	# Bosnia
	else_if = { limit = { original_tag = BOS }
		if = {
			limit = { has_idea = BOS_SFOR }
			set_variable = { BOS_united_nations_aid = 0.4 }
			add_to_variable = { additional_income_rate = BOS_united_nations_aid }
		}
		if = {
			limit = { has_idea = BOS_EUFOR }
			set_variable = { BOS_EUFOR_aid_money = 0.2 }
			add_to_variable = { additional_income_rate = BOS_EUFOR_aid_money }
		}
		if = {
			limit = { has_idea = BOS_diaspora_remittances }
			set_variable = { BOS_diaspora_remittances_income = gdp_total }
			multiply_variable = { BOS_diaspora_remittances_income = 0.002 }	#10% of GDP yearly
			if = {
				limit = { has_country_flag = BOS_expanded_dual_citizenship }
				multiply_variable = { BOS_diaspora_remittances_income = 1.2 }
			}
			add_to_variable = { additional_income_rate = BOS_diaspora_remittances_income }
		}
	}
	# Botswana
	else_if = {
		limit = { original_tag = BOT }
		if = {
			limit = { has_idea = BOT_coal_focused_energy_small_profit }
			set_variable = { additional_income_BOT_coal_focused_energy_small_profit = 0.05 }
			add_to_variable = { additional_income_rate = additional_income_BOT_coal_focused_energy_small_profit }
		}
		if = {
			limit = { has_idea = BOT_coal_focused_energy_rich }
			set_variable = { additional_income_BOT_coal_focused_energy_rich = 0.1 }
			add_to_variable = { additional_income_rate = additional_income_BOT_coal_focused_energy_rich }
		}
		if = {
			limit = { has_idea = BOT_renewable_focused_energy_small_profit }
			set_variable = { additional_income_BOT_renewable_focused_energy_small_profit = 0.04 }
			add_to_variable = { additional_income_rate = additional_income_BOT_renewable_focused_energy_small_profit }
		}
		if = {
			limit = { has_idea = BOT_renewable_focused_energy_rich }
			set_variable = { additional_income_BOT_renewable_focused_energy_rich = 0.08 }
			add_to_variable = { additional_income_rate = additional_income_BOT_renewable_focused_energy_rich }
		}
	}
	# Bulgaria
	else_if = {
		limit = { original_tag = BUL }
		if = {
			limit = { has_idea = BUL_tourism_0 }
			set_variable = { additional_income_BUL_tourism = 0.075 }
			add_to_variable = { additional_income_rate = additional_income_BUL_tourism }
		}
		if = {
			limit = { has_idea = BUL_tourism_1 }
			set_variable = { additional_income_BUL_tourism_1 = 0.15 }
			add_to_variable = { additional_income_rate = additional_income_BUL_tourism_1 }
		}
		if = {
			limit = { has_idea = BUL_tourism_2 }
			set_variable = { additional_income_BUL_tourism_2 = 0.30 }
			add_to_variable = { additional_income_rate = additional_income_BUL_tourism_2 }
		}
		if = {
			limit = { has_idea = BUL_sunny_beach_revenue }
			set_variable = { additional_income_BUL_sunny_beach = 0.60 }
			add_to_variable = { additional_income_rate = additional_income_BUL_sunny_beach }
		}
		if = {
			limit = { has_idea = BUL_borovets_revenue }
			set_variable = { additional_income_BUL_borovets = 0.40 }
			add_to_variable = { additional_income_rate = additional_income_BUL_borovets }
		}
		if = {
			limit = { has_idea = BUL_varna_beaches_revenue }
			set_variable = { additional_income_BUL_varna_beaches = 0.45 }
			add_to_variable = { additional_income_rate = additional_income_BUL_varna_beaches }
		}
	}
	# Chechnya
	else_if = {
		limit = { original_tag = CHE }
		if = {
			limit = { has_idea = CHE_black_market_idea }
			set_variable = { additional_income_CHE_black_market_idea = 0.030 }
			add_to_variable = { additional_income_rate = additional_income_CHE_black_market_idea }
		}
		if = {
			limit = { has_idea = CHE_black_market_idea_aze }
			set_variable = { additional_income_CHE_black_market_idea_aze = 0.060 }
			add_to_variable = { additional_income_rate = additional_income_CHE_black_market_idea_aze }
		}
		if = {
			limit = { has_idea = CHE_black_market_idea_tur }
			set_variable = { additional_income_CHE_black_market_idea_tur = 0.120 }
			add_to_variable = { additional_income_rate = additional_income_CHE_black_market_idea_tur }
		}
		if = {
			limit = { has_idea = CHE_black_market_idea_arm }
			set_variable = { additional_income_CHE_black_market_idea_arm = 0.060 }
			add_to_variable = { additional_income_rate = additional_income_CHE_black_market_idea_arm }
		}
		if = {
			limit = { has_idea = CHE_black_market_idea_per }
			set_variable = { additional_income_CHE_black_market_idea_per = 0.120 }
			add_to_variable = { additional_income_rate = additional_income_CHE_black_market_idea_per }
		}
		if = {
			limit = { has_idea = CHE_narcos4_idea }
			set_variable = { additional_income_CHE_narcos4_idea = 0.080 }
			add_to_variable = { additional_income_rate = additional_income_CHE_narcos4_idea }
		}
		if = {
			limit = { has_idea = CHE_narcos5_idea }
			set_variable = { additional_income_CHE_narcos5_idea = 0.160 }
			add_to_variable = { additional_income_rate = additional_income_CHE_narcos5_idea }
		}
	}
	# Comoros
	else_if = {
		limit = { original_tag = COM }
		if = {
			limit = {
				has_completed_focus = COM_african_mercenaries
				has_completed_focus = COM_a_rifle_for_hire
			}
			set_variable = { additional_income_COM_african_mercenaries = { value = 0.500 multiply = COM_volunteer_nations^num } }
			add_to_variable = { additional_income_rate = additional_income_COM_african_mercenaries }
		}
		else_if = {
			limit = {
				OR = {
					has_completed_focus = COM_african_mercenaries
					has_completed_focus = COM_a_rifle_for_hire
				}
			}
			set_variable = { additional_income_COM_african_mercenaries = { value = 0.350 multiply = COM_volunteer_nations^num } }
			add_to_variable = { additional_income_rate = additional_income_COM_african_mercenaries }
		}
	}
	#Crimea
	else_if = {
		limit = { original_tag = CRM }
		if = {
			limit = { has_idea = CRM_tourism_idea }
			set_variable = { additional_income_CRM_tourism_idea = 0.100 }
			add_to_variable = { additional_income_rate = additional_income_CRM_tourism_idea }
		}
		if = {
			limit = { has_idea = CRM_naval }
			set_variable = { additional_income_CRM_naval = 0.045 }
			add_to_variable = { additional_income_rate = additional_income_CRM_naval }
		}
	}
	# Denmark
	else_if = {
		limit = { original_tag = DEN }
		if = {
			limit = { has_dynamic_modifier = { modifier = DEN_colonial_holding_modifier } }
			set_variable = { additional_income_gulf_exploitation = { value = gdp_total multiply = 0.0003 } }
			add_to_variable = { additional_income_rate = additional_income_gulf_exploitation }
		}
		set_variable = { additional_income_DEN_consume_tax = { value = gdp_per_capita multiply = 0.0084 multiply = welfare_gain } }
		add_to_variable = { additional_income_rate = additional_income_DEN_consume_tax }
	}
	##DPR
	# Egypt
	else_if = {
		limit = { original_tag = EGY }
		if = {
			limit = { has_idea = EGY_mubarak_money }
			set_variable = { additional_income_mubarak = 0.484 }
			add_to_variable = { additional_income_rate = additional_income_mubarak }
		}
		if = {
			limit = { has_idea = EGY_us_helps }
			set_variable = { additional_income_us_helps = 0.215 }
			add_to_variable = { additional_income_rate = additional_income_us_helps }
		}
		if = {
			limit = { has_idea = EGY_suez_deal_idea }
			set_variable = { additional_income_newsuez = 0.215 }
			add_to_variable = { additional_income_rate = additional_income_newsuez }
		}
		if = {
			limit = { has_idea = EGY_al_azhar_uni_idea }
			set_variable = { additional_income_azhar = 0.215 }
			add_to_variable = { additional_income_rate = additional_income_azhar }
		}
		if = {
			limit = { check_variable = { EGY.current_evergreen_capacity > 0 } }
			set_variable = { additional_income_evergreen = { value = EGY.current_evergreen_capacity multiply = 0.1 } }
			add_to_variable = { additional_income_rate = additional_income_evergreen }
		}
	}
	# France
	else_if = { limit = { original_tag = FRA }
		if = {
			limit = { has_idea = FRA_idea_Light_for_Europe }
			set_variable = { additional_income_FRA_Light_for_Europe = 2.00 }
			add_to_variable = { additional_income_rate = additional_income_FRA_Light_for_Europe }
		}
		if = {
			limit = { has_idea = FRA_cfa_franc_custodian }
			set_variable = {
				FRA_cfa_franc_gdp_total = {
					value = 0
					every_collection = {
						named_collection = FRA_cfa_franc_nations_collection
						add = gdp_total
					}
				}
			}
			set_variable = {
				additional_income_FRA_cfa_franc_custodian = {
					value = FRA_cfa_franc_gdp_total
					multiply = 0.0025
				}
			}
			add_to_variable = { additional_income_rate = additional_income_FRA_cfa_franc_custodian }
		}
		if = {
			limit = {
				has_completed_focus = FRA_the_space_program
				is_subject = no
				has_capitulated = no
			}
			add_to_variable = { additional_income_rate = FRA.FRA_space_income_var } # NOTE: This can be negative as its an income
		}
	}
	# Georgia
	else_if = {
		limit = { original_tag = GEO }
		if = {
			limit = { has_idea = GEO_nationalized_gold_reserves_idea }
			set_variable = { additional_income_GEO_nationalized_gold_reserves = 0.175 }
			add_to_variable = { additional_income_rate = additional_income_GEO_nationalized_gold_reserves }
		}
	}
	#Germany
	else_if = {
		limit = { original_tag = GER }
		if = {
			limit = { has_idea = GER_russian_buddies }
			set_variable = { additional_income_GER_russian_buddies = { value = gdp_total multiply = 0.0004 } } #2% of yearly GDP yearly estimated weekly
			add_to_variable = { additional_income_rate = additional_income_GER_russian_buddies }
		}
		if = {
			limit = { has_idea = GER_idea_okosteuer }
			set_variable = { additional_income_GER_Ökosteuer = { value = GER.gdp_per_capita multiply = 0.009 } } #2% of yearly GDP estimated weekly
			add_to_variable = { additional_income_rate = additional_income_GER_Ökosteuer }
		}
		if = {
			limit = { has_country_flag = GER_Solidaritatszuschlag }
			set_variable = { additional_income_GER_Solidaritatszuschlag = { value = GER.gdp_per_capita multiply = 0.0044 } } #2% of yearly GDP estimated weekly
			add_to_variable = { additional_income_rate = additional_income_GER_Solidaritatszuschlag }
		}
		if = {
			limit = { has_country_flag = GER_Mehrwertsteuer }
			set_variable = { additional_income_GER_Mehrwertsteuer = { value = GER.gdp_per_capita multiply = 0.052 } } #8% of yearly GDP
			add_to_variable = { additional_income_rate = additional_income_GER_Mehrwertsteuer }
		}
	}
	# Vatican City
	else_if = { limit = { original_tag = HLS }
		if = {
			limit = { has_idea = HLS_idea_holy_see }
			set_variable = {
				HLS_holy_see_tithe_income = {
					value = 0
					every_collection = {
						named_collection = christian_countries_of_the_world_collection
						add = gdp_total
					}
					multiply = 0.00002
				}
			}
			add_to_variable = { additional_income_rate = HLS_holy_see_tithe_income }
		}
	}
	#Netherlands
	else_if = {
		limit = { original_tag = HOL }
		if = {
			limit = { has_country_flag = HOL_BOT }
			set_variable = { additional_income_HOL_BOT = { value = HOL.gdp_per_capita multiply = 0.0004 } } #2% of yearly GDP
			add_to_variable = { additional_income_rate = additional_income_HOL_BOT }
		}
		if = {
			limit = { has_idea = HOL_weed_center1 }
			set_variable = { additional_income_HOL_Weed_Center1 = { value = HOL.gdp_per_capita multiply = 0.002 } } #10% of yearly GDP
			add_to_variable = { additional_income_rate = additional_income_HOL_Weed_Center1 }
		}
	}
	# Iraq
	else_if = {
		limit = { original_tag = IRQ }
		if = {
			limit = { has_idea = IRQ_mosque_income_idea }
			set_variable = { additional_income_IRQ_mosque_donations = 0.200 }
			add_to_variable = { additional_income_rate = additional_income_IRQ_mosque_donations }
		}
		if = {
			limit = { OR = { has_idea = IRQ_party_coffers has_idea = IRQ_party_coffers3 } }
			set_variable = { additional_income_IRQ_party_coffers_1 = 0.100 }
			add_to_variable = { additional_income_rate = additional_income_IRQ_party_coffers_1 }
		}
		if = {
			limit = { has_idea = IRQ_party_coffers2 }
			set_variable = { additional_income_IRQ_party_coffers_2 = 0.300 }
			add_to_variable = { additional_income_rate = additional_income_IRQ_party_coffers_2 }
		}
	}
	#ISRAEL
	else_if = {
		limit = { original_tag = ISR }
		if = {
			limit = { has_idea = civ_guns_exports }
			set_variable = { additional_income_civ_guns = 0.484 }
			add_to_variable = { additional_income_rate = additional_income_civ_guns }
		}
		if = {
			limit = { has_idea = ISR_gay_parades }
			set_variable = { additional_earn_lgbt = 0.488 }
			add_to_variable = { additional_income_rate = additional_earn_lgbt }
		}
	}
	# Kazakhstan
	else_if = {
		limit = { original_tag = KAZ }
		if = {
			limit = { has_idea = SOV_baikonur_kaz_idea }
			set_variable = { additional_income_SOV_baikonur_kaz_idea = 0.055 }
			add_to_variable = { additional_income_rate = additional_income_SOV_baikonur_kaz_idea }
		}
	}
	#Yugra
	else_if = {
		limit = { original_tag = KHM }
		if = {
			limit = { has_idea = KHM_Idea_Forestry_Development }
			set_variable = { additional_income_KHM_Forestry_Development = 0.082 }
			add_to_variable = { additional_income_rate = additional_income_KHM_Forestry_Development }
		}
	}
	##South KOREA
	else_if = {
		limit = { original_tag = KOR }
		if = {
			limit = { has_idea = KOR_samsung_phone_sales }
			set_variable = { additional_income_KOR_samsung_phone_sales_gain = 0.5 }
			add_to_variable = { additional_income_rate = additional_income_KOR_samsung_phone_sales_gain }
		}
	}
	# Kosovo
	else_if = { limit = { original_tag = KOS }
		if = {
			limit = { has_idea = KOS_international_aid }
			set_variable = { KOS_international_aid_income = 0.3 }
			add_to_variable = { additional_income_rate = KOS_international_aid_income }
		}
	}
	#Libya
	else_if = {
		limit = {
			OR = {
				original_tag = LBA
				original_tag = FEZ
				original_tag = CYR
				original_tag = TRP
			}
			NOT = { has_country_flag = libya_noc_dismantled }
		}
		set_variable = { libya_oil_nationalisation_additional_income = { value = resource_produced@oil multiply = oil_nationalisation_income } }
		add_to_variable = { additional_income_rate = libya_oil_nationalisation_additional_income }
	}
	# Liechtenstein
	else_if = {
		limit = { original_tag = LIC }
		if = {
			limit = { has_idea = LIC_idea_international_investments }
			set_variable = { additional_income_LIC_international_investments = 0.4 }
			add_to_variable = { additional_income_rate = additional_income_LIC_international_investments }
		}
		if = {
			limit = { has_idea = LIC_idea_USA_cooperation }
			set_variable = { additional_income_LIC_USA_cooperation = 0.1 }
			add_to_variable = { additional_income_rate = additional_income_LIC_USA_cooperation }
		}
		if = {
			limit = { has_idea = LIC_idea_EU_cooperation }
			set_variable = { additional_income_LIC_EU_cooperation = 0.1 }
			add_to_variable = { additional_income_rate = additional_income_LIC_EU_cooperation }
		}
		if = {
			limit = { has_idea = LIC_idea_huge_tax_haven }
			set_variable = { additional_income_LIC_huge_tax_haven = 0.075 }
			add_to_variable = { additional_income_rate = additional_income_LIC_huge_tax_haven }
		}
	}
	# Montenegro
	else_if = {
		limit = { original_tag = MNT }
		if = {
			limit = { has_idea = MNT_yacht }
			set_variable = { additional_income_mnt_yacht = 0.215 }
			add_to_variable = { additional_income_rate = additional_income_mnt_yacht }
		}
	}
	##North Korea
	else_if = {
		limit = { original_tag = NKO }
		if = {
			limit = { has_idea = NKO_korean_repair_frontline_workers_sov }
			set_variable = { additional_income_NKO_korean_repair_frontline_workers_sov = 0.100 }
			add_to_variable = { additional_income_rate = additional_income_NKO_korean_repair_frontline_workers_sov }
		}
		if = {
			limit = { has_idea = NKO_korean_repair_civil_workers_sov }
			set_variable = { additional_income_NKO_korean_repair_civil_workers_sov = 0.075 }
			add_to_variable = { additional_income_rate = additional_income_NKO_korean_repair_civil_workers_sov }
		}
		if = {
			limit = { has_idea = NKO_china_economic_assistant }
			set_variable = { additional_income_china_economic_assistant = 0.200 }
			add_to_variable = { additional_income_rate = additional_income_china_economic_assistant }
		}
		if = {
			limit = { has_idea = NKO_jangmadang_idea }
			set_variable = { additional_income_NKO_jangmadang_idea = 0.200 }
			add_to_variable = { additional_income_rate = additional_income_NKO_jangmadang_idea }
		}
		if = {
			limit = { has_country_flag = NKO_storm_corps_income_sov }
			set_variable = { additional_income_NKO_storm_corps_sov = 0.250 }
			add_to_variable = { additional_income_rate = additional_income_NKO_storm_corps_sov }
		}
		if = {
			limit = { has_country_flag = NKO_storm_corps_income_chi }
			set_variable = { additional_income_NKO_storm_corps_chi = 0.250 }
			add_to_variable = { additional_income_rate = additional_income_NKO_storm_corps_chi }
		}
	}
	# Norway
	else_if = {
		limit = { original_tag = NRY }
		if = {
			limit = { has_idea = NRY_bergen_engines }
			set_variable = { additional_income_NRY_engines = 0.700 }
			add_to_variable = { additional_income_rate = additional_income_NRY_engines }
		}
	}
	#Iran
	else_if = {
		limit = { original_tag = PER }
		if = {
			limit = { has_idea = PER_irgc_black_market_exploits }
			set_variable = { additional_income_irgc_black_market = { value = gdp_total multiply = 0.002 } }	#10% of GDP yearly estimated weekly
			add_to_variable = { additional_income_rate = additional_income_irgc_black_market }
		}
		if = {
			limit = { has_idea = PER_redirecting_money_from_proxies }
			set_variable = { additional_income_redirection_money_from_proxies = { value = gdp_total multiply = 0.0004 } }	#2% of GDP yearly estimated weekly
			add_to_variable = { additional_income_rate = additional_income_redirection_money_from_proxies }
		}
		if = {
			limit = { has_country_flag = PER_iraq_accepted_to_pay_half_billion_weekly }
			set_variable = { additional_income_iran_war_compensation = 0.5 }
			add_to_variable = { additional_income_rate = additional_income_iran_war_compensation }
		}
		if = {
			limit = { has_country_flag = PER_iraq_accepted_to_pay_one_billion_weekly }
			set_variable = { additional_income_iran_war_compensation = 1.0 }
			add_to_variable = { additional_income_rate = additional_income_iran_war_compensation }
		}
		if = {
			limit = { has_country_flag = PER_iraq_accepted_to_pay_two_billion_weekly }
			set_variable = { additional_income_iran_war_compensation = 2.0 }
			add_to_variable = { additional_income_rate = additional_income_iran_war_compensation }
		}
	}
	#INDIA
	else_if = { limit = { original_tag = RAJ }
		if = {
			limit = { has_idea = RAJ_Local_markets }
			set_variable = { RAJ_Local_markets_income = 0.08 }
			add_to_variable = { additional_income_rate = RAJ_Local_markets_income }
		}
	}
	# Singapore
	else_if = { limit = { original_tag = SIN }
		if = { limit = { has_dynamic_modifier = { modifier = SIN_singaporean_trade_strength } }
			set_variable = { SIN_tariff_income = { value = signed_trade_agreements multiply = 0.075 } }
			add_to_variable = { additional_income_rate = SIN_tariff_income }
		}
		if = { limit = { has_idea = SIN_temasek }
			set_variable = { SIN_temasek_dividend_income = 0.25 }
			add_to_variable = { additional_income_rate = SIN_temasek_dividend_income }
		}
	}
	# San-Marino
	else_if = {
		limit = { original_tag = SMA }
		if = {
			limit = { has_idea = SMA_increased_tourism }
			set_variable = { SMA_increased_tourism_gain = 0.2 }
			add_to_variable = { additional_income_rate = SMA_increased_tourism_gain }
		}
		if = {
			limit = { has_idea = SMA_balance_tourism_ii }
			set_variable = { SMA_balance_tourism_ii_gain = 0.15 }
			add_to_variable = { additional_income_rate = SMA_balance_tourism_ii_gain }
		}
		if = {
			limit = { has_idea = SMA_balance_tourism_i }
			set_variable = { SMA_balance_tourism_i_gain = 0.1 }
			add_to_variable = { additional_income_rate = SMA_balance_tourism_i_gain }
		}
		if = {
			limit = { has_idea = SMA_balance_balance }
			set_variable = { SMA_balance_balance_gain = 0.08 }
			add_to_variable = { additional_income_rate = SMA_balance_balance_gain }
		}
		if = {
			limit = { has_idea = SMA_balance_economy_i }
			set_variable = { SMA_balance_economy_i_gain = 0.1 }
			add_to_variable = { additional_income_rate = SMA_balance_economy_i_gain }
		}
		if = {
			limit = { has_idea = SMA_balance_economy_ii }
			set_variable = { SMA_balance_economy_ii_gain = 0.15 }
			add_to_variable = { additional_income_rate = SMA_balance_economy_ii_gain }
		}
		if = {
			limit = { has_idea = SMA_increased_economy }
			set_variable = { SMA_increased_economy_gain = 0.2 }
			add_to_variable = { additional_income_rate = SMA_increased_economy_gain }
		}
	}
	# South Ossetia
	else_if = {
		limit = { original_tag = SOO }
		if = {
			limit = { has_idea = SOO_help_ossetia }
			set_variable = { additional_income_SOO_help_ossetia = 0.120 }
			add_to_variable = { additional_income_rate = additional_income_SOO_help_ossetia }
		}
		if = {
			limit = { has_idea = SOO_develop_turism }
			set_variable = { additional_income_SOO_develop_turism = 0.100 }
			add_to_variable = { additional_income_rate = additional_income_SOO_develop_turism }
		}
		if = {
			limit = { has_idea = SOO_Idea_Forestry_Development }
			set_variable = { additional_income_SOO_Forestry_Development = 0.012 }
			add_to_variable = { additional_income_rate = additional_income_SOO_Forestry_Development }
		}
		if = {
			limit = { has_idea = SOO_Raise_Import_Tariffs_idea }
			set_variable = { additional_income_SOO_Raise_Import_Tariffs = 0.012 }
			add_to_variable = { additional_income_rate = additional_income_SOO_Raise_Import_Tariffs }
		}
		if = {
			limit = { has_idea = SOO_Roki_tunnel_toll }
			set_variable = { additional_income_SOO_Roki_tunnel_toll = 0.014 }
			add_to_variable = { additional_income_rate = additional_income_SOO_Roki_tunnel_toll }
		}
		if = {
			limit = { has_completed_focus = SOO_increase_tolls_on_Roki_Tunnel }
			set_variable = { additional_income_SOO_Roki_tunnel_toll = 0.024 }
			add_to_variable = { additional_income_rate = additional_income_SOO_Roki_tunnel_toll }
		}
		if = {
			limit = { has_completed_focus = SOO_the_Russian_bankroll }
			set_variable = { additional_income_SOO_russian_bank = 0.010 }
			add_to_variable = { additional_income_rate = additional_income_SOO_russian_bank }
		}
		if = {
			limit = { has_completed_focus = SOO_subsidise_the_Farmers }
			set_variable = { additional_income_SOO_farming_income_idea = 0.005 }
			add_to_variable = { additional_income_rate = additional_income_SOO_farming_income_idea }
		}
		if = {
			limit = { has_completed_focus = SOO_Move_towards_cash_crop_growth }
			set_variable = { additional_income_SOO_farming_income_idea = 0.012 }
			add_to_variable = { additional_income_rate = additional_income_SOO_farming_income_idea }
		}
		if = {
			limit = { has_completed_focus = SOO_Boost_the_local_flour_production }
			set_variable = { additional_income_SOO_farming_income_idea = 0.008 }
			add_to_variable = { additional_income_rate = additional_income_SOO_farming_income_idea }
		}
		if = {
			limit = { has_completed_focus = SOO_Geared_for_hardship }
			set_variable = { additional_income_SOO_farming_income_idea = 0.008 }
			add_to_variable = { additional_income_rate = additional_income_SOO_farming_income_idea }
		}
	}
	# Russia
	else_if = {
		limit = { original_tag = SOV }
		if = {
			limit = { check_variable = { SOV.current_azot_capacity > 0 } }
			set_variable = { additional_income_azot = { value = SOV.current_azot_capacity multiply = 0.050 } }
			add_to_variable = { additional_income_rate = additional_income_azot }
		}
		if = {
			limit = { has_idea = BLR_minotor_servise_sov }
			set_variable = { BLR_minotor_servise_sov_gain = -0.300 }
			add_to_variable = { additional_income_rate = BLR_minotor_servise_sov_gain }
		}
		if = {
			limit = { has_idea = BLR_mzkt_contract }
			set_variable = { BLR_mzkt_contract_gain = -0.100 }
			add_to_variable = { additional_income_rate = BLR_mzkt_contract_gain }
		}
		if = {
			limit = { has_idea = CRM_naval }
			set_variable = { CRM_naval_gain = -0.45 }
			add_to_variable = { additional_income_rate = CRM_naval_gain }
		}
		if = {
			limit = { has_idea = BLR_oil_sov }
			set_variable = { additional_income_BLR_oil_sov = 0.044 }
			add_to_variable = { additional_income_rate = additional_income_BLR_oil_sov }
		}
		else_if = {
			limit = { has_idea = BLR_oil_sov_positive }
			set_variable = { additional_income_BLR_oil_sov = 0.066 }
			add_to_variable = { additional_income_rate = additional_income_BLR_oil_sov }
		}
		if = {
			limit = { has_idea = SOV_kal_with }
			set_variable = { additional_income_SOV_kal_with = 0.150 }
			add_to_variable = { additional_income_rate = additional_income_SOV_kal_with }
		}
		if = {
			limit = { has_idea = UKR_russian_gas_sov }
			set_variable = { additional_income_UKR_russian_gas_sov = 0.175 }
			add_to_variable = { additional_income_rate = additional_income_UKR_russian_gas_sov }
		}
		if = {
			limit = { has_idea = UKR_russian_gas_cheap_sov }
			set_variable = { additional_income_UKR_russian_gas_cheap_sov = 0.100 }
			add_to_variable = { additional_income_rate = additional_income_UKR_russian_gas_cheap_sov }
		}
		if = {
			limit = { has_idea = UKR_russian_gas_cheaper_sov }
			set_variable = { additional_income_UKR_russian_gas_cheaper_sov = 0.100 }
			add_to_variable = { additional_income_rate = additional_income_UKR_russian_gas_cheaper_sov }
		}
		if = {
			limit = { has_completed_focus = SOV_economic_phos_agro }
			set_variable = { additional_income_SOV_azod_phosagro_income = 0.685 }
			add_to_variable = { additional_income_rate = additional_income_SOV_azod_phosagro_income }
		}
		#Jirinovsky
		if = {
			limit = { has_idea = SOV_jirik_unloyal_party_idea2 }
			set_variable = { additional_income_SOV_jirik_unloyal_party_idea2 = 0.300 }
			add_to_variable = { additional_income_rate = additional_income_SOV_jirik_unloyal_party_idea2 }
		}
		else_if = {
			limit = { has_idea = SOV_jirik_unloyal_party_idea3 }
			set_variable = { additional_income_SOV_jirik_unloyal_party_idea3 = 0.300 }
			add_to_variable = { additional_income_rate = additional_income_SOV_jirik_unloyal_party_idea3 }
		}
		if = {
			limit = { has_idea = SOV_otkos_army_idea }
			set_variable = { additional_income_SOV_otkos_army_idea = { value = population_total multiply = 0.00015 } }	#Millions of people
			add_to_variable = { additional_income_rate = additional_income_SOV_otkos_army_idea }
		}
		#Gazprom Pipelines
		if = {
			limit = { has_idea = SOV_turkey_stream_sov_idea }
			set_variable = { additional_income_SOV_turkey_stream_sov_idea = 1.375 }
			add_to_variable = { additional_income_rate = additional_income_SOV_turkey_stream_sov_idea }
		}
		if = {
			limit = { has_idea = SOV_blue_stream_sov_idea }
			set_variable = { additional_income_SOV_blue_stream_sov_idea = 1.375 }
			add_to_variable = { additional_income_rate = additional_income_SOV_blue_stream_sov_idea }
		}
		if = {
			limit = { has_idea = SOV_nord_stream_sov_idea }
			set_variable = { additional_income_SOV_nord_stream_sov_idea = 1.375 }
			add_to_variable = { additional_income_rate = additional_income_SOV_nord_stream_sov_idea }
		}
		if = {
			limit = { has_idea = SOV_nord_stream2_sov_idea }
			set_variable = { additional_income_SOV_nord_stream2_sov_idea = 1.375 }
			add_to_variable = { additional_income_rate = additional_income_SOV_nord_stream2_sov_idea }
		}
		if = {
			limit = { has_idea = SOV_korean_stream_sov_idea }
			set_variable = { additional_income_SOV_korean_stream_sov_idea = 0.375 }
			add_to_variable = { additional_income_rate = additional_income_SOV_korean_stream_sov_idea }
		}
	}
	#Spain
	else_if = { limit = { original_tag = SPR }
		if = {
			limit = { has_idea = SPR_idea_tourist_industry_1 }
			add_to_variable = { additional_income_rate = SPR_tourism_1_effect }
		}
		if = {
			limit = { has_idea = SPR_idea_tourist_industry_2 }
			add_to_variable = { additional_income_rate = SPR_tourism_2_effect }
		}
		if = {
			limit = { has_idea = SPR_idea_tourist_industry_3 }
			add_to_variable = { additional_income_rate = SPR_tourism_3_effect }
		}
	}
	#Sweden
	else_if = {
		limit = { original_tag = SWE }
		set_variable = { additional_income_SWE_Value_added_Tax = { value = gdp_per_capita multiply = 0.0012 } } #20% of yearly GDP
		add_to_variable = { additional_income_rate = additional_income_SWE_Value_added_Tax }
		if = {
			limit = { country_exists = NRY }
			set_variable = { additional_income_SWE_border_trade = { value = NRY.gdp_per_capita multiply = 0.0002 } } #2% of yearly GDP
			add_to_variable = { additional_income_rate = additional_income_SWE_border_trade }
		}
		if = {
			limit = { NOT = { has_idea = social_01 } }
			set_variable = { additional_income_SWE_Social_insurance = { value = welfare_gain multiply = 0.08 } } #gdp_per_capita #30% of yearly GDP
			add_to_variable = { additional_income_rate = additional_income_SWE_Social_insurance }
		}
		if = {
			limit = {
				has_country_flag = SWE_idea_tourist_industry_1
				NOT = { has_war = yes }
			}
			set_variable = { additional_income_SWE_tourism_1 = { value = SWE.gdp_per_capita multiply = 0.01 } } #1% of yearly GDP
			add_to_variable = { additional_income_rate = additional_income_SWE_tourism_1 }
		}
		if = {
			limit = {
				has_country_flag = SWE_idea_tourist_industry_2
				NOT = { has_war = yes }
			}
			set_variable = { additional_income_SWE_tourism_2 = { value = SWE.gdp_per_capita multiply = 0.02 } } #2% of yearly GDP
			add_to_variable = { additional_income_rate = additional_income_SWE_tourism_2 }
		}
		if = {
			limit = {
				has_country_flag = SWE_idea_tourist_industry_3
				NOT = { has_war = yes }
			}
			set_variable = { additional_income_SWE_tourism_3 = { value = SWE.gdp_per_capita multiply = 0.03 } } #3% of yearly GDP
			add_to_variable = { additional_income_rate = additional_income_SWE_tourism_3 }
		}
		if = {
			limit = {
				has_country_flag = SWE_idea_tourist_industry_4
				NOT = { has_war = yes }
			}
			set_variable = { additional_income_SWE_tourism_4 = { value = SWE.gdp_per_capita multiply = 0.04 } } #3% of yearly GDP
			add_to_variable = { additional_income_rate = additional_income_SWE_tourism_4 }
		}
		if = {
			limit = { has_country_flag = SWE_Crypto_invest }
			add_to_variable = { additional_income_rate = SWE_Crypto_income_effect }
		}
	}
	# Syria
	else_if = { limit = { original_tag = SYR }
		if = {
			limit = { has_idea = syria_bakdash }
			set_variable = { syria_bakdash_income = 0.12 }
			add_to_variable = { additional_income_rate = syria_bakdash_income }
		}
	}
	# Tajikistan
	else_if = {
		limit = { original_tag = TAJ }
		if = {
			limit = {
				OR = {
					has_idea = TAJ_201st_base
					has_idea = TAJ_201st_base_usa
					has_idea = TAJ_201st_base_chi
					has_idea = TAJ_201st_base_raj
				}
			}
			set_variable = { additional_income_TAJ_201st = 0.075 }
			add_to_variable = { additional_income_rate = additional_income_TAJ_201st }
		}
		if = {
			limit = { has_idea = TAJ_201st_base_upgrade }
			set_variable = { additional_income_TAJ_201st_upgrade = 0.175 }
			add_to_variable = { additional_income_rate = additional_income_TAJ_201st_upgrade }
		}
		if = {
			limit = { has_idea = TAJ_gulfs_bankroll_idea }
			set_variable = { additional_income_TAJ_bankroll = 0.050 }
			add_to_variable = { additional_income_rate = additional_income_TAJ_bankroll }
		}
	}
	# Tatarstan
	else_if = {
		limit = { original_tag = TAT }
		if = {
			limit = { has_idea = TAT_develop_turism }
			set_variable = { additional_income_TAT_develop_turism = 0.100 }
			add_to_variable = { additional_income_rate = additional_income_TAT_develop_turism }
		}
	}
	# Tanzania
	else_if = {
		limit = { original_tag = TNZ }
		if = {
			limit = { has_country_flag = COM_the_zanzibar_agreement_payee }
			set_variable = { additional_income_COM_zanzibar_agreement_payee = 0.250 }
			add_to_variable = { additional_income_rate = additional_income_COM_zanzibar_agreement_payee }
		}
	}
	#Turkey
	else_if = {
		limit = { original_tag = TUR }
		if = {
			limit = { has_idea = TUR_taxing_bosphor }
			set_variable = { TUR_taxing_bosphorus = { value = gdp_total multiply = 0.002 } }	#10% of GDP yearly
			add_to_variable = { additional_income_rate = TUR_taxing_bosphorus }
		}
		if = {
			limit = { has_idea = SOV_turkey_stream_idea }
			set_variable = { additional_expense_SOV_turkey_stream_idea = 1.375 }
			add_to_variable = { additional_expenses_rate = additional_expense_SOV_turkey_stream_idea }
		}
		if = {
			limit = { has_idea = SOV_blue_stream_idea }
			set_variable = { additional_expense_SOV_blue_stream_idea = 1.375 }
			add_to_variable = { additional_expenses_rate = additional_expense_SOV_blue_stream_idea }
		}
	}
	#Venezuela
	else_if = {
		limit = { original_tag = VEN }
		if = {
			limit = { has_idea = VEN_iron_control_vdp }
			set_variable = { additional_income_iron_control_vdp = { value = gdp_total multiply = 0.002 } }	#10% of GDP yearly estimated weekly
			add_to_variable = { additional_income_rate = additional_income_iron_control_vdp }
		}
	}

	if = {
		limit = { has_idea = AZE_indian_ports_idea }
		set_variable = { AZE_indian_ports_idea_gain = 0.25 }
		add_to_variable = { additional_income_rate = AZE_indian_ports_idea_gain }
	}
	##Wa State
	if = {
		limit = {
			original_tag = WAA
			has_idea = WAA_Narcotics_Producer
		}
		set_variable = { additional_income_WAA_Narcotics_Producer = 0.08 }
		add_to_variable = { additional_income_rate = additional_income_WAA_Narcotics_Producer }
	}
	# Gulf
	if = {
		limit = { has_idea = gulf_exploitation }
		set_variable = { additional_income_gulf_exploitation = { value = gdp_total multiply = 0.0003 } }
		add_to_variable = { additional_income_rate = additional_income_gulf_exploitation }
	}
	# Saudi Arabia - Seperate from GULF
	# === Saudi pipeline Additional Income (added by SAU pipeline feature) ===
	# Each route must out-earn the transit fees charged for it in calculate_additional_expenses_rate,
	# or opening it is a straight loss. The Turkey extension is billed there too, so it is paid here.
	if = { limit = { original_tag = SAU }
		set_variable = { additional_income_SAU_pipeline_export = 0 }
		# Arabian Sea route - fee 1.00 / 1.15 / 1.25
		if = { limit = { has_idea = SAU_yemen_pipeline_t1 } add_to_variable = { additional_income_SAU_pipeline_export = 2.0 } }
		if = { limit = { has_idea = SAU_yemen_pipeline_t2 } add_to_variable = { additional_income_SAU_pipeline_export = 2.5 } }
		if = { limit = { has_idea = SAU_yemen_pipeline_t3 } add_to_variable = { additional_income_SAU_pipeline_export = 3.0 } }
		# Levant route - fee 2.00 / 2.30 / 2.50
		if = { limit = { has_idea = SAU_syria_pipeline_t1 } add_to_variable = { additional_income_SAU_pipeline_export = 3.5 } }
		if = { limit = { has_idea = SAU_syria_pipeline_t2 } add_to_variable = { additional_income_SAU_pipeline_export = 4.25 } }
		if = { limit = { has_idea = SAU_syria_pipeline_t3 } add_to_variable = { additional_income_SAU_pipeline_export = 5.0 } }
		# Europe route - fee 1.00 / 1.15 / 1.25
		if = { limit = { has_idea = SAU_iraq_pipeline_t1 } add_to_variable = { additional_income_SAU_pipeline_export = 2.25 } }
		if = { limit = { has_idea = SAU_iraq_pipeline_t2 } add_to_variable = { additional_income_SAU_pipeline_export = 2.75 } }
		if = { limit = { has_idea = SAU_iraq_pipeline_t3 } add_to_variable = { additional_income_SAU_pipeline_export = 3.25 } }
		# Europe extension through Turkey - fee 1.25
		if = { limit = { has_country_flag = SAU_turkey_pipeline_open } add_to_variable = { additional_income_SAU_pipeline_export = 2.25 } }
		if = { limit = { check_variable = { additional_income_SAU_pipeline_export > 0 } }
			add_to_variable = { additional_income_rate = additional_income_SAU_pipeline_export }
		}
	}
	# One entry per transit country the pipeline crosses; a host on more than one route is paid for each.
	set_variable = { additional_income_SAU_pipeline_transit = 0 }
	if = {
		limit = {
			OR = {
				has_idea = SAU_pipeline_transit_YEM_t1 has_idea = SAU_pipeline_transit_YEM_t2 has_idea = SAU_pipeline_transit_YEM_t3
				has_idea = SAU_pipeline_transit_JOR_t1 has_idea = SAU_pipeline_transit_JOR_t2 has_idea = SAU_pipeline_transit_JOR_t3
				has_idea = SAU_pipeline_transit_SYR_t1 has_idea = SAU_pipeline_transit_SYR_t2 has_idea = SAU_pipeline_transit_SYR_t3
				has_idea = SAU_pipeline_transit_IRQ_t1 has_idea = SAU_pipeline_transit_IRQ_t2 has_idea = SAU_pipeline_transit_IRQ_t3
				has_idea = SAU_pipeline_transit_TUR_t1 has_idea = SAU_pipeline_transit_TUR_t2 has_idea = SAU_pipeline_transit_TUR_t3
			}
		}
		if = { limit = { has_idea = SAU_pipeline_transit_YEM_t1 } add_to_variable = { additional_income_SAU_pipeline_transit = 1.0 } }
		if = { limit = { has_idea = SAU_pipeline_transit_YEM_t2 } add_to_variable = { additional_income_SAU_pipeline_transit = 1.15 } }
		if = { limit = { has_idea = SAU_pipeline_transit_YEM_t3 } add_to_variable = { additional_income_SAU_pipeline_transit = 1.25 } }
		if = { limit = { has_idea = SAU_pipeline_transit_JOR_t1 } add_to_variable = { additional_income_SAU_pipeline_transit = 1.0 } }
		if = { limit = { has_idea = SAU_pipeline_transit_JOR_t2 } add_to_variable = { additional_income_SAU_pipeline_transit = 1.15 } }
		if = { limit = { has_idea = SAU_pipeline_transit_JOR_t3 } add_to_variable = { additional_income_SAU_pipeline_transit = 1.25 } }
		if = { limit = { has_idea = SAU_pipeline_transit_SYR_t1 } add_to_variable = { additional_income_SAU_pipeline_transit = 1.0 } }
		if = { limit = { has_idea = SAU_pipeline_transit_SYR_t2 } add_to_variable = { additional_income_SAU_pipeline_transit = 1.15 } }
		if = { limit = { has_idea = SAU_pipeline_transit_SYR_t3 } add_to_variable = { additional_income_SAU_pipeline_transit = 1.25 } }
		if = { limit = { has_idea = SAU_pipeline_transit_IRQ_t1 } add_to_variable = { additional_income_SAU_pipeline_transit = 1.0 } }
		if = { limit = { has_idea = SAU_pipeline_transit_IRQ_t2 } add_to_variable = { additional_income_SAU_pipeline_transit = 1.15 } }
		if = { limit = { has_idea = SAU_pipeline_transit_IRQ_t3 } add_to_variable = { additional_income_SAU_pipeline_transit = 1.25 } }
		if = { limit = { has_idea = SAU_pipeline_transit_TUR_t1 } add_to_variable = { additional_income_SAU_pipeline_transit = 1.0 } }
		if = { limit = { has_idea = SAU_pipeline_transit_TUR_t2 } add_to_variable = { additional_income_SAU_pipeline_transit = 1.15 } }
		if = { limit = { has_idea = SAU_pipeline_transit_TUR_t3 } add_to_variable = { additional_income_SAU_pipeline_transit = 1.25 } }
		add_to_variable = { additional_income_rate = additional_income_SAU_pipeline_transit }
	}

	#Sold Equipment Tax Income
	if = {
		limit = { check_variable = { market_sold_contracts > 0 } }
		# start the math
		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.inf_cost_mult
				multiply = amount_inf_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.cnc_cost_mult
				multiply = amount_cnc_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.aa_cost_mult
				multiply = amount_aa_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.at_cost_mult
				multiply = amount_at_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.hat_cost_mult
				multiply = amount_hat_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.art_cost_mult
				multiply = amount_art_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.atk_helo_cost_mult
				multiply = amount_atk_helo_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.trans_helo_cost_mult
				multiply = amount_trans_helo_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.util_cost_mult
				multiply = amount_util_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.mbt_cost_mult
				multiply = amount_mbt_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.apc_cost_mult
				multiply = amount_apc_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.ifv_cost_mult
				multiply = amount_ifv_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.spart_cost_mult
				multiply = amount_spart_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.light_tank_cost_mult
				multiply = amount_light_tank_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.spaa_cost_mult
				multiply = amount_spaa_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.train_cost_mult
				multiply = amount_train_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.convoy_cost_mult
				multiply = amount_convoy_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.sml_pln_cost_mult
				multiply = amount_sml_pln_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.med_pln_cost_mult
				multiply = amount_med_pln_equip_sold
			}
		}

		add_to_temp_variable = {
			var = market_sold_cost
			value = {
				value = global.base_unit_cost
				multiply = global.lrg_pln_cost_mult
				multiply = amount_lrg_pln_equip_sold
			}
		}

		if = {
			limit = { has_dlc = "Gotterdammerung" }

			add_to_temp_variable = {
				var = market_sold_cost
				value = {
					value = global.base_unit_cost
					multiply = global.missile_cost_mult
					multiply = amount_ballistic_missile_equipment_sold
				}
			}

			add_to_temp_variable = {
				var = market_sold_cost
				value = {
					value = global.base_unit_cost
					multiply = global.missile_cost_mult
					multiply = amount_nuclear_ballistic_missile_equipment_sold
				}
			}

			add_to_temp_variable = {
				var = market_sold_cost
				value = {
					value = global.base_unit_cost
					multiply = global.missile_cost_mult
					multiply = amount_guided_missile_equipment_sold
				}
			}

			add_to_temp_variable = {
				var = market_sold_cost
				value = {
					value = global.base_unit_cost
					multiply = global.missile_cost_mult
					multiply = amount_hypersonic_missile_equipment_sold
				}
			}

			add_to_temp_variable = {
				var = market_sold_cost
				value = {
					value = global.base_unit_cost
					multiply = global.missile_cost_mult
					multiply = amount_nuclear_missile_equipment_sold
				}
			}

			add_to_temp_variable = {
				var = market_sold_cost
				value = {
					value = global.base_unit_cost
					multiply = global.missile_cost_mult
					multiply = amount_sam_missile_equipment_sold
				}
			}
		}

		multiply_temp_variable = {
			var = market_sold_cost
			value = {
				value = 1
				add = modifier@international_market_income_modifier
			}
		}

		add_to_variable = { additional_income_rate = market_sold_cost }
		set_variable = { market_sold_value_track = market_sold_cost }
	}

	#Czech-Hungarian trade
	if = {
		limit = {
			OR = {
				has_idea = CZE_HUN_receive_additional_income_from_hungary_5
				has_idea = CZE_HUN_receive_additional_income_from_hungary_3
				has_idea = CZE_HUN_receive_additional_income_from_hungary_2
				has_idea = CZE_HUN_receive_additional_income_from_hungary_1
			}
		}
		CZE_HUN_gdp_stolen_calculation = yes
		add_to_variable = { additional_income_rate = CZE_HUN_gain_income_trade }
	}
	# Greece
	if = {
		limit = { original_tag = GRE }
		# Golden Visa Programme income
		if = {
			limit = { has_completed_focus = GRE_golden_visa_deals }
			# Higher corruption draws more visa buyers; scale income by corruption tier
			set_temp_variable = { GRE_visa_corruption_tier = 1 }
			if = { limit = { has_idea = corruption_level_02 } set_temp_variable = { GRE_visa_corruption_tier = 2 } }
			else_if = { limit = { has_idea = corruption_level_03 } set_temp_variable = { GRE_visa_corruption_tier = 3 } }
			else_if = { limit = { has_idea = corruption_level_04 } set_temp_variable = { GRE_visa_corruption_tier = 4 } }
			else_if = { limit = { has_idea = corruption_level_05 } set_temp_variable = { GRE_visa_corruption_tier = 5 } }
			else_if = { limit = { has_idea = corruption_level_06 } set_temp_variable = { GRE_visa_corruption_tier = 6 } }
			else_if = { limit = { has_idea = corruption_level_07 } set_temp_variable = { GRE_visa_corruption_tier = 7 } }
			else_if = { limit = { has_idea = corruption_level_08 } set_temp_variable = { GRE_visa_corruption_tier = 8 } }
			else_if = { limit = { has_idea = corruption_level_09 } set_temp_variable = { GRE_visa_corruption_tier = 9 } }
			else_if = { limit = { has_idea = corruption_level_10 } set_temp_variable = { GRE_visa_corruption_tier = 10 } }
			set_temp_variable = { GRE_visa_rate = GRE_visa_corruption_tier }
			subtract_from_temp_variable = { GRE_visa_rate = 1 }
			multiply_temp_variable = { GRE_visa_rate = 0.00001 }
			add_to_temp_variable = { GRE_visa_rate = 0.00006 }
			set_variable = { GRE_golden_visa_income = gdp_total }
			multiply_variable = { GRE_golden_visa_income = GRE_visa_rate }
			add_to_variable = { additional_income_rate = GRE_golden_visa_income }
		}
	}
	# Creditor income from holding Greek debt (runs on creditor nation scope)
	if = {
		limit = {
			country_exists = GRE
			check_variable = { GRE_interest_income_from_greece > 0 }
		}
		set_variable = { additional_income_GRE_creditor = GRE_interest_income_from_greece }
		add_to_variable = { additional_income_rate = additional_income_GRE_creditor }
	}

	# Interest on Belt and Road loans (China is the only creditor; ledger at the end of 05_CHI_scripted_effects.txt)
	if = {
		limit = {
			original_tag = CHI
			check_variable = { CHI_bri_loan_income > 0 }
		}
		set_variable = { additional_income_CHI_bri_loans = CHI_bri_loan_income }
		add_to_variable = { additional_income_rate = additional_income_CHI_bri_loans }
	}

	# Energy Load Sharing Income
	if = { limit = { check_variable = { energy_load_sharing_nations^num > 0 } }
		set_variable = { energy_load_sharing_income_var = { value = energy_load_sharing_use_var multiply = global.price_per_gw_for_els clamp = { min = 0 max = @math_expressions_max } } }
		add_to_variable = { additional_income_rate = energy_load_sharing_income_var }
	}
	# CPD War Reparations Income — variable set in 02_peace_deal_effects.txt on sign
	if = { limit = { has_idea = CPD_war_reparations_receiver }
		add_to_variable = { additional_income_rate = CPD_reparations_weekly }
	}


}

# Effect: update_tension_premium
# Purpose: Weekly decay of the tension-cause borrowing premium, plus intake of newly generated tension
update_tension_premium = {
	set_temp_variable = { recent_threat = { value = has_added_tension_amount subtract = tracked_threat } }
	# 3.5%/week: 20 weeks to decay 50%, 66 weeks to decay 90%
	set_variable = { tension_premium = { value = tension_premium multiply = 0.965 add = recent_threat } }
	set_variable = { tracked_threat = has_added_tension_amount }
}

# Effect: calculate_interest_rate
# Purpose: Computes daily interest rate on debt based on debt-to-GDP ratio, monetary policy, and world threat
calculate_interest_rate = {
	# Handle no debt case - skip all debt calculations
	if = {
		limit = { check_variable = { debt = 0 } }

		set_variable = { interest_rate = 0 }
		set_variable = { debt_rate = 0 }
		set_variable = { debt_ratio = 0 }
		set_variable = { debt_interest_premium = 0 }
		set_variable = { interest_rate_multiplier = 0 }
		set_variable = { cb_rate_premium = 0 }
		set_variable = { threat_interest_premium = 0 }
		set_variable = { adjusted_tension_premium = 0 }
		set_variable = { interest_rate_clamp_adjustment = 0 }
	}
	else = {
		# Country has debt - calculate interest rate, debt_rate, and debt_ratio
		clamp_variable = { var = gdp_total min = 0.001 }
		#Base value comes from debt/gdp ratio
		set_variable = { debt_interest_premium = { value = debt divide = gdp_total multiply = 10 } }
		set_variable = { interest_rate = debt_interest_premium }

		#Additional additive modifiers
		set_variable = { interest_rate_multiplier = modifier@interest_rate_multiplier_modifier }
		add_to_variable = { interest_rate = interest_rate_multiplier }

		#CB policy rate raises sovereign borrowing premium — tighter monetary policy = costlier debt
		#Coefficient 0.5: a 6% CB rate adds +3pp to interest_rate
		set_variable = { cb_rate_premium = { value = cb_policy_rate multiply = 0.5 } }
		add_to_variable = { interest_rate = cb_rate_premium }

		# Threat premium - current threat level raises borrowing costs; decays with world tension.
		# as 1.825% per year. 80% (0.8) tensioon -> 4% interest rate (4.0).
		set_variable = { threat_interest_premium = { value = global.threat multiply = 5 clamp = { min = 0 max = 5 } } }
		add_to_variable = { interest_rate = threat_interest_premium }

		# World tension cause premium - Countries which cause world tension are chaotic and less
		# stable.
		set_variable = { adjusted_tension_premium = { value = tension_premium multiply = 0.1 } } # 100% tension -> 10% interest rate
		add_to_variable = { interest_rate = adjusted_tension_premium }

		set_temp_variable = { pre_clamp_interest_rate = interest_rate }
		clamp_variable = { var = interest_rate min = 0.8 max = 50 } #Min is 0.8% on debt max is 50%
		set_variable = { interest_rate_clamp_adjustment = interest_rate }
		subtract_from_variable = { interest_rate_clamp_adjustment = pre_clamp_interest_rate }

		#Calculate weekly debt rate based on interest (52 weeks in a year)
		set_variable = { debt_rate = { value = debt multiply = 0.00019 multiply = interest_rate } }

		# Only debt denominated in an external reserve currency takes the exchange hit.
		# Must follow the set_variable above: applied before it, the adjustment is
		# overwritten and never reaches the player.
		if = {
			limit = {
				OR = {
					has_idea = us_dollar
					has_idea = euro
					has_idea = chinese_yuan
					has_idea = chinese_yuan_2
					has_idea = chinese_yuan_3
					has_idea = russia_rouble
					has_idea = japanese_yen
					has_idea = british_pound
					has_idea = swiss_frank
					has_idea = gulden
				}
			}
			set_temp_variable = { debt_fx_factor = { value = 1 divide = currency_strength } }
			multiply_variable = { debt_rate = debt_fx_factor }
		}

		#If interest rate is really high, add additional modifier
		if = { limit = { check_variable = { interest_rate > 14.999 } }
			if = {
				limit = {
					NOT = { has_dynamic_modifier = { modifier = very_high_interest_country_modifiers } }
				}
				add_dynamic_modifier = { modifier = very_high_interest_country_modifiers }
			}
			# Construction/factories/dockyard speed
			set_variable = { high_interest_penalty_modifier = { value = interest_rate subtract = 15 multiply = -0.05 } }
			# Stability
			set_variable = { stability_factor_very_high_interest_modifier = { value = interest_rate subtract = 15 multiply = -0.02 } }
			# Popularity
			##Set all to 0 in case an Outlook change between weeklys
			clear_variable = western_drift_very_high_interest_modifier
			clear_variable = emerging_drift_very_high_interest_modifier
			clear_variable = nonaligned_drift_very_high_interest_modifier
			clear_variable = salafist_drift_very_high_interest_modifier
			clear_variable = nationalist_drift_very_high_interest_modifier
			set_temp_variable = { outlook_drift = { value = interest_rate subtract = 15 multiply = -0.01 } }
			if = { limit = { has_government = democratic }
				add_to_variable = { western_drift_very_high_interest_modifier = outlook_drift }
			}
			else_if = { limit = { has_government = communism }
				add_to_variable = { emerging_drift_very_high_interest_modifier = outlook_drift }
			}
			else_if = { limit = { has_government = neutrality }
				add_to_variable = { nonaligned_drift_very_high_interest_modifier = outlook_drift }
			}
			else_if = { limit = { has_government = fascism }
				add_to_variable = { salafist_drift_very_high_interest_modifier = outlook_drift }
			}
			else_if = { limit = { has_government = nationalist }
				add_to_variable = { nationalist_drift_very_high_interest_modifier = outlook_drift }
			}
		}
		# Debt to GDP Ratio
		# Math Explanation:
		# The Debt to GDP Ratio helps dictate the ability of the nation to repay the debts
		# debt / total gdp = debt_ratio
		set_variable = { debt_ratio = debt }
		if = {
			limit = { check_variable = { gdp_total > 0 } }
			divide_variable = { debt_ratio = gdp_total }
		}
	}

	# Remove high interest modifier if interest rate dropped below 15%
	if = {
		limit = {
			check_variable = { interest_rate < 15 }
			has_dynamic_modifier = { modifier = very_high_interest_country_modifiers }
		}
		remove_dynamic_modifier = { modifier = very_high_interest_country_modifiers }
		clear_variable = high_interest_penalty_modifier
		clear_variable = stability_factor_very_high_interest_modifier
		clear_variable = western_drift_very_high_interest_modifier
		clear_variable = emerging_drift_very_high_interest_modifier
		clear_variable = nonaligned_drift_very_high_interest_modifier
		clear_variable = salafist_drift_very_high_interest_modifier
		clear_variable = nationalist_drift_very_high_interest_modifier
	}
}

# Effect: update_military_rate
# Purpose: Computes daily military upkeep: defence-industry cost plus fielded-unit personnel cost
update_military_rate = {
	# Recreate the Array
	resize_array = { array = array_defence_spend size = 10 value = 0 }

	#A variable that stores the current military law the player has
	set_temp_variable = { def_index = { value = military_law subtract = 1 clamp = { min = 0 max = 9 } } }

	## Calculate cost for defence industry (military factories and dockyards) ##
	#A higher GDP/c makes defence industry more expensive, computed before the spending loop so each level reads the finished modifier
	set_temp_variable = { gdp_defence_modifier_industry = gdp_per_capita }
	if = {		#Linear approximation -0.007 * gdp/c + 2.333
		limit = { check_variable = { gdp_defence_modifier_industry > 50 } }
		multiply_temp_variable = { gdp_defence_modifier_industry = -0.007 }
		add_to_temp_variable = { gdp_defence_modifier_industry = 2.333 }
	}
	else_if = {	#Linear approximation -0.046 * gdp/c + 4.286
		limit = { check_variable = { gdp_defence_modifier_industry > 15 } }
		multiply_temp_variable = { gdp_defence_modifier_industry = -0.046 }
		add_to_temp_variable = { gdp_defence_modifier_industry = 4.286 }
	}
	else_if = {	#Linear approximation -0.3 * gdp/c + 8.1
		limit = { check_variable = { gdp_defence_modifier_industry > -1 } }
		multiply_temp_variable = { gdp_defence_modifier_industry = -0.3 }
		add_to_temp_variable = { gdp_defence_modifier_industry = 8.1 }
	}
	multiply_temp_variable = { gdp_defence_modifier_industry = 1.1 } #tweak this to modify gdp/c impact on industrial cost without having to rewrite the whole system
	clamp_temp_variable = { var = gdp_defence_modifier_industry min = 1 }

	#Base cost per spending level = (naval + mil factories) * inflation * level ladder / gdp/c modifier * 1.1
	for_each_loop = {
		array = array_defence_spend
		value = v
		index = i
		set_variable = {
			array_defence_spend^i = {
				value = num_of_naval_factories
				add = military_factory_total
				multiply = inflation_multiplier
				multiply = global.spending_ladder_defence^i
				divide = gdp_defence_modifier_industry
				multiply = 1.1 #tweak this to modify industrial cost spending in relations to everything else
			}
		}
	}

	## Calculate the cost of fielded military ##
	### Land ###
	#Below sets up the personnel cost for mil spending based on how many battalions a country has (divided into special, elite, regular and irregular units)
	if = { limit = { check_variable = { num_battalions > 0 } }
		#Count number of special units
		set_temp_variable = { special_btn = num_battalions_with_type@Special_Forces }

		#Count number of elite units - Kal's note; set normal support battalions to be regular
		set_temp_variable = { elite_btn = {
			value = num_battalions_with_type@L_Air_assault_Bat
			add = num_battalions_with_type@L_Air_Inf_Bat
			add = num_battalions_with_type@Mot_Air_Inf_Bat
			add = num_battalions_with_type@Mech_Air_Inf_Bat
			add = num_battalions_with_type@Arm_Air_Inf_Bat
			add = num_battalions_with_type@L_Marine_Bat
			add = num_battalions_with_type@Mot_Marine_Bat
			add = num_battalions_with_type@Mech_Marine_Bat
			add = num_battalions_with_type@Arm_Marine_Bat
			add = num_battalions_with_type@L_Ranger_Bat
		} }

		#Count number of regular units (SP_AA_Bat was previously elite - Kal)
		set_temp_variable = { regular_btn = {
			value = num_battalions_with_type@L_Inf_Bat
			add = num_battalions_with_type@Mot_Inf_Bat
			add = num_battalions_with_type@Mech_Inf_Bat
			add = num_battalions_with_type@Arm_Inf_Bat
			add = num_battalions_with_type@armor_Bat
			add = num_battalions_with_type@L_arm_Bat
			add = num_battalions_with_type@Arty_Bat
			add = num_battalions_with_type@SP_Arty_Bat
			add = num_battalions_with_type@SP_AA_Bat
		} }

		#Count number of irregular units
		set_temp_variable = { irregular_btn = {
			value = num_battalions_with_type@Militia_Bat
			add = num_battalions_with_type@Mot_Militia_Bat
		} }
	}

	# Multiply each category with a weight value, and then add up categories together (eg. one special forces battalion is worth 1 militia battalion etc).
	# Use these if you want to control costs of different land units to each other
	set_temp_variable = {
		land_count = {
			value = special_btn
			multiply = 5
			add = { value = elite_btn multiply = 3 }
			add = { value = regular_btn multiply = 2 }
			add = irregular_btn
			add = { value = manpower multiply = 0.0002 }
		}
	}

	#Land equipment
	#num_equipment is for stockpile, num_equipment_in_armies is for deployed, num_equipment_in_armies_k is for small arms and support eq (1 = 1000 eq)
	#Each item folds deployed cost + stockpile cost straight into the equipment_operative_cost accumulator
	set_variable = { equipment_operative_cost = 0 }

	# Infantry equipment (per 1000 guns, cost: 0.3M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies_k@infantry_weapons_type
			multiply = 0.3
			add = { value = num_equipment@infantry_weapons_type multiply = 0.00006 } # 0.001 (to thousands) × 0.2 (stockpile) × 0.3 (cost)
		}
	}

	# CNC equipment (per 1000 units, cost: 0.4M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies_k@cnc_equipment_type
			multiply = 0.4
			add = { value = num_equipment@cnc_equipment_type multiply = 0.00008 } # 0.001 × 0.2 × 0.4
		}
	}

	# AA Equipment (cost: 0.012M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@AA_Equipment
			multiply = 0.012
			add = { value = num_equipment@AA_Equipment multiply = 0.0024 } # 0.2 × 0.012
		}
	}

	# Medium tank AA chassis (cost: 0.231M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@medium_tank_aa_chassis
			multiply = 0.231
			add = { value = num_equipment@medium_tank_aa_chassis multiply = 0.0462 } # 0.2 × 0.231
		}
	}

	# Light AT Equipment (cost: 0.011M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@L_AT_Equipment
			multiply = 0.011
			add = { value = num_equipment@L_AT_Equipment multiply = 0.0022 } # 0.2 × 0.011
		}
	}

	# Heavy AT Equipment (cost: 0.5M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@H_AT_Equipment
			multiply = 0.5
			add = { value = num_equipment@H_AT_Equipment multiply = 0.1 } # 0.2 × 0.5
		}
	}

	# Medium tank amphibious chassis (cost: 0.16M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@medium_tank_amphibious_chassis
			multiply = 0.16
			add = { value = num_equipment@medium_tank_amphibious_chassis multiply = 0.032 } # 0.2 × 0.16
		}
	}

	# Medium tank flame chassis (cost: 0.435M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@medium_tank_flame_chassis
			multiply = 0.435
			add = { value = num_equipment@medium_tank_flame_chassis multiply = 0.087 } # 0.2 × 0.435
		}
	}

	# Artillery equipment (cost: 0.07M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@artillery_equipment
			multiply = 0.07
			add = { value = num_equipment@artillery_equipment multiply = 0.014 } # 0.2 × 0.07
		}
	}

	# SP Artillery (cost: 0.5M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@medium_tank_artillery_chassis
			multiply = 0.5
			add = { value = num_equipment@medium_tank_artillery_chassis multiply = 0.1 } # 0.2 × 0.5
		}
	}

	# MLRS (cost: 0.5M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@medium_tank_rocket_chassis
			multiply = 0.5
			add = { value = num_equipment@medium_tank_rocket_chassis multiply = 0.1 } # 0.2 × 0.5
		}
	}

	# Medium tank chassis (cost: 0.7M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@medium_tank_chassis
			multiply = 0.7
			add = { value = num_equipment@medium_tank_chassis multiply = 0.14 } # 0.2 × 0.7
		}
	}

	# Medium tank destroyer chassis (cost: 0.35M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@medium_tank_destroyer_chassis
			multiply = 0.35
			add = { value = num_equipment@medium_tank_destroyer_chassis multiply = 0.07 } # 0.2 × 0.35
		}
	}

	# Heavy tank amphibious chassis / Transport helicopters (cost: 0.75M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@heavy_tank_amphibious_chassis
			multiply = 0.75
			add = { value = num_equipment@heavy_tank_amphibious_chassis multiply = 0.15 } # 0.2 × 0.75
		}
	}

	# Heavy tank chassis / Attack helicopters (cost: 1.0M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@heavy_tank_chassis
			multiply = 1
			add = { value = num_equipment@heavy_tank_chassis multiply = 0.2 } # 0.2 × 1
		}
	}

	# Light Walker Tank (cost: 0.8M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@super_heavy_tank_destroyer_chassis
			multiply = 0.8
			add = { value = num_equipment@super_heavy_tank_destroyer_chassis multiply = 0.16 } # 0.2 × 0.8
		}
	}

	# Medium Walker Tank (cost: 1.0M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@super_heavy_tank_chassis
			multiply = 1
			add = { value = num_equipment@super_heavy_tank_chassis multiply = 0.2 } # 0.2 × 1
		}
	}

	# Heavy Walker Tank (cost: 1.2M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@super_heavy_tank_artillery_chassis
			multiply = 1.2
			add = { value = num_equipment@super_heavy_tank_artillery_chassis multiply = 0.24 } # 0.2 × 1.2
		}
	}

	# Utility vehicles (cost: 0.022M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@util_vehicle_type
			multiply = 0.022
			add = { value = num_equipment@util_vehicle_type multiply = 0.0044 } # 0.2 × 0.022
		}
	}

	# Heavy Utility vehicles (cost: 0.022M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@heavy_util_vehicle_type
			multiply = 0.022
			add = { value = num_equipment@heavy_util_vehicle_type multiply = 0.0044 } # 0.2 × 0.022
		}
	}

	# Land drones (cost: 0.022M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@land_drone_equipment_type
			multiply = 0.022
			add = { value = num_equipment@land_drone_equipment_type multiply = 0.0044 } # 0.2 × 0.022
		}
	}

	# Orbital Fire Control Relay (cost: 2.0M yearly)
	add_to_variable = {
		var = equipment_operative_cost
		value = {
			value = num_equipment_in_armies@space_artillery_equipment_type
			multiply = 2
			add = { value = num_equipment@space_artillery_equipment_type multiply = 0.4 } # 0.2 × 2
		}
	}

	#from millions yearly to billions weekly
	set_variable = { equipment_operative_cost = { value = equipment_operative_cost multiply = @equipment_operative_cost_multiplier multiply = 0.019 multiply = 0.001 } }
	if = { limit = { has_war = yes }
		if = { limit = { is_ai = no }
			multiply_variable = { equipment_operative_cost = 2.25 }
		}
		else = {
			multiply_variable = { equipment_operative_cost = 1.45 }
		}
	}

	### Navy ###
	#Below sets the cost for ships based on the number of ships (divided into carriers, capitals, destroyers and minors - children are cheap)
	#Count number of carriers
	set_temp_variable = { carrier_count = num_ships_with_type@carrier }

	#Count number of capital/large ships
	set_temp_variable = { capital_count = {
		value = num_ships_with_type@cruiser
		add = num_ships_with_type@battle_cruiser
		add = num_ships_with_type@helicopter_operator
		add = num_ships_with_type@attack_submarine
		add = num_ships_with_type@missile_submarine
		add = num_ships_with_type@battleship
	} }

	#Count number of destroyers and heavy frigates
	set_temp_variable = { destroyer_count = {
		value = num_ships_with_type@destroyer
		add = num_ships_with_type@heavy_frigate
		add = num_ships_with_type@stealth_destroyer
	} }

	#Count number of screens/small ships
	set_temp_variable = { frigate_count = {
		value = num_ships_with_type@frigate
		add = num_ships_with_type@stealth_frigate
	} }
	set_temp_variable = { corvette_count = {
		value = num_ships_with_type@corvette
		add = num_ships_with_type@stealth_corvette
	} }
	set_temp_variable = { patrol_boat_count = {
		value = num_ships_with_type@patrol_boat
		add = num_ships_with_type@repair_ship
		add = num_ships_with_type@support_ship
	} }

	#Multiply each category with a weight value, and then add up categories together (eg. one carrier is worth 10 frigates etc). Use these if you want to control costs of different ships to each other - Kal's note: changed math to match land stuff
	set_temp_variable = { navy_count = {
		value = carrier_count
		multiply = 20
		add = { value = capital_count multiply = 4 }
		add = { value = destroyer_count multiply = 3 }
		add = { value = frigate_count multiply = 2 }
		add = corvette_count
		add = { value = patrol_boat_count multiply = 0.25 }
	} }

	### Airforce ###
	# Calculate costs for different aircraft types. Cost weights match land/navy ratios.
	# Stockpiled planes cost 2/3 of deployed planes.
	set_temp_variable = { stockpiled_cost_multiplier = 0.667 }

	# Strategic aircraft (weight 14)
	set_temp_variable = { strategic_airforce = {
		value = num_equipment@large_plane_airframe
		add = num_equipment@large_plane_cas_airframe
		add = num_equipment@large_plane_awacs_airframe
		multiply = stockpiled_cost_multiplier
		add = num_deployed_planes_with_type@large_plane_airframe
		add = num_deployed_planes_with_type@large_plane_cas_airframe
		add = num_deployed_planes_with_type@large_plane_awacs_airframe
		multiply = 14
	} }

	# Expensive aircraft (weight 5)
	set_temp_variable = { expensive_airforce = {
		value = num_equipment@large_plane_air_transport_airframe
		add = num_equipment@large_plane_maritime_patrol_airframe
		add = num_equipment@cv_medium_plane_air_transport_airframe
		add = num_equipment@cv_medium_plane_maritime_patrol_airframe
		add = num_equipment@medium_plane_air_transport_airframe
		add = num_equipment@medium_plane_maritime_patrol_airframe
		add = num_equipment@cv_medium_plane_scout_airframe
		multiply = stockpiled_cost_multiplier
		add = num_deployed_planes_with_type@large_plane_air_transport_airframe
		add = num_deployed_planes_with_type@large_plane_maritime_patrol_airframe
		add = num_deployed_planes_with_type@cv_medium_plane_air_transport_airframe
		add = num_deployed_planes_with_type@cv_medium_plane_maritime_patrol_airframe
		add = num_deployed_planes_with_type@medium_plane_air_transport_airframe
		add = num_deployed_planes_with_type@medium_plane_maritime_patrol_airframe
		add = num_deployed_planes_with_type@cv_medium_plane_scout_airframe
		multiply = 5
	} }

	# Regular aircraft (weight 3)
	set_temp_variable = { regular_airforce = {
		value = num_equipment@medium_plane_airframe
		add = num_equipment@cv_medium_plane_airframe
		add = num_equipment@medium_plane_fighter_airframe
		add = num_equipment@cv_medium_plane_fighter_airframe
		add = num_equipment@small_plane_suicide_airframe
		add = num_equipment@medium_plane_cas_airframe
		add = num_equipment@cv_medium_plane_cas_airframe
		multiply = stockpiled_cost_multiplier
		add = num_deployed_planes_with_type@medium_plane_airframe
		add = num_deployed_planes_with_type@cv_medium_plane_airframe
		add = num_deployed_planes_with_type@medium_plane_fighter_airframe
		add = num_deployed_planes_with_type@cv_medium_plane_fighter_airframe
		add = num_deployed_planes_with_type@small_plane_suicide_airframe
		add = num_deployed_planes_with_type@medium_plane_cas_airframe
		add = num_deployed_planes_with_type@cv_medium_plane_cas_airframe
		multiply = 3
	} }

	# Cheap aircraft (weight 1)
	set_temp_variable = { cheap_airforce = {
		value = num_equipment@small_plane_airframe
		add = num_equipment@small_plane_cas_airframe
		add = num_equipment@small_plane_naval_bomber_airframe
		add = num_equipment@cv_small_plane_airframe
		add = num_equipment@cv_small_plane_cas_airframe
		add = num_equipment@cv_small_plane_naval_bomber_airframe
		add = num_equipment@small_plane_strike_airframe
		add = num_equipment@cv_small_plane_strike_airframe
		multiply = stockpiled_cost_multiplier
		add = num_deployed_planes_with_type@small_plane_airframe
		add = num_deployed_planes_with_type@small_plane_cas_airframe
		add = num_deployed_planes_with_type@small_plane_naval_bomber_airframe
		add = num_deployed_planes_with_type@cv_small_plane_airframe
		add = num_deployed_planes_with_type@cv_small_plane_cas_airframe
		add = num_deployed_planes_with_type@cv_small_plane_naval_bomber_airframe
	} }

	# Add missile buildings
	multiply_temp_variable = { num_missile_silo = 28 }
	multiply_temp_variable = { num_anti_air_building = 14 }

	# Calculate total airforce cost
	set_temp_variable = { airforce_count = {
		value = strategic_airforce
		add = expensive_airforce
		add = regular_airforce
		add = cheap_airforce
		add = num_missile_silo
		add = num_anti_air_building
	} }

	### Total ###
	# Control factors to scale different branches with each other in cost.
	# Use these to control how expensive different branches are against each other

	# Land Forces - Cost weights per battalion:
	#   - Special:   1.25
	#   - Elite:	 0.75
	#   - Regular:   0.50
	#   - Irregular: 0.25
	multiply_temp_variable = { land_count = 0.5 }

	# Naval Forces - Cost weights per ship:
	#   - Carrier:   40
	#   - Capital:   8
	#   - Destroyer: 6
	#   - Frigate:   4
	#   - Corvette:  2
	multiply_temp_variable = { navy_count = 1 }

	# Air Forces - Cost weights per aircraft:
	#   - Strategic: 1.00
	#   - Expensive: 0.35
	#   - Regular:   0.21
	#   - Cheap:	 0.07
	multiply_temp_variable = { airforce_count = 0.071 }

	#Additive personnel cost multiplier
	set_temp_variable = { personnel_cost_multiplier = { value = 1 add = modifier@personnel_cost_multiplier_modifier } }
	set_temp_variable = { army_personnel_cost_multiplier = { value = 1 add = modifier@army_personnel_cost_multiplier_modifier } }
	set_temp_variable = { navy_personnel_cost_multiplier = { value = 1 add = modifier@navy_personnel_cost_multiplier_modifier } }
	set_temp_variable = { airforce_personnel_cost_multiplier = { value = 1 add = modifier@airforce_personnel_cost_multiplier_modifier } }
	#Additive equipment cost multiplier
	set_temp_variable = { equipment_cost_multiplier = { value = 1 add = modifier@equipment_cost_multiplier_modifier } }

	#Modify personnel cost with total wage modifier
	multiply_temp_variable = { land_count = personnel_cost_multiplier }
	multiply_temp_variable = { navy_count = personnel_cost_multiplier }
	multiply_temp_variable = { airforce_count = personnel_cost_multiplier }
	multiply_temp_variable = { land_count = army_personnel_cost_multiplier }
	multiply_temp_variable = { navy_count = navy_personnel_cost_multiplier }
	multiply_temp_variable = { airforce_count = airforce_personnel_cost_multiplier }
	#Modify equipment cost with modifier
	set_variable = { equipment_operative_cost = { value = equipment_operative_cost multiply = equipment_cost_multiplier multiply = inflation_multiplier } }

	#Multiply personnel costs basde on GDP/c, higher GDP makes things more expensive (linear approximation 0.003 * gdp/c + 0.129)
	set_temp_variable = { gdp_defence_modifier_personnel = { value = gdp_per_capita multiply = 0.004 add = 0.129 } }
	multiply_temp_variable = { land_count = gdp_defence_modifier_personnel }
	multiply_temp_variable = { navy_count = gdp_defence_modifier_personnel }
	multiply_temp_variable = { airforce_count = gdp_defence_modifier_personnel }

	set_temp_variable = { gdp_defence_modifier_equipment = { value = gdp_per_capita multiply = 0.015 add = 1 } }
	multiply_variable = { equipment_operative_cost = gdp_defence_modifier_equipment }

	set_temp_variable = { mobilization_level_modifier = { value = 0.25 multiply = def_index add = 0.75 } }
	multiply_temp_variable = { land_count = mobilization_level_modifier }
	multiply_temp_variable = { navy_count = mobilization_level_modifier }
	multiply_temp_variable = { airforce_count = mobilization_level_modifier }

	set_temp_variable = { equipment_cost_mobilization_level_modifier = { value = 0.25 multiply = def_index add = 0.75 } }
	multiply_variable = { equipment_operative_cost = equipment_cost_mobilization_level_modifier }

	if = { limit = { has_war = yes }
		multiply_temp_variable = { land_count = 1.20 }
		multiply_temp_variable = { navy_count = 1.50 }
		multiply_temp_variable = { airforce_count = 1.50 }
	}

	#Divide by control factors (same for all!) - Use this if you want to scale cost of military personnel in relation to defence industry
	multiply_temp_variable = { land_count = 0.00076 }
	multiply_temp_variable = { navy_count = 0.001 }
	multiply_temp_variable = { airforce_count = 0.001 }
	multiply_temp_variable = { airforce_count = 0.667 }

	#Add up armed forces
	set_temp_variable = { personnel_cost = { value = land_count add = navy_count add = airforce_count } }

	#Values for breakdown tooltips
	set_variable = { defence_breakdown_industry = { value = array_defence_spend^def_index multiply = 7 } }
	set_variable = { defence_breakdown_land = { value = land_count multiply = 7 add = equipment_operative_cost } }
	set_variable = { defence_breakdown_navy = { value = navy_count multiply = 7 } }
	set_variable = { defence_breakdown_airforce = { value = airforce_count multiply = 7 } }

	set_variable = { defence_breakdown_industry_gdp_modifier = 8.1 }	#Maximum modifier
	clamp_variable = { var = gdp_defence_modifier_industry min = 0.001 }
	divide_variable = { defence_breakdown_industry_gdp_modifier = gdp_defence_modifier_industry }
	subtract_from_variable = { defence_breakdown_industry_gdp_modifier = 1 }	#Working with percentages
	set_variable = { defence_breakdown_personnel_gdp_modifier = { value = gdp_defence_modifier_personnel multiply = 7.752 subtract = 1 } }	#7.752 = minimum modifier; -1 to work with percentages

	set_variable = {
		defence_breakdown_cyber = {
			value = gdp_total
			multiply = {
				value = 0
				if = {
					limit = { value = cyber_capability greater_than = 11 }
					add = 0.00005
				}
				if = {
					limit = { value = cyber_capability greater_than = 7 }
					add = 0.00004
				}
				if = {
					limit = { value = cyber_capability greater_than = 3 }
					add = 0.00003
				}
				if = {
					limit = { value = cyber_capability greater_than = 0 }
					add = 0.00003
				}
			}
			multiply = {
				value = 1
				add = modifier@cyber_cost_multiplier_modifier
			}
			multiply = 7
		}
	}

	#Add military industry and personnel costs together for the total
	for_each_loop = {
		array = array_defence_spend
		index = i
		value = v
		#Industry cost + personnel, over 7 days, plus equipment upkeep
		set_variable = {
			array_defence_spend^i = {
				value = array_defence_spend^i
				add = personnel_cost
				multiply = 7
				add = equipment_operative_cost
				clamp = { min = 0 max = @math_expressions_max }
			}
		}
	}

	set_variable = { defence_gain = { value = array_defence_spend^def_index add = defence_breakdown_cyber clamp = { min = 0 max = @math_expressions_max } } }
}

# Effect: update_bureaucracy_rate
# Purpose: Computes daily bureaucracy/civil-service spending based on population and selected law level
update_bureaucracy_rate = {
	# Recreate the Array
	resize_array = { array = array_bureaucracy_spend size = 5 value = 0 }

	#Calculate the base cost of each bureaucracy level, scaled by the per-level multiplier ladder
	for_each_loop = {
		array = array_bureaucracy_spend
		index = i
		value = v
		set_variable = {
			array_bureaucracy_spend^i = {
				value = population_total
				multiply = { value = 1 add = modifier@bureaucracy_cost_multiplier_modifier }
				multiply = common_money_modifier
				multiply = @bureau_base_cost_per_capita
				clamp = { min = 0 max = @spending_cost_clamp_max }
				multiply = global.spending_ladder_standard^i
			}
		}
	}

	#Set which spending level the country is at
	set_temp_variable = { bureau_index = { value = bureau_law subtract = 1 clamp = { min = 0 max = 4 } } }
	set_variable = { var = bureaucracy_gain value = { value = array_bureaucracy_spend^bureau_index clamp = { min = 0 max = @math_expressions_max } } }
}

# Effect: update_police_rate
# Purpose: Computes daily police/public-security spending based on population and selected law level
update_police_rate = {
	# Recreate the Array
	resize_array = { array = array_security_spend size = 5 value = 0 }

	#Calculate the base cost of each police level, scaled by the per-level multiplier ladder
	for_each_loop = {
		array = array_security_spend
		index = i
		value = v
		set_variable = {
			array_security_spend^i = {
				value = population_total
				multiply = {
					value = 1
					add = modifier@police_cost_multiplier_modifier
					add = ct_police_cost_var
				}
				multiply = common_money_modifier
				multiply = @police_base_cost_per_capita
				clamp = { min = 0 max = @spending_cost_clamp_max }
				multiply = global.spending_ladder_standard^i
			}
		}
	}

	#Set which spending level the country is at
	set_temp_variable = { security_index = { value = police_law subtract = 1 clamp = { min = 0 max = 4 } } }

	set_variable = { security_gain = { value = array_security_spend^security_index clamp = { min = 0 max = @math_expressions_max } } }
}

# Effect: update_education_rate
# Purpose: Computes daily education spending based on population, research slots, and selected law level
update_education_rate = {
	#Set the base cost of education (billion $ per 10 000 000 people)
	set_temp_variable = { education_base_cost = @education_base_cost_per_capita }

	#Education spending is more expensive the more research slots a country has
	set_variable = { research_slot_modifier = { value = 0.04 multiply = amount_research_slots add = -0.2 } }

	#Education spending was more expensive for poor countries - linear approximation with -0.086 * GDP/C + 2.182
	#helps balance large countries (china/india/ecc) and represents poor countries setting up infrastructure that western countries already have
	#but this was scrapped because poor countries were struggling with high tax rates despite very low spending levels
	#now spending cost increases with gdpc
	set_variable = { education_cost_gdp_multiplier_display = { value = gdp_scaling_modifier subtract = 1 } }

	# Calculate Base Cost + Modifiers
	set_temp_variable = { education_cost_multiplier = { value = 1 add = modifier@education_cost_multiplier_modifier add = research_slot_modifier multiply = common_money_modifier } }
	set_variable = { education_cost_multiplier_display = { value = education_cost_multiplier subtract = 1 } }
	multiply_temp_variable = { education_cost_multiplier = education_base_cost }

	# Recreate the Array
	resize_array = { array = array_education_spend size = 5 value = 0 }

	set_temp_variable = { facilities_cost = 0 }
	if = {
		limit = { nuclear_facility > 2 }
		add_to_temp_variable = { facilities_cost = 0.15 }
	}
	else_if = {
		limit = { nuclear_facility > 1 }
		add_to_temp_variable = { facilities_cost = 0.1 }
	}
	else_if = {
		limit = { nuclear_facility > 0 }
		add_to_temp_variable = { facilities_cost = 0.05 }
	}

	if = {
		limit = { air_facility > 2 }
		add_to_temp_variable = { facilities_cost = 0.15 }
	}
	else_if = {
		limit = { air_facility > 1 }
		add_to_temp_variable = { facilities_cost = 0.1 }
	}
	else_if = {
		limit = { air_facility > 0 }
		add_to_temp_variable = { facilities_cost = 0.05 }
	}

	if = {
		limit = { land_facility > 2 }
		add_to_temp_variable = { facilities_cost = 0.15 }
	}
	else_if = {
		limit = { land_facility > 1 }
		add_to_temp_variable = { facilities_cost = 0.1 }
	}
	else_if = {
		limit = { land_facility > 0 }
		add_to_temp_variable = { facilities_cost = 0.05 }
	}

	if = {
		limit = { naval_facility > 2 }
		add_to_temp_variable = { facilities_cost = 0.15 }
	}
	else_if = {
		limit = { naval_facility > 1 }
		add_to_temp_variable = { facilities_cost = 0.1 }
	}
	else_if = {
		limit = { naval_facility > 0 }
		add_to_temp_variable = { facilities_cost = 0.05 }
	}

	set_variable = { THIS.total_facilities_spending_display_var = facilities_cost }

	#Calculate the base cost of each education level (pop * cost multiplier + facilities), scaled by the per-level multiplier ladder
	# Update facility display var if you change the ladder!
	for_each_loop = {
		array = array_education_spend
		index = i
		value = v
		set_variable = {
			array_education_spend^i = {
				value = population_total #Unit 100 000
				multiply = education_cost_multiplier
				add = total_facilities_spending_display_var
				clamp = { min = 0 max = @spending_cost_clamp_max }
				multiply = global.spending_ladder_education^i
			}
		}
	}

	#Set which spending level the country is at
	set_temp_variable = { education_index = { value = education_law subtract = 1 clamp = { min = 0 max = 4 } } }
	set_temp_variable = { edu_facilities_mult = { value = education_index multiply = 0.5 add = 1 } }
	multiply_variable = { THIS.total_facilities_spending_display_var = edu_facilities_mult }

	set_variable = { education_gain = { value = array_education_spend^education_index clamp = { min = 0 max = @math_expressions_max } } }
	clamp_variable = { var = total_facilities_spending_display_var min = 0 }
}

# Effect: update_health_rate
# Purpose: Computes daily healthcare spending based on population and selected law level
update_health_rate = {
	# Recreate the Array
	resize_array = { array = array_health_spend size = 6 value = 0 }

	#Calculate the base cost of each health level, scaled by the per-level multiplier ladder
	for_each_loop = {
		array = array_health_spend
		index = i
		value = v
		set_variable = {
			array_health_spend^i = {
				value = population_total	#Unit 100 000
				multiply = { value = 1 add = modifier@health_cost_multiplier_modifier }
				multiply = common_money_modifier
				multiply = @health_base_cost_per_capita
				clamp = { min = 0 max = @spending_cost_clamp_max }
				multiply = global.spending_ladder_health^i
			}
		}
	}

	#Set which spending level the country is at
	set_temp_variable = { health_index = { value = health_law subtract = 1 clamp = { min = 0 max = 5 } } }

	set_variable = { health_gain = { value = array_health_spend^health_index clamp = { min = 0 max = @math_expressions_max } } }
}

# Effect: update_social_rate
# Purpose: Computes daily welfare/social-benefit spending based on population and selected law level
update_social_rate = {
	# Recreate the Array
	resize_array = { array = array_social_spend size = 6 value = 0 }

	#Calculate the base cost of each social level, scaled by the per-level multiplier ladder
	for_each_loop = {
		array = array_social_spend
		index = i
		value = v
		set_variable = {
			array_social_spend^i = {
				value = population_total	#Unit 100 000
				multiply = { value = 1 add = modifier@social_cost_multiplier_modifier }
				multiply = common_money_modifier
				multiply = @social_base_cost_per_capita
				clamp = { min = 0 max = @spending_cost_clamp_max }
				multiply = global.spending_ladder_social^i
			}
		}
	}

	#Set which spending level the country is at
	set_temp_variable = { social_index = { value = social_law subtract = 1 clamp = { min = 0 max = 5 } } }

	set_variable = { welfare_gain = { value = array_social_spend^social_index clamp = { min = 0 max = @math_expressions_max } } }
}

# Effect: update_infra_rate
# Purpose: Computes daily infrastructure maintenance costs for power plants and network
update_infra_rate = {
	# Nations under ~1M population pay proportionally less upkeep; floor keeps it non-trivial
	set_temp_variable = {
		infra_size_scaling = {
			value = population_total_m
			clamp = { min = 0.25 max = 1 }
		}
	}

	set_variable = {
		nuclear_infra_expense = {
			value = nuclear_reactors
			multiply = 0.125
			multiply = {
				value = 1
				add = modifier@infrastructure_cost_multiplier_modifier
				multiply = common_money_modifier
				add = modifier@nuclear_infra_cost_multiplier_modifier
				clamp = { min = 0 max = 100000000 }
			}
			multiply = infra_size_scaling
		}
	}

	set_variable = {
		fossil_infra_expense = {
			value = number_of_fossil_pps
			multiply = 0.012
			multiply = {
				value = 1
				add = modifier@infrastructure_cost_multiplier_modifier
				multiply = common_money_modifier
				add = modifier@fossil_infra_cost_multiplier_modifier
				clamp = { min = 0 max = 100000000 }
			}
			multiply = infra_size_scaling
		}
	}

	set_variable = {
		renewable_infra_expense = {
			value = renewable_energy_infra
			multiply = 0.03
			multiply = {
				value = 1
				add = modifier@infrastructure_cost_multiplier_modifier
				multiply = common_money_modifier
				add = modifier@renewable_infra_cost_multiplier_modifier
				clamp = { min = 0 max = 100000000 }
			}
			multiply = infra_size_scaling
		}
	}

	set_variable = {
		internet_infra_expense = {
			value = internet_station_total
			multiply = 0.018
			multiply = {
				value = 1
				add = modifier@infrastructure_cost_multiplier_modifier
				multiply = common_money_modifier
				add = modifier@internet_infra_cost_multiplier_modifier
				clamp = { min = 0 max = 100000000 }
			}
			multiply = infra_size_scaling
		}
	}

	set_variable = {
		rail_infra_expense = {
			value = rail_terminal_total
			multiply = 0.015
			multiply = {
				value = 1
				add = modifier@infrastructure_cost_multiplier_modifier
				multiply = common_money_modifier
			}
			multiply = infra_size_scaling
		}
	}

	set_variable = {
		infra_gain = {
			value = nuclear_infra_expense
			add = fossil_infra_expense
			add = renewable_infra_expense
			add = internet_infra_expense
			add = rail_infra_expense
			clamp = { min = 0 max = 100000000 }
		}
	}
}

# Effect: calculate_additional_expense_rate
# Purpose: Aggregates special expenses (propaganda campaigns, diplomatic actions, special projects)
calculate_additional_expense_rate = {
	set_variable = { additional_expenses_rate = 0 }

	# Interest owed on a Belt and Road loan
	if = {
		limit = {
			check_variable = { bri_loan_payment > 0 }
			CHI = { has_completed_focus = CHI_Belt_and_Road_Initiative }
		}
		set_variable = { additional_expense_bri_loan = bri_loan_payment }
		add_to_variable = { additional_expenses_rate = additional_expense_bri_loan }
	}

	# Additional expenses, set expense amount as a variable (weekly gain)
	# Generic Propaganda Campaign Decisions
	# AI do not use the propganda campaigns at all. Wrap them in a check to minimize checking.
	if = { limit = { is_ai = no }
		calculate_all_propaganda_costs = yes
		if = {
			limit = { has_country_flag = prowestern_propaganda }
			add_to_variable = { additional_expenses_rate = promote_outlook_western_costs }
		}
		if = {
			limit = { has_country_flag = emerging_propaganda }
			add_to_variable = { additional_expenses_rate = promote_outlook_emerging_costs }
		}
		if = {
			limit = { has_country_flag = nonaligned_propaganda }
			add_to_variable = { additional_expenses_rate = promote_outlook_nonaligned_costs }
		}
		if = {
			limit = { has_country_flag = nationalist_propaganda }
			add_to_variable = { additional_expenses_rate = promote_outlook_nationalist_costs }
		}
		if = {
			limit = { has_country_flag = fascism_propaganda }
			add_to_variable = { additional_expenses_rate = promote_outlook_salafist_costs }
		}

		# NOTE: For now the AI do not lease factories. Do not count these.
		set_temp_variable = { inflation_on_leases = { value = 1 add = modifier@inflation_cost_multiplier_modifier } }
		if = {
			limit = {
				check_variable = { leased_civilian_factories > 0 }
			}
			set_temp_variable = { lease_civilian_factories_cost = {
				value = lease_factories_cumulative_cost
				multiply = gdp_per_capita
				multiply = 0.001
				add = { value = lease_factories_cumulative_cost multiply = 0.1 multiply = inflation_on_leases }
				multiply = leased_civilian_factories
				divide = leased_factories
			} }
			set_variable = { lease_civilian_factories_cost_display = lease_civilian_factories_cost }
			add_to_variable = { additional_expenses_rate = lease_civilian_factories_cost }
		}
		if = { limit = { check_variable = { leased_military_factories > 0 } }
			set_temp_variable = { lease_military_factories_cost = {
				value = lease_factories_cumulative_cost
				multiply = gdp_per_capita
				multiply = 0.001
				add = { value = lease_factories_cumulative_cost multiply = 0.1 multiply = inflation_on_leases }
				multiply = leased_military_factories
				divide = leased_factories
			} }
			set_variable = { lease_military_factories_cost_display = lease_military_factories_cost }
			add_to_variable = { additional_expenses_rate = lease_military_factories_cost }
		}
		if = { limit = { check_variable = { leased_dockyards > 0 } }
			set_temp_variable = { lease_naval_factories_cost = {
				value = lease_factories_cumulative_cost
				multiply = gdp_per_capita
				multiply = 0.001
				add = { value = lease_factories_cumulative_cost multiply = 0.1 multiply = inflation_on_leases }
				multiply = leased_dockyards
				divide = leased_factories
			} }
			set_variable = { lease_naval_factories_cost_display = lease_naval_factories_cost }
			add_to_variable = { additional_expenses_rate = lease_naval_factories_cost }
		}
		if = {
			limit = { has_country_flag = active_economic_project }
			set_variable = { project_decisions_cost = { value = gdp_total multiply = 0.001 } }

			set_temp_variable = { project_cost_multiplier = { value = 1 add = modifier@projects_cost_modifier } }
			multiply_variable = { project_decisions_cost = project_cost_multiplier }

			add_to_variable = { additional_expenses_rate = project_decisions_cost }
		}
	}
	if = {
		limit = { has_country_flag = large_company_subsidies }
		set_variable = { large_company_subsidies = { value = gdp_total multiply = 0.001 } }
		add_to_variable = { additional_expenses_rate = large_company_subsidies }
	}
	if = {
		limit = { has_country_flag = farmer_subsidies }
		set_variable = { farmer_subsidies = { value = gdp_total multiply = 0.001 } }
		add_to_variable = { additional_expenses_rate = farmer_subsidies }
	}
	if = {
		limit = { has_country_flag = DEF_military_industry_thriving_expense }
		set_variable = { defence_industry_subsidies = { value = gdp_total multiply = 0.002 } }
		add_to_variable = { additional_expenses_rate = defence_industry_subsidies }
	}
	if = {
		limit = {
			OR = {
				has_active_mission = missile_construction_10
				has_active_mission = missile_construction_11
				has_active_mission = missile_construction_12
				has_active_mission = missile_construction_13
				has_active_mission = missile_construction_14
			}
		}
		space_prod_weekly_expense = yes
		add_to_variable = { additional_expenses_rate = space_prod_expense }
	}
	else = {
		set_variable = { space_prod_expense = 0 }
	}
	if = {
		limit = {
			NOT = { check_variable = { subjects^0 = 0 } }
			NOT = { check_variable = { subject_subsidization^0 = 0 } }
		}
		set_temp_variable = { overlord_subsidies_cost = 0 }
		for_each_scope_loop = {
			array = subject_subsidization
			add_to_temp_variable = {
				var = overlord_subsidies_cost
				value = {
					value = gdp_total
					multiply = 0.01
					multiply = 0.5
				}
			}
		}
		set_variable = { overlord_subsidies_total_cost = overlord_subsidies_cost }
		add_to_variable = { additional_expenses_rate = overlord_subsidies_total_cost }
	}
	if = { limit = { check_variable = { market_purchase_factories > 0 } }
		#start the math
		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.inf_cost_mult
				multiply = amount_inf_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.cnc_cost_mult
				multiply = amount_cnc_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.aa_cost_mult
				multiply = amount_aa_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.at_cost_mult
				multiply = amount_at_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.hat_cost_mult
				multiply = amount_hat_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.art_cost_mult
				multiply = amount_art_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.atk_helo_cost_mult
				multiply = amount_atk_helo_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.trans_helo_cost_mult
				multiply = amount_trans_helo_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.util_cost_mult
				multiply = amount_util_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.mbt_cost_mult
				multiply = amount_mbt_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.apc_cost_mult
				multiply = amount_apc_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.ifv_cost_mult
				multiply = amount_ifv_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.spart_cost_mult
				multiply = amount_spart_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.light_tank_cost_mult
				multiply = amount_light_tank_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.spaa_cost_mult
				multiply = amount_spaa_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.train_cost_mult
				multiply = amount_train_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.convoy_cost_mult
				multiply = amount_convoy_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.sml_pln_cost_mult
				multiply = amount_sml_pln_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.med_pln_cost_mult
				multiply = amount_med_pln_equip_purchased
			}
		}

		add_to_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = global.base_unit_cost
				multiply = global.lrg_pln_cost_mult
				multiply = amount_lrg_pln_equip_purchased
			}
		}

		if = {
			limit = { has_dlc = "Gotterdammerung" }

			add_to_temp_variable = {
				var = market_purchase_factories_cost
				value = {
					value = global.base_unit_cost
					multiply = global.missile_cost_mult
					multiply = amount_ballistic_missile_equipment_purchased
				}
			}

			add_to_temp_variable = {
				var = market_purchase_factories_cost
				value = {
					value = global.base_unit_cost
					multiply = global.missile_cost_mult
					multiply = amount_nuclear_ballistic_missile_equipment_purchased
				}
			}

			add_to_temp_variable = {
				var = market_purchase_factories_cost
				value = {
					value = global.base_unit_cost
					multiply = global.missile_cost_mult
					multiply = amount_guided_missile_equipment_purchased
				}
			}

			add_to_temp_variable = {
				var = market_purchase_factories_cost
				value = {
					value = global.base_unit_cost
					multiply = global.missile_cost_mult
					multiply = amount_hypersonic_missile_equipment_purchased
				}
			}

			add_to_temp_variable = {
				var = market_purchase_factories_cost
				value = {
					value = global.base_unit_cost
					multiply = global.missile_cost_mult
					multiply = amount_nuclear_missile_equipment_purchased
				}
			}

			add_to_temp_variable = {
				var = market_purchase_factories_cost
				value = {
					value = global.base_unit_cost
					multiply = global.missile_cost_mult
					multiply = amount_sam_missile_equipment_purchased
				}
			}
		}

		multiply_temp_variable = {
			var = market_purchase_factories_cost
			value = {
				value = 1
				add = modifier@international_market_purchase_modifier
			}
		}

		#assign the final cost
		add_to_variable = { additional_expenses_rate = market_purchase_factories_cost }
		set_variable = { market_purchase_factories_cost_track = market_purchase_factories_cost }
	}
	# European Union Contribution Expenses
	if = { limit = { has_idea = EU_member }
		add_to_variable = { additional_expenses_rate = EU_budget_contribution_weekly }
	}
	# Cartel Mechanic Costs
	if = { limit = { has_country_flag = anti_cartel_propaganda_flag }
		set_variable = { anti_cartel_propaganda_var = { value = gdp_total multiply = 0.001 } }
		add_to_variable = { additional_expenses_rate = anti_cartel_propaganda_var }
	}
	# PMC Company Expenses
	if = {
		limit = { check_variable = { ROOT.pmc_expenses > 0 } }
		set_variable = { additional_expenses_pmc_salary = ROOT.pmc_expenses }
		add_to_variable = { additional_expenses_rate = additional_expenses_pmc_salary }
	}
	# Maritime Industry Event Subsidies
	if = {
		limit = { has_country_flag = MAR_industry_subsidies }
		set_variable = { additional_expense_maritime_industry = { value = gdp_total multiply = 0.002 } }
		add_to_variable = { additional_expenses_rate = additional_expense_maritime_industry }
	}
	# Energy Load Sharing
	if = { limit = { has_country_flag = energy_load_sharing_recipient }
		set_variable = { energy_load_sharing_payment_var = { value = energy_load_sharing_gain_var multiply = global.price_per_gw_for_els clamp = { min = 0 max = @math_expressions_max } } }
		add_to_variable = { additional_expenses_rate = energy_load_sharing_payment_var }
	}

	# Country Specific
	if = {
		limit = { original_tag = NKR }
		if = {
			limit = { has_idea = NKR_marz_arm }
			set_variable = { additional_expense_NKR_marz_arm = 0.350 }
			add_to_variable = { additional_expenses_rate = additional_expense_NKR_marz_arm }
		}
	}
	else_if = {
		limit = { original_tag = CAN }
		add_to_variable = { additional_expenses_rate = CAN_subsidy_total }
	}
	else_if = {
		limit = { original_tag = SYR }
		if = {
			limit = {
				OR = {
					has_idea = syria_agricultural_subsidies
					has_idea = syria_increased_agricultural_subsidies
					has_idea = syria_decreased_agricultural_subsidies
				}
			}
			set_variable = { additional_expense_syria_agricultural_subsidies = gdp_total }
			if = {
				limit = { has_idea = syria_agricultural_subsidies }
				multiply_variable = { additional_expense_syria_agricultural_subsidies = 0.004 }
			}
			else_if = {
				limit = { has_idea = syria_increased_agricultural_subsidies }
				multiply_variable = { additional_expense_syria_agricultural_subsidies = 0.006 }
			}
			else_if = {
				limit = { has_idea = syria_decreased_agricultural_subsidies }
				multiply_variable = { additional_expense_syria_agricultural_subsidies = 0.002 }
			}
			multiply_variable = { additional_expense_syria_agricultural_subsidies = 0.2 }
			add_to_variable = { additional_expenses_rate = additional_expense_syria_agricultural_subsidies }
		}
		if = {
			limit = {
				OR = {
					has_idea = syrian_digital_investment1
					has_idea = syrian_digital_investment2
					has_idea = syrian_digital_investment3
					has_idea = syrian_digital_investment4
					has_idea = syrian_digital_investment5
				}
			}
			set_variable = { additional_expense_syria_digital_investments = gdp_total }
			if = {
				limit = { has_idea = syrian_digital_investment1 }
				multiply_variable = { additional_expense_syria_digital_investments = 0.002 }
			}
			else_if = {
				limit = { has_idea = syrian_digital_investment2 }
				multiply_variable = { additional_expense_syria_digital_investments = 0.004 }
			}
			else_if = {
				limit = { has_idea = syrian_digital_investment3 }
				multiply_variable = { additional_expense_syria_digital_investments = 0.006 }
			}
			else_if = {
				limit = { has_idea = syrian_digital_investment4 }
				multiply_variable = { additional_expense_syria_digital_investments = 0.008 }
			}
			else_if = {
				limit = { has_idea = syrian_digital_investment5 }
				multiply_variable = { additional_expense_syria_digital_investments = 0.01 }
			}
			multiply_variable = { additional_expense_syria_digital_investments = 0.2 }
			add_to_variable = { additional_expenses_rate = additional_expense_syria_digital_investments }
		}
		if = {
			limit = { has_dynamic_modifier = { modifier = occupation_of_lebanon_dynamic_modifier } }
			set_variable = { additional_expense_occupation_of_lebanon = 0.25 }
			add_to_variable = { additional_expenses_rate = additional_expense_occupation_of_lebanon }
		}
		if = {
			limit = { has_idea = subsidized_counter_terror_operations }
			set_variable = { additional_expense_subsidized_counter_terror_operations = { value = gdp_total_display multiply = 0.006 } }
			add_to_variable = { additional_expenses_rate = additional_expense_subsidized_counter_terror_operations }
		}
		if = {
			limit = { has_idea = idea_syrian_development_projects }
			set_variable = { additional_expense_syrian_development_projects = { value = gdp_total_display multiply = 0.005 } }
			add_to_variable = { additional_expenses_rate = additional_expense_subsidized_counter_terror_operations }
		}
	}
	else_if = {
		limit = { original_tag = ROM }
		if = {
			limit = { has_idea = ROM_economy_of_the_new_century3 }
			set_variable = { additional_expense_pnt_liberal_economy = 0.05 }
			add_to_variable = { additional_expenses_rate = additional_expense_pnt_liberal_economy }
		}
		if = {
			limit = { has_idea = ROM_rural_infrastructure_renewal }
			set_variable = { additional_expense_pnt_infrastructure_project = 0.05 }
			add_to_variable = { additional_expenses_rate = additional_expense_pnt_infrastructure_project }
		}
	}
	else_if = {
		limit = { original_tag = QAT }
		if = {
			limit = { has_idea = al_jazeera }
			set_variable = { additional_expense_al_jazeera = 0.02 }
			add_to_variable = { additional_expenses_rate = additional_expense_al_jazeera }
		}
	}
	else_if = {
		limit = { original_tag = BOT }
		if = {
			limit = { has_idea = BOT_coal_focused_energy }
			set_variable = { additional_expense_BOT_coal_focused_energy = 0.05 }
			add_to_variable = { additional_expenses_rate = additional_expense_BOT_coal_focused_energy }
		}
		if = {
			limit = { has_idea = BOT_renewable_focused_energy }
			set_variable = { additional_expense_BOT_renewable_focused_energy = 0.05 }
			add_to_variable = { additional_expenses_rate = additional_expense_BOT_renewable_focused_energy }
		}
	}
	else_if = {
		limit = { original_tag = LIC }
		if = {
			limit = { has_idea = LIC_idea_foreign_workers }
			set_variable = { additional_expense_LIC_foreign_workers = 0.01 }
			add_to_variable = { additional_expenses_rate = additional_expense_LIC_foreign_workers }
		}
	}
	else_if = {
		limit = { original_tag = CHI }
		if = {
			limit = { has_idea = CHI_china_economic_assistant }
			set_variable = { additional_expense_CHI_china_economic_assistant = 0.200 }
			add_to_variable = { additional_expenses_rate = additional_expense_CHI_china_economic_assistant }
		}
		if = {
			limit = { has_country_flag = NKO_storm_corps_subsidy }
			set_variable = { additional_expense_NKO_storm_corps = 0.250 }
			add_to_variable = { additional_expenses_rate = additional_expense_NKO_storm_corps }
		}
	}
	else_if = {
		limit = { original_tag = ITA }
		add_to_variable = { additional_expenses_rate = ITA_additional_expenses_var }
	}
	else_if = {
		limit = { original_tag = GER }
		if = {
			limit = { has_idea = GER_idea_war_reparations }
			set_variable = { additional_expense_GER_war_debt = 0.731 }
			add_to_variable = { additional_expenses_rate = additional_expense_GER_war_debt }
		}
		if = {
			limit = { has_country_flag = GER_subventions_mining }
			set_variable = { additional_expense_GER_subventions_mining = { value = GER.gdp_per_capita multiply = 0.5 multiply = 0.02 } } #yearly GDP share, weekly
			add_to_variable = { additional_expenses_rate = additional_expense_GER_subventions_mining }
		}
		if = {
			limit = { has_country_flag = GER_subventions_agrar }
			set_variable = { additional_expense_GER_subventions_agrar = { value = GER.gdp_per_capita multiply = 0.7 multiply = 0.02 } } #yearly GDP share, weekly
			add_to_variable = { additional_expenses_rate = additional_expense_GER_subventions_agrar }
		}
		if = {
			limit = { has_idea = SOV_nord_stream_idea }
			set_variable = { additional_expense_SOV_nord_stream_idea = 1.375 }
			add_to_variable = { additional_expenses_rate = additional_expense_SOV_nord_stream_idea }
		}
		if = {
			limit = { has_idea = SOV_nord_stream2_idea }
			set_variable = { additional_expense_SOV_nord_stream2_idea = 1.375 }
			add_to_variable = { additional_expenses_rate = additional_expense_SOV_nord_stream2_idea }
		}
	}
	#United Kingdom - UK, Great Britian
	else_if = {
		limit = { original_tag = ENG }

		if = {
			limit = { has_idea = ENG_good_friday_agreement }
			set_variable = { additional_expenditure_good_friday = { value = gdp_total multiply = 0.0003 } }
			add_to_variable = { additional_expenses_rate = additional_expenditure_good_friday }
		}
	}
	else_if = {
		limit = { original_tag = USA }
		if = {
			limit = { has_idea = USA_iraq_war_cost }
			set_variable = { additional_expense_USA_war_cost = 2.00 }
			add_to_variable = { additional_expenses_rate = additional_expense_USA_war_cost }
		}
	}
	else_if = {
		limit = { original_tag = IRQ }
		if = {
			limit = { has_country_flag = IRQ_iraq_accepted_to_pay_half_billion_weekly }
			set_variable = { additional_expense_iraq_war_compensation = 0.5 }
			add_to_variable = { additional_expenses_rate = additional_expense_iraq_war_compensation }
		}
		else_if = {
			limit = { has_country_flag = IRQ_iraq_accepted_to_pay_one_billion_weekly }
			set_variable = { additional_expense_iraq_war_compensation = 1.0 }
			add_to_variable = { additional_expenses_rate = additional_expense_iraq_war_compensation }
		}
		else_if = {
			limit = { has_country_flag = IRQ_iraq_accepted_to_pay_two_billion_weekly }
			set_variable = { additional_expense_iraq_war_compensation = 2.0 }
			add_to_variable = { additional_expenses_rate = additional_expense_iraq_war_compensation }
		}
	}
	else_if = {
		limit = { original_tag = BLR }
		if = {
			limit = { has_idea = BLR_oil_russian }
			set_variable = { additional_expense_BLR_oil_russian = 0.044 }
			add_to_variable = { additional_expenses_rate = additional_expense_BLR_oil_russian }
		}
		else_if = {
			limit = { has_idea = BLR_oil_russian_positive }
			set_variable = { additional_expense_BLR_oil_russian_positive = 0.066 }
			add_to_variable = { additional_expenses_rate = additional_expense_BLR_oil_russian_positive }
		}
	}
	else_if = {
		limit = { original_tag = SOV }
		if = {
			limit = { has_idea = SOV_baikonur_sov_kaz_idea }
			set_variable = { additional_expense_SOV_baikonur_sov_kaz_idea = 0.055 }
			add_to_variable = { additional_expenses_rate = additional_expense_SOV_baikonur_sov_kaz_idea }
		}
		if = {
			limit = { has_country_flag = NKO_storm_corps_subsidy }
			set_variable = { additional_expense_NKO_storm_corps = 0.250 }
			add_to_variable = { additional_expenses_rate = additional_expense_NKO_storm_corps }
		}
		#Korea Workers
		if = {
			limit = { has_idea = NKO_korean_repair_civil_workers }
			set_variable = { additional_expense_NKO_korean_repair_civil_workers = 0.075 }
			add_to_variable = { additional_expenses_rate = additional_expense_NKO_korean_repair_civil_workers }
		}
		if = {
			limit = { has_idea = NKO_korean_repair_frontline_workers }
			set_variable = { additional_expense_NKO_korean_repair_frontline_workers = 0.100 }
			add_to_variable = { additional_expenses_rate = additional_expense_NKO_korean_repair_frontline_workers }
		}
	}
	else_if = {
		limit = { original_tag = UKR }
		if = {
			limit = { has_idea = UKR_russian_gas }
			set_variable = { additional_expense_UKR_russian_gas = 0.175 }
			add_to_variable = { additional_expenses_rate = additional_expense_UKR_russian_gas }
		}
		else_if = {
			limit = {
				OR = {
					has_idea = UKR_russian_gas_cheap
					has_idea = UKR_russian_gas_cheaper
				}
			}
			set_variable = { additional_expense_UKR_russian_gas = 0.100 }
			add_to_variable = { additional_expenses_rate = additional_expense_UKR_russian_gas }
		}
	}
	else_if = {
		limit = { original_tag = EGY }
		if = {
			limit = { has_idea = EGY_broken_economy_idea }
			set_variable = { additional_expense_broken = 4 }
			add_to_variable = { additional_expenses_rate = additional_expense_broken }
		}
		else_if = {
			limit = { has_idea = EGY_broken_economy_idea_1 }
			set_variable = { additional_expense_broken = 3 }
			add_to_variable = { additional_expenses_rate = additional_expense_broken }
		}
		else_if = {
			limit = { has_idea = EGY_broken_economy_idea_2 }
			set_variable = { additional_expense_broken = 2 }
			add_to_variable = { additional_expenses_rate = additional_expense_broken }
		}
		else_if = {
			limit = { has_idea = EGY_broken_economy_idea_3 }
			set_variable = { additional_expense_broken = 1 }
			add_to_variable = { additional_expenses_rate = additional_expense_broken }
		}
	}
	else_if = {
		limit = { original_tag = FRA }
		if = {
			limit = {
				has_dynamic_modifier = { modifier = FRA_idea_nepad_modifier }
			}
			add_to_variable = { additional_expenses_rate = FRA.FRA_nepad_sponsor_weekly_cost }
		}
	}
	else_if = {
		limit = { original_tag = ISR }
		if = {
			limit = { has_idea = israeli_intelligenc_idea }
			set_variable = { additional_spend_mossad = 0.215 }
			add_to_variable = { additional_expenses_rate = additional_spend_mossad }
		}
		else_if = {
			limit = { has_idea = israeli_intelligenc2_idea }
			set_variable = { additional_spend_mossad = 0.415 }
			add_to_variable = { additional_expenses_rate = additional_spend_mossad }
		}
		else_if = {
			limit = { has_idea = israeli_intelligenc3_idea }
			set_variable = { additional_spend_mossad = 0.615 }
			add_to_variable = { additional_expenses_rate = additional_spend_mossad }
		}
	}
	# Czech Republic
	else_if = {
		limit = { original_tag = CZE }
		if = {
			limit = {
				has_completed_focus = CZE_keynesianism
			}
			set_variable = { CZE_increased_state_expenditure = { value = gdp_total multiply = CZE.CZE_increased_state_expenditure_multiplier } }
			add_to_variable = { additional_expenses_rate = CZE_increased_state_expenditure }
		}
		if = {
			limit = { has_idea = CZE_foreign_monarchy_intromision }
			set_variable = { CZE_foreign_monarchy = 0.5 }
			add_to_variable = { additional_expenses_rate = CZE_foreign_monarchy }
		}
	}
	# Greece
	else_if = {
		limit = { original_tag = GRE }
		# Creditor debt interest payments
		if = {
			limit = {
				GRE_has_creditors = yes
				check_variable = { GRE_creditor_payment_total > 0 }
			}
			set_variable = { GRE_creditor_debt_expense = GRE_creditor_payment_total }
			add_to_variable = { additional_expenses_rate = GRE_creditor_debt_expense }
		}
	}
	# Hungary
	else_if = {
		limit = { original_tag = HUN }
		if = {
			limit = {
				has_idea = CZE_HUN_manipulating_our_commerce
			}
			set_variable = { CZE_HUN_stolen_income = { value = resource_sale_rate multiply = 0.1 } }
			add_to_variable = { additional_expenses_rate = CZE_HUN_stolen_income }
		}
	}
	else_if = {
		limit = { original_tag = NKO }
		if = {
			limit = { has_idea = SOV_korean_stream_idea }
			set_variable = { additional_expense_SOV_korean_stream_idea = 0.375 }
			add_to_variable = { additional_expenses_rate = additional_expense_SOV_korean_stream_idea }
		}
	}
	else_if = {
		limit = { original_tag = COM }
		if = {
			limit = { has_country_flag = COM_the_zanzibar_agreement_pay }
			set_variable = { additional_expense_COM_zanzibar_agreement = 0.250 }
			add_to_variable = { additional_expenses_rate = additional_expense_COM_zanzibar_agreement }
		}
	}
	else_if = {
		limit = { original_tag = JAP }
		if = {
			limit = { has_idea = JAP_focus_renewable_energy_idea }
			set_variable = { JAP_focus_renewable_energy_expenses = { value = gdp_total multiply = 0.001 } }
			add_to_variable = { additional_expenses_rate = JAP_focus_renewable_energy_expenses }
		}
		if = {
			limit = { has_idea = JAP_focus_thermal_power_idea }
			set_variable = { JAP_focus_thermal_power_expenses = { value = gdp_total multiply = 0.001 } }
			add_to_variable = { additional_expenses_rate = JAP_focus_thermal_power_expenses }
		}
	}

	# Antarctica station maintenance costs
	if = {
		limit = { has_idea = at_member }
		set_variable = { antarctica_maintenance_cost = { value = antarctica_station_total_upkeep_multiplier clamp = { min = 0 max = @math_expressions_max } } }
		add_to_variable = { additional_expenses_rate = antarctica_maintenance_cost }
	}

	#Compensate for inflation on the final value
	set_temp_variable = { additional_expenses_inflation = { value = 1 add = modifier@inflation_cost_multiplier_modifier } }
	multiply_variable = { additional_expenses_rate = additional_expenses_inflation }

	# Event Horizon
	if = {
		limit = { has_idea = EH_intensive_research_effort_idea }
		set_variable = { EH_intensive_research_effort_expenditure = { value = gdp_total multiply = EH_intensive_research_effort_expenditure_multiplier_var } }
		add_to_variable = { additional_expenses_rate = EH_intensive_research_effort_expenditure }
	}

	# CPD War Reparations Expense — variable set in 02_peace_deal_effects.txt on sign.
	# Added after inflation multiplier because the weekly amount is already a
	# fraction of GDP captured at sign-time (no double-inflation).
	if = { limit = { has_idea = CPD_war_reparations_payer }
		add_to_variable = { additional_expenses_rate = CPD_reparations_weekly }
	}
	# Saudi Arabia - Seperate from GULF
	# === Saudi pipeline transit fees (Additional Expense) ===
	if = { limit = { original_tag = SAU }
		set_variable = { additional_expense_SAU_pipeline = 0 }
		# Yemen route - 1 transit country (Yemen)
		if = { limit = { has_idea = SAU_yemen_pipeline_t1 } add_to_variable = { additional_expense_SAU_pipeline = 1.0 } }
		if = { limit = { has_idea = SAU_yemen_pipeline_t2 } add_to_variable = { additional_expense_SAU_pipeline = 1.15 } }
		if = { limit = { has_idea = SAU_yemen_pipeline_t3 } add_to_variable = { additional_expense_SAU_pipeline = 1.25 } }
		# Levant route - 2 transit countries (Jordan + Syria)
		if = { limit = { has_idea = SAU_syria_pipeline_t1 } add_to_variable = { additional_expense_SAU_pipeline = 2.0 } }
		if = { limit = { has_idea = SAU_syria_pipeline_t2 } add_to_variable = { additional_expense_SAU_pipeline = 2.3 } }
		if = { limit = { has_idea = SAU_syria_pipeline_t3 } add_to_variable = { additional_expense_SAU_pipeline = 2.5 } }
		# Iraq route - 1 transit country (Iraq)
		if = { limit = { has_idea = SAU_iraq_pipeline_t1 } add_to_variable = { additional_expense_SAU_pipeline = 1.0 } }
		if = { limit = { has_idea = SAU_iraq_pipeline_t2 } add_to_variable = { additional_expense_SAU_pipeline = 1.15 } }
		if = { limit = { has_idea = SAU_iraq_pipeline_t3 } add_to_variable = { additional_expense_SAU_pipeline = 1.25 } }
		# Europe extension - 1 transit country (Turkey)
		if = { limit = { has_country_flag = SAU_turkey_pipeline_open } add_to_variable = { additional_expense_SAU_pipeline = 1.25 } }
		add_to_variable = { additional_expenses_rate = additional_expense_SAU_pipeline }
	}
}

# Effect: calculate_int_investments_rate
# Purpose: Computes weekly ROI from international investments and splits it into treasury vs reinvested shares
calculate_int_investments_rate = {
	# Base ROI + stacked return_on_investment_modifier, clamped to the engine-wide ceiling
	set_variable = { roi_rate = { value = 0.06 add = modifier@return_on_investment_modifier clamp = { min = 0 max = 0.20 } } }

	#This is how much money we get back in a year, converted to weekly
	set_variable = { int_investments_rate = { value = int_investments multiply = roi_rate multiply = 0.019 clamp = { min = 0 max = @math_expressions_max } } }

	if = { limit = { check_variable = { int_reinvest_mode = 1 } }
		set_variable = { int_investments_collected_rate = 0 }
		set_variable = { int_investments_reinvest_rate = int_investments_rate }
	}
	else_if = { limit = { check_variable = { int_reinvest_mode = 2 } }
		set_variable = { int_investments_collected_rate = { value = int_investments_rate multiply = 0.5 } }
		set_variable = { int_investments_reinvest_rate = int_investments_collected_rate }
	}
	else = {
		set_variable = { int_investments_collected_rate = int_investments_rate }
		set_variable = { int_investments_reinvest_rate = 0 }
	}
}

# Effect: calculate_resource_sale_rate
# Purpose: Computes weekly revenue from resource exports at market prices
calculate_resource_sale_rate = {
	#Additive export multipliers (base + per-resource modifiers), computed before the export revenue so each fold reads the finished multiplier
	set_temp_variable = { resource_export_multiplier = { value = 1 add = modifier@resource_export_multiplier_modifier } }

	set_temp_variable = { oil_export_multiplier = { value = resource_export_multiplier add = modifier@oil_export_multiplier_modifier } }
	set_temp_variable = { steel_export_multiplier = { value = resource_export_multiplier add = modifier@steel_export_multiplier_modifier } }
	set_temp_variable = { aluminium_export_multiplier = { value = resource_export_multiplier add = modifier@aluminium_export_multiplier_modifier } }
	set_temp_variable = { tungsten_export_multiplier = { value = resource_export_multiplier add = modifier@tungsten_export_multiplier_modifier } }
	set_temp_variable = { chromium_export_multiplier = { value = resource_export_multiplier add = modifier@chromium_export_multiplier_modifier } }
	set_temp_variable = { rubber_export_multiplier = { value = resource_export_multiplier add = modifier@rubber_export_multiplier_modifier } }
	set_temp_variable = { microchip_export_multiplier = { value = resource_export_multiplier add = modifier@microchip_export_multiplier_modifier } }
	set_temp_variable = { composite_export_multiplier = { value = resource_export_multiplier add = modifier@composite_export_multiplier_modifier } }

	#Revenue = exported amount * market price * export multiplier * yearly-to-weekly constant
	set_variable = { oil_exports = { value = resource_exported@oil multiply = global.oil_price multiply = oil_export_multiplier multiply = @resource_sale_rate_constant } }
	set_variable = { steel_exports = { value = resource_exported@steel multiply = global.steel_price multiply = steel_export_multiplier multiply = @resource_sale_rate_constant } }
	set_variable = { aluminium_exports = { value = resource_exported@aluminium multiply = global.aluminium_price multiply = aluminium_export_multiplier multiply = @resource_sale_rate_constant } }
	set_variable = { tungsten_exports = { value = resource_exported@tungsten multiply = global.tungsten_price multiply = tungsten_export_multiplier multiply = @resource_sale_rate_constant } }
	set_variable = { chromium_exports = { value = resource_exported@chromium multiply = global.chromium_price multiply = chromium_export_multiplier multiply = @resource_sale_rate_constant } }
	set_variable = { rubber_exports = { value = resource_exported@rubber multiply = global.rubber_price multiply = rubber_export_multiplier multiply = @resource_sale_rate_constant } }
	set_variable = { microchip_exports = { value = resource_exported@microchips multiply = global.microchip_price multiply = microchip_export_multiplier multiply = @resource_sale_rate_constant } }
	set_variable = { composite_exports = { value = resource_exported@composites multiply = global.composite_price multiply = composite_export_multiplier multiply = @resource_sale_rate_constant } }

	# Clamp Export Values at 0 so Luigi's massive negatives don't break my shit
	clamp_variable = { var = oil_exports min = 0 }
	clamp_variable = { var = steel_exports min = 0 }
	clamp_variable = { var = aluminium_exports min = 0 }
	clamp_variable = { var = tungsten_exports min = 0 }
	clamp_variable = { var = chromium_exports min = 0 }
	clamp_variable = { var = rubber_exports min = 0 }
	clamp_variable = { var = microchip_exports min = 0 }
	clamp_variable = { var = composite_exports min = 0 }

	#Add total cost
	set_variable = { resource_sale_rate = {
		value = oil_exports
		add = steel_exports
		add = aluminium_exports
		add = tungsten_exports
		add = chromium_exports
		add = rubber_exports
		add = microchip_exports
		add = composite_exports
		clamp = { min = 0 max = @math_expressions_max }
	} }
}

# Effect: update_display
# Purpose: Aggregates expense streams and computes net treasury change for the UI
update_display = {
	set_variable = {
		display_expense = {
			value = bureaucracy_gain
			add = defence_gain
			add = security_gain
			add = education_gain
			add = health_gain
			add = welfare_gain
			add = infra_gain
			add = additional_expenses_rate
			add = border_control_gain
			add = united_nations_expenses
		}
	}
	if = {
		limit = {
			NOT = {
				OR = {
					has_active_mission = cheap_loan_from_the_imf_mission
					has_country_flag = paused_debt_repayment
				}
			}
		}
		add_to_variable = { display_expense = debt_rate }
	}

	set_variable = {
		display_income = {
			value = tax_gain
			add = resource_sale_rate
			add = int_investments_collected_rate
			add = additional_income_rate
		}
	}

	# Calculate for Rentier State
	set_variable = {
		resource_to_tax_income = {
			value = resource_sale_rate
			divide = {
				value = tax_gain
				clamp = { min = 0.001 max = 100000000 }
			}
		}
	}

	# Adjusted Potential Income to the international investments so that people can't exploit the incoming financial collapse
	set_variable = {
		potential_income = {
			value = display_income
			add = int_investments_reinvest_rate
		}
	}

	# Adjust Potential Expense to Include the Debt Rate
	set_variable = { potential_expense = display_expense }
	if = {
		limit = {
			OR = {
				has_active_mission = cheap_loan_from_the_imf_mission
				has_country_flag = paused_debt_repayment
			}
		}
		add_to_variable = { potential_expense = debt_rate }
	}

	set_variable = { treasury_rate = { value = display_income subtract = display_expense } }

	if = { limit = { is_in_array = { global.arabic_countries = THIS.id } }
		calculate_monthly_arab_spring_change = yes
	}
}

# Effect: update_economic_cycle_cost
# Purpose: Computes the cost to unlock and upgrade economic cycles (5% of GDP)
update_economic_cycle_cost = {
	set_variable = {
		econ_cycle_upg_cost = {
			value = gdp_total
			multiply = 0.05 # 5% of GDP Total in billions
			multiply = {
				value = 1
				add = modifier@econ_cycle_upg_cost_multiplier_modifier
			}
		}
	}
}

# Effect: update_state_variables
# Purpose: Calculates national aggregate variables (consumer goods, military buildings, population state)
update_state_variables = {
	# Calculate Consumer Goods Factor
	set_variable = {
		actual_consumer_goods_percent_display = {
			value = modifier@consumer_goods_expected_value
			multiply = {
				value = 1
				add = modifier@consumer_goods_factor
			}
		}
	}

	hidden_effect = {
		productivity_growth_country_display_effect = yes

		set_temp_variable = {
			num_missile_silo = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@rocket_site
				}
			}
		}

		set_temp_variable = {
			num_anti_air_building = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@anti_air_building
				}
			}
		}
		set_variable = { rocket_sites = num_missile_silo }
		set_variable = { anti_air_building = num_anti_air_building }

		set_variable = {
			agriculture_district_total = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@agriculture_district
				}
			}
		}
		set_variable = {
			office_park_total = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@offices
				}
			}
		}
		set_variable = {
			industrial_complex_total = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@industrial_complex
				}
			}
		}
		set_variable = {
			military_factory_total = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@arms_factory
				}
			}
		}
		set_variable = {
			naval_factory_total = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@dockyard
				}
			}
		}
		set_variable = {
			renewable_energy_infra = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@renewable_energy_infra
				}
			}
		}
		set_variable = {
			nuclear_reactors = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@nuclear_reactor
				}
			}
		}
		set_variable = {
			hydroelectric_energy_generation_base = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = hydroelectric_energy_production_var
				}
			}
		}
		set_variable = {
			geothermal_energy_generation_base = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = geothermal_energy_production_var
				}
			}
		}
		set_variable = {
			max_stored_energy_base = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = hydroelectric_energy_storage_var
				}
			}
		}
		set_variable = {
			number_of_battery_parks = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = number_of_battery_parks_state_var
				}
			}
		}
		set_variable = {
			number_of_fossil_pps = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@fossil_powerplant
				}
			}
		}
		set_variable = {
			fuel_silos = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@fuel_silo
				}
			}
		}
		set_variable = {
			nuclear_facility_total = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@nuclear_facility
				}
			}
		}
		set_variable = {
			air_facility_total = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@air_facility
				}
			}
		}
		set_variable = {
			land_facility_total = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@land_facility
				}
			}
		}
		set_variable = {
			naval_facility_total = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@naval_facility
				}
			}
		}
		set_variable = {
			microchip_plant_total = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@microchip_plant
				}
			}
		}
		set_variable = {
			synthetic_refinery_total = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@synthetic_refinery
				}
			}
		}
		set_variable = {
			composite_plant_total = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@composite_plant
				}
			}
		}
		set_variable = {
			internet_station_total = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@internet_station
				}
			}
		}
		set_variable = {
			rail_terminal_total = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@rail_terminal
				}
			}
		}
		set_variable = {
			undamaged_enrichment_facilities = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = non_damaged_building_level@enrichment_facility
				}
			}
		}
		set_variable = {
			total_enrichment_facilities = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = building_level@enrichment_facility
				}
			}
		}

		set_variable = {
			population_total = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = {
						value = state_population_k
						multiply = 0.01
					}
				}
			}
		}

		# Population Total (millions)
		set_variable = {
			population_total_m = {
				value = population_total
				multiply = 0.1
				clamp = { min = 0.0001 max = 100000000 }
			}
		}

		set_variable = { var = last_overall_productivity value = overall_productivity }

		set_variable = {
			overall_productivity = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					add = {
						value = productivity_state_var
						multiply = 0.001
						multiply = { value = state_population_k multiply = 0.01 }
					}
				}
				multiply = 0.1
				divide = population_total_m
				multiply = 1000
				# INFO: This is a workaround to prevent the overflow of produtcivity to 424 million.
				clamp = { min = 0 max = 1000000 }
			}
		}

		# Calculate Renewable Infrastructure Information
		set_variable = {
			state_renewable_energy_var = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					if = {
						limit = { value = building_level@renewable_energy_infra greater_than = 0 }
						add = {
							value = building_level@renewable_energy_infra
							multiply = 0.5
							multiply = renewable_energy_random_var
							multiply = {
								value = 1
								add = THIS.modifier@state_renewable_energy_generation_modifier
							}
						}
					}
				}
			}
		}

		set_variable = {
			minimum_renewable_energy_var_base = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					if = {
						limit = { value = building_level@renewable_energy_infra greater_than = 0 }
						add = {
							value = building_level@renewable_energy_infra
							multiply = 0.5
							multiply = min_renewable_energy_var
							multiply = {
								value = 1
								add = THIS.modifier@state_renewable_energy_generation_modifier
							}
						}
					}
				}
			}
		}

		set_variable = {
			maximum_renewable_energy_var_base = {
				value = 1
				every_collection = {
					named_collection = controlled_states_collection
					if = {
						limit = { value = building_level@renewable_energy_infra greater_than = 0 }
						add = {
							value = building_level@renewable_energy_infra
							multiply = 0.5
							multiply = max_renewable_energy_var
							multiply = {
								value = 1
								add = THIS.modifier@state_renewable_energy_generation_modifier
							}
						}
					}
				}
			}
		}

		# Per-state building output only; country idea bonuses to fossil_energy_gain stay applied at the country level
		set_variable = {
			state_fossil_energy_var = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					if = {
						limit = { value = building_level@fossil_powerplant greater_than = 0 }
						add = {
							value = building_level@fossil_powerplant
							multiply = 2
							multiply = {
								value = 1
								add = THIS.modifier@state_fossil_fuel_energy_generation_modifier
							}
						}
					}
				}
			}
		}

		set_variable = {
			state_nuclear_energy_var = {
				value = 0
				every_collection = {
					named_collection = controlled_states_collection
					if = {
						limit = { value = building_level@nuclear_reactor greater_than = 0 }
						add = {
							value = building_level@nuclear_reactor
							multiply = 4
							multiply = {
								value = 1
								add = THIS.modifier@state_nuclear_energy_generation_modifier
							}
						}
					}
				}
			}
		}

		productivity_growth_controlled_display_effect = yes
	}

	set_variable = {
		total_resource_amount = {
			value = resource_produced@oil
			add = resource_produced@steel
			add = resource_produced@chromium
			add = resource_produced@rubber
			add = resource_produced@aluminium
			add = resource_produced@tungsten
			add = resource_produced@microchips
			add = resource_produced@composites
		}
	}

	# If no controlled states (capitulated/exiled), preserve last known productivity so the economy isn't permanently destroyed on liberation
	if = {
		limit = { check_variable = { overall_productivity < 1 } }
		set_variable = { overall_productivity = last_overall_productivity }
	}

	calculate_gdp = yes
}

# Effect: calculate_gdp
# Purpose: Sums per-building GDP contributions into gdp_total and derives gdp_per_capita
calculate_gdp = {
	# Calculate Last Quarter's GDP
	if = {
		limit = {
			NOT = { has_country_flag = calculated_quarterly_gdp }
			OR = {
				check_variable = { global.month = 3 }
				check_variable = { global.month = 6 }
				check_variable = { global.month = 9 }
				check_variable = { global.month = 12 }
			}
		}
		set_variable = {
			last_quarter_gdp_growth_rate = {
				value = gdp_total
				divide = { value = last_quarter_gdp_total clamp = { min = 0.001 max = @math_expressions_max } }
				add = -1
				clamp = { min = -1 max = @math_expressions_max }
			}
		}

		set_variable = { last_quarter_gdp_total = gdp_total }
		add_to_array = { quarterly_gdp_growth_rate = last_quarter_gdp_growth_rate }

		#GDP/C Quarterly Growth
		set_variable = {
			last_quarter_gdpc_growth_rate = {
				value = gdp_per_capita
				divide = { value = last_quarter_gdpc_total clamp = { min = 0.001 max = @math_expressions_max } }
				add = -1
				clamp = { min = -1 max = 0.5 }
			}
		}

		set_variable = { last_quarter_gdpc_total = gdp_per_capita }
		add_to_array = { quarterly_gdpc_growth_rate = last_quarter_gdpc_growth_rate }

		set_country_flag = { flag = calculated_quarterly_gdp days = 85 value = 1 }

		quarterly_inflation_calculation = yes
	}

	# Reset the Gross Domestic Product
	set_variable = { var = gdp_total value = 0 }

	# Calculates Unemployment
	set_temp_variable = {
		workforce_total = {
			value = population_total_m
			multiply = 0.6
			multiply = {
				value = 1
				add = modifier@total_workforce_modifier
				clamp = { min = 0 max = 1.5 }
			}
			clamp = { min = 0.01 max = @math_expressions_max }
		}
	}

	# Sets the total workforce displays
	set_variable = { workforce_total_display = workforce_total }
	set_variable = {
		workforce_total_percentage_display = {
			value = workforce_total_display
			divide = { value = population_total_m clamp = { min = 0.001 max = @math_expressions_max } }
		}
	}

	# Primary Sector
	# Employment in the Resource Sector
	set_variable = {
		resource_sector_workers = {
			value = total_resource_amount
			multiply = 0.075
			multiply = {
				value = 1
				add = modifier@resource_sector_workers_modifier
			}
			divide = { value = gdpc_converging_var clamp = { min = 0.1 max = @math_expressions_max } }
			multiply = {
				value = 1
				add = modifier@resource_extraction_workforce_requirement_modifier
				clamp = { min = 0.10 max = @math_expressions_max }
			}
		}
	}
	set_temp_variable = {
		max_resource_workers = {
			value = workforce_total
			multiply = 0.75
		}
	}
	subtract_from_temp_variable = { workforce_total = max_resource_workers }
	if = { limit = { check_variable = { resource_sector_workers < 0.001 } }
		set_variable = { resource_sector_worker_fulfillment = 1 }
		set_variable = { resource_sector_worker_fulfillment_var = 0 }
		set_variable = { resource_sector_workers = 0 }
		add_to_temp_variable = { workforce_total = max_resource_workers }
	}
	else = {
		set_variable = {
			resource_sector_worker_fulfillment = {
				value = max_resource_workers
				divide = { value = resource_sector_workers clamp = { min = 0.001 max = @math_expressions_max } }
				clamp = { min = 0 max = 1 }
			}
		}
		set_variable = {
			resource_sector_worker_fulfillment_var = {
				value = -1
				add = resource_sector_worker_fulfillment
			}
		}
		if = { limit = { check_variable = { resource_sector_workers > max_resource_workers } }
			set_variable = { resource_sector_workers = max_resource_workers }
		}
		subtract_from_temp_variable = { max_resource_workers = resource_sector_workers }
		add_to_temp_variable = { workforce_total = max_resource_workers }
	}
	# Calculates GDP from the resource sector
	set_temp_variable = {
		gdp_from_resource_sector = {
			value = total_resource_amount
			multiply = 0.5
			multiply = {
				value = 1
				add = modifier@gdp_from_resource_sector_modifier
			}
			multiply = {
				value = 1
				add = modifier@local_resources_factor
			}
		}
	}

	# Employment in Subsistence Agriculture
	if = {
		limit = { check_variable = { gdpc_converging_var < 1.3 } }
		set_variable = {
			agriculture_workers = {
				value = workforce_total
				multiply = {
					value = gdpc_converging_var
					multiply = -0.02
					add = 0.9
				}
			}
		}
	}
	else = {
		set_variable = {
			agriculture_workers = {
				value = workforce_total
				multiply = {
					value = 1.076
					multiply = 0.9
					divide = gdpc_converging_var
					multiply = {
						value = 1.076
						multiply = -1
						divide = gdpc_converging_var
						add = 2
					}
					multiply = {
						value = 1
						add = modifier@agriculture_workers_modifier
					}
					clamp = { min = 0.0 max = 0.9 }
				}
			}
		}
	}

	set_variable = {
		gdp_from_agriculture = {
			value = agriculture_workers
			multiply = {
				value = 2.75
				multiply = {
					value = 1
					add = modifier@agricolture_productivity_modifier
				}
			}
			multiply = 1.337
		}
	}
	subtract_from_temp_variable = { workforce_total = agriculture_workers }

	# Factories & Offices Employment (all values in millions)
	set_temp_variable = { workers_per_civ_fac = 0.206 } #millions of people who depend from these jobs, not just direct workers but including retail, services, food industry
	set_temp_variable = { workers_per_mil_fac = 0.0188 }
	set_temp_variable = { workers_per_dockyard = 0.0188 }
	set_temp_variable = { workers_per_office = 0.473 }
	set_temp_variable = { workers_per_agriculture_district = 0.188 }
	set_temp_variable = { workers_per_microchip_plant = 0.0375 }
	set_temp_variable = { workers_per_composite_plant = 0.0375 }
	set_temp_variable = { workers_per_synthetic_refinery = 0.184 }
	set_temp_variable = { workers_per_nuclear_reactor = 0.115 }
	set_temp_variable = { workers_per_fossil_powerplant = 0.0075 }
	set_temp_variable = { workers_per_renewable_energy = 0.0225 }
	set_temp_variable = { workers_per_internet_station = 0.012 }
	set_temp_variable = { workers_per_rail_terminal = 0.015 }

	set_temp_variable = {
		mil_facs_worker_requirement_multiplier = {
			value = 1
			add = modifier@mil_facs_worker_requirement_modifier
			add = modifier@buildings_worker_requirement_modifier
			clamp = { min = 0.10 max = @math_expressions_max }
		}
	}

	# Power Plants — allocated first so the grid is staffed before any industrial demand
	# Nuclear Reactors
	if = { limit = { check_variable = { nuclear_reactors = 0 } }
		set_variable = { nuclear_reactors_manpower_fulfillment = 1 }
	}
	else = {
		set_temp_variable = {
			max_workers_in_nuclear_reactors = {
				value = nuclear_reactors
				multiply = workers_per_nuclear_reactor
				multiply = {
					value = 1
					add = modifier@buildings_worker_requirement_modifier
					clamp = { min = 0.10 max = @math_expressions_max }
				}
			}
		}
		set_variable = {
			workers_in_nuclear_reactors = {
				value = max_workers_in_nuclear_reactors
				multiply = nuclear_reactor_employment_var
				clamp = { min = 0 max = workforce_total }
			}
		}
		set_variable = {
			nuclear_reactors_manpower_fulfillment = {
				value = workers_in_nuclear_reactors
				divide = { value = max_workers_in_nuclear_reactors clamp = { min = 0.001 max = @math_expressions_max } }
			}
		}
		subtract_from_temp_variable = { workforce_total = workers_in_nuclear_reactors }
	}

	# Fossil Power Plants
	if = { limit = { check_variable = { number_of_fossil_pps = 0 } }
		set_variable = { fossil_powerplants_manpower_fulfillment = 1 }
	}
	else = {
		set_temp_variable = {
			max_workers_in_fossil_powerplants = {
				value = number_of_fossil_pps
				multiply = workers_per_fossil_powerplant
				multiply = {
					value = 1
					add = modifier@buildings_worker_requirement_modifier
					add = modifier@infrastructure_workforce_requirement_modifier
					clamp = { min = 0.10 max = @math_expressions_max }
				}
			}
		}
		set_variable = {
			workers_in_fossil_powerplants = {
				value = max_workers_in_fossil_powerplants
				multiply = fossil_powerplant_employment_var
				clamp = { min = 0 max = workforce_total }
			}
		}
		set_variable = {
			fossil_powerplants_manpower_fulfillment = {
				value = workers_in_fossil_powerplants
				divide = { value = max_workers_in_fossil_powerplants clamp = { min = 0.001 max = @math_expressions_max } }
			}
		}
		subtract_from_temp_variable = { workforce_total = workers_in_fossil_powerplants }
	}

	# Renewable Energy Infrastructure
	if = { limit = { check_variable = { renewable_energy_infra = 0 } }
		set_variable = { renewable_energy_infra_manpower_fulfillment = 1 }
	}
	else = {
		set_temp_variable = {
			max_workers_in_renewable_energy = {
				value = renewable_energy_infra
				multiply = workers_per_renewable_energy
				multiply = {
					value = 1
					add = modifier@buildings_worker_requirement_modifier
					add = modifier@infrastructure_workforce_requirement_modifier
					clamp = { min = 0.10 max = @math_expressions_max }
				}
			}
		}
		set_variable = {
			workers_in_renewable_energy = {
				value = max_workers_in_renewable_energy
				multiply = renewable_energy_employment_var
				clamp = { min = 0 max = workforce_total }
			}
		}
		set_variable = {
			renewable_energy_infra_manpower_fulfillment = {
				value = workers_in_renewable_energy
				divide = { value = max_workers_in_renewable_energy clamp = { min = 0.001 max = @math_expressions_max } }
			}
		}
		subtract_from_temp_variable = { workforce_total = workers_in_renewable_energy }
	}
	set_variable = {
		state_renewable_energy_var = {
			value = state_renewable_energy_var
			multiply = renewable_energy_infra_manpower_fulfillment
		}
	}
	set_variable = {
		minimum_renewable_energy_var_base = {
			value = minimum_renewable_energy_var_base
			multiply = renewable_energy_infra_manpower_fulfillment
		}
	}
	set_variable = {
		maximum_renewable_energy_var_base = {
			value = maximum_renewable_energy_var_base
			multiply = renewable_energy_infra_manpower_fulfillment
		}
	}


	if = { limit = { check_variable = { military_factory_total = 0 } }
		set_variable = { military_factories_manpower_fulfillment = 1 }
		set_variable = {
			workers_per_mil_fac_display = {
				value = workers_per_mil_fac
				multiply = mil_facs_worker_requirement_multiplier
				multiply = 1000
			}
		}
	}
	else = {
		set_temp_variable = {
			workers_per_mil_fac = {
				value = workers_per_mil_fac
				multiply = mil_facs_worker_requirement_multiplier
			}
		}
		set_variable = {
			workers_per_mil_fac_display = {
				value = workers_per_mil_fac
				multiply = 1000
			}
		}

		set_temp_variable = {
			max_workers_in_mil_facs = {
				value = military_factory_total
				multiply = workers_per_mil_fac
			}
		}
		set_variable = {
			workers_in_mil_facs = {
				value = max_workers_in_mil_facs
				multiply = military_factory_employment_var
				clamp = { min = 0 max = workforce_total }
			}
		}
		set_variable = {
			military_factories_manpower_fulfillment = {
				value = workers_in_mil_facs
				divide = { value = max_workers_in_mil_facs clamp = { min = 0.001 max = @math_expressions_max } }
			}
		}
		subtract_from_temp_variable = { workforce_total = workers_in_mil_facs }
	}

	if = { limit = { check_variable = { naval_factory_total = 0 } }
		set_variable = { naval_factories_manpower_fulfillment = 1 }
		set_variable = {
			workers_per_dockyard_display = {
				value = workers_per_dockyard
				multiply = mil_facs_worker_requirement_multiplier
				multiply = 1000
			}
		}
	}
	else = {
		set_temp_variable = {
			workers_per_dockyard = {
				value = workers_per_dockyard
				multiply = mil_facs_worker_requirement_multiplier
			}
		}
		set_variable = {
			workers_per_dockyard_display = {
				value = workers_per_dockyard
				multiply = 1000
			}
		}

		set_temp_variable = {
			max_workers_in_dockyards = {
				value = naval_factory_total
				multiply = workers_per_dockyard
			}
		}
		set_variable = {
			workers_in_dockyards = {
				value = max_workers_in_dockyards
				multiply = naval_factory_employment_var
				clamp = { min = 0 max = workforce_total }
			}
		}
		set_variable = {
			naval_factories_manpower_fulfillment = {
				value = workers_in_dockyards
				divide = { value = max_workers_in_dockyards clamp = { min = 0.001 max = @math_expressions_max } }
			}
		}
		subtract_from_temp_variable = { workforce_total = workers_in_dockyards }
	}

	set_temp_variable = {
		worker_requirement_gdp_multiplier = {
			value = 3
			divide = { value = gdpc_converging_var clamp = { min = 5 max = @math_expressions_max } }
			add = 1
		}
	}
	set_temp_variable = { workers_per_civ_fac = { value = workers_per_civ_fac multiply = worker_requirement_gdp_multiplier } }
	set_temp_variable = { workers_per_office = { value = workers_per_office multiply = worker_requirement_gdp_multiplier } }
	set_temp_variable = { workers_per_agriculture_district = { value = workers_per_agriculture_district multiply = worker_requirement_gdp_multiplier } }
	set_temp_variable = { workers_per_microchip_plant = { value = workers_per_microchip_plant multiply = worker_requirement_gdp_multiplier } }
	set_temp_variable = { workers_per_composite_plant = { value = workers_per_composite_plant multiply = worker_requirement_gdp_multiplier } }
	set_temp_variable = { workers_per_synthetic_refinery = { value = workers_per_synthetic_refinery multiply = worker_requirement_gdp_multiplier } }

	if = { limit = { check_variable = { industrial_complex_total = 0 } }
		set_variable = { civilian_factories_manpower_fulfillment = 1 }
		set_variable = {
			workers_per_civ_fac_display = {
				value = workers_per_civ_fac
				multiply = 1000
			}
		}
	}
	else = {
		set_temp_variable = {
			workers_per_civ_fac = {
				value = workers_per_civ_fac
				multiply = {
					value = 1
					add = modifier@civ_facs_worker_requirement_modifier
					add = modifier@buildings_worker_requirement_modifier
					clamp = { min = 0.10 max = @math_expressions_max }
				}
			}
		}
		set_variable = {
			workers_per_civ_fac_display = {
				value = workers_per_civ_fac
				multiply = 1000
			}
		}

		set_temp_variable = {
			max_workers_in_civ_facs = {
				value = industrial_complex_total
				multiply = workers_per_civ_fac
			}
		}
		set_variable = {
			workers_in_civ_facs = {
				value = max_workers_in_civ_facs
				multiply = civilian_factory_employment_var
				clamp = { min = 0 max = workforce_total }
			}
		}
		set_variable = {
			civilian_factories_manpower_fulfillment = {
				value = workers_in_civ_facs
				divide = { value = max_workers_in_civ_facs clamp = { min = 0.001 max = @math_expressions_max } }
			}
		}
		subtract_from_temp_variable = { workforce_total = workers_in_civ_facs }
	}

	if = { limit = { check_variable = { office_park_total = 0 } }
		set_variable = { offices_manpower_fulfillment = 1 }
		set_variable = {
			workers_per_office_display = {
				value = workers_per_office
				multiply = 1000
			}
		}
	}
	else = {
		set_temp_variable = {
			workers_per_office = {
				value = workers_per_office
				multiply = {
					value = 1
					add = modifier@offices_worker_requirement_modifier
					add = modifier@buildings_worker_requirement_modifier
					clamp = { min = 0.10 max = @math_expressions_max }
				}
			}
		}
		set_variable = {
			workers_per_office_display = {
				value = workers_per_office
				multiply = 1000
			}
		}

		set_temp_variable = {
			max_workers_in_offices = {
				value = office_park_total
				multiply = workers_per_office
			}
		}
		set_variable = {
			workers_in_offices = {
				value = max_workers_in_offices
				multiply = office_employment_var
				clamp = { min = 0 max = workforce_total }
			}
		}
		set_variable = {
			offices_manpower_fulfillment = {
				value = workers_in_offices
				divide = { value = max_workers_in_offices clamp = { min = 0.001 max = @math_expressions_max } }
			}
		}
		subtract_from_temp_variable = { workforce_total = workers_in_offices }
	}

	if = { limit = { check_variable = { agriculture_district_total = 0 } }
		set_variable = { agriculture_district_manpower_fulfillment = 1 }
		set_variable = {
			workers_per_agriculture_district_display = {
				value = workers_per_agriculture_district
				multiply = 1000
			}
		}
	}
	else = {
		set_temp_variable = {
			workers_per_agriculture_district = {
				value = workers_per_agriculture_district
				multiply = {
					value = 1
					add = modifier@agriculture_district_worker_requirement_modifier
					add = modifier@buildings_worker_requirement_modifier
					clamp = { min = 0.10 max = @math_expressions_max }
				}
			}
		}
		set_variable = {
			workers_per_agriculture_district_display = {
				value = workers_per_agriculture_district
				multiply = 1000
			}
		}

		set_temp_variable = {
			max_workers_in_agriculture_district = {
				value = agriculture_district_total
				multiply = workers_per_agriculture_district
			}
		}

		set_variable = {
			workers_in_agriculture_district = {
				value = max_workers_in_agriculture_district
				multiply = agriculture_district_employment_var
				clamp = { min = 0 max = workforce_total }
			}
		}
		set_variable = {
			agriculture_district_manpower_fulfillment = {
				value = workers_in_agriculture_district
				divide = { value = max_workers_in_agriculture_district clamp = { min = 0.001 max = @math_expressions_max } }
			}
		}
		subtract_from_temp_variable = { workforce_total = workers_in_agriculture_district }
	}

	if = { limit = { check_variable = { microchip_plant_total = 0 } }
		set_variable = { microchip_plant_manpower_fulfillment = 1 }
		set_variable = {
			workers_per_microchip_plant_display = {
				value = workers_per_microchip_plant
				multiply = 1000
			}
		}
	}
	else = {
		set_temp_variable = {
			workers_per_microchip_plant = {
				value = workers_per_microchip_plant
				multiply = {
					value = 1
					add = modifier@microchip_plant_worker_requirement_modifier
					add = modifier@buildings_worker_requirement_modifier
					clamp = { min = 0.10 max = @math_expressions_max }
				}
			}
		}
		set_variable = {
			workers_per_microchip_plant_display = {
				value = workers_per_microchip_plant
				multiply = 1000
			}
		}

		set_temp_variable = {
			max_workers_in_microchip_plant = {
				value = microchip_plant_total
				multiply = workers_per_microchip_plant
			}
		}

		set_variable = {
			workers_in_microchip_plant = {
				value = max_workers_in_microchip_plant
				multiply = microchip_plant_employment_var
				clamp = { min = 0 max = workforce_total }
			}
		}
		set_variable = {
			microchip_plant_manpower_fulfillment = {
				value = workers_in_microchip_plant
				divide = { value = max_workers_in_microchip_plant clamp = { min = 0.001 max = @math_expressions_max } }
			}
		}
		subtract_from_temp_variable = { workforce_total = workers_in_microchip_plant }
	}

	if = { limit = { check_variable = { composite_plant_total = 0 } }
		set_variable = { composite_plant_manpower_fulfillment = 1 }
		set_variable = {
			workers_per_composite_plant_display = {
				value = workers_per_composite_plant
				multiply = 1000
			}
		}
	}
	else = {
		set_temp_variable = {
			workers_per_composite_plant = {
				value = workers_per_composite_plant
				multiply = {
					value = 1
					add = modifier@composite_plant_worker_requirement_modifier
					add = modifier@buildings_worker_requirement_modifier
					clamp = { min = 0.10 max = @math_expressions_max }
				}
			}
		}
		set_variable = {
			workers_per_composite_plant_display = {
				value = workers_per_composite_plant
				multiply = 1000
			}
		}

		set_temp_variable = {
			max_workers_in_composite_plant = {
				value = composite_plant_total
				multiply = workers_per_composite_plant
			}
		}

		set_variable = {
			workers_in_composite_plant = {
				value = max_workers_in_composite_plant
				multiply = composite_plant_employment_var
				clamp = { min = 0 max = workforce_total }
			}
		}
		set_variable = {
			composite_plant_manpower_fulfillment = {
				value = workers_in_composite_plant
				divide = { value = max_workers_in_composite_plant clamp = { min = 0.001 max = @math_expressions_max } }
			}
		}
		subtract_from_temp_variable = { workforce_total = workers_in_composite_plant }
	}

	if = { limit = { check_variable = { synthetic_refinery_total = 0 } }
		set_variable = { synthetic_refinery_manpower_fulfillment = 1 }
		set_variable = {
			workers_per_synthetic_refinery_display = {
				value = workers_per_synthetic_refinery
				multiply = 1000
			}
		}
	}
	else = {
		set_temp_variable = {
			workers_per_synthetic_refinery = {
				value = workers_per_synthetic_refinery
				multiply = {
					value = 1
					add = modifier@synthetic_refinery_worker_requirement_modifier
					add = modifier@buildings_worker_requirement_modifier
					clamp = { min = 0.10 max = @math_expressions_max }
				}
			}
		}
		set_variable = {
			workers_per_synthetic_refinery_display = {
				value = workers_per_synthetic_refinery
				multiply = 1000
			}
		}

		set_temp_variable = {
			max_workers_in_synthetic_refinery = {
				value = synthetic_refinery_total
				multiply = workers_per_synthetic_refinery
			}
		}

		set_variable = {
			workers_in_synthetic_refinery = {
				value = max_workers_in_synthetic_refinery
				multiply = synthetic_refinery_employment_var
				clamp = { min = 0 max = workforce_total }
			}
		}
		set_variable = {
			synthetic_refinery_manpower_fulfillment = {
				value = workers_in_synthetic_refinery
				divide = { value = max_workers_in_synthetic_refinery clamp = { min = 0.001 max = @math_expressions_max } }
			}
		}
		subtract_from_temp_variable = { workforce_total = workers_in_synthetic_refinery }
	}

	# Internet Stations
	if = { limit = { check_variable = { internet_station_total = 0 } }
		set_variable = { internet_stations_manpower_fulfillment = 1 }
	}
	else = {
		set_temp_variable = {
			max_workers_in_internet_stations = {
				value = internet_station_total
				multiply = workers_per_internet_station
				multiply = {
					value = 1
					add = modifier@buildings_worker_requirement_modifier
					add = modifier@infrastructure_workforce_requirement_modifier
					clamp = { min = 0.10 max = @math_expressions_max }
				}
			}
		}
		set_variable = {
			workers_in_internet_stations = {
				value = max_workers_in_internet_stations
				multiply = internet_station_employment_var
				clamp = { min = 0 max = workforce_total }
			}
		}
		set_variable = {
			internet_stations_manpower_fulfillment = {
				value = workers_in_internet_stations
				divide = { value = max_workers_in_internet_stations clamp = { min = 0.001 max = @math_expressions_max } }
			}
		}
		subtract_from_temp_variable = { workforce_total = workers_in_internet_stations }
	}

	# Rail Terminals
	if = { limit = { check_variable = { rail_terminal_total = 0 } }
		set_variable = { rail_terminal_manpower_fulfillment = 1 }
	}
	else = {
		set_temp_variable = {
			max_workers_in_rail_terminals = {
				value = rail_terminal_total
				multiply = workers_per_rail_terminal
				multiply = {
					value = 1
					add = modifier@buildings_worker_requirement_modifier
					add = modifier@infrastructure_workforce_requirement_modifier
					clamp = { min = 0.10 max = @math_expressions_max }
				}
			}
		}
		set_variable = {
			workers_in_rail_terminals = {
				value = max_workers_in_rail_terminals
				multiply = rail_terminal_employment_var
				clamp = { min = 0 max = workforce_total }
			}
		}
		set_variable = {
			rail_terminal_manpower_fulfillment = {
				value = workers_in_rail_terminals
				divide = { value = max_workers_in_rail_terminals clamp = { min = 0.001 max = @math_expressions_max } }
			}
		}
		subtract_from_temp_variable = { workforce_total = workers_in_rail_terminals }
	}

	# Healthcare Sector — Workforce
	set_temp_variable = { healthcare_workforce_level_scalar = global.health_workers^health_law }

	set_temp_variable = {
		max_workers_in_healthcare = {
			value = population_total
			multiply = 0.003
			multiply = healthcare_workforce_level_scalar
			multiply = {
				value = 1
				add = modifier@healthcare_workforce_requirement_modifier
				clamp = { min = 0.10 max = @math_expressions_max }
			}
		}
	}

	if = { limit = { check_variable = { max_workers_in_healthcare < 0.001 } }
		set_variable = { workers_in_healthcare = 0 }
		set_variable = { healthcare_manpower_fulfillment = 1 }
	}
	else = {
		set_variable = {
			workers_in_healthcare = {
				value = max_workers_in_healthcare
				clamp = { min = 0 max = workforce_total }
			}
		}
		set_variable = {
			healthcare_manpower_fulfillment = {
				value = workers_in_healthcare
				divide = { value = max_workers_in_healthcare clamp = { min = 0.001 max = @math_expressions_max } }
				clamp = { min = 0.1 max = 1 }
			}
		}
		subtract_from_temp_variable = { workforce_total = workers_in_healthcare }
	}

	# Bureaucracy — civil servants required by government administration level
	set_temp_variable = { workers_per_bureau = global.bureau_workers^bureau_law }

	if = { limit = { check_variable = { workers_per_bureau = 0 } }
		set_variable = { bureaucracy_manpower_fulfillment = 1 }
	}
	else = {
		set_temp_variable = {
			max_workers_in_bureaucracy = {
				value = population_total_m
				multiply = workers_per_bureau
				clamp = { min = 0 max = @math_expressions_max }
			}
		}

		set_variable = {
			workers_in_bureaucracy = {
				value = max_workers_in_bureaucracy
				clamp = { min = 0 max = workforce_total }
			}
		}

		set_variable = {
			bureaucracy_manpower_fulfillment = {
				value = workers_in_bureaucracy
				divide = { value = max_workers_in_bureaucracy clamp = { min = 0.001 max = @math_expressions_max } }
				clamp = { min = 0.1 max = 1 }
			}
		}

		subtract_from_temp_variable = { workforce_total = workers_in_bureaucracy }

		# Salary cost — civil servant wages add to total bureaucracy expenditure
		add_to_variable = {
			var = bureaucracy_gain
			value = {
				value = workers_in_bureaucracy
				multiply = @bureau_salary_per_worker
			}
		}
	}

	# Average Worker Fulfillment
	set_variable = {
		average_worker_fulfillment = {
			value = civilian_factories_manpower_fulfillment
			add = military_factories_manpower_fulfillment
			add = naval_factories_manpower_fulfillment
			add = offices_manpower_fulfillment
			add = microchip_plant_manpower_fulfillment
			add = composite_plant_manpower_fulfillment
			add = synthetic_refinery_manpower_fulfillment
			add = agriculture_district_manpower_fulfillment
			add = nuclear_reactors_manpower_fulfillment
			add = fossil_powerplants_manpower_fulfillment
			add = renewable_energy_infra_manpower_fulfillment
			add = internet_stations_manpower_fulfillment
			add = rail_terminal_manpower_fulfillment
			add = healthcare_manpower_fulfillment
			add = bureaucracy_manpower_fulfillment
			divide = 15
		}
	}

	set_variable = { total_unemployed = workforce_total }
	set_variable = {
		total_unemployed_k = {
			value = total_unemployed
			multiply = 1000
		}
	}
	set_variable = {
		total_unemployed_percentage_display = {
			value = total_unemployed
			divide = { value = workforce_total_display clamp = { min = 0.001 max = @math_expressions_max } }
		}
	}

	# Calculate Threshold
	set_variable = {
		unemployment_threshold_display_var = {
			value = modifier@high_unemployment_threshold_modifier
			add = 0.06
			clamp = { min = 0 max = @math_expressions_max }
		}
	}

	set_variable = {
		high_unemployment_modifier_var = {
			value = total_unemployed_percentage_display
			subtract = unemployment_threshold_display_var
			multiply = -1
			multiply = {
				value = gdp_per_capita
				multiply = 0.025
			}
			clamp = { min = -0.3 max = 0 }
		}
	}
	set_variable = {
		high_unemployment_modifier_var_2 = {
			value = high_unemployment_modifier_var
			multiply = -2
		}
	}

	set_temp_variable = {
		gdp_from_civs = {
			value = industrial_complex_total
			multiply = { value = @gdp_civ_base_factor add = { value = @gdp_civ_prod_factor multiply = modifier@civilian_factories_productivity } }
			multiply = civilian_factories_manpower_fulfillment
		}
	}
	set_temp_variable = {
		gdp_from_mils = {
			value = military_factory_total
			multiply = { value = @gdp_mil_base_factor add = { value = @gdp_mil_prod_factor multiply = modifier@military_factories_productivity } }
			multiply = military_factories_manpower_fulfillment
		}
	}
	set_temp_variable = {
		gdp_from_dockyards = {
			value = naval_factory_total
			multiply = { value = @gdp_dockyard_base_factor add = { value = @gdp_dockyard_prod_factor multiply = modifier@dockyard_productivity } }
			multiply = naval_factories_manpower_fulfillment
		}
	}
	set_temp_variable = {
		gdp_from_offices = {
			value = office_park_total
			multiply = { value = @gdp_office_base_factor add = { value = @gdp_office_prod_factor multiply = modifier@offices_productivity } }
			multiply = offices_manpower_fulfillment
		}
	}
	set_temp_variable = {
		gdp_from_agriculture_district = {
			value = agriculture_district_total
			multiply = { value = @gdp_agriculture_district_base_factor add = { value = @gdp_agriculture_district_prod_factor multiply = modifier@agricolture_productivity_modifier } }
			multiply = agriculture_district_manpower_fulfillment
		}
	}
	set_temp_variable = {
		gdp_from_microchip_plant = {
			value = microchip_plant_total
			multiply = { value = @gdp_microchip_base_factor add = { value = @gdp_microchip_prod_factor multiply = modifier@microchip_plant_productivity_modifier } }
			multiply = microchip_plant_manpower_fulfillment
		}
	}
	set_temp_variable = {
		gdp_from_composite_plant = {
			value = composite_plant_total
			multiply = { value = @gdp_composite_base_factor add = { value = @gdp_composite_prod_factor multiply = modifier@composite_plant_productivity_modifier } }
			multiply = composite_plant_manpower_fulfillment
		}
	}
	set_temp_variable = {
		gdp_from_synthetic_refinery = {
			value = synthetic_refinery_total
			multiply = { value = @gdp_synthetic_base_factor add = { value = @gdp_synthetic_prod_factor multiply = modifier@synthetic_refinery_productivity_modifier } }
			multiply = synthetic_refinery_manpower_fulfillment
		}
	}

	set_temp_variable = {
		gdp_from_nuclear_reactors = {
			value = nuclear_reactors
			multiply = 4
			multiply = nuclear_reactors_manpower_fulfillment
		}
	}
	set_temp_variable = {
		gdp_from_fossil_powerplants = {
			value = number_of_fossil_pps
			multiply = 1.7
			multiply = fossil_powerplants_manpower_fulfillment
		}
	}
	set_temp_variable = {
		gdp_from_renewable_energy = {
			value = renewable_energy_infra
			multiply = 2
			multiply = renewable_energy_infra_manpower_fulfillment
		}
	}
	set_temp_variable = {
		gdp_from_internet_stations = {
			value = internet_station_total
			multiply = 3.5
			multiply = internet_stations_manpower_fulfillment
		}
	}
	set_temp_variable = {
		gdp_from_rail_terminals = {
			value = rail_terminal_total
			multiply = 2.5
			multiply = rail_terminal_manpower_fulfillment
		}
	}

	# Healthcare Sector — GDP Contribution
	# Formula: population_total * 0.01 * gdp_per_capita * level_mult * fulfillment
	# Global overall_productivity multiplier is applied to the full gdp_total pool below
	if = { limit = { has_idea = health_01 } set_temp_variable = { health_gdp_level_mult = 0.10 } }
	else_if = { limit = { has_idea = health_02 } set_temp_variable = { health_gdp_level_mult = 0.20 } }
	else_if = { limit = { has_idea = health_03 } set_temp_variable = { health_gdp_level_mult = 0.35 } }
	else_if = { limit = { has_idea = health_04 } set_temp_variable = { health_gdp_level_mult = 0.50 } }
	else_if = { limit = { has_idea = health_05 } set_temp_variable = { health_gdp_level_mult = 0.65 } }
	else_if = { limit = { has_idea = health_06 } set_temp_variable = { health_gdp_level_mult = 0.80 } }

	set_temp_variable = {
		gdp_from_healthcare = {
			value = population_total
			multiply = 0.01
			multiply = gdp_per_capita
			multiply = health_gdp_level_mult
			multiply = healthcare_manpower_fulfillment
		}
	}

	# Store as persistent variable for corporate tax calculation in calculate_tax_gain
	set_variable = { healthcare_gdp_var = gdp_from_healthcare }

	set_variable = {
		gdp_total = {
			value = gdp_from_civs
			add = gdp_from_mils
			add = gdp_from_dockyards
			add = gdp_from_offices
			add = gdp_from_agriculture_district
			add = gdp_from_microchip_plant
			add = gdp_from_composite_plant
			add = gdp_from_synthetic_refinery
			add = gdp_from_nuclear_reactors
			add = gdp_from_fossil_powerplants
			add = gdp_from_renewable_energy
			add = gdp_from_internet_stations
			add = gdp_from_rail_terminals
			add = gdp_from_healthcare
			add = gdp_from_agriculture
			add = gdp_from_resource_sector
		}
	}

	# Calculate GDP Percentages
	set_variable = {
		civil_fac_percent = {
			value = gdp_from_civs
			divide = { value = gdp_total clamp = { min = 0.001 max = @math_expressions_max } }
			clamp = { min = 0 max = 1 }
		}
	}
	set_variable = {
		military_factory_total_percent = {
			value = gdp_from_mils
			divide = { value = gdp_total clamp = { min = 0.001 max = @math_expressions_max } }
			clamp = { min = 0 max = 1 }
		}
	}
	set_variable = {
		naval_factory_total_percent = {
			value = gdp_from_dockyards
			divide = { value = gdp_total clamp = { min = 0.001 max = @math_expressions_max } }
			clamp = { min = 0 max = 1 }
		}
	}
	set_variable = {
		office_fac_percent = {
			value = gdp_from_offices
			divide = { value = gdp_total clamp = { min = 0.001 max = @math_expressions_max } }
			clamp = { min = 0 max = 1 }
		}
	}
	set_variable = {
		agriculture_district_fac_percent = {
			value = gdp_from_agriculture_district
			divide = { value = gdp_total clamp = { min = 0.001 max = @math_expressions_max } }
			clamp = { min = 0 max = 1 }
		}
	}
	set_variable = {
		agriculture_percent = {
			value = gdp_from_agriculture
			divide = { value = gdp_total clamp = { min = 0.001 max = @math_expressions_max } }
			clamp = { min = 0 max = 1 }
		}
	}
	set_variable = {
		resources_percent = {
			value = gdp_from_resource_sector
			divide = { value = gdp_total clamp = { min = 0.001 max = @math_expressions_max } }
			clamp = { min = 0 max = 1 }
		}
	}
	set_variable = {
		microchip_plant_percent = {
			value = gdp_from_microchip_plant
			divide = { value = gdp_total clamp = { min = 0.001 max = @math_expressions_max } }
			clamp = { min = 0 max = 1 }
		}
	}
	set_variable = {
		composite_plant_percent = {
			value = gdp_from_composite_plant
			divide = { value = gdp_total clamp = { min = 0.001 max = @math_expressions_max } }
			clamp = { min = 0 max = 1 }
		}
	}
	set_variable = {
		synthetic_refinery_percent = {
			value = gdp_from_synthetic_refinery
			divide = { value = gdp_total clamp = { min = 0.001 max = @math_expressions_max } }
			clamp = { min = 0 max = 1 }
		}
	}
	set_variable = {
		infrastructure_gdp_percent = {
			value = gdp_from_nuclear_reactors
			add = gdp_from_fossil_powerplants
			add = gdp_from_renewable_energy
			add = gdp_from_internet_stations
			add = gdp_from_rail_terminals
			divide = { value = gdp_total clamp = { min = 0.001 max = @math_expressions_max } }
			clamp = { min = 0 max = 1 }
		}
	}
	set_variable = {
		healthcare_gdp_percent = {
			value = gdp_from_healthcare
			divide = { value = gdp_total clamp = { min = 0.001 max = @math_expressions_max } }
			clamp = { min = 0 max = 1 }
		}
	}

	# Overall productivity grows over time (on_monthly) and with techs and its the main source of economic growth for developed countries
	multiply_variable = {
		var = gdp_total
		value = {
			value = overall_productivity
			divide = global.productivity_center
		}
	}

	clamp_variable = { var = gdp_total min = 0.1 }
	set_variable = {
		gdp_per_capita = {
			value = gdp_total
			divide = population_total_m
			clamp = { min = 0 max = 100000 }
		}
	}

	calculate_gdp_modifiers = yes
	set_country_flag = energy_state_bases_initialized
	calculate_energy_use = yes
}

# Effect: calculate_gdp_modifiers
# Purpose: Updates dynamic modifiers keyed to GDP-per-capita thresholds (development stages)
calculate_gdp_modifiers = {
	if = { limit = { NOT = { check_variable = { gdp_total = last_gdp_check } } }
		set_variable = { last_gdp_check = gdp_total }
		#Add the modifier if not existing
		if = {
			limit = { NOT = { has_dynamic_modifier = { modifier = gdp_per_capita_country_modifiers } } }
			add_dynamic_modifier = { modifier = gdp_per_capita_country_modifiers }
		}
		#Construction speed factor
		#-0.012 * GDP/C + 0.572	- GDP/C c [0,30]
		#-0.001 * GDP/C + 0.230 - GDP/C c [30, 200]
		#Cap at 0
		set_variable = {
			production_speed_buildings_factor_gdp_modifier = {
				value = gdp_per_capita
				if = {
					limit = { value = gdp_per_capita less_than = 30 }
					multiply = -0.012
					add = 0.572
				}
				else = {
					multiply = -0.001
					add = 0.230
				}
				clamp = { min = 0 max = 20000 }
			}
		}

		#Population growth rate
		# (60 - GDP/c) * 0.02
		# Break-even at GDP/c = 60, clamped to 0 above
		set_variable = {
			monthly_population_gdp_modifier = {
				value = 60
				subtract = gdp_per_capita
				multiply = 0.02
				clamp = { min = 0 max = 20000 }
			}
		}

		#Research speed factor
		# 0.003 * GDP/C - 0.153
		# Break-even at GDP/c = 51, clamped to 0 above
		set_variable = {
			research_speed_factor_gdp_modifier = {
				value = gdp_per_capita
				multiply = 0.003
				add = -0.153
				clamp = { min = -1000 max = 0 }
			}
		}

		#Stability factor
		# 0.001 * GDP/C - 0.100
		# Break-even at GDP/c = 100
		set_variable = {
			stability_factor_gdp_modifier = {
				value = gdp_per_capita
				multiply = 0.001
				add = -0.1
			}
		}

		# max workforce
		# 0.100 - 0.001 * GDP/C
		# Break-even at GDP/c = 100, min clamp (-0.30) at GDP/c = 400
		set_variable = {
			total_workforce_gdp_c_modifier_var = {
				value = gdp_per_capita
				multiply = -0.001
				add = 0.1
				clamp = { min = -0.30 max = 20000 }
			}
		}

		#fossil powerplants construction speed
		# 0.5 - 0.0125 * GDP/C
		# Break-even at GDP/c = 40, min clamp (-0.75) at GDP/c = 100
		set_variable = {
			fossil_pp_construction_gdp_c_modifier_var = {
				value = gdp_per_capita
				multiply = -0.0125
				add = 0.5
				clamp = { min = -0.75 max = 20000 }
			}
		}
	}
}

calculate_tax_adjustments = {
	if = { limit = { NOT = { has_variable = population_tax_rate } } set_variable = { var = population_tax_rate value = 20 } }
	if = { limit = { NOT = { has_variable = corporate_tax_rate } } set_variable = { var = corporate_tax_rate value = 20 } }

	set_temp_variable = { pop_tax_change = 0 }
	set_temp_variable = { corp_tax_change = 0 }

	# --- TAX INCREASES (deficit response) ---

	# Population tax: raise at mild deficit (treasury_rate < -1)
	# Skip if low stability unless deficit is severe (< -5)
	if = {
		limit = {
			check_variable = { treasury_rate < -1 }
			check_variable = { population_tax_rate < 40 }
			OR = {
				has_stability > 0.24
				check_variable = { treasury_rate < -5 }
			}
		}
		set_temp_variable = { pop_tax_change = 1 }
	}

	# Corporate tax: raise at moderate deficit (treasury_rate < -2)
	# Only after population tax reaches a moderate level (> 24), or at severe deficit regardless
	if = {
		limit = {
			check_variable = { treasury_rate < -2 }
			check_variable = { corporate_tax_rate < 50 }
			OR = {
				check_variable = { population_tax_rate > 24 }
				check_variable = { treasury_rate < -5 }
			}
		}
		set_temp_variable = { corp_tax_change = 1 }
	}

	# Interest rate escalation: if interest > 8% and any deficit, force tax increases
	# Catches debt spirals early before treasury_rate thresholds are hit
	if = {
		limit = {
			check_variable = { interest_rate > 8 }
			check_variable = { treasury_rate < 0 }
		}
		if = {
			limit = {
				check_variable = { population_tax_rate < 40 }
				check_variable = { pop_tax_change = 0 }
			}
			set_temp_variable = { pop_tax_change = 1 }
		}
		if = {
			limit = {
				check_variable = { corporate_tax_rate < 50 }
				check_variable = { corp_tax_change = 0 }
			}
			set_temp_variable = { corp_tax_change = 1 }
		}
	}

	# --- TAX DECREASES (surplus response) ---

	# When surplus is healthy and debt is manageable, lower taxes
	# Prefer lowering corporate tax first (it drags productivity and investment)
	if = {
		limit = {
			check_variable = { treasury_rate > 2 }
			check_variable = { debt_ratio < 0.30 }
			check_variable = { interest_rate < 5 }
			check_variable = { pop_tax_change = 0 }
			check_variable = { corp_tax_change = 0 }
		}
		if = {
			limit = { check_variable = { corporate_tax_rate > 10 } }
			set_temp_variable = { corp_tax_change = -1 }
		}
		else_if = {
			limit = { check_variable = { population_tax_rate > 15 } }
			set_temp_variable = { pop_tax_change = -1 }
		}
	}

	# Low stability override: lower population tax to restore stability
	if = {
		limit = {
			has_stability < 0.30
			check_variable = { population_tax_rate > 20 }
			check_variable = { treasury_rate > 0 }
			check_variable = { pop_tax_change = 0 }
		}
		set_temp_variable = { pop_tax_change = -1 }
	}

	# Factory scarcity: lower corporate tax to attract investment
	if = {
		limit = {
			num_of_available_civilian_factories < 10
			check_variable = { corporate_tax_rate > 15 }
			check_variable = { treasury_rate > 0 }
			check_variable = { corp_tax_change = 0 }
		}
		set_temp_variable = { corp_tax_change = -1 }
	}
}

calculate_ai_taxes_desire = {
	calculate_tax_adjustments = yes

	# --- APPLY AND CLAMP ---
	if = { limit = { is_debug = yes }
		log = "[GetDateText]: [THIS.GetName]: AI Tax: Pop [?pop_tax_change] ([?population_tax_rate]%), Corp [?corp_tax_change] ([?corporate_tax_rate]%), Treasury: [?treasury_rate], Interest: [?interest_rate]%"
	}

	if = { limit = { NOT = { check_variable = { pop_tax_change = 0 } } }
		add_to_variable = { population_tax_rate = pop_tax_change }
	}
	if = { limit = { NOT = { check_variable = { corp_tax_change = 0 } } }
		add_to_variable = { corporate_tax_rate = corp_tax_change }
	}

	clamp_variable = { var = population_tax_rate min = 0 max = 50 }
	clamp_variable = { var = corporate_tax_rate min = 0 max = 50 }
}

# Effect: calculate_new_education_spending_tooltip
# Purpose: Calculates next-level education spending cost for the education law tooltip
calculate_new_education_spending_tooltip = {
	set_temp_variable = {
		research_slot_tot = {
			value = amount_research_slots
			add = 1
			multiply = 0.04
			add = -0.2
		}
	}
	custom_effect_tooltip = calculate_new_education_spending_tt
}

# Effect: worker_requirements_variable_gdpc_converging
# Purpose: Converges worker requirements toward sector baselines as GDP per capita rises
worker_requirements_variable_gdpc_converging = {
	set_temp_variable = {
		temp_difference = {
			value = gdp_per_capita
			subtract = gdpc_converging_var
			multiply = 0.25
		}
	}

	add_to_variable = { gdpc_converging_var = temp_difference }
}

# Effect: calculate_migration_mechanic_values
# Purpose: Calculates the effects of the migration mechanic.
calculate_migration_mechanic_values = {
	# Recreate the Array
	resize_array = { array = array_border_control_spend size = 5 value = 0 }

	#Calculate the base cost of police levels
	for_each_loop = {
		array = array_border_control_spend
		index = i
		value = v
		set_variable = {
			array_border_control_spend^i = {
				value = population_total
				# Multiplier for Country Content
				multiply = {
					value = 1
					add = modifier@border_control_multiplier_modifier
				}
				multiply = {
					value = 1
					add = modifier@inflation_cost_multiplier_modifier
				}
				# GDP Per Capita Scaling
				multiply = {
					value = gdp_per_capita
					multiply = @spending_laws_gdp_scaling
					add = 1
				}
				# Scaling Costs + base cost per 10 000 000 people
				multiply = 0.07
				multiply = 0.004
				clamp = { min = 0 max = @spending_cost_clamp_max }
				multiply = global.spending_ladder_standard^i
			}
		}
	}

	#Set which spending level the country is at
	set_temp_variable = { border_control_index = { value = migration_law subtract = 1 clamp = { min = 0 max = 4 } } }

	set_variable = { border_control_gain = { value = array_border_control_spend^border_control_index clamp = { min = 0 max = @math_expressions_max } } }

	# Productivity Calculation
	set_variable = {
		immigration_productivity_calculations_display = {
			value = overall_productivity
			divide = global.average_world_productivity
			subtract = 1
		}
	}

	# Calculate Unemployment/Worker fulfillment
	set_variable = {
		immigration_employment_factor_display = {
			value = 0
			if = {
				limit = { value = average_worker_fulfillment less_than = 1 }
				add = 1
				subtract = average_worker_fulfillment
			}
			else = {
				add = total_unemployed_percentage_display
				multiply = -2
			}
		}
	}

	# Government Section
	set_temp_variable = { immigration_government_factor = 0 }
	if = { limit = { has_liberal_government = yes }
		add_to_temp_variable = { immigration_government_factor = 0.05 }
	}
	if = { limit = { has_conservative_government = yes }
		add_to_temp_variable = { immigration_government_factor = -0.05 }
	}
	set_variable = { immigration_government_factor_display = immigration_government_factor }

	# Sum population of neighbors at war, scaled by the refugee adjuster
	set_variable = {
		neighbour_war_refugees_display = {
			value = 0
			every_collection = {
				named_collection = neighbors_collection
				if = {
					limit = { value = enemies^num greater_than = 0 }
					add = population_total_m
					multiply = @refugee_percentage_adjuster
				}
			}
		}
	}

	# Outflow when we are at war
	set_variable = {
		personal_war_refugees_display = {
			value = 0
			if = {
				limit = { value = enemies^num greater_than = 0 }
				add = population_total_m
				multiply = @refugee_percentage_adjuster
				multiply = 0.20
				multiply = {
					value = 0.50
					subtract = modifier@war_support_factor
					clamp = { min = 0 max = 1 }
				}
				multiply = -1
			}
		}
	}

	# Calculate Net Immigration Rate
	set_variable = {
		max_net_immigration_rate = {
			value = immigration_productivity_calculations_display
			add = immigration_employment_factor_display
			add = immigration_government_factor_display
			add = modifier@maximum_migration_rate_value
			add = neighbour_war_refugees_display
			add = personal_war_refugees_display
			clamp = { min = -2.0 max = 2.0 }
		}
	}

	# Calculate Migration Rate
	set_temp_variable = {
		migration_rate_value = {
			value = modifier@base_migration_rate_value
			if = {
				limit = { value = modifier@base_migration_rate_value greater_than = 0 }
				multiply = {
					value = 1
					add = modifier@migration_rate_value_factor
					clamp = { min = 0.01 max = @math_expressions_max }
				}
			}
			else = {
				divide = {
					value = 1
					add = modifier@migration_rate_value_factor
					clamp = { min = 0.01 max = @math_expressions_max }
				}
			}
		}
	}

	# Check if there are other countries
	if = { limit = { check_variable = { global.countries^num < 2 } }
		set_variable = { max_net_immigration_rate = 0 }
	}
	set_variable = {
		net_immigration_rate = {
			value = max_net_immigration_rate
			multiply = migration_rate_value
			if = { limit = { value = global.countries^num greater_than = 0 }
				clamp = { min = -2.0 max = max_net_immigration_rate }
			}
			else = {
				clamp = { min = 0 max = 0 }
			}
		}
	}
}

# Effect: calculate_cost_pp_economic_cycles
# Purpose: Computes political-point cost to unlock economic-cycle tiers
calculate_cost_pp_economic_cycles = {
	set_temp_variable = { tmp_tax_gain_multiplier_modifier = modifier@tax_gain_multiplier_modifier }
	set_temp_variable = { tmp_production_speed_buildings_factor = modifier@production_speed_buildings_factor }
	set_temp_variable = { tmp_stability_factor = modifier@stability_factor }
	set_temp_variable = { tmp_political_power_gain = modifier@political_power_gain }

	if = { limit = { has_idea = recession }
		set_variable = { pp_cost_economic = 150 }
		add_to_temp_variable = { tmp_tax_gain_multiplier_modifier = 0.20 }
		add_to_temp_variable = { tmp_production_speed_buildings_factor = 0.15 }
		add_to_temp_variable = { tmp_stability_factor = 0.05 }
	}
	else_if = { limit = { has_idea = stagnation }
		set_variable = { pp_cost_economic = 200 }
		add_to_temp_variable = { tmp_tax_gain_multiplier_modifier = 0.10 }
		add_to_temp_variable = { tmp_production_speed_buildings_factor = 0.40 }
		add_to_temp_variable = { tmp_stability_factor = 0.02 }
	}
	else_if = { limit = { has_idea = stable_growth }
		set_variable = { pp_cost_economic = 250 }
		add_to_temp_variable = { tmp_production_speed_buildings_factor = 0.65 }
	}
	else_if = { limit = { has_idea = fast_growth }
		set_variable = { pp_cost_economic = 300 }
		add_to_temp_variable = { tmp_tax_gain_multiplier_modifier = 0.05 }
		add_to_temp_variable = { tmp_production_speed_buildings_factor = 0.90 }
		add_to_temp_variable = { tmp_stability_factor = 0.02 }
	}
	else_if = { limit = { has_idea = economic_boom }
		set_variable = { pp_cost_economic = 350 }
		add_to_temp_variable = { tmp_tax_gain_multiplier_modifier = 0.10 }
		add_to_temp_variable = { tmp_production_speed_buildings_factor = 1.10 }
		add_to_temp_variable = { tmp_stability_factor = 0.04 }
	}

	multiply_variable = { pp_cost_economic = tmp_tax_gain_multiplier_modifier }
	multiply_variable = { pp_cost_economic = tmp_production_speed_buildings_factor }
	multiply_variable = { pp_cost_economic = tmp_stability_factor }
	clamp_temp_variable = { var = tmp_political_power_gain min = 0.001 }
	divide_variable = { pp_cost_economic = tmp_political_power_gain }

	if = { limit = { is_debug = yes }
		log = "[GetDateText]: [THIS.GetName]: Next Cycle Political Power Cost: [?pp_cost_economic]"
	}
}

# Effect: setup_employment_variables
# Purpose: Sets up default employment variables for nations when this is called. Mostly used in the in game startup effects
setup_employment_variables = {
	if = { limit = { check_variable = { nation_to_copy_from = 0 } }
		set_variable = { market_sold_contracts = 0 }
		set_variable = { civilian_factory_employment_var = 1 }
		set_variable = { naval_factory_employment_var = 1 }
		set_variable = { military_factory_employment_var = 1 }
		set_variable = { office_employment_var = 1 }
		set_variable = { microchip_plant_employment_var = 1 }
		set_variable = { composite_plant_employment_var = 1 }
		set_variable = { agriculture_district_employment_var = 1 }
		set_variable = { synthetic_refinery_employment_var = 1 }
		set_variable = { nuclear_reactor_employment_var = 1 }
		set_variable = { fossil_powerplant_employment_var = 1 }
		set_variable = { renewable_energy_employment_var = 1 }
		set_variable = { internet_station_employment_var = 1 }
		set_variable = { rail_terminal_employment_var = 1 }
		if = {
			limit = { NOT = { has_variable = corporate_tax_rate } }
			set_variable = { var = corporate_tax_rate value = 20 }
		}
		if = {
			limit = { NOT = { has_variable = population_tax_rate } }
			set_variable = { var = population_tax_rate value = 20 }
		}
	}
	else = {
		var:nation_to_copy_from = {
			set_variable = { PREV.civilian_factory_employment_var = civilian_factory_employment_var }
			set_variable = { PREV.naval_factory_employment_var = naval_factory_employment_var }
			set_variable = { PREV.military_factory_employment_var = military_factory_employment_var }
			set_variable = { PREV.office_employment_var = office_employment_var }
			set_variable = { PREV.microchip_plant_employment_var = microchip_plant_employment_var }
			set_variable = { PREV.composite_plant_employment_var = composite_plant_employment_var }
			set_variable = { PREV.agriculture_district_employment_var = agriculture_district_employment_var }
			set_variable = { PREV.synthetic_refinery_employment_var = synthetic_refinery_employment_var }
			set_variable = { PREV.nuclear_reactor_employment_var = nuclear_reactor_employment_var }
			set_variable = { PREV.fossil_powerplant_employment_var = fossil_powerplant_employment_var }
			set_variable = { PREV.renewable_energy_employment_var = renewable_energy_employment_var }
			set_variable = { PREV.internet_station_employment_var = internet_station_employment_var }
			set_variable = { PREV.rail_terminal_employment_var = rail_terminal_employment_var }
			set_variable = { var = PREV.corporate_tax_rate value = corporate_tax_rate }
			set_variable = { var = PREV.population_tax_rate value = population_tax_rate }
		}
	}

	# Set for the power ranking system
	set_country_group_flags = yes
}

# Effect: set_initial_cost_resources
# Purpose: Initializes base market prices for all resources (oil, steel, minerals, microchips, composites)
set_initial_cost_resources = {
	#Set the base price for single unit of resource, this is the relative price between resources
	set_variable = { global.oil_price = 7.2 } #Divided 50/50 based on oil/natural gas price #Limited to 5, was 28
	set_variable = { global.steel_price = 0.04 } #Based on steel price
	set_variable = { global.aluminium_price = 0.26 }	#Based on aluminium price
	set_variable = { global.tungsten_price = 0.28 }	#Based on copper price
	set_variable = { global.chromium_price = 0.18 }	#Based on gold price
	set_variable = { global.rubber_price = 0.09 }	#Based on rubber price
	set_variable = { global.microchip_price = 2.5 }
	set_variable = { global.composite_price = 2.1 }

	set_variable = { global.starting_oil_price = 7.2 } #Divided 50/50 based on oil/natural gas price #Limited to 5, was 28
	set_variable = { global.starting_steel_price = 0.04 } #Based on steel price
	set_variable = { global.starting_aluminium_price = 0.26 }	#Based on aluminium price
	set_variable = { global.starting_tungsten_price = 0.28 }	#Based on copper price
	set_variable = { global.starting_chromium_price = 0.18 }	#Based on gold price
	set_variable = { global.starting_rubber_price = 0.09 }	#Based on rubber price
	set_variable = { global.starting_microchips_price = 2.5 }
	set_variable = { global.starting_composites_price = 2.1 }
}

# Effect: recalculate_resources_price
# Purpose: Adjusts resource prices based on global supply and demand shifts
recalculate_resources_price = {
	#Set the current global supply + demand
	set_temp_variable = { sum_steel = { value = 0 every_collection = { named_collection = all_countries_collection add = resource_exported@steel } } }
	set_temp_variable = { sum_rubber = { value = 0 every_collection = { named_collection = all_countries_collection add = resource_exported@rubber } } }
	set_temp_variable = { sum_oil = { value = 0 every_collection = { named_collection = all_countries_collection add = resource_exported@oil } } }
	set_temp_variable = { sum_alum = { value = 0 every_collection = { named_collection = all_countries_collection add = resource_exported@aluminium } } }
	set_temp_variable = { sum_tungsten = { value = 0 every_collection = { named_collection = all_countries_collection add = resource_exported@tungsten } } }
	set_temp_variable = { sum_chromium = { value = 0 every_collection = { named_collection = all_countries_collection add = resource_exported@chromium } } }
	set_temp_variable = { sum_microchips = { value = 0 every_collection = { named_collection = all_countries_collection add = resource_exported@microchips } } }
	set_temp_variable = { sum_composites = { value = 0 every_collection = { named_collection = all_countries_collection add = resource_exported@composites } } }

	set_temp_variable = { sum_import_steel = { value = 0 every_collection = { named_collection = all_countries_collection add = resource_imported@steel } } }
	set_temp_variable = { sum_import_rubber = { value = 0 every_collection = { named_collection = all_countries_collection add = resource_imported@rubber } } }
	set_temp_variable = { sum_import_oil = { value = 0 every_collection = { named_collection = all_countries_collection add = resource_imported@oil } } }
	set_temp_variable = { sum_import_alum = { value = 0 every_collection = { named_collection = all_countries_collection add = resource_imported@aluminium } } }
	set_temp_variable = { sum_import_tungsten = { value = 0 every_collection = { named_collection = all_countries_collection add = resource_imported@tungsten } } }
	set_temp_variable = { sum_import_chromium = { value = 0 every_collection = { named_collection = all_countries_collection add = resource_imported@chromium } } }
	set_temp_variable = { sum_import_microchips = { value = 0 every_collection = { named_collection = all_countries_collection add = resource_imported@microchips } } }
	set_temp_variable = { sum_import_composites = { value = 0 every_collection = { named_collection = all_countries_collection add = resource_imported@composites } } }

	#Set the % of supply used by doing demand / supply
	#If using > 50% of supply, price should go up
	#If using < 50% of supply, price should go down
	#Average this around the base price, so that we dont end with constant rising / falling prices
	divide_temp_variable = { sum_import_steel = sum_steel }
	divide_temp_variable = { sum_import_rubber = sum_rubber }
	divide_temp_variable = { sum_import_oil = sum_oil }
	divide_temp_variable = { sum_import_alum = sum_alum }
	divide_temp_variable = { sum_import_tungsten = sum_tungsten }
	divide_temp_variable = { sum_import_chromium = sum_chromium }
	divide_temp_variable = { sum_import_microchips = sum_microchips }
	divide_temp_variable = { sum_import_composites = sum_composites }

	multiply_temp_variable = { sum_import_steel = 2 }
	multiply_temp_variable = { sum_import_rubber = 2 }
	multiply_temp_variable = { sum_import_oil = 2 }
	multiply_temp_variable = { sum_import_alum = 2 }
	multiply_temp_variable = { sum_import_tungsten = 2 }
	multiply_temp_variable = { sum_import_chromium = 2 }
	multiply_temp_variable = { sum_import_microchips = 2 }
	multiply_temp_variable = { sum_import_composites = 2 }

	set_temp_variable = { oil_price_adjuster = global.starting_oil_price }
	set_temp_variable = { steel_price_adjuster = global.starting_steel_price }
	set_temp_variable = { rubber_price_adjuster = global.starting_rubber_price }
	set_temp_variable = { alum_price_adjuster = global.starting_aluminium_price }
	set_temp_variable = { tungsten_price_adjuster = global.starting_tungsten_price }
	set_temp_variable = { chromium_price_adjuster = global.starting_chromium_price }
	set_temp_variable = { microchips_price_adjuster = global.starting_microchips_price }
	set_temp_variable = { composites_price_adjuster = global.starting_composites_price }

	multiply_temp_variable = { oil_price_adjuster = sum_import_oil }
	multiply_temp_variable = { steel_price_adjuster = sum_import_steel }
	multiply_temp_variable = { rubber_price_adjuster = sum_import_rubber }
	multiply_temp_variable = { alum_price_adjuster = sum_import_alum }
	multiply_temp_variable = { tungsten_price_adjuster = sum_import_tungsten }
	multiply_temp_variable = { chromium_price_adjuster = sum_import_chromium }
	multiply_temp_variable = { microchips_price_adjuster = sum_import_microchips }
	multiply_temp_variable = { composites_price_adjuster = sum_import_composites }

	#Clamp the prices at their min / max after adjusting them for supply & demand
	clamp_temp_variable = { var = steel_price_adjuster min = 0.005 max = 0.120 }
	clamp_temp_variable = { var = oil_price_adjuster min = 1.36 max = 38 }
	clamp_temp_variable = { var = rubber_price_adjuster min = 0.018 max = 0.45 }
	clamp_temp_variable = { var = alum_price_adjuster min = 0.042 max = 1.05 }
	clamp_temp_variable = { var = tungsten_price_adjuster min = 0.056 max = 1.4 }
	clamp_temp_variable = { var = chromium_price_adjuster min = 0.036 max = 0.9 }
	clamp_temp_variable = { var = microchips_price_adjuster min = 1.58 max = 40.0 }
	clamp_temp_variable = { var = composites_price_adjuster min = 1.42 max = 35.0 }

	set_variable = { global.oil_price = oil_price_adjuster } #Divided 50/50 based on oil/natural gas price #Limited to 5, was 28
	set_variable = { global.steel_price = steel_price_adjuster } #Based on steel price
	set_variable = { global.aluminium_price = alum_price_adjuster }	#Based on aluminium price
	set_variable = { global.tungsten_price = tungsten_price_adjuster }	#Based on copper price
	set_variable = { global.chromium_price = chromium_price_adjuster }	#Based on gold price
	set_variable = { global.rubber_price = rubber_price_adjuster }	#Based on rubber price
	set_variable = { global.microchip_price = microchips_price_adjuster }
	set_variable = { global.composite_price = composites_price_adjuster }

	if = {
		limit = { is_debug = yes }
		log = "Current resource prices: steel = [?global.steel_price] rubber = [?global.rubber_price] oil = [?global.oil_price] alum = [?global.aluminium_price] tungsten = [?global.tungsten_price] chromium = [?global.chromium_price] Resource coeff = [?global.resource_gdp_coeff]"
	}
}

# Effect: calculate_united_nations_base_budget
# Purpose: Computes total UN operating budget and collects per-nation mandatory contributions
calculate_united_nations_base_budget = {
	set_variable = { global.un_operating_budget_base = 0 }
	set_variable = { global.total_aid_expenses_sum = 0 }
	clear_array = global.UN_budget_contribution_tracker
	clear_variable = global.target_const_speed_mod
	clear_variable = global.target_research_speed_mod
	clear_variable = global.target_civ_count
	clear_variable = global.average_gdp_capita

	set_temp_variable = { peak_const_speed_mod = 0 }
	set_temp_variable = { peak_research_speed_mod = 0 }
	set_temp_variable = { peak_civ_count = 0 }
	set_temp_variable = { average_gdp_capita = 0 }
	set_temp_variable = { peak_prod_mod = 0 }

	every_collection_element = {
		input = { input = collection:un_general_assembly_members_collection }
		set_variable = {
			united_nations_base_expenses = {
				value = gdp_total
				multiply = global.general_operating_budget_contribute_percent
				divide = 52
			}
		}

		if = {
			limit = {
				check_variable = { united_nations_base_expenses > 0.001 }
			}
			add_to_variable = { global.un_operating_budget_base = united_nations_base_expenses }
			add_to_array = { global.un_operating_budget_contributors = THIS }

			set_variable = {
				united_nations_expenses = {
					value = united_nations_base_expenses
					multiply = { value = 1 add = modifier@inflation_cost_multiplier_modifier }
				}
			}
			set_variable = { united_nations_old_aid_expenses = 0 }
		}

		set_temp_variable = { unsubsidized_const_speed = modifier@production_speed_buildings_factor }
		set_temp_variable = { unsubsidized_research_speed = modifier@research_speed_factor }
		set_temp_variable = { unsubsidized_civ_count = industrial_complex_total }
		if = {
			limit = { has_country_flag = is_getting_ido_subsidies }
			subtract_from_temp_variable = { unsubsidized_const_speed = un_ido_construction_speed_var }
			subtract_from_temp_variable = { unsubsidized_civ_count = un_ido_old_building_count }
		}
		if = {
			limit = { has_country_flag = is_getting_esco_subsidies }
			subtract_from_temp_variable = { unsubsidized_research_speed = un_esco_research_speed_var }
		}

		add_to_variable = { global.target_const_speed_mod = unsubsidized_const_speed }
		add_to_variable = { global.target_research_speed_mod = unsubsidized_research_speed }
		add_to_variable = { global.target_civ_count = unsubsidized_civ_count }
		add_to_variable = { global.average_gdp_capita = gdp_per_capita }

		if = {
			limit = { check_variable = { peak_const_speed_mod < unsubsidized_const_speed } }
			set_temp_variable = { peak_const_speed_mod = unsubsidized_const_speed }
		}

		if = {
			limit = { check_variable = { peak_research_speed_mod < unsubsidized_research_speed } }
			set_temp_variable = { peak_research_speed_mod = unsubsidized_research_speed }
		}

		if = {
			limit = { check_variable = { peak_civ_count < unsubsidized_civ_count } }
			set_temp_variable = { peak_civ_count = unsubsidized_civ_count }
		}

		if = {
			limit = {
				check_variable = { peak_prod_mod < overall_productivity }
			}
			set_temp_variable = { peak_prod_mod = overall_productivity }
		}
		set_country_flag = update_cdf
		set_country_flag = update_ido
		set_country_flag = update_esco
		calculate_base_program_contributions = yes
		add_to_variable = { global.total_aid_expenses_sum = united_nations_aid_expenses }
	}

	set_temp_variable = { un_member_count = { value = 0 every_collection = { named_collection = un_general_assembly_members_collection add = 1 } } }
	if = {
		limit = { check_variable = { un_member_count > 0 } }
		divide_variable = { global.target_const_speed_mod = un_member_count }
		divide_variable = { global.target_research_speed_mod = un_member_count }
		divide_variable = { global.target_civ_count = un_member_count }
		divide_variable = { global.average_gdp_capita = un_member_count }
	}

	multiply_temp_variable = { peak_const_speed_mod = 0.6 }
	multiply_temp_variable = { peak_civ_count = 0.05 }
	multiply_temp_variable = { peak_research_speed_mod = 0.4 }
	multiply_temp_variable = { peak_prod_mod = 0.1 }

	set_variable = { global.world_productivity_target = { value = global.average_world_productivity add = peak_prod_mod } }
	add_to_variable = { global.target_const_speed_mod = peak_const_speed_mod }
	add_to_variable = { global.target_research_speed_mod = peak_research_speed_mod }
	add_to_variable = { global.target_civ_count = peak_civ_count }

	for_each_loop = {
		array = global.un_operating_budget_contributors
		value = v

		var:v = {
			set_variable = { united_nations_contribution_percent = united_nations_base_expenses }
			if = {
				limit = { check_variable = { global.un_operating_budget_base > 0 } }
				divide_variable = { united_nations_contribution_percent = global.un_operating_budget_base }
			}
			add_to_temp_array = { temp_array_mover = united_nations_base_expenses }
			add_to_temp_array = { nation_tracker = THIS }
		}
	}

	set_temp_variable = { end_number = temp_array_mover^num }

	for_loop_effect = {
		end = end_number
		value = temp

		find_highest_in_array = {
			array = temp_array_mover
			value = var_tracker
			index = temp_index_track
		}

		set_temp_variable = { nation_adder = nation_tracker^temp_index_track }
		add_to_array = { global.UN_budget_contribution_tracker = nation_adder }

		remove_from_temp_array = {
			array = nation_tracker
			index = temp_index_track
		}

		remove_from_temp_array = {
			array = temp_array_mover
			index = temp_index_track
		}
	}

	clear_array = global.un_operating_budget_contributors

	calculate_un_program_budgets = yes
}

# Effect: calculate_base_program_contributions
# Purpose: Computes mandatory UN program contributions (UNESCO, IAEA, ILO) for UN members
calculate_base_program_contributions = {
	if = {
		limit = {
			has_idea = un_aid_esco_member
			has_country_flag = update_esco
		}
		set_variable = { united_nations_esco_mandatory_funding = { value = display_income multiply = 0.01 } }
		set_variable = { united_nations_unescoe_funding = united_nations_esco_mandatory_funding }
		clr_country_flag = update_esco
	} else_if = {
		limit = { NOT = { has_idea = un_aid_esco_member } }
		set_variable = { united_nations_esco_mandatory_funding = 0 }
		set_variable = { united_nations_unescoe_funding = 0 }
	}

	if = {
		limit = {
			has_idea = un_aid_ido_member
			has_country_flag = update_ido
		}
		set_variable = { united_nations_ido_mandatory_funding = { value = display_income multiply = 0.015 } }
		set_variable = { united_nations_unido_funding = united_nations_ido_mandatory_funding }
		clr_country_flag = update_ido
	} else_if = {
		limit = { NOT = { has_idea = un_aid_ido_member } }
		set_variable = { united_nations_ido_mandatory_funding = 0 }
		set_variable = { united_nations_unido_funding = 0 }
	}

	if = {
		limit = {
			has_idea = un_aid_cdf_member
			has_country_flag = update_cdf
		}
		set_variable = { united_nations_cdf_mandatory_funding = { value = display_income multiply = 0.025 } }
		set_variable = { united_nations_uncdf_funding = united_nations_cdf_mandatory_funding }
		clr_country_flag = update_cdf
	} else_if = {
		limit = { NOT = { has_idea = un_aid_cdf_member } }
		set_variable = { united_nations_cdf_mandatory_funding = 0 }
		set_variable = { united_nations_uncdf_funding = 0 }
	}
	update_optional_contributions = yes
}

# Effect: update_optional_contributions
# Purpose: Adds optional UN program contributions on top of mandatory amounts
update_optional_contributions = {
	# United Nations Contribution Expenses
	if = { limit = { has_dynamic_modifier = { modifier = united_nations_member } }
		set_variable = { united_nations_aid_expenses = 0 }
		if = {
			limit = {
				has_idea = un_aid_esco_member
			}
			set_variable = { united_nations_unescoe_funding = { value = united_nations_esco_mandatory_funding add = united_nations_esco_optional_funding } }
			add_to_variable = { united_nations_aid_expenses = united_nations_unescoe_funding }
		} else = {
			set_variable = { united_nations_esco_optional_funding = 0 }
		}

		if = {
			limit = {
				has_idea = un_aid_ido_member
			}
			set_variable = { united_nations_unido_funding = { value = united_nations_ido_mandatory_funding add = united_nations_ido_optional_funding } }
			add_to_variable = { united_nations_aid_expenses = united_nations_unido_funding }
		} else = {
			set_variable = { united_nations_ido_optional_funding = 0 }
		}

		if = {
			limit = {
				has_idea = un_aid_cdf_member
			}
			set_variable = { united_nations_uncdf_funding = { value = united_nations_cdf_mandatory_funding add = united_nations_cdf_optional_funding } }
			add_to_variable = { united_nations_aid_expenses = united_nations_uncdf_funding }
		} else = {
			set_variable = { united_nations_cdf_optional_funding = 0 }
		}

		if = {
			limit = {
				NOT = { check_variable = { united_nations_old_aid_expenses = united_nations_aid_expenses } }
			}
			set_variable = {
				united_nations_expenses = {
					value = united_nations_base_expenses
					multiply = { value = 1 add = modifier@inflation_cost_multiplier_modifier }
					add = united_nations_aid_expenses
				}
			}
			set_variable = { united_nations_old_aid_expenses = united_nations_aid_expenses }
		}
	}
}

# Effect: calculate_un_program_budgets
# Purpose: Distributes UN operating budget among UN programs (UNESCO, UNDIO, UNCDF)
calculate_un_program_budgets = {
	set_temp_variable = { base_budget_number = { value = global.un_operating_budget_base divide = 3 } }

	set_variable = {
		global.unescoe_budget = {
			value = 0
			add = base_budget_number
		}
	}

	set_variable = {
		global.undio_budget = {
			value = 0
			add = base_budget_number
		}
	}

	set_variable = {
		global.uncdf_budget = {
			value = 0
			add = base_budget_number
		}
	}

	every_collection_element = {
		input = { input = collection:un_general_assembly_members_collection }
		add_to_variable = { global.unescoe_budget = united_nations_unescoe_funding }
		add_to_variable = { global.undio_budget = united_nations_unido_funding }
		add_to_variable = { global.uncdf_budget = united_nations_uncdf_funding }
		set_variable = { united_nations_aid_program_contribution_percent = united_nations_aid_expenses }
		if = {
			limit = { check_variable = { global.total_aid_expenses_sum > 0 } }
			divide_variable = { united_nations_aid_program_contribution_percent = global.total_aid_expenses_sum }
		}
		check_for_subsidy_expiration = yes
	}

	calcluate_program_distributions = yes
}

# Effect: calcluate_program_distributions
# Purpose: Divides UN program budgets among eligible recipient countries
# Note: function name is misspelled (calcluate); kept as-is because external callers depend on it
calcluate_program_distributions = {
	set_variable = { global.esco_recipient_divisor = { value = 0 every_collection = { named_collection = un_esco_recipients_collection add = 1 } clamp = { min = 1 max = @math_expressions_max } } }
	set_variable = { global.ido_recipient_divisor = { value = 0 every_collection = { named_collection = un_ido_recipients_collection add = 1 } clamp = { min = 1 max = @math_expressions_max } } }
	set_variable = { global.cdf_recipient_divisor = { value = 0 every_collection = { named_collection = un_cdf_recipients_collection add = 1 } clamp = { min = 1 max = @math_expressions_max } } }

	set_temp_variable = {
		esco_political_budget = {
			value = global.unescoe_budget
			multiply = 0.25
			divide = global.esco_recipient_divisor
		}
	}

	set_temp_variable = {
		esco_research_budget = {
			value = global.unescoe_budget
			multiply = 0.75
			divide = global.esco_recipient_divisor
		}
	}

	every_collection_element = {
		input = { input = collection:un_esco_recipients_collection }
		set_variable = { un_esco_political_power_var = { value = esco_political_budget multiply = 0.2 } }
		set_variable = { un_esco_research_speed_var = { value = esco_research_budget multiply = 0.2 clamp = { min = 0 max = 0.30 } } }
	}

	set_temp_variable = {
		construction_speed_buffs = {
			value = global.undio_budget
			multiply = 0.25
			divide = global.ido_recipient_divisor
		}
	}

	set_temp_variable = {
		factory_lease_amounts = {
			value = global.undio_budget
			multiply = 0.75
			divide = global.ido_recipient_divisor
			divide = 0.14
			round = yes
		}
	}

	set_temp_variable = { un_ido_building_count = factory_lease_amounts }

	every_collection_element = {
		input = { input = collection:un_ido_recipients_collection }
		set_variable = { un_ido_current_building_count = un_ido_building_count }
		set_variable = { un_ido_construction_speed_var = { value = construction_speed_buffs multiply = 0.2 clamp = { min = 0 max = 0.30 } } }
		set_variable = {
			un_ido_investment_speed_var = {
				value = un_ido_construction_speed_var
				multiply = -1
			}
		}
		if = {
			limit = {
				NOT = { check_variable = { un_ido_old_building_count = un_ido_building_count } }
			}

			set_temp_variable = { building_holder = { value = un_ido_building_count subtract = un_ido_old_building_count } }
			add_offsite_building = { type = industrial_complex level = building_holder }
			set_variable = { un_ido_old_building_count = un_ido_building_count }
		}
	}

	set_temp_variable = {
		prod_var = {
			value = global.uncdf_budget
			multiply = 0.45
			divide = global.cdf_recipient_divisor
		}
	}

	set_temp_variable = {
		cost_var = {
			value = global.uncdf_budget
			multiply = 0.55
			divide = global.cdf_recipient_divisor
			multiply = -0.2
		}
	}

	every_collection_element = {
		input = { input = collection:un_cdf_recipients_collection }
		set_variable = { un_cdf_productivity_var = { value = prod_var multiply = 0.2 clamp = { min = 0 max = 0.30 } } }
		set_variable = { un_cdf_construction_cost_var = cost_var }
	}
	set_variable = { global.full_aid_budget_calculator = { value = global.uncdf_budget add = global.undio_budget add = global.unescoe_budget } }

	every_collection_element = {
		input = { input = collection:un_general_assembly_members_collection }
		calculate_final_un_benefits = yes
	}

	sort_un_aid_contributor_arrays = yes
	international_systems_update = yes
}

# Effect: sort_un_aid_contributor_arrays
# Purpose: Sorts UN program contributors by contribution amount (for subsidy distribution rank)
sort_un_aid_contributor_arrays = {
	#Sort ESCO contributors by united_nations_unescoe_funding (highest first)
	for_each_loop = {
		array = global.un_aid_esco_contributor
		value = v

		var:v = {
			add_to_temp_array = { esco_sort_values = united_nations_unescoe_funding }
			add_to_temp_array = { esco_sort_nations = THIS }
		}
	}

	clear_array = global.un_aid_esco_contributor
	set_temp_variable = { esco_sort_end = esco_sort_values^num }
	for_loop_effect = {
		end = esco_sort_end

		find_highest_in_array = {
			array = esco_sort_values
			index = esco_sort_idx
		}

		set_temp_variable = { esco_sort_nation = esco_sort_nations^esco_sort_idx }
		add_to_array = { global.un_aid_esco_contributor = esco_sort_nation }

		remove_from_temp_array = { array = esco_sort_nations index = esco_sort_idx }
		remove_from_temp_array = { array = esco_sort_values index = esco_sort_idx }
	}

	#Sort IDO contributors by united_nations_unido_funding (highest first)
	for_each_loop = {
		array = global.un_aid_ido_contributor
		value = v

		var:v = {
			add_to_temp_array = { ido_sort_values = united_nations_unido_funding }
			add_to_temp_array = { ido_sort_nations = THIS }
		}
	}

	clear_array = global.un_aid_ido_contributor
	set_temp_variable = { ido_sort_end = ido_sort_values^num }
	for_loop_effect = {
		end = ido_sort_end

		find_highest_in_array = {
			array = ido_sort_values
			index = ido_sort_idx
		}

		set_temp_variable = { ido_sort_nation = ido_sort_nations^ido_sort_idx }
		add_to_array = { global.un_aid_ido_contributor = ido_sort_nation }

		remove_from_temp_array = { array = ido_sort_nations index = ido_sort_idx }
		remove_from_temp_array = { array = ido_sort_values index = ido_sort_idx }
	}

	#Sort CDF contributors by united_nations_uncdf_funding (highest first)
	for_each_loop = {
		array = global.un_aid_cdf_contributor
		value = v

		var:v = {
			add_to_temp_array = { cdf_sort_values = united_nations_uncdf_funding }
			add_to_temp_array = { cdf_sort_nations = THIS }
		}
	}

	clear_array = global.un_aid_cdf_contributor
	set_temp_variable = { cdf_sort_end = cdf_sort_values^num }
	for_loop_effect = {
		end = cdf_sort_end

		find_highest_in_array = {
			array = cdf_sort_values
			index = cdf_sort_idx
		}

		set_temp_variable = { cdf_sort_nation = cdf_sort_nations^cdf_sort_idx }
		add_to_array = { global.un_aid_cdf_contributor = cdf_sort_nation }

		remove_from_temp_array = { array = cdf_sort_nations index = cdf_sort_idx }
		remove_from_temp_array = { array = cdf_sort_values index = cdf_sort_idx }
	}
}