Page 499 - AI for Good Innovate for Impact
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AI for Good Innovate for Impact



               2      Use Case Description


               2�1     Description                                                                                  4.5: Manufacturing


               Intended Use

               This case applies deep reinforcement learning to enhance power system dispatching, focusing
               on reducing transmission section flows while maintaining safety constraints.


               Problem to Solve

               Current dispatcher's empirical adjustments introduce subjectivity, limit scenario complexity,
               prolong response times, and hinder multi-objective optimization. Growing renewable
               uncertainties exacerbate these challenges.

               Limitations of Existing Solutions

               Traditional methods are constrained by dispatchers' inconsistent expertise, multi-objective
               control complexity in multivariable optimization, and real-time operational time constraints,
               resulting in delayed and suboptimal decision-making.

               AI Methodology


               The integration of MLP's high-dimensional state modeling with DDPG's continuous control
               enables adaptive section regulation through dynamic pattern learning while preserving stability
               constraints.

               Benefits of the AI-Based Approach

               •    Efficiency: Decision-making processes can be accelerated from minute level decisions to
                    second.
               •    Versatility: More complex scenarios can be generalized.
               •    Multi-Objective: System balance, transmission limits, renewable energy integration, and
                    operational costs can be simultaneously optimized through coordinated controls.
               •    Scalability: Evolving grid complexities and constraints can be dynamically accommodated
                    through AI-driven adaptation mechanisms.

               Drawbacks of the AI-Based Approach

               •    Safety Compliance: AI systems may compromise safety requirements under generation/
                    load uncertainties.
               •    Model Robustness: Incomplete knowledge of physics may reduce model robustness and
                    generalization capabilities.
               •    Data Dependency: Inaccessibility of high-quality data for model training demands may
                    limit practical application effect.

               By embedding physical knowledge into AI models, these limitations can be addressed,
               enhancing the robustness and reliability of the system.










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