Economic MPC
Economic MPC
Model Predictive Control that optimizes economic objectives rather than tracking performance, focusing on profit maximization and cost minimization in process industries.
Family: Model Predictive Control Status: š Planned
Need Help Understanding This Algorithm?
Overview
Economic MPC extends the predictive control framework to optimize economic objectives rather than traditional tracking performance. Unlike standard MPC, which focuses on minimizing tracking errors and control effort, Economic MPC directly optimizes economic metrics such as profit, cost, energy consumption, or resource utilization.
This approach is particularly valuable in process industries where economic performance is the primary concern. Economic MPC can handle complex economic objectives, market conditions, and operational constraints while maintaining system stability and safety. The key challenge is to balance economic optimization with system stability and constraint satisfaction.
Mathematical Formulation¶
š§® Ask ChatGPT about Mathematical Formulation
Key Properties
Economic Optimization
min Σ L_econ(x,u,d)
Direct optimization of economic objectives
Market Integration
L_econ = f(prices, costs, demand)
Incorporates market conditions and forecasts
Multi-objective
L_econ = αāLā + αāLā + ...
Can combine multiple economic objectives
Key Properties¶
š Ask ChatGPT about Key Properties
-
Economic Focus
Optimizes economic objectives rather than tracking performance
-
Market Integration
Incorporates market prices, demand forecasts, and economic conditions
-
Multi-objective Optimization
Can handle multiple conflicting economic objectives
-
Stability Considerations
Must ensure system stability while optimizing economics
-
Constraint Handling
Maintains operational and safety constraints
Implementation Approaches¶
š» Ask ChatGPT about Implementation
Standard Economic MPC implementation with economic stage cost
Complexity:
- Time: O(N³)
- Space: O(N²)
Advantages
-
Direct optimization of economic objectives
-
Incorporates market conditions and forecasts
-
Handles multiple economic objectives
-
Maintains operational constraints
Disadvantages
-
May not guarantee stability without additional terms
-
Requires accurate economic models
-
Complex tuning of economic parameters
-
May be sensitive to market fluctuations
Complete Implementation
The full implementation with error handling, comprehensive testing, and additional variants is available in the source code:
-
Main implementation with economic optimization:
src/algokit/mpc/economic_mpc.py
-
Comprehensive test suite including economic performance tests:
tests/unit/mpc/test_economic_mpc.py
Complexity Analysis¶
š Ask ChatGPT about Complexity
Time & Space Complexity Comparison
Approach | Time Complexity | Space Complexity | Notes |
---|---|---|---|
Basic Economic MPC | O(N³) | O(N²) | Complexity depends on prediction horizon N and system dimensions |
Performance Considerations
-
Economic optimization requires real-time solution
-
Computational complexity scales with prediction horizon
-
Memory requirements scale with system dimensions
Use Cases & Applications¶
š Ask ChatGPT about Applications
Application Categories
Process Industries
-
Chemical Plants: Profit maximization in reactor control
-
Oil Refineries: Energy optimization in distillation columns
-
Power Plants: Economic dispatch and load following
-
Manufacturing: Production optimization with market demand
Energy Systems
-
Smart Grids: Economic optimization of power generation and distribution
-
Renewable Energy: Profit maximization with market prices
-
Battery Management: Economic optimization of charging and discharging
-
Microgrids: Economic operation of distributed energy resources
Automotive Systems
-
Hybrid Vehicles: Fuel economy optimization
-
Electric Vehicles: Energy cost minimization
-
Fleet Management: Route optimization for cost reduction
-
Autonomous Vehicles: Energy-efficient path planning
Supply Chain Management
-
Inventory Control: Cost minimization with demand forecasting
-
Production Planning: Profit maximization with capacity constraints
-
Logistics: Transportation cost optimization
-
Resource Allocation: Optimal resource utilization
Financial Systems
-
Portfolio Management: Risk-adjusted return optimization
-
Trading Systems: Profit maximization with risk constraints
-
Insurance: Premium optimization with risk assessment
-
Banking: Loan portfolio optimization
Educational Value
-
Control Theory: Economic optimization in control systems
-
Optimization: Multi-objective optimization and economic modeling
-
System Analysis: Economic performance metrics and trade-offs
-
Real-time Systems: Implementation of economic optimization algorithms
References & Further Reading¶
:material-book: Core Textbooks
:material-library: Economic MPC Theory
:material-web: Online Resources
:material-code-tags: Implementation & Practice
Interactive Learning
Try implementing the different approaches yourself! This progression will give you deep insight into the algorithm's principles and applications.
Pro Tip: Start with the simplest implementation and gradually work your way up to more complex variants.
Need More Help? Ask ChatGPT!
Navigation¶
Related Algorithms in Model Predictive Control:
-
Distributed MPC - Model Predictive Control for large-scale systems using distributed optimization and coordination between multiple local controllers to achieve global objectives.
-
Robust MPC - Model Predictive Control that handles model uncertainty and disturbances through robust optimization techniques to ensure constraint satisfaction and stability.
-
Linear MPC - Model Predictive Control for linear time-invariant systems formulated as a Quadratic Programming problem with efficient real-time solution.
-
Nonlinear MPC - Model Predictive Control for nonlinear systems using Sequential Quadratic Programming to handle complex dynamics and constraints.
-
Model Predictive Control - Advanced control strategy that uses system models to predict future behavior and optimize control actions over a finite horizon while handling constraints.
-
Learning MPC - Model Predictive Control that learns system dynamics and improves performance through data-driven approaches, combining machine learning with predictive control.