--- title: Active Inference in Economic Systems Learning Path type: learning_path status: stable created: 2024-03-15 complexity: advanced processing_priority: 1 tags: - active-inference - economics - market-dynamics - decision-theory semantic_relations: - type: specializes links: [[active_inference_learning_path]] - type: relates links: - [[economic_systems_learning_path]] - [[market_dynamics_learning_path]] - [[decision_theory_learning_path]] --- # Active Inference in Economic Systems Learning Path ## Overview This specialized path focuses on applying Active Inference to understand economic systems, market dynamics, and decision-making under uncertainty. It integrates economic theory with complex systems modeling. ## Prerequisites ### 1. Economic Foundations (4 weeks) - Economic Theory - Microeconomics - Macroeconomics - Game theory - Market dynamics - Decision Theory - Utility theory - Risk assessment - Strategic planning - Behavioral economics - Research Methods - Econometrics - Time series analysis - Agent-based modeling - Market simulation - Systems Theory - Complex systems - Network economics - Dynamical systems - Information theory ### 2. Technical Skills (2 weeks) - Analysis Tools - Python/R - Economic modeling - Statistical methods - Financial analysis ## Core Learning Path ### 1. Economic Modeling (4 weeks) #### Week 1-2: Market State Inference ```python class MarketStateEstimator: def __init__(self, n_agents: int, market_dim: int): """Initialize market state estimator.""" self.agents = [EconomicAgent() for _ in range(n_agents)] self.market_state = torch.zeros(market_dim) self.trading_network = self._build_network() def estimate_state(self, market_data: torch.Tensor) -> torch.Tensor: """Estimate market state from data.""" beliefs = self._update_agent_beliefs(market_data) market_state = self._aggregate_beliefs(beliefs) return market_state ``` #### Week 3-4: Economic Decision Making ```python class EconomicController: def __init__(self, action_space: int, utility_model: UtilityFunction): """Initialize economic controller.""" self.policy = EconomicPolicy(action_space) self.utility = utility_model self.risk_model = RiskAssessment() def select_action(self, market_state: torch.Tensor, uncertainty: torch.Tensor) -> torch.Tensor: """Select economic action under uncertainty.""" expected_utility = self._compute_expected_utility(market_state) risk_adjusted_policy = self._adjust_for_risk(expected_utility, uncertainty) return self.policy.sample(risk_adjusted_policy) ``` ### 2. Market Applications (6 weeks) #### Week 1-2: Market Dynamics - Price Formation - Supply and Demand - Market Equilibrium - Trading Strategies #### Week 3-4: Strategic Behavior - Game Theory Applications - Strategic Planning - Competition Dynamics - Cooperation Mechanisms #### Week 5-6: Financial Systems - Asset Pricing - Risk Management - Portfolio Optimization - Market Efficiency ### 3. Economic Policy (4 weeks) #### Week 1-2: Policy Design ```python class PolicyDesigner: def __init__(self, economy_model: EconomyModel, policy_objectives: List[Objective]): """Initialize policy designer.""" self.model = economy_model self.objectives = policy_objectives self.constraints = PolicyConstraints() def design_policy(self, current_state: torch.Tensor, target_state: torch.Tensor) -> Policy: """Design optimal policy intervention.""" policy_space = self._generate_policy_space() evaluated_policies = self._evaluate_policies(policy_space) return self._select_optimal_policy(evaluated_policies) ``` #### Week 3-4: Impact Analysis - Policy Evaluation - Welfare Analysis - Distributional Effects - Systemic Risk ### 4. Advanced Topics (4 weeks) #### Week 1-2: Complex Economic Networks ```python class EconomicNetwork: def __init__(self, n_institutions: int, network_topology: str): """Initialize economic network.""" self.institutions = [Institution() for _ in range(n_institutions)] self.topology = self._build_topology(network_topology) self.dynamics = NetworkDynamics() def simulate_contagion(self, initial_shock: torch.Tensor) -> torch.Tensor: """Simulate economic contagion through network.""" propagation = self.dynamics.simulate(initial_shock) systemic_impact = self._assess_impact(propagation) return systemic_impact ``` #### Week 3-4: Adaptive Markets - Market Evolution - Learning Dynamics - Innovation Diffusion - Institutional Adaptation ## Projects ### Market Projects 1. **Trading Strategies** - Portfolio Management - Risk Assessment - Market Making - Arbitrage Detection 2. **Policy Analysis** - Intervention Design - Impact Assessment - Stability Analysis - Welfare Evaluation ### Application Projects 1. **Financial Systems** - Market Microstructure - Systemic Risk - Crisis Prediction - Regulatory Design 2. **Economic Planning** - Resource Allocation - Market Design - Policy Optimization - Institutional Design ## Resources ### Academic Resources 1. **Research Papers** - Economic Theory - Market Microstructure - Financial Economics - Behavioral Finance 2. **Books** - Market Dynamics - Economic Policy - Financial Theory - Complex Systems ### Technical Resources 1. **Software Tools** - Economic Modeling - Market Simulation - Risk Analysis - Portfolio Management 2. **Data Resources** - Market Data - Economic Indicators - Financial Time Series - Policy Databases ## Next Steps ### Advanced Topics 1. [[market_microstructure_learning_path|Market Microstructure]] 2. [[financial_economics_learning_path|Financial Economics]] 3. [[economic_policy_learning_path|Economic Policy]] ### Research Directions 1. [[research_guides/market_dynamics|Market Dynamics Research]] 2. [[research_guides/economic_policy|Economic Policy Research]] 3. [[research_guides/financial_systems|Financial Systems Research]]