A full-scope simulation system, modeled on real-world renewable energy (wind, solar, energy storage) equipment and systems, provides comprehensive training in renewable energy plant operations, fault handling, and maintenance. The renewable energy digital twin system adheres to the principles of "visualization, panoramic integration, and intelligence", enabling panoramic monitoring, real-time perception, autonomous inspection, health assessment, risk prediction, and remote interaction of equipment. This enhances renewable energy plants' risk prevention capabilities and refined, lean operation and maintenance practices.
The renewable energy simulation training system features algorithmic models and 3D interfaces that mirror real-world systems in both visual effects and operational mechanics. This allows trainees to perform various tasks in the simulated environment as if they were working on-site, creating an immersive experience that enhances practical operational skills.
The system trains station operators in routine operations, real-time monitoring, outdoor equipment inspection, anomaly identification, and the ability to analyze, diagnose, and resolve faults. This strengthens on-site safety management capabilities.
The simulation system delivers stable performance, practical functionality, and ease of maintenance. It is highly adaptable, modifiable, and expandable. Built on a self-developed simulation platform, the system ensures adaptability, openness, scalability, and maintainability.
Guided by the principles of "visualization, panoramic integration, and intelligence", the system establishes a unified digital twin-driven smart operation and maintenance framework for renewable energy plants. It delivers intelligent facilities equipped with digital modeling, holographic sensing, ubiquitous connectivity, autonomous alerts, and seamless interaction. These capabilities enable panoramic monitoring, real-time status tracking, self-guided inspections, automated health evaluation, proactive risk forecasting, and remote collaborative control, significantly enhancing plants' risk resilience and precision-driven operational efficiency. The outcome is safer maintenance protocols, optimized resource allocation, and streamlined management processes.