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| title | type | status | created | complexity | processing_priority | tags | semantic_relations | |||||||||||||||||||||||||
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| Active Inference in Economic Systems Learning Path | learning_path | stable | 2024-03-15 | advanced | 1 | 
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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
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
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
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
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
- 
Trading Strategies - Portfolio Management
- Risk Assessment
- Market Making
- Arbitrage Detection
 
- 
Policy Analysis - Intervention Design
- Impact Assessment
- Stability Analysis
- Welfare Evaluation
 
Application Projects
- 
Financial Systems - Market Microstructure
- Systemic Risk
- Crisis Prediction
- Regulatory Design
 
- 
Economic Planning - Resource Allocation
- Market Design
- Policy Optimization
- Institutional Design
 
Resources
Academic Resources
- 
Research Papers - Economic Theory
- Market Microstructure
- Financial Economics
- Behavioral Finance
 
- 
Books - Market Dynamics
- Economic Policy
- Financial Theory
- Complex Systems
 
Technical Resources
- 
Software Tools - Economic Modeling
- Market Simulation
- Risk Analysis
- Portfolio Management
 
- 
Data Resources - Market Data
- Economic Indicators
- Financial Time Series
- Policy Databases
 
