A control method of a thermal power plant intelligent circulating water energy-saving optimization system
By adopting a smart circulating water energy-saving optimization system control method based on the Transformer architecture, the control accuracy and energy consumption problems of the circulating water system in thermal power plants under complex operating conditions are solved. This achieves efficient cold-end system management and multi-objective optimization, thereby improving the operating efficiency and safety of thermal power plants.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- YUNNAN FLUID PLANNING & RES INST CO LTD
- Filing Date
- 2025-09-17
- Publication Date
- 2026-07-21
AI Technical Summary
Traditional control methods for circulating water systems in thermal power plants are ill-suited to complex and ever-changing operating conditions and environmental conditions. They suffer from low control precision, high energy consumption, poor system coordination, lack of real-time perception and prediction capabilities of external environmental factors, simplistic control strategies, lack of deep learning and intelligent decision-making capabilities, and failure to achieve system-level collaborative optimization and multi-objective dynamic balance.
A Transformer-based intelligent optimization control method is adopted. By integrating smart weather system and local microclimate data, tokenizing representation and calculating associated weights, optimizing cooling towers and generating robust operation strategies, and conducting multi-objective collaborative optimization and intelligent decision-making, a joint regulation mechanism is established to form a closed-loop control system of turbine-cooling tower-circulating water pump, thereby achieving high-precision prediction and control of the cold end system of thermal power plants.
It enables high-precision prediction and control of the cold-end system of thermal power plants, reduces the unit heat rate and auxiliary power consumption, adapts to different seasonal operating conditions, provides transparent explanation of the decision-making process, has multi-objective dynamic balance capability, ensures system stability and safety, and reduces the difficulty of engineering implementation.
Smart Images

Figure CN120891745B_ABST