The component adopts N-type TOPCon technology and excels in performance, power, energy density, and reliability Comprehensive enhancement, component power of 635W, efficiency of 23.5%.
The component adopts N-type TOPCon technology and excels in performance, power, energy density, and reliability Comprehensive enhancement, component power of 610W, efficiency of 23.6%.
On traditional physical sensing systems, corresponding digital models are run and digital twin technology is used to effectively detect the operating status of the entire wind turbine under the drive of sensing data, turning warning into prevention and prolonging the lifespan and increasing profits of the wind turbine. The wind farm digital twin enables clusters to collaborate with each other, achieving optimal wind farm level collaboration. By real-time response and risk avoidance, the overall performance of the wind turbine can be improved, and wind storage can be combined to better respond to scheduling and bring more benefits in electricity trading. Thousands of real operating wind turbines can continuously import a large amount of instance verification data into the cloud, optimize design, achieve the evolution of wind turbine groups, further enhance power generation capacity, and continuously reduce electricity costs per kilowatt hour.
Smart wind power has established a testing and verification capability system covering five levels: materials, components, systems, complete machines, and batch fleet testing. All test data and product development form a closed loop, further verifying the continuous optimization of design simulation models and becoming a strong data foundation for designing wind turbines.
An inverter is an electronic device that converts direct current into alternating current. Widely used in fields such as photovoltaic power generation and energy storage. It can improve energy utilization efficiency, provide stable AC power for various electrical appliances, and play an important role in the new energy industry.