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An adaptive random search for short term generation scheduling with network constraints.
J A Marmolejo1, Jonás Velasco2, Héctor J Selley1
1Faculty of Engineering, Anahuac University, Mexico-City, Mexico.
Plos One
|February 25, 2017
Summary
This study introduces an adaptive random search for short-term generation scheduling, optimizing thermal unit startup/shutdown considering network constraints. The method significantly reduces computational effort compared to commercial solvers.
Area of Science:
- Electrical Engineering
- Operations Research
Background:
- Short-term generation scheduling is crucial for power system stability.
- Integrating network constraints (capacity, losses) complicates optimization.
- Existing methods may face computational challenges with complex models.
Purpose of the Study:
- To develop an efficient heuristic for short-term generation scheduling.
- To incorporate transmission network constraints into the scheduling model.
- To improve computational efficiency over traditional optimization solvers.
Main Methods:
- An adaptive random search heuristic based on Markov Chain Monte Carlo.
- Population-based approach with adaptive noise level control for exploration/exploitation.
- Integration of a local search mechanism to refine solutions.
Main Results:
- The proposed heuristic effectively schedules thermal units under network constraints.
- Demonstrated significant reduction in computational effort compared to a commercial solver.
- Validated performance and robustness across multiple test systems.
Conclusions:
- The adaptive random search offers a computationally efficient and robust solution for short-term generation scheduling.
- The method successfully handles network constraints, including capacity limits and line losses.
- This approach presents a viable alternative to complex commercial optimization solvers for power systems.
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